Grade 6
Module 1: Ratios and Unit Rates
| Eureka Math | Desmos Math 6–A1 |
| Topic A Representing and Reasoning About Ratios | |
| Lesson 1: Ratios Lesson 2: Ratios | Unit 2 Lesson 1: Pizza Maker [Free lesson] Lesson 2: Ratio Rounds (Print available) |
| Lesson 3: Equivalent Ratios Lesson 4: Equivalent Ratios | Unit 2 Lesson 3: Rice Ratios Lesson 4: Fruit Lab [Free lesson] Lesson 5: Balancing Act Lesson 7: Mixing Paint, Part 1 Lesson 8 World Records (Print available) Lesson 11 Community Life (Print available) Practice Day 1 (Print available) |
| Lesson 5: Solving Problems by Finding Equivalent Ratios Lesson 6: Solving Problems by Finding Equivalent Ratios | Unit 2 Lesson 5 Balancing Act |
| Lesson 7: Associated Ratios and the Value of a Ratio Lesson 8: Equivalent Ratios Defined Through the Value of a Ratio | Unit 2 Lesson 6: Product Prices (Print available) Lesson 7: Mixing Paint, Part 1 |
| Topic B Collections of Equivalent Ratios | |
| Lesson 9: Tables of Equivalent Ratios | Unit 2 Lesson 6: Product Prices (Print available) Lesson 7: Mixing Paint, Part 1 |
| Lesson 10: The Structure of Ratio Tables-Additive and Multiplicative | Unit 2 Lesson 10: Balloons Lesson 11: Community Life (Print available) |
| Lesson 11: Comparing Ratios Using Ratio Tables | Unit 2 Lesson 10: Balloons |
| Lesson 12: From Ratio Tables to Double Number Line Diagrams | Unit 2 Lesson 6: Product Prices (Print available) Lesson 8: World Records (Print available) Lesson 12: Mixing Paint, Part 2 Lesson 14: Lunch Waste (Print available) Practice Day 2 (Print available) |
| Lesson 13: From Ratio Tables to Equations Using the Value of a Ratio | |
| Lesson 14: From Ratio Tables, Equations, and Double Number Line Diagrams to Plots on the Coordinate Plane | |
| Lesson 15: A Synthesis of Representations of Equivalent Ratio Collections | |
| Topic C Unit Rates | |
| Lesson 16: From Ratio to Rates | Unit 2 Lesson 8: World Records (Print available) Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] Lesson 6: Welcome to the Robot Factory |
| Lesson 17: From Rates to Ratios | |
| Lesson 18: Finding a Rate by Dividing Two Quantities | Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] Lesson 6: Welcome to the Robot Factory Lesson 7: More Soft Serve |
| Lesson 19: Comparison Shopping-Unit Price and Related Measurement Conversions Lesson 20: Comparison Shopping-Unit Price and Related Measurement Conversions Lesson 21: Getting the Job Done—Speed, Work, and Measurement Units Lesson 22: Getting the Job Done—Speed, Work, and Measurement Units | Unit 3 Lesson 2: Counting Classrooms Lesson 3: Pen Pals |
| Lesson 23: Problem-Solving Using Rates, Unit Rates, and Conversions. | Unit 3 Lesson 13: A Country as a Village |
| Topic D Percent | |
| Lesson 24: Percent and Rates per 100 | Unit 3 Lesson 8: Lucky Duckies [Free lesson] Lesson 9: Bicycle Goals |
| Lesson 25: A Fraction as a Percent | |
| Lesson 26: Percent of a Quantity. | Unit 3 Lesson 10: What´s Missing? (Print available) Lesson 11: Cost Breakdown |
| Lesson 27: Solving Percent Problems Lesson 28: Solving Percent Problems Lesson 29: Solving Percent Problems | Unit 3 Lesson 10: What´s Missing? (Print available) Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Lesson 13: A Country as a Village Practice Day 2 (Print available) |
Module 2: Arithmetic Operations Including Division of Fractions
| Lesson 1: Interpreting Division of a Fraction by a Whole Number—Visual Models. | Unit 4 Lesson 2: Making Connections (Print available) |
| Lesson 2: Interpreting Division of a Whole Number by a Fraction —Visual Models. | Unit 4 Lesson 1: Cookie Cutter Lesson 3: Flour Planner [Free lesson] Lesson 4: Flower Planters Lesson 5: Garden Bricks (Print available) |
| Lesson 3: Interpreting and Computing Division of a Fraction by a Fraction—More Models Lesson 4: Interpreting and Computing Division of a Fraction by a Fraction—More Models | Unit 4 Lesson 5: Garden Bricks Lesson 6: Fill the Gap [Free lesson] Lesson 7: Break It Down Lesson 8: Potting Soil Lesson 9: Division Challenges Lesson 10: Swap Meet (Print available) Practice Day |
| Lesson 5: Creating Division Stories. | |
| Lesson 6: More Division Stories. | |
| Lesson 7: The Relationship Between Visual Fraction Models and Equations | |
| Lesson 8: Dividing Fractions and Mixed Numbers | Unit 4 Lesson 5: Garden Bricks (Print available) Lesson 6: Fill the Gap [Free lesson] |
| Topic B Multi-Digit Decimal Operations—Adding, Subtracting, and Multiplying | |
| Lesson 9: Sums and Differences of Decimals | Unit 5 Lesson 2: Decimal Diagrams [Free lesson] Lesson 3: Fruit by the Pound Lesson 4: Missing Digits |
| Lesson 10: The Distributive Property and the Products of Decimals | Unit 5 Lesson 5: Decimal Multiplication Lesson 6: Multiplying with Areas Lesson 7: Multiplication Methods (Print available) |
| Lesson 11: Fraction Multiplication and the Products of Decimals | Unit 5 Lesson 7: Multiplication Methods (Print available) |
| Topic C Dividing Whole Numbers and Decimals | |
| Lesson 12: Estimating Digits in a Quotient | |
| Lesson 13: Dividing Multi-Digit Numbers Using the Algorithm | Unit 5 Lesson 9: Long Division Launch Practice Day 1 (Print available) Practice Day 2 (Print available) |
| Lesson 14: The Division Algorithm—Converting Decimal Division into Whole Number Division Using Fractions. | |
| Lesson 15: The Division Algorithm—Converting Decimal Division into Whole Number Division Using Mental Math | |
| Topic D Number Theory—Thinking Logically About Multiplicative Arithmetic | |
| Lesson 16: Even and Odd Numbers | |
| Lesson 17: Divisibility Tests for 3 and 9 | |
| Lesson 18: Least Common Multiple and Greatest Common Factor | Unit 5 Lesson 14: Common Multiples Lesson 15: Common Factors Practice Day 2 (Print available) |
| Lesson 19: The Euclidean Algorithm as an Application of the Long Division Algorithm |
Module 3: Rational Numbers
| Lesson 1: Positive and Negative Numbers on the Number Line—Opposite Direction and Value | Unit 7Lesson 2: Digging Deeper |
| Lesson 2: Real-World Positive and Negative Numbers and Zero. Lesson 3: Real-World Positive and Negative Numbers and Zero. | Unit 7 Lesson 4: Sub-Zero |
| Lesson 4: The Opposite of a Number Lesson 5: The Opposite of a Number’s Opposite Lesson 6: Rational Numbers on the Number Line | Unit 7Lesson 2: Digging Deeper |
| Topic B Order and Absolute Value | |
| Lesson 7: Ordering Integers and Other Rational Numbers Lesson 8: Ordering Integers and Other Rational Numbers Lesson 9: Comparing Integers and Other Rational Numbers | Unit 7Lesson 3: Order in the Class (Print available) [Free lesson] |
| Lesson 10: Writing and Interpreting Inequality Statements Involving Rational Numbers | |
| Lesson 11: Absolute Value—Magnitude and Distance Lesson 12: The Relationship Between Absolute Value and Order | Unit 7Lesson 5: Distance on the Number Line |
| Lesson 13: Statements of Order in the Real World. | |
| Topic C Rational Numbers and the Coordinate Plane | |
| Lesson 14: Ordered Pairs Lesson 15: Locating Ordered Pairs on the Coordinate Plane | Unit 7Lesson 9: Sand Dollar SearchLesson 10: The A-maze-ing Coordinate PlaneLesson 11: Polygon Maker |
| Lesson 16: Symmetry in the Coordinate Plane. | |
| Lesson 17: Drawing the Coordinate Plane and Points on the Plane | Lesson 10: The A-maze-ing Coordinate Plane |
| Lesson 18: Distance on the Coordinate Plane | Unit 7Lesson 11: Polygon Maker |
| Lesson 19: Problem Solving and the Coordinate Plane | Unit 7Lesson 12: Graph Telephone (Print available)Practice Day 2 (Print available) |
Module 4: Expressions and Equations
| Topic A Relationships of the Operations | |
| Lesson 1: The Relationship of Addition and Subtraction | |
| Lesson 2: The Relationship of Multiplication and Division | |
| Lesson 3: The Relationship of Multiplication and Addition. | |
| Lesson 4: The Relationship of Division and Subtraction | |
| Topic B Special Notations of Operations | |
| Lesson 5: Exponents | Unit 6Lesson 10: PowersLesson 11: Exponent Expressions (Print available)Practice Day 2 (Print available) |
| Lesson 6: The Order of Operations | |
| Topic C Replacing Letters and Numbers | |
| Lesson 7: Replacing Letters with Numbers Lesson 8: Replacing Numbers with Letters | Unit 6Lesson 7: Border TilesLesson 12: Squares and Cubes |
| Topic D Expanding, Factoring, and Distributing Expressions | |
| Lesson 9: Writing Addition and Subtraction Expressions | Unit 6Lesson 6: Vari-applesLesson 8: Products and Sums [Free lesson]Lesson 9: Products, Sums, and Differences |
| Lesson 10: Writing and Expanding Multiplication Expressions Lesson 11: Factoring Expressions Lesson 12: Distributing Expressions | Unit 6Lesson 8: Products and Sums [Free lesson]Lesson 9: Products, Sums, and Differences |
| Lesson 13: Writing Division Expressions | |
| Lesson 14: Writing Division Expressions | |
| Topic E Expressing Operations in Algebraic Form | |
| Lesson 15: Read Expressions in Which Letters Stand for Numbers Lesson 16: Write Expressions in Which Letters Stand for Numbers Lesson 17: Write Expressions in Which Letters Stand for Numbers | Unit 6Lesson 6: Vari-applesLesson 7: Border Tiles |
| Topic F Writing and Evaluating Expressions and Formulas | |
| Lesson 18: Writing and Evaluating Expressions—Addition and Subtraction Lesson 19: Substituting to Evaluate Addition and Subtraction Expressions Lesson 20: Writing and Evaluating Expressions—Multiplication and Division Lesson 21: Writing and Evaluating Expressions—Multiplication and Addition | Unit 6Lesson 7: Border TilesLesson 8: Products and Sums [Free lesson]Lesson 9: Products, Sums, and DifferencesLesson 12: Squares and Cubes |
| Lesson 22: Writing and Evaluating Expressions—Exponents | Unit 6Lesson 10: PowersLesson 11: Exponent Expressions (Print available)Lesson 12: Squares and CubesPractice Day 2 (Print available) |
| Topic G Solving Equations | |
| Lesson 23: True and False Number Sentences Lesson 24: True and False Number Sentences | Unit 6Lesson 1: Weight for It [Free lesson] |
| Lesson 25: Finding Solutions to Make Equations True | Unit 6Lesson 1: Weight for It [Free lesson]Lesson 2: Five Equations |
| Lesson 26: One-Step Equations—Addition and Subtraction | Unit 6Lesson 1: Weight for It [Free lesson]Lesson 2: Five EquationsLesson 3: Hanging Around |
| Lesson 27: One-Step Equations—Multiplication and Division Lesson 28: Two-Step Problems—All Operations Lesson 29: Multi-Step Problems—All Operations | Unit 6Lesson 3: Hanging AroundLesson 4: Hanging It UpLesson 5: Swap and Solve |
| Topic H Applications of Equations | |
| Lesson 30: One-Step Problems in the Real World Lesson 31: Problems in Mathematical TermsLesson Lesson 32: Multi-Step Problems in the Real World | Unit 6Lesson 3: Hanging AroundLesson 4: Hanging It UpLesson 5: Swap and SolvePractice Day 1 (Print available) |
| Lesson 33: From Equations to Inequalities Lesson 34: Writing and Graphing Inequalities in Real-World Problems | Unit 7Lesson 6: Tunnel Travel [Free lesson]Lesson 7: Comparing WeightsLesson 8: Shira´s Solutions |
Module 5: Area, Surface Area, and Volume Problems
| Topic A: Area of Triangles, Quadrilaterals, and Polygons | |
| Lesson 1: The Area of Parallelograms Through Rectangle Facts | Unit 1Lesson 3: Exploring Parallelograms (Print available) [Free lesson]Lesson 4: Off the Grid |
| Lesson 2: The Area of Right Triangles Lesson 3: The Area of Acute Triangles Using Height and Base | Unit 1Lesson 5: Exploring Triangles (Print available)Lesson 6: Triangles and ParallelogramsLesson 7: Off the Grid, Part 2 |
| Lesson 4: The Area of All Triangles Using Height and Base | Unit 1Lesson 6: Triangles and ParallelogramsLesson 7: Off the Grid, Part 2 |
| Lesson 5: The Area of Polygons Through Composition and Decomposition | Unit 1Lesson 2: LettersLesson 8: Pile of PolygonsPractice Day 1 (Print available) |
| Lesson 6: Area in the Real World | |
| Topic B Polygons on the Coordinate Plane | |
| Lesson 7: Distance on the Coordinate Plane | Unit 1Lesson 8: Pile of Polygons |
| Lesson 8: Drawing Polygons in the Coordinate Plane | Unit 7Lesson 11: Polygon Maker |
| Lesson 9: Determining Perimeter and Area of Polygons on the Coordinate Plane | Unit 1Lesson 8: Pile of Polygons |
| Lesson 10: Distance, Perimeter, and Area in the Real World | |
| Topic C Volume of Right Rectangular Prisms | |
| Lesson 11: Volume with Fractional Edge Lengths and Unit Cubes | Unit 4Lesson 11: Classroom ComparisonsLesson 12: Puzzling Areas (Print available) [Free lesson]Lesson 13: Volume ChallengesLesson 14: Planter Planner (Print available) |
| Lesson 12: From Unit Cubes to the Formulas for Volume | |
| Lesson 13: The Formulas for Volume | |
| Lesson 14: Volume in the Real World | Unit 4Lesson 14: Planter Planner (Print available) |
| Topic D Nets and Surface Area | |
| Lesson 15: Representing Three-Dimensional Figures Using Nets Lesson 16: Constructing Nets Lesson 17: From Nets to Surface Area | Unit 1Lesson 10: Plenty of PolyhedraLesson 11: Nothing But Nets (Print available)Lesson 13: Take It To Go (Print available) |
| Lesson 18: Determining Surface Area of Three-Dimensional Figures | Unit 1Lesson 9: Renata´s Stickers [Free lesson]Lesson 10: Plenty of PolyhedraLesson 11: Nothing But Nets (Print available)Lesson 13: Take It To Go (Print available)Practice Day 2 (Print available) |
| Lesson 19: Surface Area and Volume in the Real World | |
| Lesson 19a: Addendum Lesson for Modeling―Applying Surface Area and Volume to Aquariums | |
| Lesson 3: The Area of Acute Triangles Using Height and Base | Unit 1Lesson 5 Exploring TrianglesLesson 6 Triangles and ParallelogramsLesson 7 Off the Grid, Part 2 |
Module 6: Statistics
| Topic A Understanding Distributions | |
| Lesson 1: Posing Statistical Questions | Unit 8 Lesson 1: Screen TimeLesson 2: Dot Plots |
| Lesson 2: Displaying a Data Distribution Lesson 3: Creating a Dot Plot | Unit 8 Lesson 2: Dot PlotsLesson 3: Minimum Wage (Print available) [Free lesson]Lesson 4: Lots More Dots |
| Lesson 4: Creating a Histogram Lesson 5: Describing a Distribution Displayed in a Histogram | Unit 8Lesson 5: The Plot Thickens [Free lesson]Lesson 6: DIY Histograms (Print available) |
| Topic B Summarizing a Distribution That Is Approximately Symmetric Using the Mean and Mean Absolute Deviation | |
| Lesson 6: Describing the Center of a Distribution Using the Mean Lesson 7: The Mean as a Balance Point | Unit 8Lesson 7: Snack Time |
| Lesson 8: Variability in a Data Distribution | Unit 8Lesson 8: Pop It! |
| Topic 9: The Mean Absolute Deviation (MAD). | Unit 8Lesson 9: Hoops |
| Lesson 10: Describing Distributions Using the Mean and MAD Lesson 11: Describing Distributions Using the Mean and MAD | Unit 8Lesson 10 Hollywood Part 1Practice Day 1 (Print available) |
| Topic C Summarizing a Distribution That Is Skewed Using the Median and the Interquartile Range | |
| Lesson 12: Describing the Center of a Distribution Using the Median | Unit 8Lesson 11: Toy Cars [Free lesson]Lesson 12: In the News |
| Lesson 13: Describing Variability Using the Interquartile Range (IQR) | Unit 8Lesson 13: Pumpkin Patch |
| Lesson 14: Summarizing a Distribution Using a Box Plot Lesson 15: More Practice with Box Plots | Unit 8Lesson 14: Car, Plane, Bus, or Train? (Print available) |
| Lesson 16: Understanding Box Plots | Unit 8Lesson 14: Car, Plane, Bus, or Train? (Print available)Lesson 15: Hollywood Part 2Lesson 16: Hollywood Part 3 (Print available)Practice Day 2 (Print available) |
| Topic D Summarizing and Describing Distributions | |
| Lesson 17: Developing a Statistical Project | |
| Lesson 18: Connecting Graphical Representations and Numerical Summaries | Unit 8Lesson 5: The Plot Thickens [Free lesson] |
| Lesson 19: Comparing Data Distributions | Unit 8Lesson 15: Hollywood Part 2 |
| Lesson 20: Describing Center, Variability, and Shape of a Data Distribution from a Graphical Representation Lesson 21: Summarizing a Data Distribution by Describing Center, Variability, and Shape | Unit 8Lesson 16: Hollywood Part 3 (Print available) |
| Lesson 22: Presenting a Summary of a Statistical Project | |
| Lesson 3: Creating a Dot Plot | Unit 8Lesson 2 Dot PlotsLesson 3 Minimum Wage [Free lesson]Lesson 4 Lots More Dots |
Grade 7
Module 1: Ratios and Proportional Relationships
Module 2: Rational Numbers
| Topic A Addition and Subtraction of Integers and Rational Numbers | |
| Lesson 1: Opposite Quantities Combine to Make Zero | Unit 5 Lesson 1: Floats and Anchors [Free lesson] |
| Lesson 2: Using the Number Line to Model the Addition of Integers Lesson 3: Understanding Addition of Integers Lesson 4: Efficiently Adding Integers and Other Rational Numbers Lesson 5: Understanding Subtraction of Integers and Other Rational Numbers | Unit 5 Lesson 2: More Floats and Anchors Lesson 4: Draw Your Own (Print available) [Free lesson] Lesson 5: Number Puzzles Lesson 10: Integer Puzzles [Free lesson] Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) |
| Lesson 6: The Distance Between Two Rational Numbers | |
| Lesson 7: Addition and Subtraction of Rational Numbers | Unit 5 Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) [Free lesson] Lesson 5: Number Puzzles Lesson 10; Integer Puzzles [Free lesson] Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) Practice Day 1 (Print available) |
| Lesson 8: Applying the Properties of Operations to Add and Subtract Rational Numbers | |
| Lesson 9: Applying the Properties of Operations to Add and Subtract Rational Numbers | |
| Topic B Multiplication and Division of Integers and Rational Numbers | |
| Lesson 10: Understanding Multiplication of Integers Lesson 11: Develop Rules for Multiplying Signed Numbers | Unit 5 Lesson 6: Floating in Groups Lesson 7: Back in Time Lesson 8: Speeding Turtles Lesson 10: Integer Puzzles [Free lesson] Practice Day 2 (Print available) |
| Lesson 12: Division of Integers | Unit 5 Lesson 8: Speeding Turtles |
| Lesson 13: Converting Between Fractions and Decimals Using Equivalent Fractions | |
| Lesson 14: Converting Rational Numbers to Decimals Using Long Division | Unit 4 Lesson 13: Decimal Deep Dive (Print available) |
| Lesson 15: Multiplication and Division of Rational Numbers | Unit 5 Lesson 8: Speeding Turtles Lesson 10: Integer Puzzles [Free lesson] Lesson 12: Arctic Sea Ice (Print available) Lesson 13: Solar Panels and More (Print available) Practice Day 2 (Print available) |
| Lesson 16: Applying the Properties of Operations to Multiply and Divide Rational Numbers | |
| Topic C Applying Operations with Rational Numbers to Expressions and Equations | |
| Lesson 17: Comparing Tape Diagram Solutions to Algebraic Solutions | Unit 6 Lesson 2: Smudged Receipts Lesson 3: Equations Lesson 4: Seeing Structure (Print available) |
| Lesson 18: Writing, Evaluating, and Finding Equivalent Expressions with Rational Numbers Lesson 19: Writing, Evaluating, and Finding Equivalent Expressions with Rational Numbers | Unit 5 Lesson 9 Expressions |
| Lesson 20: Investments—Performing Operations with Rational Numbers | |
| Lesson 21: If-Then Moves with Integer Number Cards | |
| Lesson 22: Solving Equations Using Algebra Lesson 23: Solving Equations Using Algebra | Unit 6 Lesson 3: Equations Lesson 4: Seeing Structure (Print available) Lesson 6: Balancing Equations Lesson 7: Keeping It True (Print available) Lesson 12: Community Day (Print available) Unit 5 Lesson 3: Bumpers |
Module 3: Expressions and Equations
Module 4: Percent and Proportional Relationships
Module 5: Statistics and Probability
| Topic A Calculating and Interpreting Probabilities | |
| Lesson 1: Chance Experiments | Unit 8Lesson 1: How Likely? (Print available) [Free lesson]Lesson 2: Prob-bear-bilities [Free lesson]Lesson 3: Mystery Bag |
| Lesson 2: Estimating Probabilities by Collecting Data Lesson 3: Chance Experiments with Equally Likely Outcomes Lesson 4: Calculating Probabilities for Chance Experiments with Equally Likely Outcomes | Unit 8Lesson 3: Mystery BagLesson 4: Spin ClassLesson 5: Is It Fair?Lesson 6: Fair Games |
| Lesson 5: Chance Experiments with Outcomes That Are Not Equally Likely | Unit 8Lesson 4: Spin ClassLesson 5: Is It Fair?Lesson 6: Fair GamesLesson 7: Weather or Not |
| Lesson 6: Using Tree Diagrams to Represent a Sample Space and to Calculate Probabilities | Unit 8Lesson 6: Fair GamesLesson 7: Weather or Not |
| Lesson 7: Calculating Probabilities of Compound Events | Unit 8Lesson 8: Simulate It! (Print available)Lesson 9: Car, Bike, or Train? (Print available)Practice Day 1 (Print available) |
| Topic B Estimating Probabilities | |
| Lesson 8: The Difference Between Theoretical Probabilities and Estimated Probabilities Lesson 9: Comparing Estimated Probabilities to Probabilities Predicted by a Model | Unit 8Lesson 6: Fair GamesLesson 7: Weather or NotLesson 8: Simulate It! (Print available)Lesson 9: Car, Bike, or Train? (Print available) |
| Lesson 10: Conducting a Simulation to Estimate the Probability of an Event | Unit 8Lesson 7: Weather or NotLesson 8: Simulate It! (Print available)Lesson 9: Car, Bike, or Train? (Print available) |
| Lesson 11: Conducting a Simulation to Estimate the Probability of an Event Lesson 12: Applying Probability to Make Informed Decisions | Unit 8Lesson 7: Weather or NotLesson 8: Simulate It! (Print available) |
| Topic C Random Sampling and Estimating Population Characteristics | |
| Lesson 13: Populations, Samples, and Generalizing from a Sample to a Population | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 10: Crab Island [Free lesson]Lesson 11: HeadlinesLesson 12: Flower Power |
| Lesson 14: Selecting a Sample Lesson 15: Random Sampling Lesson 16: Methods for Selecting a Random Sample | Unit 8Lesson 10: Crab Island [Free lesson]Lesson 11: Headlines |
| Lesson 17: Sampling Variability | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 13: Plots and Samples |
| Lesson 18: Sampling Variability and the Effect of Sample Size Lesson 19: Understanding Variability When Estimating a Population Proportion | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 13: Plots and SamplesLesson 14: School Newspaper (Print available) |
| Lesson 20: Estimating a Population Proportion | |
| Topic D Comparing Populations | |
| Lesson 21: Why Worry About Sampling Variability? | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 13: Plots and SamplesLesson 14: School Newspaper (Print available) |
| Lesson 22: Using Sample Data to Compare the Means of Two or More Populations Lesson 23: Using Sample Data to Compare the Means of Two or More Populations | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 10: Crab Island [Free lesson]Lesson 13: Plots and SamplesLesson 14: School Newspaper (Print available)Lesson 15: Asthma Rates (Print available) |
Module 6: Geometry
| Topic A Unknown Angles | |
| Lesson 1: Complementary and Supplementary Angles | Unit 7Lesson 2: Friendly Angles [Free lesson]Lesson 3: Angle Diagrams |
| Lesson 2: Solving for Unknown Angles Using Equations Lesson 3: Solving for Unknown Angles Using Equations Lesson 4: Solving for Unknown Angles Using Equations | Unit 7Lesson 1: PinwheelsLesson 2: Friendly AnglesLesson 3: Angle DiagramsLesson 4: Missing Measures (Print available) [Free lesson] |
| Topic B Constructing Triangles | |
| Lesson 5: Identical Triangles | Unit 7Lesson 6: Is It Enough?Lesson 7: More Than One |
| Lesson 6: Drawing Geometric Shapes | Unit 7Lesson 6: Is It Enough?Lesson 7: More Than OneLesson 8: Can You Draw It? (Print available) |
| Lesson 7: Drawing Parallelograms | |
| Lesson 8: Drawing Triangles | Unit 7Lesson 5: Can You Build It? [Free lesson]Lesson 6: Is It Enough?Lesson 7: More Than OneLesson 8: Can You Draw It? (Print available)Practice Day 1 (Print available) |
| Lesson 9: Conditions for a Unique Triangle―Three Sides and Two Sides and the Included Lesson 10: Conditions for a Unique Triangle—Two Angles and a Given Side Angle | Unit 7Lesson 8: Can You Draw It? (Print available) |
| Lesson 11: Conditions on Measurements That Determine a Triangle | Unit 7Lesson 5: Can You Build It? [Free lesson]Lesson 6: Is It Enough?Lesson 7: More Than OneLesson 8: Can You Draw It? (Print available)Practice Day 1 (Print available) |
| Lesson 12: Unique Triangles―Two Sides and a Non-Included Angle | |
| Lesson 13: Checking for Identical Triangles Lesson 14: Checking for Identical Triangles | Unit 7Lesson 6: Is It Enough?Lesson 7: More Than OnePractice Day 1 |
| Lesson 15: Using Unique Triangles to Solve Real-World and Mathematical Problems | |
| Topic C Slicing Solids | |
| Lesson 16: Slicing a Right Rectangular Prism with a Plane Lesson 17: Slicing a Right Rectangular Pyramid with a Plane Lesson 18: Slicing on an Angle | Unit 7Lesson 9: Slicing Solids |
| Lesson 19: Understanding Three-Dimensional Figures | |
| Topic D Problems Involving Area and Surface Area | |
| Lesson 20: Real-World Area Problems | Unit 3Lesson 5: Area Strategies |
| Lesson 21: Mathematical Area Problems | Unit 3Lesson 5: Area StrategiesLesson 6: Radius Squares (Print available) |
| Lesson 22: Area Problems with Circular Regions | Unit 3Lesson 5: Area StrategiesLesson 8: Area Challenges [Free lesson] |
| Lesson 23: Surface Area Lesson 24: Surface Area | Unit 7Lesson 12: Surface Area Strategies (Print available)Lesson 13: Popcorn Possibilities |
| Topic E Problems Involving Volume | |
| Lesson 25: Volume of Right Prisms | Unit 7Lesson 10: Simple PrismsLesson 11: More Complicated PrismsLesson 13: Popcorn Possibilities |
| Lesson 26: Volume of Composite Three-Dimensional Objects | Unit 7Lesson 11: More Complicated Prisms |
| Lesson 27: Real-World Volume Problems | Unit 7Lesson 13: Popcorn Possibilities |
Grade 8
Module 1: Integer Exponents and Scientific Notation
| Eureka Math | Desmos Math 6–A1 |
| Topic A Exponential Notation and Properties of Integer Exponents | |
| Lesson 1: Exponential Notation | Unit 7 Lesson 1 Circles [Free lesson]Lesson 2 Combining Exponents |
| Lesson 2: Multiplication of Numbers in Exponential Form Lesson 3: Numbers in Exponential Form Raised to a Power | Unit 7 Lesson 2 Combining ExponentsLesson 3 Power Pairs (Print available) [Free lesson]Lesson 4 Rewriting Powers |
| Lesson 4: Numbers Raised to the Zeroth Power Lesson 5: Negative Exponents and the Laws of Exponents | Unit 7 Lesson 5 Zero and Negative ExponentsLesson 6 Write a Rule (Print available)Practice Day 1 (Print available) |
| Lesson 6: Proofs of Laws of Exponents | |
| Topic B Magnitude and Scientific Notation | |
| Lesson 7: Magnitude | Unit 7 Lesson 7 Scales and Weights |
| Lesson 8: Estimating Quantities | Unit 7 Lesson 7: Scales and WeightsLesson 8: Point ZapperLesson 9: Use Your Powers |
| Lesson 9: Scientific Notation Lesson 10: Operations with Numbers in Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson]Lesson 11: Balance the Scales [Free lesson]Lesson 13: Star Power |
| Lesson 11: Efficacy of Scientific Notation | Unit 7 Lesson 13: Star Power |
| Lesson 12: Choice of Unit | |
| Lesson 13: Comparison of Numbers Written in Scientific Notation and Interpreting Scientific Notation Using Technology | Unit 7 Lesson 13: Star Power Practice Day 2 (Print available) |
Module 2: The Concept of Congruence
| Topic A Definitions and Properties of the Basic Rigid Motions | |
| Lesson 1: Why Move Things Around? Lesson 2: Definition of Translation and Three Basic Properties | Unit 1Lesson 1: Transformers [Free lesson]Lesson 2: Spinning, Flipping, Sliding [Free lesson] |
| Lesson 3: Translating Lines | Unit 1Lesson 1: Transformers [Free lesson]Lesson 2: Spinning, Flipping, Sliding [Free lesson] Unit 3Lesson 6: Translations |
| Lesson 4: Definition of Reflection and Basic Properties Lesson 5: Definition of Rotation and Basic Properties Lesson 6: Rotations of 180 Degrees | Unit 1Lesson 1: Transformers [Free lesson]Lesson 2: Spinning, Flipping, Sliding [Free lesson]Lesson 4: Moving Day (Print available) [Free lesson]Lesson 5: Getting Coordinated |
| Topic B Sequencing the Basic Rigid Motions | |
| Lesson 7: Sequencing Translations Lesson 8: Sequencing Reflections and Translations | Unit 1Lesson 3: Transformation GolfLesson 6: Connecting the Dots [Free lesson] |
| Lesson 9: Sequencing Rotations Lesson 10: Sequences of Rigid Motions | Unit 1Lesson 3: Transformation GolfLesson 6: Connecting the Dots [Free lesson]Lesson 13: Tessellate [Free lesson]Practice Day |
| Topic C Congruence and Angle Relationships | |
| Lesson 11: Definition of Congruence and Some Basic Properties | Unit 1 Lesson 7: Are They the Same?Lesson 8: No Bending, No StretchingLesson 9: Are They Congruent?Practice Day |
| Lesson 12: Angles Associated with Parallel Lines | Unit 1 Lesson 10: Transforming Angles |
| Lesson 13: Angle Sum of a Triangle | Unit 1 Lesson 11: Tearing It Up (Print available) |
| Lesson 14: More on the Angles of a Triangle | Unit 1 Lesson 11: Tearing It Up (Print available)Lesson 12: Puzzling It Out [Free lesson] |
| Topic D: The Pythagorean Theorem | |
| Lesson 15: Informal Proof of the Pythagorean Theorem | Unit 8Lesson 7: Pictures to Prove It |
| Lesson 16: Applications of the Pythagorean Theorem | Unit 8Lesson 10: Taco TruckPractice Day 2 (Print available) |
Module 3: Similarity
Module 4: Linear Equations
Module 5: Examples of Functions from Geometry
Module 6: Linear Functions
Module 7: Introduction to Irrational Numbers Using Geometry
| Topic A Square and Cube Roots | |
| Lesson 1: The Pythagorean Theorem | Unit 8 Lesson 6: The Pythagorean Theorem |
| Lesson 2: Square Roots | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] |
| Lesson 3: Existence and Uniqueness of Square Roots and Cube Roots | Unit 8 Lesson 5: Filling Cubes |
| Lesson 4: Simplifying Square Roots | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] Practice Day 1 (Print available) |
| Lesson 5: Solving Equations with Radicals | |
| Topic B Decimal Expansions of Numbers | |
| Lesson 6: Finite and Infinite Decimals Lesson 7: Infinite Decimals Lesson 8: The Long Division Algorithm Lesson 9: Decimal Expansions of Fractions, Part 1 Lesson 10: Converting Repeating Decimals to Fractions | Unit 8 Lesson 12: Fractions to Decimals Lesson 13: Decimals to Fractions |
| Lesson 11: The Decimal Expansion of Some Irrational Numbers | |
| Lesson 12: Decimal Expansions of Fractions, Part 2 | |
| Lesson 13: Comparing Irrational Numbers | Unit 8 Lesson 14: Hit the Target |
| Lesson 14: Decimal Expansion of π | |
| Topic C The Pythagorean Theorem | |
| Lesson 15: Pythagorean Theorem, Revisited | Unit 8 Lesson 6: The Pythagorean Theorem Lesson 7: Pictures to Prove It |
| Lesson 16: Converse of the Pythagorean Theorem | Unit 8 Lesson 9: Make It Right |
| Lesson 17: Distance on the Coordinate Plane | Unit 8 Lesson 11: Pond Hopper |
| Lesson 18: Applications of the Pythagorean Theorem | Unit 8 Lesson 10: Taco Truck [Free lesson] Practice Day 2 (Print available) |
| Topic D Applications of Radicals and Roots | |
| Lesson 19: Cones and Spheres | |
| Lesson 20: Truncated Cones | |
| Lesson 21: Volume of Composite Solids | |
| Lesson 22: Average Rate of Change | |
| Lesson 23: Nonlinear Motion |
Grade 6
Unit 1: Area and Surface Area
| Illustrative Mathematics | Desmos Math 6–A1 |
|---|---|
| Topic A: Reasoning to Find Area | |
| Lesson 1: Tiling the Plane | Unit 1 Lesson 1: Shapes on a Plane [Free lesson] |
| Lesson 2: Finding Area by Decomposing and Rearranging Lesson 3: Reasoning to Find Area | Unit 1 Lesson 2: Letters |
| Topic 2: Parallelograms | |
| Lesson 4: Parallelograms Lesson 5: Bases and Heights of Parallelograms Lesson 6: Area of Parallelograms | Unit 1 Lesson 3: Exploring Parallelograms (Print available) [Free lesson] Lesson 4: Off the Grid |
| Topic 3: Triangles | |
| Lesson 7: From Parallelograms to Triangles | Unit 1 Lesson 3: Exploring Parallelograms (Print available) [Free lesson] Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
| Lesson 8: Area of Triangles | Unit 1 Lesson 5: Exploring Triangles (Print available) |
| Lesson 9: Formula for the Area of a Triangle Lesson 10: Bases and Heights of Triangles | Unit 1 Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
| Topic 4: Polygons | |
| Lesson 11: Polygons | Unit 1 Lesson 2: Letters Lesson 8: Pile of Polygons Practice Day 1 (Print available) Unit 7 Lesson 11: Polygon Maker |
| Topic 5: Surface Area | |
| Lesson 12: What is Surface Area? | Unit 1 Lesson 9: Renata´s Stickers [Free lesson] |
| Lesson 13: Polyhedra | Unit 1Lesson 10: Plenty of Polyhedra |
| Lesson 14: Nets and Surface Area | Unit 1 Lesson 10: Plenty of Polyhedra Lesson 11: Nothing But Nets (Print available) Lesson 13: Take It To Go |
| Lesson 15: More Nets, More Surface Area | Unit 1 Lesson 10: Plenty of Polyhedra Lesson 11: Nothing But Nets (Print available) Lesson 12: Face Value Lesson 13: Take It To Go (Print available) Practice Day 2 (Print available) |
| Lesson 16: Distinguishing Between Surface Area and Volume | |
| Topic 6: Squares and Cubes | |
| Lesson 17: Squares and Cubes | Unit 6 Lesson 12: Squares and Cubes |
| Lesson 18: Surface Area of a Cube | |
| Topic 7: Let’s Put It to Work | |
| Lesson 19: Designing a Tent | Unit 1 Lesson 13: Take It To Go (Print available) |
Unit 2: Introducing Ratios
Unit 3: Rates and Percentages
| Topic 1: Units of Measurement | |
| Lesson 1: The Burj Khalifa | Unit 3 Lesson 4: Model Trains |
| Topic 2: Unit Conversion | |
| Lesson 2: Anchoring Units of Measurement | Unit 3 Lesson 1: Many Measurements (Print available) [Free lesson] |
| Lesson 3: Measuring with Different-Sized Units Lesson 4: Converting Units | Unit 3 Lesson 2: Counting Classrooms Lesson 3: Pen Pals |
| Topic 3: Rates | |
| Lesson 5: Comparing Speeds and Prices | Unit 2 Lesson 8: World Records (Print available) Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] Lesson 6: Welcome to the Robot Factory |
| Lesson 6: Interpreting Rates Lesson 7: Equivalent Ratios Have the Same Unit Rates | Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] |
| Lesson 8: More About Constant Speed | Unit 2 Lesson 8: World Records (Print available) Unit 3 Lesson 4: Model Trains |
| Lesson 9: Solving Rate Problems | Unit 3 Lesson 7: More Soft Serve |
| Topic 4: Percentages | |
| Lesson 10: What Are percentages | Unit 3 Lesson 8: Lucky Duckies [Free lesson] Lesson 9: Bicycle Goals |
| Lesson 11: Percentages and Double Number Lines | Unit 3 Lesson 9: Bicycle Goals Lesson 10: What’s Missing? (Print available) |
| Lesson 12: Percentages and Tape Diagrams | Unit 3 Lesson 10: What’s Missing? (Print available) |
| Lesson 13: Benchmark percentages | Unit 3 Lesson 8: Lucky Duckies [Free lesson] |
| Lesson 14: Solving Percentage Problems Lesson 15: Finding This Percent of That Lesson 16: Finding the Percentage | Unit 3 Lesson 10: What’s Missing? (Print available) Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Lesson 13: A Country as a Village |
| Topic 5: Let’s Put It to Work | |
| Lesson 17: Painting a Room | Unit 3 Lesson 13: A Country as a Village |
| Lesson 7: Equivalent Ratios Have the Same Unit Rates | Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] |
Unit 4: Dividing Fractions
| Topic 1: Making Sense of Division | |
| Lesson 1: Size of Divisor and Size of Quotient Lesson 2: Meanings of Division | Unit 4Lesson 1: Cookie Cutter |
| Lesson 3: Interpreting Division Situations | Unit 4Lesson 2: Making Connections (Print available) |
| Topic 2: Meanings of Fraction Division | |
| Lesson 4: How Many Groups (Part 1) | Unit 4Lesson 3: Flour Planner [Free lesson]Lesson 4: Flower Planters |
| Lesson 5: How Many Groups (Part 2) | Unit 4Lesson 5: Garden Bricks (Print available) |
| Lesson 6: Using Diagrams to Find the Number of Groups | Unit 4Lesson 5: Garden Bricks (Print available)Lesson 6: Fill the Gap [Free lesson] |
| Lesson 7: What Fraction of a Group? Lesson 8: How Much in Each Group? (Part 1) Lesson 9: How Much in Each Group? (Part 2) | Unit 4Lesson 8: Potting Soil |
| Topic 3: Algorithm for Fraction Division | |
| Lesson 10: Dividing by Unit and Non-Unit Fractions | Unit 4Lesson 7: Break It DownLesson 8: Potting SoilLesson 9: Division Challenges |
| Lesson 11: Using an Algorithm to Divide Fractions | Unit 4Lesson 9: Division ChallengesPractice Day |
| Topic 4: Fractions in Lengths, Areas, and Volumes | |
| Lesson 12: Fractional Lengths | Unit 4Lesson 11: Classroom Comparisons |
| Lesson 13: Rectangles with Fractional Side Lengths | Unit 4Lesson 12: Puzzling Areas (Print available) [Free lesson] |
| Lesson 14: Fractional Lengths in Triangles and Prisms | |
| Lesson 15: Volume of Prisms | Unit 4Lesson 13: Volume Challenges |
| Topic 5: Let’s Put It to Work | |
| Lesson 16: Solving Problems with Fractions | Unit 4Lesson 10: Swap Meet (Print available) |
| Lesson 17: Fitting Boxes into Boxes | Unit 4Lesson 14: Planter Planner (Print available) |
Unit 5: Arithmetic in Base Ten
| Topic 1: Warming Up to Decimals | |
| Lesson 1: Using Decimals in a Shopping Context | Unit 5Lesson 1: Dishing Out Decimals (Print available) [Free lesson] |
| Topic 2: Adding and Subtracting Decimals | |
| Lesson 2: Using Decimals to Represent Addition and Subtraction | Unit 5Lesson 3: Fruit by the PoundLesson 4: Missing Digits |
| Lesson 3: Adding and Subtracting Decimals with Few Non-Zero Digits | Unit 5Lesson 4: Missing Digits |
| Lesson 4: Adding and Subtracting Decimals with Many Non-Zero Digits | |
| Topic 3: Multiplying Decimals | |
| Lesson 5: Decimal Points in Products | Unit 5Lesson 5: Decimal Multiplication |
| Lesson 6: Methods for Multiplying Decimals | Unit 5Lesson 5: Decimal MultiplicationLesson 6: Multiplying with AreasLesson 7: Multiplication methods (Print available) |
| Lesson 7: Using Diagrams to Represent Multiplication | Unit 5Lesson 5: Decimal MultiplicationLesson 6: Multiplying with Areas |
| Lesson 8: Calculating Products of Decimals | Unit 5Lesson 6: Multiplying with Areas |
| Topic 4: Dividing Decimals | |
| Lesson 9: Using the Partial Quotients Method | Unit 5Lesson 8: Division Diagrams |
| Lesson 10: Using Long Division | Unit 5Lesson 8: Division DiagramsLesson 9: Long Division Launch (Print available)Lesson 10: Return of the Long Division (Print available) |
| Lesson 11: Dividing Numbers That Result in Decimals Lesson 12: Dividing Decimals by Whole Numbers Lesson 13: Dividing Decimals by Decimals | Unit 5Lesson 9: Long Division Launch (Print available)Lesson 10: Return of the Long Division (Print available) |
| Topic 5: Let’s Put It to Work | |
| Lesson 14: Using Operations on Decimals to Solve Problems | Unit 5Lesson 11: Movie Time [Free lesson] |
| Lesson 15: Making and Measuring Boxes | |
| Lesson 12: Dividing Decimals by Whole Numbers | |
| Lesson 13: Dividing Decimals by Decimals | Unit 5Lesson 9: Long Division Launch (Print available)Lesson 10: Return of the Long Division (Print available) |
Unit 6: Expressions and Equations
Unit 7: Rational Numbers
| Topic 1: Positive and Negative Numbers | |
|---|---|
| Lesson 1: Positive and Negative Numbers | Unit 7Lesson 1: Can You Dig In [Free lesson]Lesson 2: Digging Deeper |
| Lesson 2: Points on the Number Line | Unit 7Lesson 2: Digging Deeper |
| Lesson 3: Comparing Positive and Negative Numbers Lesson 4: Ordering Rational Numbers | Unit 7Lesson 3: Order in the Class (Print available) [Free lesson] |
| Lesson 5: Using Negative Numbers to make Sense of Contexts | Unit 7 Lesson 4: Sub-Zero |
| Lesson 6: Absolute Value of Numbers Lesson 7: Comparing Numbers and Distance from Zero | Unit 7Lesson 5: Distance on the Number Line |
| Topic 2: Inequalities | |
| Lesson 8: Writing and Graphing Inequalities | Unit 7Lesson 13: Popcorn Possibilities |
| Lesson 9: Solutions of Inequalities Lesson 10: Interpreting Inequalities | Unit 7Lesson 6: Tunnel Travel [Free lesson]Lesson 7: Comparing WeightsLesson 8: Shira´s Solutions |
| Topic 3: The Coordinate Plane | |
| Lesson 11: Points on the Coordinate Plane Lesson 12: Constructing the Coordinate Plane | Unit 7Lesson 9: Sand Dollar SearchLesson 10: The A-maze-ing Coordinate Plane |
| Lesson 13: Interpreting Points on a Coordinate Plane | Unit 7Lesson 9: Sand Dollar SearchLesson 10: The A-maze-ing Coordinate PlaneLesson 11: Polygon Maker |
| Lesson 14: Distances on a Coordinate Plane | Unit 7Lesson 11: Polygon MakerLesson 12: Graph Telephone (Print available) |
| Lesson 15: Shapes on the Coordinate Plane | Unit 1Lesson 1: Shapes on a Plane [Free lesson]Lesson 2: LettersLesson 5: Exploring Triangles (Print available)Lesson 6: Triangles and ParallelogramsUnit 7Lesson 3: Exploring Parallelograms (Print available)Lesson 11: Polygon MakerLesson 12: Graph Telephone (Print available) |
| Topic 4: Common Factors and Common Multiples | |
| Lesson 16: Common Factors | Unit 5Lesson 15: Common factors |
| Lesson 17: Common Multiples | Unit 5Lesson 14: Common Multiples |
| Lesson 18: Using Common Multiples and Common Factors | Unit 5Lesson 14: Common MultiplesLesson 15: Common factorsPractice Day 2 (Print available) |
| Topic 5: Let’s Put It to Work | |
| Lesson 19: Drawing on the Coordinate Plane | Unit 7Lesson 11: Polygon MakerLesson 12: Graph Telephone (Print available) |
Unit 8: Data Sets and Distributions
| Topic 1: Data, Variability, and Statistical Questions | |
|---|---|
| Lesson 1: Got Data? Lesson 2: Statistical Questions | Unit 8Lesson 1: Screen TimeLesson 2: Dot Plots |
| Topic 2: Dot Plots and Distributions | |
| Lesson 3: Representing Data Graphically Lesson 4: Dot Plots Lesson 5: Using Dot Plots to Answer Statistical Questions | Unit 8Lesson 2: Dot PlotsLesson 3: Minimum Wage (Print available) [Free lesson]Lesson 4: Lots More Dots |
| Lesson 6: Interpreting Histograms Lesson 7: Using Histograms to Answer Statistical Questions Lesson 8: Describing Distributions on Histograms | Unit 8Lesson 5: The Plot Thickens [Free lesson]Lesson 6: DIY Histograms (Print available) |
| Topic 3: Measures of Center and Variability | |
| Lesson 9: Mean Lesson 10: Finding and Interpreting the Mean as a Balance Point | Unit 8Lesson 7: Snack Time |
| Lesson 11: Variability and MAD | Unit 8Lesson 8: Pop It! |
| Lesson 12: Using Mean and MAD to Make Comparisons | Unit 8Lesson 9: Hoops |
| Topic 4: Median and IQR | |
| Lesson 13: Median | Unit 8Lesson 11: Toy Cars [Free lesson]Lesson 12: In the News |
| Lesson 14: Comparing Mean and Median | Unit 8Lesson 12: In the News |
| Lesson 15: Quartiles and Interquartile Range | Unit 8Lesson 13: Pumpkin Patch |
| Lesson 16: Box Plots | Unit 8Lesson 14: Car, Plane, Bus, or Train? (Print available) |
| Lesson 17: Using Box Plots | Unit 8Lesson 14: Car, Plane, Bus, or Train? (Print available)Lesson 15: Hollywood Part 2Lesson 16: Hollywood Part 3 (Print available)Practice Day 2 (Print available) |
| Topic 5: Let’s Put It to Work | |
| Lesson 18: Using Data to Solve Problems | Unit 8Lesson 16: Hollywood Part 3 (Print available) |
Unit 9: Putting It All Together
| Topic 1: Making Connections | |
|---|---|
| Lesson 1: Fermi Problems Lesson 2: In Our Class Were the World | Unit 3Lesson 13: A Country as a Village |
| Lesson 3: Rectangle Madness | Unit 5Lesson 14: Common MultiplesLesson 15: Common factors |
| Topic 2: Voting | |
| Lesson 4: How Do We Choose? | Unit 2Lesson 13: City PlanningLesson 14: Lunch Waste (Print available) |
| Lesson 5: More than Two Choices | Unit 3Lesson 13: A Country as a Village |
| Lesson 6: Picking Representatives | Unit 8Lesson 16: Hollywood Part 3 (Print available) |
Grade 7
Unit 1: Scale Drawings
| Illustrative Mathematics | Desmos Math 6–A1 |
|---|---|
| Topic 1: Scaled Copies | |
| Lesson 1: What are Scaled Copies? | Unit 1Lesson 1: Scaling Machines [Free lesson] |
| Lesson 2: Corresponding Parts and Scale Factors | Unit 1Lesson 2: Scaling Robots Unit 3Lesson 1: Toothpicks |
| Lesson 3: Making Scaled Copies Lesson 4: Scaled Relationship | Unit 1Lesson 3: Make It Scale Unit 4Lesson 3: Sticker Sizes |
| Lesson 5: The Size and the Scale Factor | Unit 1Lesson 4: Scale Factor Challenges |
| Lesson 6: Scaling and Area | Unit 1Lesson 5: TilesPractice Day 1 (Print available) |
| Topic 2: Scale Drawings | |
| Lesson 7: Scale Drawings | Unit 1Lesson 6: Introducing ScaleLesson 7: Will It Fit? (Print available) [Free lesson] |
| Lesson 8: Scale Drawings and Maps | |
| Lesson 9: Creating Scale Drawings Lesson 10: Changing Scales in Scale Drawings | Unit 1Lesson 8: Scaling StatesLesson 9: Scaling BuildingsLesson 10: Room Redesign (Print available) |
| Lesson 11: Scales without Units | |
| Lesson 12: Units in Scale Drawings | Unit 1Lesson 8: Scaling StatesLesson 9: Scaling BuildingsLesson 10: Room Redesign (Print available)Practice Day 2 (Print available) |
| Topic 3: Let’s Put It to Work | |
| Lesson 13: Draw It to Scale | Unit 1Lesson 10: Room Redesign (Print available) |
Unit 2: Introducing Proportional Relationships
| Topic 1: Representing Proportional Relationships with Tables | |
| Lesson 1: One of These Things Is Not Like the Others | Unit 2Lesson 1: Paint [Free lesson] |
| Lesson 2: Introducing Proportional Relationships with Tables | Unit 2Lesson 2: Balloon FloatLesson 3: Sugary Drinks (Print available)Lesson 4: Robot Factory |
| Lesson 3: More About Constant of Proportionality | Unit 2Lesson 3: Sugary Drinks (Print available)Unit 4Lesson 3: Sticker Sizes |
| Topic 2: Representing Proportional Relationships with Equations | |
| Lesson 4: Proportional Relationships with Equations | Unit 2Lesson 4: Robot FactoryLesson 5: SnapshotsLesson 6: Two and Two (Print available) [Free lesson]Lesson 7: All Kinds of Equations |
| Lesson 5: Two Equations for Each Relationship Lesson 6: Using Equations to Solve Problems | Unit 2Lesson 6: Two and Two (Print available) [Free lesson]Lesson 7: All Kinds of EquationsPractice Day |
| Topic 3: Comparing Proportional and Nonproportional Relationships | |
| Lesson 7: Comparing Relationships with Tables | Unit 2Lesson 2: Balloon FloatLesson 3: Sugary Drinks (Print available)Lesson 4: Robot Factory |
| Lesson 8: Comparing Relationships with Equations | Unit 2Lesson 4: Robot FactoryLesson 5: SnapshotsLesson 6: Two and Two (Print available) [Free lesson]Lesson 7: All Kinds of EquationsLesson 11: Four RepresentationsLesson 12: Water Efficiency |
| Lesson 9: Solving Problems About Proportional Relationships | Unit 2Lesson 12: Water Efficiency |
| Topic 4: Representing Proportional Relationships with Graphs | |
| Lesson 10: Introducing Graphs of Proportional Relationships Lesson 11: Interpreting Graphs of Proportional Relationships Lesson 12: Using Graphs to Compare Relationships Lesson 13: Two Graphs for Each Relationship | Unit 2Lesson 8: Dino Pops [Free lesson]Lesson 9: Gallon ChallengeLesson 10: Three TurtlesLesson 11: Four RepresentationsLesson 12: Water Efficiency |
| Topic 5: Let’s Put It to Work | |
| Lesson 14: For Representations | Unit 2Lesson 11: Four Representations (Print available) |
| Lesson 15: Using Water Efficiency | Unit 2Lesson 12: Water Efficiency |
Unit 3: Measuring Circles
| Topic 1: Circumference of a Circle | |
| Lesson 1: How Well Can You Measure? | Unit 3Lesson 1: Toothpicks |
| Lesson 2: Exploring Circles Lesson 3: Exploring Circumference Lesson 4: Applying Circumference | Unit 3Lesson 2: Is It a Circle?Lesson 3: Measuring Around [Free lesson] |
| Lesson 5: Circumference and Wheels | |
| Topic 2: Area of a Circle | |
| Lesson 6: Estimating Areas | Unit 3Lesson 5: Area Strategies |
| Lesson 7: Exploring the Area of a Circle Lesson 8: Relating Area to Circumference | Unit 3Lesson 5: Area StrategiesLesson 6: Radius Squares (Print available)Lesson 7: Why Pi?Lesson 8: Area Challenges [Free lesson]Lesson 9: Circle vs. SquarePractice Day 2 (Print available) |
| Lesson 9: Applying Area of Circles | Unit 3Lesson 6: Radius Squares (Print available) |
| Topic 3: Let’s Put It to Work | |
| Lesson 10: Distinguishing Circumference and Area | Unit 3Lesson 7: Why Pi? |
| Lesson 11: Stained-Glass Windows | Unit 3Lesson 5: Area StrategiesLesson 6: Radius Squares (Print available) |
Unit 4: Proportional Relationships and Percentages
Unit 5: Rational Number Arithmetic
| Topic 1: Interpreting Negative Numbers | |
| Lesson 1: Interpreting Negative Numbers | Unit 5Lesson 1: Floats and Anchors [Free lesson] |
| Topic 2: Adding and Subtracting Rational Numbers | |
| Lesson 2: Changing Temperatures Lesson 3: Changing Elevation | Unit 5Lesson 2: More Floats and AnchorsLesson 3: BumpersLesson 4: Draw Your Own (Print available) [Free lesson] |
| Lesson 4: Money and Debts | |
| Lesson 5: Representing Subtraction | Unit 5Lesson 5: Number Puzzles |
| Lesson 6: Subtracting Rational Numbers Lesson 7: Adding and Subtracting to Solve Problems | Unit 5Lesson 3: BumpersLesson 4: Draw Your Own (Print available) [Free lesson]Lesson 5: Number PuzzlesLesson 10: Integer Puzzles [Free lesson]Lesson 11: Changing TemperaturesLesson 13: Solar Panels and More (Print available)Practice Day 1 (Print available) |
| Topic 3: Multiplying and Dividing Rational Numbers | |
| Lesson 8: Position, Speed, and Direction Lesson 9: Multiplying Rational Numbers Lesson 10: Multiply! | Unit 5Lesson 7: Back in Time |
| Lesson 11: Dividing Rational Numbers | Unit 5Lesson 8: Speeding Turtles |
| Lesson 12: Negative Rates | |
| Topic 4: Four Operations with Rational Numbers | |
| Lesson 13: Expressions with Rational Numbers | Unit 5Lesson 9: Expressions (Print available) |
| Lesson 14: Solving Problems with Rational Numbers | Lesson 11: Changing Temperatures Lesson 12: Arctic Ice Sea (Print available) Lesson 13: Solar Panels and More (Print available) |
| Topic 5: Solving Equations When There Are Negative Numbers | |
| Lesson 15: Making and Measuring Boxes | |
| Lesson 16: Representing Contexts with Equations | |
| Topic 6: Let’s Put It to Work | |
| Lesson 17: The Stock market |
Unit 6: Expressions, Equations, and Inequalities
Unit 7: Angles, Triangles, and Prisms
| Topic 1: Angle Relationships | |
|---|---|
| Lesson 1:Relationships of Angles | Unit 7 Lesson 1: Pinwheels Lesson 2: Friendly Angles [Free lesson] Lesson 3: Angle Diagrams |
| Lesson 2: Adjacent Angles Lesson 3: Nonadjacent Angles | Unit 7Lesson 2: Friendly Angles [Free lesson]Lesson 3: Angle Diagrams |
| Lesson 4: Solving for Unknown Angles | Unit 7Lesson 2: Friendly Angles [Free lesson]Lesson 3: Angle DiagramsLesson 4: Missing Measures (Print available) |
| Lesson 5: Using Equations to Solve for Unknown Angles | Unit 7Lesson 3: Angle DiagramsLesson 4: Missing Measures (Print available) [Free lesson] |
| Topic 2: Drawing Polygons with Given Conditions | |
| Lesson 6: Building Polygons (Part 1) Lesson 7: Building Polygons (Part 2) | Unit 7Lesson 6: Is It Enough? |
| Lesson 8: Triangles with 3 Common Measures | Unit 7Lesson 13: Popcorn Possibilities |
| Lesson 9: Drawing Triangles (Part 1) Lesson 10: Drawing Triangles (Part 2) | Unit 7Lesson 5: Can You Build It? [Free lesson]Lesson 6: Is It Enough?Lesson 7: More Than OneLesson 8: Can You Draw It? (Print available)Practice Day 1 (Print available) |
| Topic 3: Solid Geometry | |
| Lesson 11: Slicing Solids | Unit 7Lesson 9: Slicing Solids |
| Lesson 12: Volume of Right Prisms | Unit 7Lesson 10: Simple Prisms |
| Lesson 13: Decomposing Bases for Areas | Unit 7Lesson 11: More Complicated Prisms |
| Lesson 14: Surface Area of Right Prisms | Unit 7Lesson 10: Simple PrismsLesson 11: More Complicated PrismsLesson 12: Surface Area Strategies (Print available) |
| Lesson 15: Distinguishing Volume and Surface Area | |
| Lesson 16: Applying Volume and Surface Area | Unit 7Lesson 13: Popcorn Possibilities |
| Topic 4: Let’s Put It to Work | |
| Lesson 17: Building Prisms |
Unit 8: Probability and Sampling
Grade 8
Unit 1: Rigid Transformations and Congruence
Unit 2: Dilations, Similarity, and Introducing Slope
Unit 3: Linear Relationships
Unit 4: Linear Equations and Linear Systems
Unit 5: Functions and Volume
Unit 6: Associations in Data
Unit 7: Exponents and Scientific Notation
| Topic 1: Exponent Review | |
| Lesson 1: Exponent Review | Unit 7 Lesson 1: Circles [Free lesson]Lesson 2: Combining Exponents |
| Topic 2: Exponent Rules | |
| Lesson 2: Multiplying Powers of 10 Lesson 3: Powers of Powers of 10 Lesson 4: Dividing Powers of 10 | Unit 7 Lesson 3: Power Pairs (Print available) [Free lesson]Lesson 4: Rewriting Powers |
| Lesson 5: Negative Exponents with Powers of 10 | Unit 7 Lesson 5: Zero and Negative ExponentsLesson 6: Write a Rule (Print available)Practice Day 1 (Print available) |
| Lesson 6: What about Other Bases? | |
| Lesson 7: Practice with Rational Bases | |
| Lesson 8: Combining Bases | |
| Topic 3: Scientific Notation | |
| Lesson 9: Describing Large and Small Numbers using Powers of 10 | Unit 7 Lesson 7: Scales and Weights |
| Lesson 10: Representing Large Numbers on the Number Line Lesson 11: Representing Small Numbers on the Number Line | Unit 7 Lesson 8: Point Zapper |
| Lesson 12: Applications of Arithmetic with Powers of 10 | Unit 7 Lesson 8: Point ZapperLesson 9: Use Your Powers |
| Lesson 13: Defining Scientific Notation Lesson 14: Multiplying, Dividing, and Estimating with Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson]Lesson 11: Balance the Scales [Free lesson]Lesson 13: Star Power |
| Lesson 15: Adding and Subtracting with Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson]Lesson 11: Balance the Scales [Free lesson]Lesson 12: City LightsLesson 13: Star Power |
| Topic 4: Let’s Put It to Work | |
| Lesson 16: Is a Smartphone Smart Enough to Go to the Moon? | Lesson 13: Star Power Practice Day 2 (Print available) |
Unit 8: Pythagorean Theorem and Irrational Numbers
| Topic 1: Side Lengths and Areas of Squares | |
| Lesson 1: The Areas of Squares and Their Side Lengths | Unit 8Lesson 1: Tilted Squares |
| Lesson 2: Side Lengths and Areas | Unit 8Lesson 2: From Squares to RootsLesson 3: Between Squares |
| Lesson 3: Rational and Irrational Numbers | |
| Lesson 4: Square Roots on the Number Line | |
| Lesson 5: Reasoning about Square Roots | Unit 8Lesson 2: From Squares to RootsLesson 3: Between SquaresLesson 4: Root Down [Free lesson]Practice Day 1 (Print available) |
| Topic 2: The Pythagorean Theorem | |
| Lesson 6: Finding Side Lengths of Triangles | Unit 8Lesson 6: The Pythagorean TheoremLesson 7: Pictures to Prove ItLesson 8: Triangle-Tracing Turtle [Free lesson] |
| Lesson 7: A Proof of the Pythagorean Theorem | Unit 8Lesson 7: Pictures to Prove It |
| Lesson 8: Finding Unknown Side Lengths | Unit 8Lesson 11: Pond Hopper |
| Lesson 9: The Converse | Unit 8Lesson 9: Make It Right |
| Lesson 10: Applications of the Pythagorean Theorem | Unit 8Lesson 10: Taco Truck [Free lesson] |
| Lesson 11: Finding Distances in the Coordinate Plane | Unit 8Lesson 11: Pond Hopper |
| Topic 3: Side Lengths and Volumes of Cubes | |
| Lesson 12: Edge Lengths and Volumes Lesson 13: Cube Roots | Unit 8Lesson 5: Filling Cubes |
| Topic 4: Decimal Representation of Rational and Irrational Numbers | |
| Lesson 14: Decimal Representation of Rational and Numbers Lesson 15: Infinite Decimal expansions | Unit 8Lesson 12: Fractions to DecimalsLesson 13: Decimals to Fractions |
| Topic 5: Let’s Put It to Work | |
| Lesson 16: When Is the Same Size Not the Same Size? | Unit 8Lesson 10: Taco Truck [Free lesson] |
Unit 9: Putting It All Together
| Topic 1: Tessellations | |
| Lesson 1: Tessellations of the Plane | |
| Lesson 2: Regular Tessellations | |
| Lesson 3: Tessellating Polygons | |
| Topic 2: The Weather | |
| Lesson 4: What Influences Temperature? | |
| Lesson 5: Plotting the Weather | |
| Lesson 6: Using and Interpreting a Mathematical Model |
Grade 6
Unit 1: Area and Surface Area
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 1: Area and Surface Area | Unit 1: Area and Surface Area Unit 7: Positive and Negative Numbers |
| Lesson 1: The Tangram | Unit 1 Lesson 1: Shapes on a Plane |
| Lesson 2: Exploring the Tangram | Unit 1 Lesson 2: Letters |
| Sub-Unit 1 : Area of Special Polygons | |
| Lesson 3: Tilting the Plane | Unit 1 Lesson 1: Shapes on a Plane |
| Lesson 4: Compositing and Rearranging to Determine Area | Unit 1 Lesson 2: Letters |
| Lesson 5: Reasoning to Determine Area | Unit 1 Lesson 2: Letters |
| Lesson 6: Parallelograms | Unit 1 Lesson 3: Exploring Parallelograms (Print available) Lesson 4: Off the Grid |
| Lesson 7: Bases and Heights of Parallelograms | Unit 1 Lesson 3: Exploring Parallelograms (Print available) Lesson 4: Off the Grid |
| Lesson 8: Bases and Heights of Parallelograms | Unit 1 Lesson 3: Exploring Parallelograms (Print available) Lesson 4: Off the Grid |
| Lesson 9: From Parallelograms to Triangles | Unit 1 Lesson 3: Exploring Parallelograms (Print available) Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
| Lesson 10: Bases and Heights of Triangles | Unit 1 Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
| Lesson 11: Formula for the Area of a Triangle | Unit 1 Lesson 5: Exploring Triangles (Print available) |
| Lesson 12: From Triangles to Trapezoids | Unit 1 Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
| Lesson 13: Polygons | Unit 1 Lesson 2: Letters Lesson 8: Pile of Polygons Practice Day 1 (Print available) Unit 7 Lesson 11: Polygon Maker |
| Sub-Unit 2: Nets and Surface Area | |
| Lesson 14: What is Surface Area? | Unit 1 Lesson 9: Renata’s Stickers |
| Lesson 15: Nets and Surface Area of Rectangular Prisms | Unit 1 Lesson 10: Plenty of Polyhedra Lesson 11:Nothing but Nets(Print available) Lesson 12: Face Value Lesson 13: Take It To Go (Print available) |
| Lesson 16: Nets and Surface Area of Prisms | Unit 1 Lesson 12: Face Value Lesson 13: Take It To Go (Print available) |
| Lesson 17: Constructing a Rhombicuboctahedron | Unit 1 Lesson 13: Take It To Go (Print available) |
| Lesson 18: Simplifying Expressions for Squares and Cubes | Unit 1 Lesson 11: Exponent Expressions (Print available) Lesson 12: Squares and Cubes |
| Lesson 19: Simplifying Expressions Even More Using Exponents | Unit 1 Lesson 11: Exponent Expressions (Print available) |
| Lesson 20: Designing a Suspended Tent |
Unit 2: Introducing Ratios
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 2: Introducing Ratios | Unit 2: Introducing Ratios |
| Lesson 1: Fermi Problems | |
| Sub-Unit 1: What are Ratios? | |
| Lesson 2: Introducing Ratios and Ratio Language | Unit 2 Lesson 1: Pizza Maker Lesson 2: Ratio Rounds (Print available) |
| Lesson 3: Representing Ratios with Diagrams | Unit 2 Lesson 1: Pizza Maker Lesson 2: Ratio Rounds (Print available) Lesson 3:Rice Ratios (Print available) |
| Lesson 4: A Recipe for Purple Oobleck | |
| Lesson 5: Kapa Dyes | |
| Sub-Unit 2:Equivalent Ratios | |
| Lesson 6: Defining Equivalent Ratios | Unit 2 Lesson 3: Rice Ratios (Print available) Lesson 4: Fruit Lab (Print available) Lesson 11: Community Life (Print available) Practice Day 1 (Print available) |
| Lesson 7: Representing Equivalent Ratios with Tables | |
| Lesson 8: Reasoning with Multiplication and Division (optional) | |
| Lesson 9: Common Factors | |
| Lesson 10: Common Multiples | |
| Lesson 11: Navigating a Table of Equivalent Ratios | Unit 2 Lesson 6: Product Prices (Print available) Lesson 7: Mixing Paint, Part 1 |
| Lesson 12: Tables and Double Number Line Diagrams | Unit 2 Lesson 6: Product Prices (Print available) Lesson 7: Mixing Paint, Part 1 |
| Lesson 13: Tempo and Double Number Lines | Unit 2 Lesson 5: Balancing Act Lesson 6: Product Prices (Print available) |
| Sub-Unit 3: Solving Ratio Problems | |
| Lesson 14: Solving Equivalent Ratios | Unit 2 Lesson 6: Product Prices (Print available) Lesson 7: Mixing Paint, Part 1 Lesson 10: Balloons Lesson 11: Community Life (Print available) |
| Lesson 15: Part-Part-Whole Ratios | Unit 2 Lesson 12 Mixing Paint, Part 2 Lesson 13: City Planning |
| Lesson 16: Comparing Ratios | |
| Lesson 17: More Comparing and Solving | |
| Lesson 18: Measuring with Different-Sized Units | |
| Lesson 20: More Fermi Problems |
Unit 3: Rates and Percentages
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 3: Rates and Percentages | Unit 2: Introducing Ratios Unit 3: Unit Rates and percentages |
| Lesson 1: Choosing Representation for Student Council | Launch Lesson |
| Sub-Unit 1: Rates | |
| Lesson 2: How Much for One? | Unit 3 Lesson 4: Model Trains |
| Lesson 3: Constant Speed | |
| Lesson 4: Comparing Speeds | Unit 2 Lesson 8: World Records (Print available) Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve Lesson 6: Welcome to the Robot Factory |
| Lesson 5: Interpreting Rates | Unit 3 Lesson 8: World Records (Print available) Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve Lesson 6: Welcome to the Robot Factory |
| Lesson 6: Comparing Rates | |
| Lesson 7: Solving Rate Problems | Unit 3 Lesson 7: More Soft Serve |
| Sub-Unit 2: Percentages | |
| Lesson 8: What Are percentages? | Unit 3 Lesson 8: Lucky Duckies Lesson 9: Bicycle Goals |
| Lesson 9: Determining Percentages | |
| Lesson 10: Benchmark Percentages | Unit 3 Lesson 7: Lucky Duckies |
| Lesson 11: Finding This Percent of That | Unit 3 Lesson 10: What’s Missing? (Print available) Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Lesson 13: A Country as a Village |
| Lesson 12: This Percent of What | |
| Lesson 13: Solving Percentage Problems | Unit 3 Lesson: 10: What’s Missing (Print available) Lesson: 11: Cost Breakdown Lesson: 12: More Bicycle Goals Lesson: 13: A Country as a Village |
| Lesson 14: If Our Class Were the World | |
| Lesson 15: Voting for a School Mascot |
Unit 4: Dividing Fractions
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Seeing Fractions | |
| Sub-Unit 1: Interpreting Division Scenarios | |
| Lesson 3: Relating Multiplication and Division | |
| Lesson 4: Size of Divisor and Size of Quotient | Unit 4 Lesson 1: Cookie Cutter |
| Sub-Unit 2: Division with Fractions | |
| Lesson 5: How Many Groups | Unit 4 Lesson 3: Flour Planner Lesson 4: Flower Planters Lesson 4: Garden Bricks (Print available) |
| Lesson 6: Using Diagrams to Find the Number of Groups | Unit 4 Lesson 5: Garden Bricks (Print available) Lesson 6: Fill the Gap |
| Lesson 7: Dividing with Common Denominators | Unit 4 Lesson 6: Fill the Gap |
| Lesson 8: How Much in Each Group? (Part 1) | Unit 4 Lesson 8: Potting Soil |
| Lesson 9: How Much in Each Group? (Part 2) | Unit 4 Lesson 8: Potting Soil |
| Lesson 10: Dividing by Unit and Non-Unit Fractions | Unit 4 Lesson 7: Break It Down Lesson 8: Potting Soil Lesson 9: Division Challenges |
| Lesson 11: Using an Algorithm to Divide Fractions | Unit 4 Lesson 9: Division Challenges Practice Day |
| Lesson 13: Fractional Lengths | Unit 4 Lesson 12: Puzzling |
| Lesson 14: Area with Fractional Lengths | Unit 4 Lesson 9: Puzzling Area (Print available) |
| Lesson 15: Volume of Prisms | Unit 4 Lesson 13: Volume Challenges (Print available) |
| Lesson 16: Fish Tanks Inside of Fish Tanks | Unit 4 Lesson 10: Swap Meet |
| Lesson 17: Now, Where Was That Bus? | Unit 4 Lesson 10: Capstone |
Unit 5: Arithmetic in Base Ten
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Precision and World Records | |
| Sub-Unit 1: Adding and Subtracting Decimals | |
| Lesson 2: Speaking of Decimals… | Unit 5 Lesson 1: Dishing Out Decimals (Print available) |
| Lesson 3: Adding and Subtracting Decimals | Unit 5 Lesson 3: Fruit by the Pound Lesson 4: Missing Digits |
| Lesson 4: X Games Medal Results | Unit 5 Lesson 2: Decimal Diagrams |
| Sub-Unit 2: Multiplying Decimals | |
| Lesson 5: Decimal Points in Products | Unit 5 Lesson 5: Decimal Multiplication |
| Lesson 6: Methods for Multiplying Decimals | Unit 5 Lesson 5: Decimal Multiplication Lesson 6: Multiplying with Areas Lesson 7: Multiplication Methods (Print available) |
| Lesson 7: Using Diagrams to Represent Multiplication | Unit 5 Lesson 5: Decimal Multiplication Lesson 6: Multiplying with Areas |
| Lesson 8: Calculating Products of Decimals | Unit 5 Lesson 6: Multiplying with Areas |
| Sub-Unit 3: Dividing Decimals | |
| Lesson 9: Exploring Division | |
| Lesson 10: Using Long Division | Unit 5 Lesson 8: Division Diagrams Lesson 9: Long Division Launch (Print available) Lesson 10: Return of the Long Division (Print available) |
| Lesson 11: Dividing Numbers That Result in Decimals | Unit 5 Lesson 9: Long Division Launch (Print available) Lesson 10: Return of the Long Division (Print available) |
| Lesson 12: Using Related Expressions to Divide with Decimals | |
| Lesson 13: Dividing Multi-Digit Decimals | Unit 5 Lesson 9: Long Division Launch (Print available) Lesson 10: Return of the Long Division (Print available) |
| Lesson 14: The So-called World’s Littlest Skyscraper |
Unit 6: Expressions and Equations
Unit 7: Rational Numbers
| Amplify Math | Desmos Math 6–A1 |
| Unit 7: Rational Numbers | Unit 1: Area and Surface Area Unit 7: Positive and Negative Numbers |
| Lesson 1: How Far? Which Way? | |
| Sub-unit 1: Negative Numbers and Absolute Value | |
| Lesson 2: Positive and Negative Numbers | Unit 7 Lesson 1: Can You Dig In Lesson 2: Digging Deeper |
| Lesson 3: Points on the Number Line | Unit 7 Lesson 2: Digging Deeper |
| Lesson 4: Comparing Integers | Unit 7 Lesson 3: Order in the Class (Print available) |
| Lesson 5: Comparing and Ordering Rational Numbers | Unit 7 Lesson 3: Order in the Class (Print available) |
| Lesson 6: Using Negative Numbers to Make Sense of Contexts> | Unit 7 Lesson 4: Sub-Zero |
| Lesson 7: Absolute Value of Numbers | Unit 7 Lesson 5: Distance on the Number Line |
| Lesson 8: Comparing Numbers and Distance from Zero | Unit 7 Lesson 5: Distance on the Number Line |
| Sub-Unit 2: Inequalities | |
| Lesson 9: Writing Inequalities | |
| Lesson 10: Graphing Inequalities | |
| Lesson 11: Solutions to One or More Inequalities | Unit 7 Lesson 6: Tunnel Travel Lesson 7: Comparing Weights Lesson 8: Shira´s Solutions |
| Lesson 12: Interpreting Inequalities | Unit 7 Lesson 6: Tunnel Travel Lesson 7: Comparing Weights Lesson 8: Shira´s Solutions |
| Sub-Unit 3: The Coordinate Plane | |
| Lesson 13: Extending the Coordinate Plane | |
| Lesson 14: Points on the Coordinate Plane | Unit 7 Lesson 9: Sand Dollar Search Lesson 10: The A-maze-ing Coordinate Plane |
| Lesson 15: Interpreting Points on a Coordinate Plane | Unit 7 Lesson 9: Sand Dollar Search Lesson 10: The A-maze-ing Coordinate Plane Lesson 11: Polygon Maker |
| Lesson 16: Distances on a Coordinate Plane | Unit 7 Lesson 11: Polygon Maker Lesson 12: Graph Telephone (Print available) |
| Lesson 17: Shapes on the Coordinate Plane | Unit 1 Lesson 1: Shapes on a Plane Lesson 2: Letters Lesson 5: Exploring Triangles (Print available) Lesson 6: Triangles and Parallelograms Unit 7 Lesson 3: Exploring Parallelograms (Print available) Lesson 11: Polygon Maker Lesson 12: Graph Telephone (Print available) |
| Lesson 18: Lost and Found Puzzles | |
| Lesson 19: Drawing on the Coordinate Plane | Unit 7 Lesson 11: Polygon Maker Lesson 12: Graph Telephone (Print available) |
Unit 8: Data Sets and Distributions
| Amplify Math | Desmos Math 6–A1 |
| Unit 8: Data Sets and Distributions | Unit 8: Describing Data |
| Lesson 1: Plausible Variation or New Species? | |
| Sub-Unit 1: Statistical Questions and Representing Data | |
| Lesson 2: Statistical Questions | Unit 8 Lesson 1: Screen Time Lesson 2: Dot Plots |
| Lesson 3: Interpreting Dot Plots | Unit 8 Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) Lesson 4: Lots More Dots |
| Lesson 4: USing Dot Plots to Answer Statistical Questions | Unit 8 Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) Lesson 4: Lots More Dots |
| Lesson 5: Interpreting Histograms | Unit 8 Lesson 5: The Plot Thickens Lesson 6: DIY Histograms (Print available) |
| Lesson 6: Using Histograms to Answer Statistical Questions | Unit 8 Lesson 5: The Plot Thickens Lesson 6: DIY Histograms (Print available) |
| Lesson 7: Describing Distributions on Histograms | Unit 8 Lesson 5: The Plot Thickens Lesson 6: DIY Histograms (Print available) |
| Sub-Unit 2: Measures of Center | |
| Lesson 8: Mean as a Fair Share | Unit 8 Lesson 7: Snack Time |
| Lesson 9: Mean as a Balance Point | Unit 8 Lesson 7: Snack Time |
| Lesson 10: Median | Unit 8 Lesson 11: Toy Cars Lesson 12: In the News |
| Lesson 11: Comparing Mean and Median | Unit 8 Lesson 12: In the News |
| Sub-Unit 3: Measures of Variability | |
| Lesson 12: Describing Variability | |
| Lesson 13: Variability and MAD | |
| Lesson 14: Variability and IQR | Unit 8 Lesson 13: Pumpkin Patch |
| Lesson 15: Box Plots | Unit 8 Lesson 14: Car, Plane, Bus, or Train? (Print available) |
| Lesson 16: Comparing MAD and IQR | |
| Lesson 17: Asian Elephant Populations |
Grade 7
Unit 1: Scale Drawings
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 1: Scale Drawings | Unit 1: Scale Drawings Unit 3: Measuring Circles Unit 4: Proportional Relationships and Percentages |
| Lesson 1: Scale-y Shapes | |
| Sub-Unit 1: Scaled Copies | |
| Lesson 2: What are Scaled Copies? | Unit 1 Lesson 1: Scaling Machines |
| Lesson 3: Corresponding Parts and Scale Factors | Unit 1 Lesson 2: Scaling Robots Unit 3 Lesson 1: Toothpicks |
| Lesson 4: Making Scaled Copies | Unit 1 Lesson 3: Make It Scale Unit 4 Lesson 3: Sticker Sizes |
| Lesson 5: The Size of the Scale Factor | Unit 1 Lesson 4: Tiles |
| Lesson 6: Scaling and Area | Unit 1 Lesson 5: Tiles Practice Day 1 (Print available) |
| Sub-Unit 2: Scale Drawings | |
| Lesson 7: Scale Drawings | Unit 1 Lesson 6: Introducing Scale Lesson 7: Will It Fit? (Print available) |
| Lesson 8: Creating Scale Drawings | Unit 1 Lesson 8: Scaling States Lesson 9: Scaling Buildings Lesson 10: Room Redesign (Print available) |
| Lesson 9: Scale Drawings and Maps | |
| Lesson 10: Changing Scale in Scale Drawings | Unit 1 Lesson 8: Scaling States Lesson 9: Scaling Buildings Lesson 10: Room Redesign (Print available) |
| Lesson 11: Scales without Units | |
| Lesson 12: Units in Scale Drawings | Unit 1 Lesson 8: Scaling States Lesson 9: Scaling Buildings Lesson 10: Room Redesign (Print available)Practice Day (Print available) |
| Lesson 13: Build Your Brand |
Unit 2: Introducing Proportional Relationships
Unit 3: Measuring Circles
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 3: Measuring Circles | Unit 3: Measuring Circles |
| Lesson 1: The Wandering Goat | |
| Sub-unit 1: Circumference of a Circle | |
| Lesson 2: Exploring Circles | Unit 3 Lesson 2: Is it a Circle? Lesson 3: Measuring Around |
| Lesson 3: How Well Can You Measure? | |
| Lesson 4: Exploring Circumference | Unit 3 Lesson 2: Is It a Circle? Lesson 3: Measuring Around |
| Lesson 5: Understanding π | |
| Lesson 6: Applying Circumference | Unit 3 Lesson 2: Is It a Circle? Lesson 3: Measuring Around |
| Lesson 7: Circumference and Wheels | |
| Sub-Unit 2: Area of a Circle | |
| Lesson 8: Exploring the Area of a Circle | Unit 3 Lesson 5: Area Strategies Lesson 6: Radius Squares (Print available) Lesson 7: Why Pi? Lesson 8: Area Challenges Lesson 9: Circle vs. Square Practice Day 2 (Print available) |
| Lesson 9: Relating Area to Circumference | Unit 3 Lesson 5: Area Strategies Lesson 6: Radius Squares (Print available) Lesson 7: Why Pi? Lesson 8: Area Challenges Lesson 9: Circle vs. Square Practice Day 2 (Print available) |
| Lesson 10: Applying Area to Circles | Unit 3 Lesson 6:Radius Squares (Print available) |
| Lesson 11: Distinguishing Circumference and Area | Unit 3 Lesson 7: Why Pi? |
| Lesson 12: Capturing Space |
Unit 4: Proportional Relationships and Percentages
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 4: Percentages | Unit 4: Proportional Relationships and Percentages |
| Lesson 1: (Re)Presenting the United States | |
| Lesson 2: Understanding Percentages and Decimals | |
| Lesson 3: Percent Increase and Decrease | Unit 4Lesson 4: More or Less |
| Lesson 4: Determining 100% | Unit 4Lesson 6: 100% (Print available) |
| Lesson 5: Determining Percent Change | Unit 4Lesson 7: Percent Machines |
| Lesson 6: Percent Increase and Decrease With Equations | Unit 4Lesson 5: All the Equations |
| Lesson 7: Using Equations to Solve Percent Problems | Unit 4Lesson 5: All the Equations |
| Sub-Unit 2: Applying Percentages | |
| Lesson 8: Tax and Tip | Unit 4 Lesson 8: Tax and Tip Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems |
| Lesson 9: Percent Contexts | Unit 4 Lesson 8: Tax and Tip Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems |
| Lesson 10: Determining the Percentage | Unit 4 Lesson 4: More and Less |
| Lesson 11: Measurement Error | Unit 4 Lesson 11: Bookcase Builder |
| Lesson 12: Error Intervals | Unit 4 Lesson 11: Bookcase Builder |
| Lesson 13: Writing Better Headlines |
Unit 5: Rational Number Arithmetic
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 5: Rational Number Arithmetic | Unit 5: Rational Number Artithmetics |
| Lesson 1: Target: Zero | |
| Sub-Unit 1: Adding and Subtracting Rational Numbers | |
| Lesson 2: Interpreting Negative Numbers | |
| Lesson 3: Changing Temperatures | Unit 5 Lesson 2: More Floats and Anchors Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) |
| Lesson 4: Adding Rational Numbers | |
| Lesson 5: Money and Debts | |
| Lesson 6: Representing Subtraction | Unit 5 Lesson 5: Number Puzzles |
| Lesson 7: Subtracting Rational Numbers (Part 1) | Unit 5 Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) Lesson 5: Number Puzzles Lesson 10: Integer Puzzles Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) |
| Lesson 8: Subtracting Rational Numbers (Part 2) | Unit 5 Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) Lesson 5: Number Puzzles Lesson 10: Integer Puzzles Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) |
| Lesson 9: Adding and Subtracting Rational Numbers | Unit 5 Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) Lesson 5: Number Puzzles Lesson 10: Integer Puzzles Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available)Practice Day 1 (Print available) |
| Sub-Unit 2: Multiplying and Dividing Rational Numbers | |
| Lesson 10: Position, Speed, and Time | Unit 5 Lesson 7: Back in Time |
| Lesson 11: Multiplying Rational Numbers | Unit 5 Lesson 7: Back in Time |
| Lesson 12: Multiply! | Unit 5 Lesson 7: Back in Time |
| Lesson 13: Dividing Rational Numbers | Unit 5 Lesson 7: Speeding Turtles |
| Lesson 14: Negative Rates | |
| Sub-Unit 3: Four Operations with Rational Numbers | |
| Lesson 15: Expressions with Rational Numbers | Unit 5 Lesson 9: Expressions (Print available) |
| Lesson 16: Say It With Decimals | |
| Lesson 17: Solving Problems with Rational Numbers | Lesson 11: Changing Temperatures Lesson 12: Arctic Ice Sea (Print available) Lesson 13: Solar Panels and More (Print available) |
| Lesson 18: Solving Equations With Rational Numbers | |
| Lesson 19: Representing Contexts With Equations | |
| Lesson 20: Summiting Everest |
Unit 6: Expressions, Equations, and Inequalities
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 6: Expressions, Equations, and Inequalities | Unit 2: Introducing Proportional Relationships Unit 4: Proportional Relationships and Percentages Unit 6: Expressions, Equations, and Inequalities |
| Lesson 1: Keeping the Balance | |
| Lesson 2: Balanced and Unbalanced | Unit 6 Lesson 1: Toothpicks and Tiles |
| Lesson 2: Balanced and Unbalanced | Unit 6 Lesson 1: Toothpicks and Tiles |
| Lesson 3: Reasoning About Solving Equations (Part 1) | Unit 6 Lesson 2: Smudged Receipts |
| Lesson 4: Reasoning About Solving Equations (Part 2) | Unit 6 Lesson 2: Smudged Receipts Lesson 3: Equations Lesson 4: Seeing Structure (Print available) |
| Lesson 5: Dealing with Negative Numbers | Unit 6 Lesson 2: Smudged Receipts Lesson 3: Equations Lesson 4: Seeing Structure (Print available) |
| Lesson 5: Dealing with Negative Numbers | Unit 6 Lesson 8: Factoring and Expanding (Print available) Lesson 16: Shira the Sheep |
| Lesson 6: Two Ways to Solve One Equation | Unit 6 Lesson 4: Seeing Struction (Print available) |
| Lesson 7: Practice Solving Equations | Unit 6 Lesson 2: Smudged Receipts Lesson 3: Equations Lesson 4: Seeing Structure (Print available) |
| Sub-Unit 2: Solving Real-World Problems Using Two-Step Equations | |
| Lesson 8: Reasoning With Tape Diagrams | Unit 6 Lesson 2: Smudged Receipts |
| Lesson 9: Reasoning About Equations and Tape Diagrams (Part 1) | Unit 6 Lesson 2: Smudged Receipts |
| Lesson 10: Reasoning About Equations and Tape Diagrams (Part 2) | Unit 6 Lesson 2: Smudged Receipts |
| Lesson 11: Using Equations to Solve Problems | Unit 6 Lesson 2: Smudged Receipts Lesson 3: Equations Lesson 4: Seeing Structure (Print available) |
| Lesson 12: Solving Percent Problems in New Ways | Unit 6 Lesson 4: Seeing Structure (Print available) Unit 4 Lesson 7: Percent MachinesPractice Day 1 (Print available) Practice Day 2 (Print available) |
| Sub-Unit 3: Inequalities | |
| Lesson 13: Reintroducing Inequalities | Unit 6 Lesson 1: Toothpicks and Tiles |
| Lesson 14: Solving Inequalities | Unit 6 Lesson 5: Balancing Moves Lesson 6: Balancing Equations Lesson 13: I Saw the Signs |
| Lesson 15: Finding Solutions to Inequalities in Context | Unit 6 Lesson 13: I Saw the Signs Practice Day 1 (Print available) |
| Lesson 16: Efficiently Solving Inequalities | Unit 6 Lesson 10: Collect the Squares |
| Lesson 17: Interpreting Inequalities | Unit 6 Lesson 13: I Saw the Signs Lesson 14: Unbalanced Hangers Lesson 15: Budgeting (Print available) |
| Lesson 18: Modeling With Inequalities | |
| Sub-Unit 4: Equivalent Expressions | |
| Lesson 19: Subtraction in Equivalent Expressions |
Unit 7: Angles, Triangles, and Prisms
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 7: Angles, Triangles, and Prisms | Unit 7: Angles, Triangles, and Prisms |
| Lesson 1: Shaping Up | |
| Sub-Unit 1: Angle Relationships | |
| Lesson 2: Relationships of Angles | Unit 7 Lesson 1: Pinwheels Lesson 2: Friendly Angles Lesson 3: Angle Diagrams |
| Lesson 3: Supplementary and Complementary Angles (Part 1) | |
| Lesson 4: Supplementary and Complementary Angles (Part 2) | |
| Lesson 5: Vertical Angles | Unit 7 Lesson 2: Friendly Angles Lesson 3: Angle Diagrams Lesson 4: Missing Measures (Print available) [Free lesson] |
| Lesson 6: Using Equations to Solve for Unknown Angles | Unit 7 Lesson 3: Angle Diagrams Lesson 4: Missing Measures (Print available) [Free lesson] |
| Lesson 7: Like Clockwork | |
| Sub-Unit 2: Drawing Polygons with Given Conditions | |
| Lesson 8: Building Polygons (Part 1) | Unit 7 Lesson 6: Is It Enough? |
| Lesson 9: Building Polygons (Part 2) | Unit 7 Lesson 6: Is It Enough? |
| Lesson 10: Triangles with Three Common Measures | Unit 7 Lesson 13: Popcorn Possibilities |
| Lesson 11: Drawing Triangles (Part 1) | Unit 7 Lesson 5: Can You Build It? [Free lesson] Lesson 6: Is It Enough? Lesson 7: More Than One Lesson 8: Can You Draw It? (Print available) Practice Day 1 (Print available) |
| Lesson 12: Drawing Triangles (Part 2) | Unit 7 Lesson 5: Can You Build It? [Free lesson] Lesson 6: Is It Enough? Lesson 7: More Than One Lesson 8: Can You Draw It? (Print available) Practice Day 1 (Print available) |
| Sub-Unit 3: Solid Geometry | |
| Lesson 13: Slicing Solids | Unit 7 Lesson 9: Slicing Solids |
| Lesson 14: Volume of Right Prisms | Unit 7 Lesson 10: Simple Prisms |
| Lesson 15: Decomposing Bases for Areas | Unit 7 Lesson 11: More Complicated Prisms |
| Lesson 16: Surface Area of Right Prisms | Unit 7 Lesson 10: Simple Prisms Lesson 11: More Complicated Prisms Lesson 12: Surface Area Strategies (Print available) |
| Lesson 17: Distinguishing Volume and Surface Area | |
| Lesson 18: Applying Volume and Surface Area | Unit 7 Lesson 13: Popcorn Possibilities |
Unit 8: Probability and Sampling
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 8: Probability and Sampling | Unit 8: Probability and Sampling |
| Lesson 1: The Invention of Fairness | |
| Lesson 2: Chance Experiments | |
| Lesson 3: What are Probabilities? | Unit 8 Lesson 1: How Likely? (Print available) Lesson 2: Prob-bear-bilities [Free lesson Lesson 3: Mystery Bag |
| Lesson 4: Estimating Probabilities Through Repeated Experiments | Unit 8 Lesson 4: Spin Class Lesson 5: Is It Fair? Lesson 6: Fair Games |
| Lesson 5: Code Breaking (Part 1) | |
| Lesson 6: Code Breaking (Part 2) | |
| Sub-Unit 2: Probabilities of Multi-Step Events | |
| Lesson 7: Keeping Track of All Possible Outcomes | Unit 8 Lesson 4: Spin Class Lesson 5: Is it Fair? Lesson 6: Fair Games |
| Lesson 8: Experiments With Multi-Step Events | |
| Lesson 9: Simulating Multi-Step Events | |
| Lesson 10: Designing Simulations | |
| Sub-Unit 3:Sampling | |
| Lesson 11: Comparing Two Populations | Unit 8 Lesson 10: Crab Island Lesson 11: Headlines |
| Lesson 12: Larger Populations | Unit 8 Lesson 10: Crab Island Lesson 11: Headlines |
| Lesson 13: What Makes a Good Sample? | Unit 8 Lesson 10: Crab Island Lesson 11: Headlines |
| Lesson 14: Sampling in a Fair Way | Unit 8 Lesson 10: Crab Island Lesson 11: Headlines |
| Lesson 15: Estimating Population Measures of Center | Unit 8 Lesson 9: Car, Bike, or Train? Lesson 10: Crab Island Lesson 11: Headlines Lesson 12: Flower Power |
| Lesson 16: Estimating Population Proportions | Unit 8 Lesson 9: Car, Bike, or Train? Lesson 10: Crab Island Lesson 11: Headlines Lesson 12: Flower Power |
| Lesson 17: Presentation of Findings |
Grade 8
Unit 1: Rigid Transformations and Congruence
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 1: Rigid Transformations and Congruence | Unit 1: Rigid Transformations and Congruence Unit 3: Proportional and Linear Relationships |
| Lesson 1: Tessellations | |
| Sub-Unit 1: Rigid Transformations | |
| Lesson 2: Moving in the Plane | Unit 1 Lesson 1: Transformers |
| Lesson 3: Symmetry and Reflection | |
| Lesson 4: Grid Moves | Unit 1 Lesson 3: Transformation Golf Lesson 4: Moving Day (Print available) Lesson 5: Getting Coordinated Unit 3 Lesson 6: Translations |
| Lesson 5: Making the Moves | Unit 1 Lesson 1: Transformers Lesson 2: Spinning, Flipping, Sliding Lesson 4: Moving Day (Print available) Lesson 5: Getting Coordinated |
| Lesson 6: Coordinate Moves (Part 1) | Unit 1 Lesson 4: Moving Day (Print available) Lesson 5: Getting Coordinated |
| Lesson 7: Coordinate Moves (Part 2) | Unit 1 Lesson 4: Moving Day (Print available) Lesson 5: Getting Coordinated |
| Lesson 6: Describing Transformations | Unit 1 Lesson 5: Getting Coordinated Lesson 6: Connecting the Dots |
| Sub-Unit 2: Rigid Transformations and Congruence | |
| Lesson 9: No Bending or Stretching | Unit 1 Lesson 7: No Bending, No Stretching |
| Lesson 10: What is the Same? | Unit 1 Lesson 7: Are They the Same? Lesson 9: Are They Congruent? |
| Lesson 11: Congruent Polygons | Unit 1 Lesson 7: Are They the Same? Lesson 9: Are They Congruent? |
| Sub-Unit 4: Angles in a Triangle | |
| Lesson 13: Line Moves | |
| Lesson 14: Rotation Patterns | |
| Lesson 15: Alternate Interior Angles | Unit 1 Lesson 11: Tearing It Up (Print available) |
| Lesson 16: Adding the Angles in a Triangle | Unit 1 Lesson 11: Tearing It Up (Print available) |
| Lesson 17: Parallel Lines and the Angles in a Triangle | Unit 1 Lesson 10: Transforming Angles |
| Lesson 18: Creating a Border Pattern Using Transformations |
Unit 2: Dilations, Similarity, and Introducing Slope
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 2: Dilations and Similarity | Unit 2: Dilations and Similarity |
| Lesson 1: Projecting and Scaling | |
| Sub-Unit 1: Dilations | |
| Lesson 2: Circular Grid | Unit 2 Lesson 1: Sketchy Dilations Lesson 2: Dilation Mini Golf Lesson 3: Match My Dilation Lesson 4: Dilations on a Plane |
| Lesson 3: Dilations on a Plane | |
| Lesson 4: Dilations on a Square Grid | Unit 2 Lesson 1: Sketchy Dilations Lesson 2: Dilation Mini Golf Lesson 3: Match My Dilation Lesson 4: Dilations on a Plane |
| Lesson 5: Dilations with Coordinates | Unit 2 Lesson 4: Dilations on a Plane |
| Sub-Unit 2: Similiarity | |
| Lesson 6: Similarity | Unit 2 Lesson 5: Transformations Golf with Dilations Lesson 6: Social Scavenger Hunt (Print available) |
| Lesson 7: Similar Polygons | Unit 2 Lesson 6: Social Scavenger Hunt (Print available) |
| Lesson 8: Similar Triangles | Unit 2 Lesson 7: Are Angles Enough? Lesson 8: Shadows |
| Lesson 9: Ratios of Side Lengths in Similar Triangles | |
| Lesson 12: Optical Illusions |
Unit 3: Linear Relationships
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 3: Proportional and Linear Relationships | Unit 3: Proportional and Linear Relationships Unit 4: Linear Equations and Linear Systems Unit 5: Functions and Volume |
| Lesson 1: Visual Patterns | |
| Sub-Unit 1: Proportional Relationships | |
| Lesson 2: Proportional Relationships | |
| Lesson 3: Understanding Proportional Relationships | Unit 3 Lesson 1: Turtle Time Trials |
| Lesson 4: Graphs of Proportional Relationships | Unit 3 Lesson 1: Turtle Time Trials Lesson 2: Water Tank Unit 5 Lesson 4: Window Frames |
| Lesson 5: Representing Proportional Relationships | Unit 3 Lesson 1: Turtle Time Trials Unit 5 Lesson 4: Window Frames Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) Lesson 8: Charge! (Print available) |
| Lesson 6: Comparing Proportional Relationships | Unit 3 Lesson 3: Posters |
| Sub-Unit 2: Linear Relationships | |
| Lesson 7: Introduction to Linear Relationships | Unit 3 Lesson 1: Turtle Time Trials Lesson 4: Stacking Cups Unit 5 Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) Lesson 8: Charge! (Print available) |
| Lesson 8: Comparing Linear Relationships | |
| Lesson 9: More Linear Relationships | Unit 5 Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) Lesson 8: Charge! (Print available) |
| Lesson 10: Representations of Linear Relationships | Unit 3 Lesson 5: Flags Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) Lesson 8: Charge! (Print available) |
| Lesson 11: Writing Equations for Lines Using Two Points | |
| Lesson 12: Translating y = mx + b | Unit 3 Lesson 3: Posters Lesson 6: Translations |
| Lesson 13: Slopes Don’t Have to be Positive | Unit 3 Lesson 5: Flags Lesson 6: Translations Lesson 7: Water Cooler Lesson 8: Landing Planes |
| Lesson 10: Calculating Slope | Unit 3 Lesson 7: Water Cooler Lesson 8: Landing Planes |
| Lesson 14: Writing Equations for Lines Using Two Points, Revisited | |
| Lesson 11: Equations of All Kinds of Lines | Unit 3 Lesson 3: Posters Lesson 4: Stacking Cups Lesson 5: Flags Lesson 6: Translations |
| Sub-Unit 3: Linear Equations | |
| Lesson 16: Solutions to Linear Equations | Unit 3 Lesson 3: Posters Lesson 6: Translations Lesson 10: Solutions Unit 4 Lesson 3: Balanced Moves Lesson 4: More Balanced Moves (Print available) |
| Lesson 17: More Solutions to Linear Equations | Unit 3 Lesson 4: Stacking Cups Lesson 5: Flags Lesson 6: Translations Lesson 7: Water Cooler Lesson 10: Solutions |
| Lesson 18: Coordinating Linear Relationships | |
| Lesson 19: Rogue Planes |
Unit 4: Linear Equations and Linear Systems
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 4: Linear Equations and Systems of Linear Equations | Unit 4: Linear Equations and Systems of Linear Equations |
| Lesson 1: Number Puzzles | Unit 4 Lesson 1: Number machines |
| Sub-Unit 1: Linear Equations in One Variable | |
| Lesson 2: Writing Expressions and Equations | |
| Lesson 3: Keeping the Balance | Unit 4 Lesson 2: Keep It Balanced |
| Lesson 4: Balanced Moves (Part 1) | Unit 4 Lesson 3: Balanced Moves |
| Lesson 5: Balanced Moves (Part 2) | Unit 4 Lesson 4: More Balanced Moves (Print available) |
| Lesson 6: Solving Any Linear Equations | Unit 4 Lesson 4: More Balanced Moves (Print available) Lesson 5: Equation Roundtable (Print available) Lesson 6: Strategic Solving (Print available) |
| Lesson 7: How Many Solutions? (Part 1) | Unit 4 Lesson 5: Equation Roundtable (Print available) |
| Lesson 8: How Many Solutions? (Part 2) | Unit 4 Lesson 5: Equation Roundtable (Print available) |
| Lesson 9: Strategic Solving | |
| Lesson 10: When Are They the Same | Unit 4 Lesson 8: When Are They the Same? |
| Sub-Unit 2: Systems of Linear Equations | |
| Lesson 11: On or Off the Line? | Unit 4 Lesson 9: On or Off the Line? |
| Lesson 12: On Both of the Lines | Unit 4 Lesson 10: On Both Lines |
| Lesson 13: Systems of Linear Equations | Unit 4 Lesson 11: Make Them Balance |
| Lesson 14: Solving Systems of Equations (Part 1) | Unit 4 Lesson 14: All, Some, or None? Part 2 |
| Lesson 15: Solving Systems of Equations (Part 2) | Unit 4 Lesson 12: All, Some, or None? Part 2 |
| Lesson 16: Writing Systems of Linear Equations | Unit 4 Lesson 14: Strategic Solving, Part 2 (Print available) |
| Lesson 17: Pay Gaps |
Unit 5: Functions and Volume
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 5: Functions and Volume | Unit 2: Dilations, Similarity, and Introducing Slope Unit 3: Proportional and Linear Relationships Unit 5: Functions and Volume |
| Lesson 1: Pick a Pitch | |
| Sub-Unit 1: Representing and Interpreting Functions | |
| Lesson 2: Introduction to Functions | Unit 5 Lesson 2: Guess My Rule |
| Lesson 3: Equations of Functions | Unit 3 Lesson 4: Window Frames |
| Lesson 4: Graphs of Functions (Part 1) | Unit 5 Lesson 3: Function or Not? |
| Lesson 5: Graphs of Functions (Part 2) | Unit 5 Lesson 5: The Tortoise and the Hare |
| Lesson 6: Graphs of Functions (Part 3) | Unit 5 Lesson 6: Graphing Stories |
| Lesson 7: Connecting Representations of Functions | Unit 5 Lesson 7: Feel the Burn (Print available)Lesson 8: Charge! (Print available) |
| Lesson 8: Comparing Linear Functions | |
| Lesson 9: Modeling with Linear Functions | |
| Lesson 10: Piecewise Linear Functions | Unit 5 Lesson 9: Piecing It Together |
| Sub-Unit 2: Cylinder, Cones, and Spheres | |
| Lesson 11: Filling Containers | |
| Lesson 12: The Volume of a Cylinder | Unit 5 Lesson 10: Volume LabLesson 11: Cylinders Lesson 12: Scaling Cylinders |
| Lesson 13: Determining Dimensions of Cylinders | Unit 5 Lesson 14: Missing Dimensions (Print available) |
| Lesson 14: The Volume of a Cone | Unit 5 Lesson 10: Volume LabLesson 13: Cones |
| Lesson 15: Determining Dimensions of Cones | Unit 5 Lesson 12: Scaling Cylinders Lesson 13: Cones Lesson 14: Missing Dimensions (Print available) |
| Lesson 16: Estimating a Hemisphere | |
| Lesson 17: The Volume of a Sphere | Unit 5 Lesson 15: Spheres |
| Lesson 18: Cylinders, Cones and Spheres | Unit 5 Lesson 15: Practice Day 2 (Print available) |
| Lesson 19: Scaling One Dimension | |
| Lesson 20: Scaling Two Dimensions | |
| Lesson 21: Packing Spheres |
Unit 6: Exponents and Scientific Notation
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 6: Exponents and Scientific Notation | Unit 7: Exponents and Scienctific Notation |
| Lesson 1: Create a Sierpinski Triangle | |
| Sub-Unit 1: Exponent Rules | |
| Lesson 2: Reviewing Exponents | Unit 7 Lesson 1: Circles Lesson 2: Combining Exponents |
| Lesson 3: Multiplying Powers | Unit 7 Lesson 3: Power Pairs (Print available) Lesson 4: Rewriting Powers |
| Lesson 4: Dividing Powers | Unit 7 Lesson 3: Power Pairs (Print available) Lesson 4: Rewriting Powers |
| Lesson 5: Negative Exponents | Unit 7 Lesson 5: Zero and Negative Exponents |
| Lesson 6: Powers of Powers | Unit 7 Lesson 3: Power Pairs (Print available) |
| Lesson 7: Different Bases, Same Exponent | |
| Lesson 8: Practice with Rational Bases | Unit 7 Practice Day 1 (Print available) |
| Sub-Unit 2: Scientific Notation | |
| Lesson 9: Representing Large Numbers on the Number Line | Unit 7 Lesson 8: Point Zapper |
| Lesson 10: Representing Small Numbers on the Number Line | Unit 7 Lesson 8: Point Zapper |
| Lesson 11: Applications of Arthithmetic with Powers of 10 | Unit 7 Lesson 8: Point Zapper Lesson 9: Use Your Powers |
| Lesson 12: Definition of Scientific Notation | Unit 7 Lesson 10: Solar System Lesson 11: Balance the Scale Lesson 13: Star Power |
| Lesson 13: Multiplying, Dividing, and Estimating with Scientific Notation | Unit 7 Lesson 11: Balance the Scale Lesson 13: Star Power |
| Lesson 14: Adding and Subtracting with Scientific Notation | Unit 7 Lesson 11: Balance the Scale Lesson 12: City Lights Lesson 13: Star Power |
| Lesson 15: Is a Smartphone Smart Enough to Go to the Moon? |
Unit 7: Irrationals and the Pythagorean Theorem
Practice Day 2 (Print available)
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 7: Irrationals and the Pythagorean Theorem | Unit 8: The Pythagorean Theorem and Irrational Numbers |
| Lesson 1: Sliced Bread | |
| Sub-Unit 1: Rational and Irrational Numbers | |
| Lesson 2: The Square Root | Unit 8 Lesson 2: From Squares to Roots |
| Lesson 3: The Ares of Squares and Their Side Lengths | Unit 8 Lesson 1: Tilted Squares Lesson 3: Between Squares |
| Lesson 4: Estimating Square Roots | Unit 8 Lesson 3: Between Squares Lesson 4: Root Down |
| Lesson 5: The Cube Root | Unit 8 Lesson 5: Filling Cubes |
| Lesson 6: Rational and Irrational Numbers | Unit 8 Lesson 14: Hit the Target |
| Lesson 7: Decimal Representations of Rational Numbers | Unit 8 Lesson 12: Fractions to Decimals |
| Lesson 8: Converting Repeating Decimals Into Fractions | Unit 8 Lesson 13: Decimals to Fractions |
| Sub-Unit 2: The Pythagorean Theorem | |
| Lesson 9: Observing the Pythagorean Theorem | Unit 8 Lesson 6: The Pythagorean Theorem |
| Lesson 10: Proving the Pythagorean Theorem | Unit 8 Lesson 7: Pictures to Prove It |
| Lesson 11: Determining Unknown Side Lengths | Unit 8 Lesson 8: Triangle-Tracing Turtle |
| Lesson 12: Converse of the Pythagorean Theorem | Unit 8 Lesson 9: Make it Right |
| Lesson 13: Distances on the Coordinate Plane (Part 1) | Unit 8 Lesson 11: Pond Hopper |
| Lesson 13: Distances on the Coordinate Plane (Part 1) | Unit 8 Lesson 11: Pond Hopper |
| Lesson 14: Distances on the Coordinate Plane (Part 2) | Unit 8 Lesson 11: Pond Hopper |
| Lesson 15: Applications of the Pythagorean Theorem | Unit 8 Lesson 8: Triangle-Tracing Turtle Lesson 10: Taco Truck |
| Lesson 16: Pythagorean Triples |
Unit 8: Pythagorean Theorem and Irrational Numbers
| Amplify Math | Desmos Math 6–A1 |
|---|---|
| Unit 8: Associations in Data | Unit 6: Associations in Data |
| Lesson 1: Creating a Scatter Plot | Unit 6 Lesson 1: Click Battle |
| Sub-Unit 1: Associations in Data | |
| Lesson 2: Interpreting Points on a Scatter Plot | Unit 6 Lesson 3: Robots |
| Lesson 3: Observing Patterns in a Scatter Plot | Unit 6 Lesson 7: Scatter Plot City |
| Lesson 4: Fitting a Line to Data | Unit 6 Lesson 4: Dapper Cats Lesson 5: Fit Fights |
| Lesson 5: Using a Linear Model | Unit 6 Lesson 6: Interpreting Slopes |
| Lesson 6: Interpreting Slope and y-intercept | Unit 6 Lesson 6: Interpreting Slopes |
| Lesson 7: Analyzing Bivariate Data | Unit 6 Lesson 8: Animal Brains |
| Lesson 8: Looking for Associations | Unit 6 Lesson 9: Tasty Fruit |
| Lesson 9: Using Data Displays to Find Associations | Unit 6 Lesson 10: Finding Associations Lesson 11: Federal Budgets |
S5-02. Uncovering the causes of math anxiety

We’re continuing our season theme of math anxiety, going beyond the basics, diving deeper into what causes it, and how we can help students move forward. In this episode, we talk to Dr. Erin Maloney from the University of Ottawa to better understand what’s actually happening in the brain when a person experiences math anxiety, and how we can take steps to shift student mindsets in a positive direction.
Listen now and don’t forget to grab your MTL study guide to track your learning and make the most of this episode!
Enjoy this episode and explore more from Math Teacher Lounge by visiting our main page.
Dr. Erin Maloney (00:00):
It’s the anxiety itself in many ways that can cause people to underperform.
Bethany Lockhart Johnson (00:06):
Welcome back to Math Teacher Lounge. I’m Bethany Lockhart Johnson.
Dan Meyer (00:10):
And I’m Dan Meyer.
Bethany Lockhart Johnson (00:11):
This is episode two of our new season, all about math anxiety. Who has it? What is it? What do we do about it?
Dan Meyer (00:20):
I’m learning so much, learning a ton.
Bethany Lockhart Johnson (00:22):
I loved our first conversation with Dr. Gerardo Ramirez, episode one, our first episode of the season. Really, our goal with that conversation was just to—we need to talk about the basics of it, for reals. Like, what is math anxiety?
Dan Meyer (00:36):
What is it? How do you measure it? How’s it defined? Super-helpful stuff.
Bethany Lockhart Johnson (00:40):
There’s not only one way that it’s measured. But it’s like, in active research right now, how are folks making sense of it? And I think Dr. Ramirez did such a fantastic job of sharing that with our listeners. And I learned a lot. You learned a lot, Dan?
Dan Meyer (00:56):
I did. And I’m also super-excited to take that knowledge that we have developed together and go and build on top of it and keep on climbing up up the mountain here, and learn more about math anxiety. Which is why we’re super-excited to have a guest on, Dr. Maloney, who is going to help us learn more—especially about what happens to the brain when it’s experiencing math anxiety. There’s some really complex stuff that happens there, including the role of parents and educators in creating and resolving math anxiety. And I think we’ll also learn that the whole situation is a bit of a hot mess. And we’ll try to make it a little bit less messy together.
Bethany Lockhart Johnson (01:34):
Little bit less messy. Dan, if we do nothing else, can we make it a little less messy?
Dan Meyer (01:41):
I sometimes prefer more mess, but in this case I prefer less. So.
Bethany Lockhart Johnson (01:45):
I have a two-year-old, so everything is a mess.
Dan Meyer (01:47):
Your life is mess. Yes. <laugh> Right. Well, I’m excited for you folks to hear this. It was a delightful conversation, so yeah, tune in. We are joined by Dr. Erin Maloney.
Bethany Lockhart Johnson (01:56):
Let’s go. We are joined by Dr. Erin Maloney, associate professor in the School of Psychology at the University of Ottawa, where she directs the Cognition and Emotion Laboratory, as well as serving as the Canada Research Chair in Academic Achievement and Well-being. Welcome to the show, Dr. Maloney. We’re so excited to have you in the Lounge.
Dr. Erin Maloney (02:20):
Yeah, thank you so much for having me. This is fantastic.
Bethany Lockhart Johnson (02:24):
So our last season was all about math and joy. And even when I read your title, I felt more joyful. Like, somebody is thinking about academic achievement, but with well-being in mind. I love it.
Dr. Erin Maloney (02:39):
Aw, thank you.
Dan Meyer (02:40):
Cognition and emotion!
Bethany Lockhart Johnson (02:42):
E-mo-tion!
Dr. Erin Maloney (02:43):
I don’t think they can be separate. I think that you have to think about them together, ’cause they’re so intricately connected.
Dan Meyer (02:49):
Love that. People try, but we love that. Yeah. That’s our vibe here, too.
Bethany Lockhart Johnson (02:52):
People try. That was a big problem with my math anxiety. They just wanted…there was no room for my emotion. They’re like, stop weeping at your desk—
Dan Meyer (03:00):
It’s rearranging neurons….
Bethany Lockhart Johnson (03:01):
—you’re distracting the other children. So would you mind telling us the story of how you even got interested in this topic? You know, when you tell people that you study math anxiety—or, actually, I don’t know how you describe it to them; I’m hopeful you bring in that well-being part—but how did you get here? What do you, what do you, what do you…yeah, tell us! We love it!
Dr. Erin Maloney (03:23):
<laugh> I feel like what you’re actually asking is, “How did you make life choices that got you to here?” <Laugh>
Bethany Lockhart Johnson (03:29):
Justify your life choices! Ready? Go!
Dr. Erin Maloney (03:32):
<laugh> Whoo. OK. So, all right. So we often, in psychology, we joke that instead of doing research, we do “me-search.” And that’s, that’s admittedly true in my case. I was a student who absolutely loved math up until about eighth grade, and then something changed, and all of a sudden I was terrified of math and I had absolutely no sense of self-efficacy in it. Despite trying really hard, I was extremely anxious about it. And so I initially, I set out…my parents were completely convinced that I was absolutely capable of doing mathematics and that I was getting in my own way. And when I went to university, I decided to prove them wrong. So I set out to prove that some people just can’t do math, and that’s the end of it. And, you know, 20 plus years later, my parents were right. And it turns out that many people—well, I would argue virtually everyone—can do math. And that if you are really anxious about it, it can get in the way. And interestingly, you know, in, in the years that we’ve been doing this research, there’s really good strategies that can be used—that hopefully we get a chance to chat about—that can really help reduce the amount of anxiety that students are experiencing. But I really did set out, like the bold teenager that I was, to prove my parents wrong. And that backfired <laugh>. So I know it’s kind of a strange answer, but it’s the truth. So I was really interested in understanding why it was some people just could not do math.
Dan Meyer (05:10):
That makes two for two so far, on guests for this season who did a version of me-search. And I feel like this is pretty common for a lot of researchers. Like, I wanna figure out…my experience as a teacher, the part where you, I think, diverge from a lot of people I knew in grad school, myself included, is that you actually let counter evidence change your perspective on things. Whereas I feel like a lot of us go in: “I know this is true and I’m gonna gather data!” and lo and behold, I’m true! But only now, with the research TM, you know, trademarked research, attached to it. So that’s, really exciting. Thanks for sharing that.
Dr. Erin Maloney (05:43):
No, you’re welcome.
Bethany Lockhart Johnson (05:44):
But don’t people say that the more personal you get, the more universal it is? Right? So if you go and get your doctorate about something that you think is just your experience or in your brain, then people are gonna be gonna be like, “Wait a second; you think that too?” “Wait, that math anxiety isn’t just you?” I don’t know, it sounds like a pretty great path to me. When you tell folks that you study math anxiety or when you’re speaking to folks about your research, do you find that there is a lot of folks who relate to what you’re studying? Or how does that conversation typically go?
Dr. Erin Maloney (06:20):
Yeah, so it is I think an extremely relatable topic. Not in the sense that everyone experiences anxiety about math, but everyone seems to know somebody who’s really anxious about math. Or everyone’s at least aware of the stereotype that like some people are math people and some people aren’t, and that’s just the way it is. So it feels like everyone has feelings about math and everyone seems very happy to share those feelings. So one thing I’ve always found really interesting, and actually, so I, I know you mentioned that you had Gerardo on recently. Gerardo and I have had really interesting conversations about how people are really quick to tell you that they hate math and they can’t do math, and they’re anxious about math. And I’ve yet to have anyone ever tell me they hate reading, they can’t read, they’re really anxious about reading as an adult. So for some reason math seems really different. And in that sense people always seem to be pretty excited to talk about their feelings towards math.
Dan Meyer (07:23):
Yeah, definitely. Been on an airplane or two myself and had those conversations. You know, people asking to be reseated because they found out that I do math for a living or whatever. Or just unburdening themselves, for sure. I’m super-curious: I think that the fact that you are doing the me-search is reason enough to want to dedicate your life to this study. But I am curious: If you were gonna justify to someone else, why is math anxiety important to study? What are its consequences, even outside of math education? What would you say to that?
Dr. Erin Maloney (07:57):
So I think it’s probably not hard to convince people that success in math is important, right? So we know that children who start elementary school behind in mathematics tend to stay behind in mathematics, unless they have any kind of very targeted intervention. We know that children who do worse in mathematics throughout K to 12 education in general get lower-paying jobs when they’re older. We also know that when they do worse than mathematics relative to their peers, there’s fewer jobs that are open to them, relative to if they excelled in math. Right? And so I think in many ways there are really clear consequences for students who are not comfortable with math and who avoid it. But I think one of the really, really interesting things about math anxiety, and maybe part of why I’ve fallen in love with it as a research topic is that it’s the anxiety itself in many ways that can cause people to underperform. So it’s not just the case that people who are bad at math are anxious about it. It’s actually that the anxiety itself can cause you to do worse in math. And that for me is really exciting, ’cause it means that if we can change your mindset, then we can really set you on a path with several more options available to you career-wise. And I think that is really empowering.
Dan Meyer (09:18):
Hmm. Yeah, definitely. And I’d love for you to explore — your laboratory is the cognition and emotion laboratory, which I love, how you’re creating those linkages between how you feel about a thing and what your opportunities or your aptitude for learning it. I’m really curious, can you say more about the, the relationship there? How does feeling anxiety impair your ability to do mathematics?
Dr. Erin Maloney (09:41):
Yeah, so feeling anxiety, typically what you tend to experience is these negative thoughts and ruminations. So you can imagine, you’re somebody who doesn’t really love math, you’re pretty anxious about it; you know, Bethany, maybe you’ve had this kind of experience before. I’m gonna call you out on it. I’ve had it many times, where you sit down to do a math test and all of a sudden you’re not focusing on the actual math test in front of you. You’re focusing on things like the consequences of not doing well on this. Right? Or “my parents are gonna be really disappointed if I don’t pass this test,” or “my teacher is gonna think negatively negative of me,” or sometimes we see things like, “I’m a girl, girls don’t do math.” These types of stereotypes. And what happens is that those thoughts actually tie up really important cognitive resources, like, really important memory resources, that you need to do the math test. And so if you are trying to essentially do two things at once, right? You’re trying to deal with all these negative thoughts that are distracting you and you’re trying to do the math test, then you’re not going to do as well as someone who’s sitting down and doesn’t have all of these distracting thoughts to deal with. And we actually know that from research that we have in our lab right now, where we just ask people like, “Hey, when you did this math test, what kind of stuff are you thinking about?” what we find is that the people who are really anxious about math report a whole bunch of thoughts that are unrelated really to the math test, per se. It’s more about the consequences of doing poorly. And as a result of those thoughts, they actually end up doing worse.
Dan Meyer (11:14):
This has been really helpful to figure out, how the emotional state of doing math affects the ability to do math. And it’s really interesting how you’re saying that the direction of the causality can go from the emotions to the cognition. And I’m just curious then, what is the source of the bad emotions about math? Where does that come from? Is it nature? Is it nurture? Some combination? How do you see it?
Dr. Erin Maloney (11:39):
Yeah, so one, that’s a fantastic question. And there’s been a whole bunch of people all around the world that have been spending a lot of time really trying to pinpoint that down. And I think the answer is that it’s, you know, it’s complex. So most of what it’s looking like right now is that it is a combination of both. So essentially what we find is that kids who start elementary school who are a little bit behind in math—and for the question of why they’re behind, that’s also complex; it could be genetics, it could be just environmental input, before the child ever entered formal schooling kind of thing—but in essence, what we find is that kids that start school behind in mathematics, those are the children who are most likely to develop anxiety about math by the time they’re finished first grade. OK? But we also know that once they’ve developed the anxiety about math, then that’s when they get these thoughts and ruminations that kind of tie up those memory resources, that then is gonna make it harder for them to succeed in math tests. So you get into this sort of vicious cycle, right? Where maybe you start behind a little bit and then you develop the anxiety, the anxiety causes you to underperform relative to what you should be able to, so now you’re even further behind, you get more anxious because you’re not doing as well as you’d like to…but again, kind of coming back to the “Why are the children starting behind in the first place?” Some of that seems to be the role that parents are playing in the household. So some kids come from a household where parents are playing a lot more math games with them, talking about mathematical concepts on a regular basis. Maybe they have older siblings who are, you know, practicing arithmetic and, and mathematical processing in front of them. And so those kids are exposed to more math before they ever even start formal schooling. Those kids seem to do better. And then we also know that the parents’ attitudes matter a lot too. So what we find is that when parents are high in math anxiety themselves, especially when they help their children a lot with their math homework in really early ages, we find that those kids end up being more anxious about math by the end of the school year, and they also end up doing worse in mathematics. So it really does seem to be, you know, kind of a complex set of factors that have something to do with both maybe genetic predisposition to success in math and genetic predisposition to anxiety, but then also the social attitudes and stereotypes about math to which you’re exposed at home that really seem to be coming together to create this anxiety in young children.
Bethany Lockhart Johnson (14:24):
I feel like everything you’re saying is <laugh>…it makes so much sense and yet it’s so often not talked about, right? Because it’s just more like, it gets boiled down to, “Oh, they’re just not a math person,” instead of all these other factors that are at play. And I completely remember the anxiety I felt, whether it was a test or not, walking into my math classroom when I was in ninth grade. And there’s no way I was set up and ready to learn. Right? <Laugh>. And something with—we mentioned Dr. Ramirez, he was talking about validating that anxiety. If teachers validate that like, “Oh, you know what, sometimes you might feel stumped, or this might feel overwhelming.” Even the power in creating space for that in the classroom, right? And acknowledging that it doesn’t—math doesn’t have to “come easy” to you in order for you to have access or make sense, is such a powerful concept. And I love the way that you are looking at all these different factors and saying, “Hey, it’s both simple and also a lot more complicated than we’re we’re making it.” Right?
Dr. Erin Maloney (15:36):
No, and I agree with that sentiment so much. Like, I think, though—one thing I will sort of caution is that I think when teachers are validating the anxiety, or when parents are validating the anxiety, I think there’s a very fine line that needs to be walked where we need to be able to say, you know, “It’s OK to struggle with something. That’s, that is completely OK.” And as we’re, you know, as we’re working towards something that’s really valuable, right? We can, we can work hard at something and by working hard at it, we’re going to get better. And I think that type of validating is really, really important and valuable. I think what we wanna be careful of is not to say things like, “Oh, it’s OK. I also never loved math.” And, you know, “Oh, I was never a math person either.” And so even though we might be bringing comfort to the the child, I think that that’s sending the wrong message. And so sometimes it’s really well intentioned and really not great—
Bethany Lockhart Johnson (16:37):
A hundred percent.
Dr. Erin Maloney (16:38):
—in terms of the messaging. So that’s the only…so just for people listening, the only sort of caution that I would give there is that I think there’s nuances to the validating of the feelings that are important.
Bethany Lockhart Johnson (16:50):
I am so glad you said that because as a kindergarten teacher, I vividly remember—and this is as early as, you know, the kids are five years old, right?—and I remember in a parent-teacher conference, a parent saying, “Oh, I wasn’t a math person either,” or, “Oh, no, ugh.” And they were so quick, like you said, they wouldn’t say that about reading, but they were so quick to talk about their lack of natural math aptitude, right? And, and it was really interesting because you know that even if they’re not saying that specific thing at home, those attitudes are absolutely carrying over at home. And they’re absolutely carrying over to, to how they interact with their kiddo around math and around what’s happening in the conversations about math. And I felt like a lot of times my work as a teacher was also to help support parents through their own math anxiety, and help give them some new language for how they can talk about math. And that math is more than just getting to an answer quickly. Like, let’s talk about, let’s go on math walks, let’s go on number walks, what numbers are around the home? Or oh, is that bigger than this? Do you have more of this? And even those little things, I, my hope was that it was starting to shift the conversation around what math was possible in the home, particularly when you saw that it was the parents who had palpable math anxiety. Right? And how much you know that that’s gonna impact what’s happening when you sit down to do homework together.
Dr. Erin Maloney (18:22):
Yeah. And I love that you have worked to encourage parents to do that. So we do similarly. Like even from a research perspective, where I will often give talks to parents and teachers and we talk about the idea of trying to mathematize everything, right? So just the idea that math is absolutely everywhere, and you know, whether it’s a matter of playing games in the car with your kids where you’re thinking of a number and it’s “My number is higher than 42, but lower than 80, and what number do you think I might be thinking of?” And, and gradually trying to get the child to that number. Or, you know, asking questions like, “What’s your favorite even number and why?” And just little things like that that, that I think can make math fun for kids, that help—I don’t even know how to explain it, but just that idea of bringing joy into it, so it’s not always this heavy subject that kids have to come to. So we definitely try to talk to parents about the idea of, like I said, mathematizing everything. And usually it’s well-received, ’cause often parents find it empowering, right? They’re like, “Oh, well, I could do that! But like, that’s not math!” And you’re like, “No, but it is.”
Dan Meyer (19:33):
Yep.
Dr. Erin Maloney (19:34):
Like, it is! And sometimes parents will say like, “Well, I don’t know how to do fractions.” And you’re like, “OK, but how do you bake?” “Well, I don’t know! I just, like, I know how to do those fractions!” And you’re like, “OK, but that’s the starting point. Let’s work with that.” Like, let’s, you know. And I think a lot of times, it’s reminding the parents that they’re actually far more capable than what they think they are, despite the fact that maybe they struggled with math when they were younger.
Dan Meyer (19:58):
Yeah. This is so interesting. And I feel like part of the challenge around conversations about anxiety and math and how to, how to resolve it and where it comes from, is that it, like, it presupposes a single definition of math. And so, you know, we’re talking about like how to be more mindful about math. But you know, like if kids were walking every day through a treacherous street, you know, the solution might not be become more mindful about that street. It’s just like, we gotta fix the treacherous nature of the street, really. You know, I love that we’re talking also about redefining what math is, making it more playful. That feels like a super-important component here. I’d love to know more about what you know about the role of gender in all of this. Are there differences in the way boys and girls experience math anxiety and how it relates to achievement in math?
Dr. Erin Maloney (20:48):
Yeah, so, there’s really, really interesting research on gender in math anxiety. So in general, we find that girls tend to experience more anxiety about math than boys do. So one hypothesis is that it has to do with just social stereotypes that, you know, girls are, are good at reading; boys are good at math, kind of thing. So there’s some evidence to suggest that that might be playing a role. There’s other evidence to suggest as well that maybe boys actually do experience as much anxiety, they just don’t really own up to it.
Dan Meyer (21:20):
Ooh, yikes.
Dr. Erin Maloney (21:21):
So thoughts are, you know, there’s a bit of an apprehension for males to admit experiencing the anxiety. But I think one of the things that is extremely interesting about it—at least to me—is that we don’t tend to see gender differences in young children. So in early elementary school, even though we’ll see that kids as young as six years old will experience anxiety about math, and that that anxiety is related to how well they do in math and how much they enjoy math, it doesn’t seem to vary as a function of gender at that young age. It doesn’t seem to be related to gender until kids are at about sixth, seventh grade that we really start to see this gender difference coming online. And so that, to me, suggests that it’s probably something more social than biological at play. It probably has something more to do with these stereotypes and stuff. But another really interesting—or at least, I’m biased, but to me—another really interesting line of research that comes into play—and some of this is stuff out of my own lab—so we know that boys in general tend to do better at spatial processing than girls. And we know that spatial processing is really important for math, right? So math and space are pretty connected. And by spatial processing, I mean things like being able to picture something rotating in your mind or, you know, envisioning how these puzzle pieces might fit together. And so we know that boys tend to do better at that type of processing. And the gender difference there seems to be related to gender differences in math anxiety. So there’s some speculation, too, that it might be that as the math starts to become more reliant on spatial processing, that that’s when we see this separation between boys and girls with respect to how much anxiety they feel about math. So a lot of this is to say, I think the answer to the gender question right now is what I think what we would officially call a bit of a hot mess, <laugh> where I think there’s probably more questions than answers. But I think that there’s definitely something going on. And it really seems to be coming on later in elementary school.
Dan Meyer (23:32):
That’s a refreshingly honest admission from a social scientist, that it’s a hot mess and not perfectly clear, <laugh> so I appreciate that. It’s interesting what you said about the spatial reasoning. In our work creating curriculum at Amplify, I find we lean a lot on trying to tie abstract math towards spatial topics. Like, can you estimate a quantity before you calculate it? Can you identify a pattern and where it breaks before you prove it abstractly? And, I dunno, it’s just interesting to me. I’m just thinking out loud about how I feel like math becomes more abstract rather than more spatial. The farther you venture into secondary math…I’m wondering if I misunderstand what you’re meaning by spatial, and the progression of math from K–12.
Dr. Erin Maloney (24:20):
Yeah, so I think you can still have—you can have math be abstract, but still really relying on spatial processing. Right? And I think part of that is maybe a bit of us having different definitions of when we say “spatial.” So in cognitive science, when we talk about spatial representations or spatial reasoning, it’s really like anything you’re picturing in your mind, any time you’re really picturing these things in your mind and manipulating those images at all. So if you imagine, even like at a simple level, but it’s gonna hold when you’re going more complex as well. So doing like equivalence problems, for example, where you have to balance the equations.
Dan Meyer (24:58):
Yeah.
Dr. Erin Maloney (24:59):
Even just being able to envision things kind of moving around that equal sign and bringing one piece of the equation from this side to the other is actually an extremely spatial kind of reasoning. Right? Or when you’re expanding, that’s actually extremely extremely spatial, despite the fact that it might not feel like it initially. Obviously anything in geometry is going to be very spatial. So I think, in that sense, we would argue that the spatial processing is still playing a pretty important role. But it’s maybe a different type of spatial processing than what we’re seeing at a very early level in elementary school. That said, you can completely disagree with me too. ‘Cause I could also just be wrong, and that’s fair. My kids tell me I’m wrong all the time. So I’m used to <laugh> being told that I’m wrong.
Dan Meyer (25:47):
Well, we’re a bit more deferential on this here show, with our guests. So I would not do that. But it makes sense, what you’re saying about how these are things that you manipulate in your mind, whether they are Xs and Ys or numbers and fractions. These are all things that we manipulate. That ties into differences in this spacial reasoning category, it sounds like, which then contributes to math anxiety. And it does start to feel like there’s a lot going on here, is what it feels like.
Bethany Lockhart Johnson (26:14):
You mean hot mess?
Dan Meyer (26:16):
I meant hot mess.
Dr. Erin Maloney (26:17):
Yeah. <laugh>, I think that’s the technical term, right? I’m pretty sure that’s the technical term for it.
Dan Meyer (26:21):
I didn’t know the citation for it. So I didn’t say it. But I knew who in literature named that. But yeah.
Dr. Erin Maloney (26:28):
I’ll write something at some point.
Dan Meyer (26:30):
We’ll cite Maloney, 2022. Yeah. Yes.
Bethany Lockhart Johnson (26:34):
So I will say that one of my dreams in thinking about this season and last season, but particularly this season, since we’re really getting to talk to some researchers who get to think about this, and have really interesting conversations about it all the time…one of my dreams is that we’re bringing—’cause we do have some folks who are researchers that are listening, right? But then we also have teachers and folks who are in the classroom every day, and parents and caregivers listening. And so I think one of the beautiful things about the way that I hear you talking about it is you’re thinking about the research, but it’s so applicable. Right? And I wonder if there’s anything else you can say around it. I wanna reduce that divide, that gap, between the research that’s happening and then what’s happening with the kiddos and in the classroom and at home. And I don’t know if it’s like a magic wand thing where like <laugh> if there were changes you’d wanna see at a societal level, to try to combat math anxiety, but you see where I’m going. You know, it’s like <laugh>….
Dr. Erin Maloney (27:39):
- So I’m gonna answer maybe in two ways. So I think the first thing that I’m hearing from you is that idea of diminishing this divide, right? And so one thing I try to keep in mind, as someone who’s a researcher and working in the lab, I will often be called in to talk to teachers and give professional development sessions. And they often want the sage-on-the-stage academic, that stands up there and tells you the answers to things. And one of the first things that I’m gonna admit when I get up there is, “I am not on the front lines.” So what I do in the lab, for me to tell you that that’s gonna work in a classroom of 30 kids who may or may not have eaten dinner that day, and may or may not have snow pants, and may or not…like it’s–
Bethany Lockhart Johnson (28:23):
Mmm, yes.
Dr. Erin Maloney (28:24):
You know, I think we also need to be a little bit reasonable. So I try really hard in my own program of research to make sure that I’m always talking to teachers and to principals and to curriculum designers to make sure that the ideas that I have make sense. In fact, one of the most recent book chapters that I wrote, I wrote in collaboration with a really good friend of mine who’s a principal, an elementary school principal, and a former math consultant. And we wrote it together, to really say like, “Hey, here’s how we can help each other inform how research can inform practice and how practice can also inform research.” ‘Cause he can come to me and say, “I’m doing this. I can’t find anything in the literature to support this, but I’m sure it works!” And we can design something in the lab to test whether or not it seems like it’s gonna work.
Bethany Lockhart Johnson (29:11):
That’s huge. Yeah.
Dr. Erin Maloney (29:12):
Empirically. And so I think that open communication is massive. One thing that we’re doing in my own lab to try to keep that open communication available. So to anyone listening who’s ever tried to get access to a journal article, they’re held behind paywalls, right? So one, the way it works, my understanding of this anyway, is that the journal owns the formatted version of the paper. So what we do is we put up audio recordings of all of the research papers that we ever publish. So I’m pretty sure I own the words as the author, and the journal owns the prettified version that you can buy. So we audio-record all of our papers, so that if teachers or parents ever want to hear the actual science that’s going into some of these decisions, they have access to at least the stuff that we do in our lab. And we also put up an infographic for every paper, just highlighting kind of the main questions and main findings. And we do that because I think that the only way for the information to actually be useful is if it gets into the hands of the stakeholders that actually need that information.
Bethany Lockhart Johnson (30:21):
And is accessible. That’s huge. That’s huge!
Dr. Erin Maloney (30:24):
Yeah. Yeah. So that’s one way that we try to do it. And like I said, the other thing, we try to always be working with principals and with teachers. I joke that the way that I remedied this in my own life…so my husband’s a teacher; it’s like, I just married one! It’s fine! <laugh> I can grill him on a regular basis, and be like, “I wanna try this experiment. Do you think it’s gonna work?” And he can say, like, “It’s not going to. Here’s why.”
Dan Meyer (30:47):
That’s awesome. Marrying a participant—you know, a research participant—is unethical, of course. Would not clear IRB. But turning your partner into a participant? Like, what are you gonna do? That’s great.
Dr. Erin Maloney (30:57):
Yeah, no, that’s fair game.
Dan Meyer (30:58):
Yep.
Dr. Erin Maloney (30:59):
Yeah. So that’s—I think we we compensate each other <laugh>. So, no…so I do joke a little bit about that. He was a teacher simply ’cause he wanted to be one. Not ’cause I needed him to be one. But, I think that communication part is, is really key. That’s one thing. Then the other part of the question or the other sort of piece of the question that I was hearing is that idea of, how do we fix math anxiety. Right? Like, what’s the great, “I’m glad that there’s a whole bunch of time and effort and energy going into trying to understand this, but what, where are we at?” And I think with that, it’s really, really promising. So there’s been a lot of research coming out looking at how best to help children or even adults manage their own anxiety about math. And there’s a few really interesting strategies that seem to be quite effective. So one, and I don’t know if—um, it feels weird calling him Dr. Ramirez, just ’cause I know him well!—but I don’t know if Dr. Ramirez would’ve talked about this when he chatted with you, but he has some really interesting work on expressive writing. Did he chat about that at all?
Bethany Lockhart Johnson (32:07):
He didn’t, but I’ve read some of his work about it and I think it’s so fascinating.
Dr. Erin Maloney (32:11):
Yeah! So, OK, well, I’ll tell you about his work on it.
Bethany Lockhart Johnson (32:13):
Yes, please. Please.
Dr. Erin Maloney (32:14):
Because it’s super-useful. So when we talked about that idea of how anxiety causes these thoughts and ruminations, and they tie up the memory resources that you need, what Gerardo has found is that when you get students to write about their anxiety for about 10 minutes before they do a test, what ends up happening is they end up doing better on the test, relative to if they would not have written about their anxiety at all. And this is particularly true for students who are really high in anxiety. OK? And the idea is that all of those thoughts that they were going to have about the test or the consequences of the test, et cetera, you just kind of get ’em…it’s like a mind dump where you get ’em all onto the page at first before you even go to do the test. And now when you go to do the test, you’re not having to do two things at once. You’re no longer dealing with these thoughts ’cause you got ’em all out on the paper beforehand. And so Gerardo has some really interesting work showing that that works for math anxiety. And then it also works for just testing anxiety in general. And so that’s a strategy that I love. I also—part of what I really love about it is it’s so low-cost, right? You need a paper and a pencil and it’s great. So those are always my favorite strategies, the ones that don’t really cost us anything. So that’s one way of dealing with like the cognitive part of the anxiety. The other thing you can do is try to deal with the anxiety part of the anxiety. So for that, what we find is that the typical strategies that you’re gonna see for anxiety tend to work for math anxiety. So things like focused breathing. Right? Making sure you’re doing deep inhales and exhales. That really diaphragmatic breathing seems to be quite helpful. We know that what we call progressive desensitization is really key. That’s the idea of doing things, you know, starting with the questions that you know how to handle. And then gradually working up to the more difficult questions. So you’re sort of gradually exposing yourself to the more complex stuff. And how that can play out on an actual test at school is, you sit down, and instead of just starting with question number one, you actually read the whole test, see which questions you feel like you know the best, start with those questions, and that helps build your confidence so that you’re better able to tackle the questions that are maybe a little bit outside of where you’re currently at. So that seems to be really helpful. The other part that I will say, too, that’s extremely helpful: So we know that anxiety really ties up those memory resources. And so the more you can make the math automatic, the more immune it’s going to be to anxiety in the moment. And so I know that this part can be a little bit controversial, because we don’t wanna necessarily demotivate children, and kill the enthusiasm for math that we’re trying to cultivate…but really, you know, really committing your arithmetic facts to memory can be extremely helpful. So really learning those times tables, really learning your addition and subtraction facts. ‘Cause what happens is, then when you’re in a situation where you need that information, even if you’re anxious and you’re working with fewer cognitive resources than what you would normally have, you actually don’t need that many cognitive resources to be able to pull something from memory that you’ve memorized. So it really helps to kind of protect you against some of the negative impacts of the anxiety while you’re doing that test.
Bethany Lockhart Johnson (35:37):
And you’re not using all your cognitive resources to figure out seven times eight, because you can really focus on what you’re trying to do with that. Oh, that’s fascinating. Yeah. Yeah.
Dr. Erin Maloney (35:47):
Yes. No, a hundred percent right. And so I know that’s one that, like I said, I know it can be somewhat controversial because it’s…you know, we’ve talked about—or we haven’t talked about in this conversation, but we often talk about—the idea of drilling and killing. Right? So you drill the facts, you kill the, the enthusiasm. But I think that there are ways that we can drill arithmetic facts, or help make them automatic, but still fun, right? It doesn’t have to always be in a high-pressure kind of way.
Bethany Lockhart Johnson (36:16):
Totally. And we’ve talked about fluency, and I’m sure we’ll talk about it more in the Lounge. And that is interesting, that link between anxiety when the fluency isn’t there, that—or, of course we hear about anxiety with timed tests, but the idea of that IS something you can do to reduce it, because you have those facts just at your ready. Right?
Dr. Erin Maloney (36:37):
Yeah. So I actually, again, I’m gonna be a little bit controversial. So I don’t hate timed tests in the way that a lot of people do. But I love time to practice. So I think once we’ve got to a point where children have a fairly decent understanding of skills, of a skill, once they’ve got a fairly decent grasp on it, then I love the idea of the timed practice. So it can be still in a low-pressure situation, where in many ways it doesn’t matter if you get the answer to the question correct. But we’re practicing doing it in a situation in which you might be feeling a little bit of pressure, but it’s not real pressure, if that makes sense. And I think that can be really, really useful for students. And again, it can be done in a fun way, right? It doesn’t have to be these super-intense ways. It can be fun. But I think that in life there are situations in which the time that it takes you to complete a problem matter. And I think that we have to make sure that we don’t get too far away from that.
Dan Meyer (37:40):
Yeah. It feels like we should do an entire other episode thinking about ways to develop that fluency and automaticity that don’t contribute to anxiety, or create further disparities between people who are high math anxiety and low math anxiety. Not a small question, I’m sure. And I appreciate you alluding to all of that. You know, this whole thing, as you said, is quite the hot mess. And I feel like you, Dr. Maloney, have helped us make this a little less messy, in our heads, and hopefully the listeners’ heads. I really appreciate that. I just love…you’ve mentioned lots of resources that you have. You’ve alluded to them: audiobook-style readings of your research, which I need ’cause I just finished, you know, Harry Potter, the seventh book, so I need a new thing to listen to like that. Also infographics. Can you tell our listeners where they can find this work of yours, and if there are any other kinds of resources that you wanna plug for our listeners here?
Dr. Erin Maloney (38:32):
Yeah, for sure. So all of our resources can be found on my lab website. So the address for that is www.ErinMaloney.ca. So there we have, like you said, the infographics and the audio articles and all that stuff. And then we also have a link to a new kids’ book out, actually, that a colleague of mine and I have published recently, that really walks through some of these strategies on combating math anxiety. The book is written as a children’s book, so it’s Peyton & Charlie Challenge Math. But it secretly is a book that would also work for adults. So if you are a parent that’s a little bit anxious about math, or a teacher that maybe is a little bit anxious, and you wanna see how some of these strategies can play out, in that book—we linked to it on the website, but it is available for purchase on Amazon. And the one thing I will say about the book, ’cause this is something that we were pretty proud of, so Sheri-Lynn Skwarchuk, who is a school psychologist, and I wrote the book. And it’s available for purchase at our cost price, so we don’t actually make any money on the book. It was literally just a way of getting some of the science out to people who might be able to benefit from it.
Bethany Lockhart Johnson (39:45):
Reducing that divide!
Dr. Erin Maloney (39:46):
Yeah, well that’s what we’re trying to do! Right? So I think in the U.S., I think it’s like $6 on Amazon. And then in terms of other resources, we’re in the process right now of creating some informational videos and and stuff like that that hopefully will be useful for parents and for teachers, just in terms of understanding a little bit more about the anxiety and understanding how to deal with the anxiety in the classroom more, at home or wherever it might be coming up.
Dan Meyer (40:15):
Well, thanks so much. I really appreciate—we appreciate!—you coming on, and hearing about how you’re trying to bridge so many different barriers from research to practice, and school to home. It’s just really inspiring. And we’d love to have you back on sometime. So thank you so much for joining us.
Bethany Lockhart Johnson (40:29):
I feel like we’ve just hung out! Don’t you, Dan?
Dan Meyer (40:31):
Are we rolling here? Oh my gosh, we’re rolling. I just thought we’re just hanging. Yeah,
Bethany Lockhart Johnson (40:34):
I thought we were just hanging!
Dr. Erin Maloney (40:36):
I know, I do, I really appreciate that it has a very kind of chill vibe to it.
Dan Meyer (40:41):
Chill vibe. Like a lounge.
Bethany Lockhart Johnson (40:42):
It’s the lounge!
Dan Meyer (40:43):
Thank you. You get us; you get us. <laugh>
Bethany Lockhart Johnson (40:45):
Dan Meyer. I was shopping for children’s books, and there was this book, and it was talking about being at home with Mom. And it’s going through all the things that the child did that day with Mom. It’s like, “We played outside, we ran through the sprinklers, we even did some homework.” And it shows them sitting at the table with the homework, that’s clearly math homework, in front of them. And the mom is like, “Harrumph!” Like a very perplexed, anxious face. And there’s all these question marks above her. And it’s just like,
Dan Meyer (41:24):
“There should not be numbers on that paper!”
Bethany Lockhart Johnson (41:25):
Exactly. And the child is like, “Ohhhh,” you know. And I mean, I have to give credit to the illustrator, because they really did capture the clear message of this interaction, which was sitting down to do math homework or think about math together is a source of angst. Right? According to this author and according to too many people. And so I think what’s really important is that we recognize those images when we see them out there and speak back to them, and say, “Hey, wait a second.” Yeah, it can feel like that, and it doesn’t have to. And what’s going on that that’s just the assumed way that it’s gonna feel, to sit down and math together. You know?
Dan Meyer (42:11):
Yeah. It feels like we all have a lot of work to do on the whole math-anxiety front. Dr. Maloney helped us see how parents play a part, educators play a part, society and how they create people plays its own part in how we all define math as a thing where we evaluate student thought or where students play it with their thoughts, has its own huge part as well. So yeah, it was a really fantastic conversation with Dr. Maloney. I hope you folks will check out the show notes, where you will find links to Dr. Maloney’s website. A lot of her work, which as you heard, is very geared towards practitioners and parents and even directly at kids, especially the new children’s book she co-authored, Peyton & Charlie Challenge Math.
Bethany Lockhart Johnson (42:55):
Next time we’re gonna dive even more into the nitty gritty of combating math anxiety. To do that, we’re actually gonna be joined—I am so excited about this—by Dr. Rosemarie Truglio from Sesame Workshop.
Rosemarie Truglio (43:09):
Our core audience are two- to four-year-olds, and they love math. And what’s not to love? Children don’t come with this math anxiety. Math anxiety is learned.
Dan Meyer (43:23):
So excited.
Dr. Erin Maloney (43:24):
Sesame Street was a huge part of my childhood and my toddler doesn’t know it yet, but Sesame Street is coming. It’s coming. Like, we’re we’re gonna introduce Sesame Street to him. We just haven’t yet.
Dan Meyer (43:37):
Sesame Street straight raised me.
Bethany Lockhart Johnson (43:38):
Right?
Dan Meyer (43:39):
Yeah. Don’t tell my parents. But that’s, yeah, that’s true. I’m excited, too. It’s gonna be a blast.
Bethany Lockhart Johnson (43:45):
I’m really excited. I think that the more we dive into this topic—which, again, we’re gonna look at math anxiety from a lot of different angles—and I’m excited to talk to Dr. Truglio about how we can take this research and these conversations that are happening about math and how it can actually impact what’s happening in homes. ‘Cause we wanna help create positive relationships with mathematics, with kids in math. I’m so excited. And I hope you folks keep listening. We love having you here in the Lounge. And if you haven’t already, please subscribe to Math Teacher Lounge, wherever you get podcasts. And if you like what you’re hearing, please leave us a rating and a review. It helps more listeners to find the show, and let other folks know about this show. Recommendations are great. Thanks so much for listening.
Stay connected!
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Meet the guest
Erin Maloney is an Associate Professor and Canada Research Chair at the University of Ottawa. Her research sits at the intersection of Cognitive Psychology, Developmental Psychology, and Education and focuses on cognitive and emotional factors that relate to academic achievement. She is a world-renowned expert on the study of math anxiety, conducting research in the lab, in homes, and in classrooms with children, parents, and their teachers. She is passionate about both knowledge mobilization and equity, diversity, and inclusion within education and science.


About Math Teacher Lounge
Math Teacher Lounge is a biweekly podcast created specifically for K–12 math educators. In each episode co-hosts Bethany Lockhart Johnson (@lockhartedu) and Dan Meyer (@ddmeyer) chat with guests, taking a deep dive into the math and educational topics you care about.
Join the Math Teacher Lounge Facebook group to continue the conversation, view exclusive content, interact with fellow educators, participate in giveaways, and more!
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Exciting updates for Amplify CKLA
Big things are coming next school year! Amplify Core Knowledge Language Arts (CKLA) 3rd Edition is introducing new enhancements to save you time, extend your impact, and support you in delivering the dynamic learning experiences your students deserve.

Updates
Amplify CKLA 3rd Edition program improvements
For the next school year, you can expect several exciting updates to your Amplify CKLA experience, including:
- Caregiver-facing letters that summarize student performance on each end-of-unit assessment.
- The availability of K–2 Read-Aloud Videos to support student absences.
- Teacher Presentation Screens assignable to students, either allowing you to share the slides as they are or turn them into digital activities with the ability to control pacing and view student work digitally.
- Lesson screens will be downloadable and printable for offline viewing.
- Teacher Moves that will be easier to use in Companion Mode on a second device or in another tab.
- New resources for kindergarten, including guidance on letter naming routines and engaging digital practice games that can be assigned to students.
- More guidance resources including strategies for teachers to support students with varied needs; writing building block routines for each grade level; instructional guidance and feedback toolkit.

Digital assessment enhancements
We’re making digital assessments more comprehensive for the new school year, adding in open-ended questions (for Grades 2–5) and a three-point scoring rubric. These features will make them an even more powerful tool to gather data about the students in your classroom! You will also be able to download caregiver-facing letters that summarize student performance on each end-of-unit assessment. As you teach the program, digital assessments will help you understand if students are learning to comprehend text and vocabulary, as well as develop various components of comprehension.

New instructional routines videos
Modeling videos demonstrate best practices and help you implement Amplify CKLA K-2 Skills instruction with confidence. The instructional routine modeling videos and paired PDF guides will be embedded directly in the program to streamline your lesson preparation and delivery.
Amplify Classroom updates
This back-to-school season, we’re improving the overall classroom experience with platform enhancements that make lessons easier to navigate and instruction easier to manage.
- We’re making updates to our Recently Visited section on Educator Home. You’ll see both activity and units reflected there, and have the ability to star a unit or lesson to pin it to the front of your list
- Presentation tools are expanding with Companion Mode, Projector Mode, and Sketch Everywhere, making it easier to facilitate lessons, annotate in real time, and manage instruction from anywhere in the room.
- You will also have the option to use our redesigned Activity pages, which feature a left sidebar, informational tabs, and lesson screens at the top of the page. This reconfiguration allows you to immediately see each lesson and more easily access relevant resources and tools. You will be able to turn on the new design—or turn it off to return to the original design—with a toggle located on the page.
- As of December, you are able to filter Stream by student name and see all assignments for a particular student. This includes the ability to preview student work right from the Stream to check in on student progress. You can also now assign digital activities to select students and even name the group they’ve selected for future use in the Assign feature. Named groups will be saved in the Admin Portal. You should also use the Admin Portal to create or edit groups, as well as add or remove staff or students.
AI-powered teacher tools
We’ve developed new tools to enhance your ability to connect and collaborate with families! These AI-powered tools streamline home connections by allowing you to generate your own caregiver materials. You will be able to access the three tools below in your global navigation bar to create PDFs that can be easily downloaded or printed:
- Newsletter generator
- Decodable passage generator
- Caregiver letter translator

New supplemental program: Language Studio for Amplify CKLA 3rd Edition
Releasing for the coming back-to-school season, Language Studio is an add-on program that uses the same structure, knowledge sequence, and Science of Reading foundation of Amplify CKLA 3rd Edition to help multilingual/English learners (ML/ELs) access core content and strengthen language skills. These lessons preview and reinforce Amplify CKLA 3rd Edition content to meet the needs of all K–5 ML/ELs.
This supplemental program is available to purchase for an extra cost.

Language Studio Teacher Guide Grade 4. Unit 2: Knights and Castles: Europe’s Middle Ages: Lesson 1
Language Studio Student Activity Book Grade 4. Unit 2: Knights and Castles: Europe’s Middle Ages: Lesson 1
New Grades 4 and 5 Skills supplements
Also available for the new school year: Grades 4 and 5 Skills instruction. Similar to Grade 3 Skills, Grades 4 and 5 Skills supplements are a flexible component for reteaching and additional practice. You can use these extra lessons to support core instruction or serve as an intervention, depending on your students’ needs. Instruction follows a familiar sequence and can be taught flexibly, in either two 15-minute sessions or one 30-minute session.
This supplemental program is available to purchase for an extra cost.
Amplify Caminos 3rd Edition
We’re thrilled to announce Amplify Caminos 3rd Edition, our Spanish language arts program and companion to Amplify Core Knowledge Language Arts (CKLA) 3rd Edition, which creates a cohesive path to biliteracy for students in bilingual and dual language programs. Built from the ground up for Spanish, it offers everything you need to teach with clarity and purpose: foundational skills instruction, authentic texts, knowledge-rich content, and alignment with Amplify CKLA.
This program is available to purchase for an extra cost.
Noteworthy features
Free content for you to explore
You can use the Discover button to access free content from other Amplify programs, and even assign these free activities to your students via the digital platform.
Caregiver Hub
Throughout the school year, teachers can share the Amplify CKLA and Amplify Caminos Caregiver Hubs with students’ caregivers. These sites provide curriculum details, an overview of what caregivers can expect throughout the school year, and resources they can use with students at home.

Grade 6
Unit 1: Numbers
Unit 2: Number Operations
Unit 3: Proportionality, Ratios, and Rates
Unit 4: Equivalent Expressions
| Module 9: Generating Equivalent Numerical Expressions | |
| Lesson 9.1: Exponents | Unit 6 Lesson 10: Powers Lesson 11: Exponent Expressions (Print available) Lesson 12: Squares and Cubes |
| Lesson 9.2: Prime Factorization | |
| Lesson 9.3: Order of Operations | |
| Module 10: Generating Equivalent Algebraic Expressions | |
| Lesson 10.1: Modeling and Writing Expressions Lesson 10.2: Evaluating Expressions | Unit 6 Lesson 6: Vari-apples Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 10.3: Generating Equivalent Expressions | Unit 6 Lesson 7: Border Tiles Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
Unit 5: Equations and Inequalities
Unit 6: Relationships in Geometry
Unit 7: Measurement and Data
| Module 16: Displaying, Analyzing, and Summarizing Data | |
| Lesson 16.1: Measures of Center | Unit 8 Lesson 4: Lots More Dots Lesson 7: Snack Time Lesson 8: Pop It! Lesson 11: Toy Cars [Free lesson] Lesson 12: In the News Lesson 16: Hollywood Part 3 (Print available) |
| Lesson 16.2: Mean Absolute Deviation | Unit 8 Lesson 8: Pop It! Lesson 9: Hoops Lesson 10: Hollywood Part 1 (Print available) Lesson 16: Hollywood Part 3 ( Print available) |
| Lesson 16.3: Box Plots | Unit 8 Lesson 14: Car, Plane, Bus, or Train? (Print available) Lesson 15: Hollywood Part 2 Lesson 16: Hollywood Part 3 (Print available) |
| Lesson 16.4: Dot Plots and Data Distribution | Unit 8 Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) [Free lesson] Lesson 4: Lots More Dots Lesson 13: Pumpkin Patch Lesson 16: Hollywood Part 3 (Print available) |
| Lesson 16.5: Histograms | Unit 8 Lesson 5: The Plot Thickens [Free lesson] Lesson 6: DIY Histograms Lesson 16: Hollywood Part 3 (Print available) |
Grade 7
Unit 1: The Number System
Unit 2: Ratios and Proportional Relationships
Unit 3: Expressions, Equations, and Inequalities
Unit 4: Geometry
Unit 5: Statistics
| Module 10: Random Samples and Populations | |
| Lesson 10.1: Populations and Samples | Unit 8 Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines Lesson 12: Flower Power Lesson 13: Plots and Samples Lesson 14: School Newspaper (Print available) Lesson 15: Asthma Rates (Print available) |
| Lesson 10.2: Making Inferences from a Random Sample Lesson 10.3: Generating Random Samples | Unit 8 Lesson 13: Plots and Samples Lesson 15: Asthma Rate (Print available) |
| Module 11: Analyzing and Comparing Data | |
| Lesson 11.1: Comparing Data Displayed in Dot Plots | Unit 8 Lesson 14: School Newspaper (Print available) Lesson 15: Asthma Rates (Print available) |
| Lesson 11.2: Comparing Data Displayed in Box Plots | Unit 8 Lesson 13: Plots and Samples Lesson 15: Asthma Rates (Print available) |
| Lesson 11.3: Using Statistical Measures to Compare Populations | Unit 8 Lesson 9: Car, Bike, or Train? (Print available) Lesson 10: Crab Island [Free lesson] Lesson 15: Asthma Rates (Print available) |
Unit 6: Probability
| Module 12: Experimental Probability | |
|---|---|
| Lesson 12.1: Probability | Unit 8 Lesson 1: How Likely? (Print available) [Free lesson] Lesson 2: Prob-bear-bilities [Free lesson] |
| Lesson 12.2: Experimental Probability of Simple Events | Unit 8 Lesson 3: Mystery Bag Lesson 4: Spin Class Lesson 5: Is It Fair? |
| Lesson 12.3: Experimental Probability of Compound Events | Unit 8 Lesson 7: Weather or Not |
| Lesson 12.4: Making Predictions with Experimental Probability | Unit 8 Lesson 3: Mystery Bag Lesson 5: Is It Fair? |
| Module 13: Theoretical Probability and Simulations | |
| Lesson 13.1: Theoretical Probability of Simple Events | Unit 8 Lesson 1: How Likely? (Print available) [Free lesson] Lesson 2: Prob-bear-bilities [Free lesson] |
| Lesson 13.2: Theoretical Probability of Compound Events | Unit 8 Lesson 6: Fair Games |
| Lesson 13.3: Making Predictions with Theoretical Probability | Unit 8 Lesson 8: Simulate It! (Print available) |
| Lesson 13.4: Using Technology to Conduct a Simulation | Unit 8 Lesson 7: Weather or Not Lesson 8: Simulate It! (Print available) |
Grade 8
Unit 1: Real Numbers, Exponents, and Scientific Notation
Unit 2: Proportional and Nonproportional Relationships and Functions
Unit 3: Solving Equations and Systems of Equations
Unit 4: Transformational Geometry
Unit 5: Measurement Geometry
Unit 6: Statistics
| Module 14: Scatter Plots | |
| Lesson 14.1: Scatter Plots and Association | Unit 6 Lesson 1: Click Battle Lesson 2: Wing Span Lesson 3: Robots [Free lesson] Lesson 6: Interpreting Slopes Lesson 7: Scatter Plot City Lesson 8: Animal Brains |
| Lesson 14.2: Trend Lines and Predictions | Unit 6 Lesson 4: Dapper Cats [Free lesson] Lesson 5: Fit Fights [Free lesson] Lesson 8: Animal Brains |
| Module 15: Two-Way Tables | |
| Lesson 15.1: Two-Way Frequency Tables | Unit 6 Lesson 9: Tasty Fruit |
| Lesson 15.2: Two-Way Relative Frequency Tables | Unit 6 Lesson 10: Finding Associations [Free lesson] Lesson 11: Federal Budgets |
Grade 6
Chapter 1: Use Positive Rational Numbers
Chapter 2: Integers and Rational Numbers
| Lesson 1: Understand Integers | Unit 7 Lesson 1: Can You Dig it In [Free lesson] Lesson 4 Sub-Zero |
| Lesson 2: Represent Rational Numbers on the Number Line | Unit 7 Lesson 2: Digging Deeper Lesson 3: Order in the Class (Print available) [Free lesson] Practice Day 1 |
| Lesson 3: Absolute Values of Rational Numbers | Unit 7 Lesson 5: Distance on the Number Line Practice Day 1 (Print available) |
| Lesson 4: Represent Rational Numbers on the Coordinate Plane | |
| Lesson 5: Find Distances on the Coordinate Plane Lesson 6: Represent Polygons on the Coordinate Plane | Unit 7 Lesson 11: Polygon Maker |
Chapter 3: Numeric and Algebraic Expressions
| Lesson 1: Understand and Represent Exponents | Unit 6 Lesson 10: Powers Lesson 11: Exponent Expressions (Print available) Practice Day 2 (Print available) |
| Lesson 2: Find Greatest Common Factor and Least Common Multiple | Unit 5 Lesson 14: Common Multiples Lesson 15: Common Factors Practice Day 2 |
| Lesson 3: Write and Evaluate Numerical Expressions | Unit 6 Lesson 6: Vari-apples Lesson 7: Border Tiles |
| Lesson 4: Write Algebraic Expressions | Unit 6 Lesson 6: Vari-apples Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 5: Evaluate Algebraic Expressions | Unit 6 Lesson 6: Vari-apples Lesson 7: Border Tiles Lesson 12: Squares and Cubes |
| Lesson 6: Generate Equivalent Expressions | Unit 6 Lesson 7: Border Tiles Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 7: Simplify Algebraic Expressions | Unit 6 Lesson 7: Border Tiles |
Chapter 4: Represent and Solve Equations and Inequalities
Chapter 5: Understand and Use Ratio and Rate
Chapter 6: Understand and Use Percent
| Lesson 1: Understand Percent | Unit 3 Lesson 8: Lucky Duckies [Free lesson] |
| Lesson 2: Relate Fractions, Decimals, and Percents | Unit 5 Lesson 13: Grocery Prices (Print available) |
| Lesson 3: Represent Percents Greater Than 100 or Less than 1 | |
| Lesson 4: Estimate to Find Percent | |
| Lesson 5: Find the Percent of a Number Lesson 6: Find the Whole Given a Part and the Percent | Unit 3 Lesson 9: Bicycle Goals Lesson 10: What’s Missing? Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Practice Day 2 (Print Available) |
Chapter 7: Solve Area, Surface Area, and Volume Problems
Chapter 8: Display, Describe, and Summarize data
Grade 7
Chapter 1: Rational Number Operations
Chapter 2: Analyze and Use Proportional Relationships
| Lesson 1: Connect Ratios, Rates, and Unit Rates | |
| Lesson 2: Determine Unit Rates with Ratios of Fractions | |
| Lesson 3: Understand Proportional Relationships: Equivalent Ratios | Unit 2 Lesson 1: Paint [Free lesson] Lesson 2: Balloon Float |
| Lesson 4: Describe Proportional Relationships: Constant of Proportionality | Unit 2 Lesson 3: Sugary Drinks (Print available) Lesson 4: Robot Factory Lesson 5: Snapshots Lesson 6: Two and Two (Print available) [Free lesson] Lesson 7: All Kinds of Equations Lesson 10: Three Turtles Practice Day (Print available) Unit 3 Lesson 1 Circumference of a Circle |
| Lesson 5: Graph Proportional Relationships | Unit 2 Lesson 8: Dino Pops [Free lesson] Lesson 9: Gallon Challenge Lesson 10: Three Turtles Lesson 11: Four Representations (Print available) |
| Lesson 6: Apply Proportional Reasoning to Solve Problems | Unit 2 Lesson 11: Four Representations (Print available) Lesson 12: Water Efficiency |
Chapter 3: Analyze and Solve Percent Problems
| Lesson 1: Analyze Percents of Numbers Lesson 2: Connect Percent and Proportion | Unit 4 Lesson 1: Mosaics [Free lesson] Lesson 2: Peach Cobbler (Print available) |
| Lesson 3: Represent and Use the Percent Equation | |
| Lesson 4: Solve Percent Change and Percent Error Problems | Unit 4 Lesson 4: More and Less Lesson 5: All the Equations Lesson 6: 100% (Print available) Lesson 7: Percent machines [Free lesson] Lesson 8: Tax and Tip Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems [Free lesson] |
| Lesson 5: Solve Markup and Markdown Problems | Unit 4 Lesson 7: Percent machines [Free lesson] Lesson 8: Tax and Tip Lesson 9: Minimum Wage Lesson 10: Cost of College Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems [Free lesson] Practice Day (Print available) |
| Lesson 6: Solve Simple Interest Problems |
Chapter 4: Generate Equivalent Expressions
| Lesson 1: Write and Evaluate Algebraic Expressions | Unit 6 Lesson 9: Always-Equal Machines Unit 5 Lesson 9: Expressions (Print available) |
| Lesson 2: Generate Equivalent Expressions | Unit 6 Lesson 9: Always-Equal Machines Lesson 11: Equation Roundtable (Print available) |
| Lesson 3: Simplify Expressions | Unit 6 Lesson 9: Always-Equal Machines Lesson 10: Collect the Squares [Free lesson] |
| Lesson 4: Expand Expressions | Unit 6 Lesson 2: Smudged Receipts Lesson 6: Balancing Equations Lesson 8: Factoring and Expanding Lesson 9: Always-Equal Machines (Print available) Lesson 10: Collect the Squares [Free lesson] Lesson 11: Equation Roundtable (Print available) |
| Lesson 5: Factor Expressions | Unit 6 Lesson 8: Factoring and Expanding Lesson 11: Equation Roundtable (Print available) |
| Lesson 6: Add Expressions Lesson 7: Subtract Expressions | Unit 6 Lesson 10: Collect the Squares [Free lesson] Lesson 11: Equation Roundtable (Print available) |
| Lesson 8: Analyze Equivalent Expressions | Unit 6 Lesson 11: Equation Roundtable (Print available) |
Chapter 5: Solve Problems Using Equations and Inequalities
Chapter 6: Use Sampling to Draw Inferences About Populations
| Lesson 1: Populations and Samples | Unit 8 Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines |
| Lesson 2: Draw Inferences from Data | Unit 8 Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines Lesson 12: Flower Power |
| Lesson 3: Make Comparative Inferences About Populations Lesson 4: Make More Comparative Inferences About Populations | Unit 8 Lesson 9: Car, Bike, or Train? (Print available) Lesson 10: Crab Island [Free lesson] Lesson 13: Plots and Samples Lesson 14: School Newspaper (Print available) Lesson 15: Asthma Rates (Print available) |
Chapter 7: Probability
| Lesson 1: Understand Likelihood and Probability | Unit 8 Lesson 1 How Likely? (Print available) [Free lesson] Lesson 2 Prob-bear-bilities [Free lesson] Lesson 3 Mystery Bag |
| Lesson 2: Understand Theoretical Probability Lesson 3: Understand Experimental Probability | Unit 8 Lesson 4: Spin Class Lesson 5: Is It Fair? Lesson 6: Fair Games |
| Lesson 4: Use Probability Models | Unit 8 Lesson 6: Fair Games Lesson 7: Weather or Not Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) |
| Lesson 5: Determine Outcomes of Compound Events | Unit 8 Lesson 9: Car, Bike, or Train? (Print available) |
| Lesson 6: Find Probabilities of Compound Events Lesson 7: Simulate Compound Events | Unit 8 Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) Practice Day 1 (Print Available) |
Chapter 8: Solve Problems Involving Geometry
Grade 8
Chapter 1: Real Numbers
Chapter 2: Analyze and Solve Linear Equations
Chapter 3: Use Functions to Model Relationships
| Lesson 1: Understand Relations and Functions | Unit 5 Lesson 1: Turtle Crossing [Free lesson] Lesson 2: Guess My Rule [Free lesson] |
| Lesson 2: Connect Representations of Functions | Unit 5 Lesson 3: Function or Not? Lesson 5: The Tortoise and the Hare [Free lesson] |
| Lesson 3: Compare Linear and Nonlinear Functions | Unit 5 Lesson 4: Window Frames |
| Lesson 4: Construct Functions to Model Linear Relationships | Unit 5 Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) [Free lesson] Lesson 8: Charge! (Print available) |
| Lesson 5: Intervals of Increase and Decrease | Unit 5 Lesson 1: Turtle Crossing [Free lesson] Lesson 6: Graphing Stories |
| Lesson 6: Sketch Functions from Verbal Descriptions | Unit 5 Lesson 6: Graphing Stories |
Chapter 4: Investigate Bivariate Data
| Lesson 1: Construct and Interpret Scatter Plots | Unit 6 Lesson 1: Click Battle Lesson 2: Wing Span Lesson 3: Robots [Free lesson] Practice Day 1 (Print available) [Free lesson] |
| Lesson 2: Analyze Linear Association | Unit 6 Lesson 4: Dapper Cats [Free lesson] Lesson 5: Fit Fights [Free lesson] Lesson 7: Scatter Plot City |
| Lesson 3: Use Linear Models to Make Predictions | Unit 6 Lesson 6: Interpreting Slopes Lesson 8: Animal Brains Practice Day 2 (Print available) |
| Lesson 4: Interpret Two-Way Frequency Tables | Unit 6 Lesson 9: Tasty Fruit |
| Lesson 5: Interpret Two-Way Relative Frequency Tables | Unit 6 Lesson 10: Finding Associations [Free lesson] Lesson 11: Federal Budgets Practice Day 3 |
Chapter 5: Analyze and Solve Systems of Linear Equations
| Lesson 1: Estimate Solutions by Inspection | Unit 4 Lesson 7: All, Some, or None? Lesson 8: When Are They the Same? Lesson 13: All, Some, or None? Part 2 |
| Lesson 2: Solve Systems by Graphing | Unit 4 Lesson 9: On or Off the Line? Lesson 10: On Both Lines Lesson 11: Make Them Balance [Free lesson] Lesson 12: Line Zapper [Free lesson] Practice Day 2 (Print available) |
| Lesson 3: Solve Systems by Substitution | |
| Lesson 4: Solve Systems by Elimination |
Chapter 6: Congruence and Similarity
Chapter 7: Understand and Apply the Pythagorean Theorem
| Lesson 1: Understand the Pythagorean Theorem | Unit 8 Lesson 6: The Pythagorean Theorem Lesson 7: Pictures to Prove It Lesson 8: Triangle-Tracing Turtle [Free lesson] |
| Lesson 2: Understand the Converse of the Pythagorean Theorem | Unit 8 Lesson 9: Make It Right |
| Lesson 3: Apply the Pythagorean Theorem to Solve Problems | Unit 8 Lesson 10: Taco Truck [Free lesson] Practice Day 2 (Print available) |
| Lesson 4: Find Distance in the Coordinate Plane | Unit 8 Lesson 11: Pond Hopper |
Chapter 8: Solve Problems Involving Surface Area and Volume
| Lesson 1: Find Surface Area of Three-Dimensional Figures | |
| Lesson 2: Find Volume of Cylinders | Unit 5 Lesson 10: Volume Lab Lesson 11: Cylinders [Free lesson] Lesson 14: Missing Dimensions (Print available) |
| Lesson 3: Find Volume of Cones | Unit 5 Lesson 13: Cones [Free lesson] Lesson 14: Missing Dimensions (Print available) |
| Lesson 4: Find Volume of Spheres | Unit 5 Lesson 15: Spheres Practice Day 2 (Print available) |
The curriculum effect
Research shows that students learn primarily through their interactions with teachers and content. Materials influence students directly, and they influence the way teachers teach. They are an essential part of the equation, with a proven and direct impact on outcomes. According to the Johns Hopkins Institute for Education Policy report Hiding in Plain Sight, “Research suggests that, in the aggregate and for specific instructional programs, changing from ‘business-as-usual’ to a high-quality curriculum, or from a low-quality to a high-quality curriculum, can boost student achievement.” The report calls this overall impact “the curriculum effect.”
Individual studies cited in Hiding in Plain Sight also show that:
- High-quality curricula increased student achievement in reading, math, and science from the 50th to the 60th percentile and higher: “a potentially transformative impact if aggregated across an entire class, grade, or school.” (Data from David M. Steiner et al., “StandardsWork: A Narrative Research Review,” Center for Research and Reform in Education; Institute for Education Policy, Johns Hopkins University, January 2017.)
- Access to rigorous materials increased achievement for Black and Latino students (Card & Giuliano, 2016).
- English Language Learners acquire knowledge and vocabulary faster when using grade-level content (with supports) (Zwiers, 2008; Walqui & Heritage, 2012).
- Math textbook choice has a significant effect on test scores (Bhatt & Koedel, 2012 & 2013; Agodini et al, 2010).
A cost-effective approach
And high-quality materials don’t have to come with sticker shock. Early evidence suggests that switching to a high-quality curriculum is not only more effective, but also more cost-effective, than other familiar school-led approaches to boosting student success.
For example, a 2015 study from the Center for American Progress found that the average cost-effectiveness ratio of switching curriculum “was almost 40 times that of class-size reduction in a well-known randomized experiment” (Boser, Chingos, and Straus, 2015).
High quality is not defined in a vacuum—it’s all about curriculum that supports teachers in the classroom. When teachers have high-quality instructional materials, they don’t have to spend their valuable time searching for resources and creating their own materials. They know they are using materials that have been developed and reviewed by researchers, academic experts, and teachers like them. They have curriculum that works harder so they can do what they do best: teach.
Grade 6
Chapter 1: Numerical Expressions and Factors
| Big Ideas | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Powers and Exponents | Unit 6 Lesson 10: Powers Lesson 11: Exponent Expressions (Print available) Practice Day 2 (Print available) |
| Lesson 2: Order of Operations | Unit 6 Lesson 11: Exponent Expressions (Print available) |
| Lesson 3: Prime Factorization | |
| Lesson 4: Greatest Common Factor | Unit 5 Lesson 15: Common factors |
| Lesson 5: Least Common Multiple | Unit 5 Lesson 14: Common Multiples Practice Day 2 (Print available) |
Chapter 2: Fractions and Decimals
Chapter 3: Ratios and Rates
| Lesson 1: Ratios | Unit 2 Lesson 1: Pizza Maker [Free lesson] Lesson 2: Ratio Rounds (Print available) Lesson 3: Rice Ratios (Print available) Lesson 4: Fruit Lab [Free lesson] Lesson 11: Community Life (Print available) Practice Day 1 (Print available) Unit 6 Lesson 7: Border Tiles Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
|---|---|
| Lesson 2: Using Tape Diagrams | Unit 2 Lesson 12: Mixing Paint, Part 2 Lesson 13: City Planning Lesson 14: Lunch Waste Practice Day 2 |
| Lesson 3: Using Ratio Tables | Unit 2 Lesson 9: Disaster Preparation [Free lesson] |
| Lesson 4: Graphing Ratio Relationships | Unit 2 Lesson 9: Disaster Preparation [Free lesson] Lesson 10: Balloons |
| Lesson 5: Rates and Unit Rates | Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] |
| Lesson 6: Converting Measures | Unit 3 Lesson 1: Many Measurements (Print available) [Free lesson] Lesson 2: Counting Classrooms Lesson 3: Pen Pals |
Chapter 4: Percents
| Lesson 1: Percent and Fractions | Unit 3 Lesson 8: Lucky Duckies [Free lesson] |
|---|---|
| Lesson 2: Percent and Decimals | Unit 5 Lesson 2: Decimal Diagrams [Free lesson] Lesson 13: Grocery Prices (Print available) |
| Lesson 3: Comparing and Ordering Fractions, Decimals, and Percents | |
| Lesson 4: Solving Percent Problems | Unit 3 Lesson 9: Bicycle Goals Lesson 10: What’s Missing? (Print available) Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Unit 5 Lesson 13: Grocery Prices (Print available) |
Chapter 5: Algebraic Expressions and Properties
| Lesson 1: Algebraic Expressions | |
|---|---|
| Lesson 2: Writing Expressions | Unit 6 Lesson 6: Vari-apples Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 3: Properties of Addition and Multiplication | Unit 6 Lesson 6: Vari-apples Lesson 7: Border Tiles Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) Lesson 12: Squares and Cubes |
| Lesson 4: The Distributive Property | Unit 6 Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 5: Factoring Expressions | Unit 6 Lesson 7: Border Tiles Practice Day 2 (Print available) |
Chapter 6: Equations
| Lesson 1: Writing Equations in One Variable | Unit 6 Lesson 1: Weight for It [Free lesson] Lesson 3: Hanging Around Lesson 13: Turtles All the Way |
|---|---|
| Lesson 2: Solving Equations Using Addition or Subtraction | Unit 6 Lesson 2: Five Equations (Print available) Lesson 3: Hanging Around Lesson 4: Hanging It Up Lesson 5: Swap and Solve (Print available) Practice Day 1 (Print available) |
| Lesson 3: Solving Equations Using Multiplication or Division | Unit 6 Lesson 2: Five Equations Lesson 3: Hanging Around Lesson 4: Hanging It Up Lesson 5: Swap and Solve (Print available) Practice Day 1 |
| Lesson 4: Writing Equations in Two Variables | Unit 6 Lesson 5: Swap and Solve (Print available) |
Chapter 7: Area, Surface Area, and Volume
| Lesson 1: Areas of Parallelograms | Unit 1 Lesson 3: Exploring Parallelograms (Print available) [Free lesson] Lesson 4: Off the Grid Lesson 6: Triangles and Parallelograms |
|---|---|
| Lesson 2: Areas of Triangles | Unit 1 Lesson 5: Exploring Triangles (Print available) Lesson 6: Triangles and Parallelograms Lesson 7: Off the Grid, Part 2 Practice Day 1 (Print available) |
| Lesson 3: Areas of Trapezoids and Kites | |
| Lesson 4: Three-Dimensional Figures | Unit 1 Lesson 10: Plenty of Polyhedra |
| Lesson 5: Surface Area of prisms | Unit 1 Lesson 9: Renata´s Stickers [Free lesson] Lesson 11: Nothing But Nets (Print available) Lesson 12: Face Value Lesson 13: Take It To Go (Print available) Practice Day 2 (Print available) |
| Lesson 6: Surface Area of Pyramids | Unit 1 Lesson 12: Face Value Lesson 13: Take It To Go (Print available) Practice Day 2 |
| Lesson 7: Volumes of Rectangular Prisms | Unit 4 Lesson 13: Volume Challenges |
Chapter 8: Integers, Number Lines, and the Coordinate Plane
| Lesson 1: Integers | Unit 7 Lesson 1 Can You Dig In [Free lesson] Lesson 4 Sub-Zero |
|---|---|
| Lesson 2: Comparing and Ordering Integers | Unit 7 Lesson 2 Digging Deeper Lesson 3 Order in the Class (Print available) [Free lesson] |
| Lesson 3: Rational Numbers | Unit 7 Lesson 2 Digging Deeper Lesson 3 Order in the Class (Print available) [Free lesson] Practice Day 1 (Print available) |
| Lesson 4: Absolute Value | Unit 7 Lesson 5 Distance on the Number Line Practice Day 1 (Print available) |
| Lesson 5: The Coordinate Plane | Unit 7 Lesson 9: Sand Dollar Search Lesson 10: The A-maze-ing Coordinate Plane Lesson 11: Polygon Maker Lesson 12: Graph Telephone (Print available) |
| Lesson 6: Polygons in the Coordinate Plane | Unit 1 Lesson 8: Pile of Polygons Unit 7 Lesson 11: Polygon Maker |
| Lesson 7: Writing and Graphing Inequalities | Unit 7 Lesson 6: Tunnel Travel [Free lesson] Lesson 7: Comparing Weights |
| Lesson 8: Solving Inequalities | Unit 7 Lesson 8: Shira’s Solutions |
Chapter 9: Statistical Measures
| Lesson 1: Introduction to Statistics | Unit 8 Lesson 1: Screen Time Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) [Free lesson] Lesson 4: Lots More Dots |
|---|---|
| Lesson 2: Mean | Unit 8 Lesson 7: Snack Time Lesson 10: Hollywood Part 1 (Print available) Lesson 11: Toy Cars [Free lesson] Lesson 12: In the News |
| Lesson 3: Measures of Center | Unit 8 Lesson 7: Snack Time Lesson 10: Hollywood Part 1 (Print available) Lesson 11: Toy Cars [Free lesson] Lesson 12: In the News Lesson 13: Pumpkin Patch Practice Day 1 |
| Lesson 4: Measures of Variation | Unit 8 Lesson 8: Pop It! Lesson 11: Toy Cars [Free lesson] Lesson 14: Car, Plane, Bus, or Train? (Print available) Lesson 16: Hollywood Part 3 (Print available) |
| Lesson 5: Mean Absolute Deviation | Unit 8 Lesson 9: Hoops Lesson 10: Hollywood Part 1 (Print available) |
Chapter 10: Data Displays
| Lesson 1: Stem-and-Leaf Plots | |
|---|---|
| Lesson 2: Histograms | Unit 8 Lesson 5: The Plot Thickens [Free lesson] Lesson 6: DIY Histograms (Print available) |
| Lesson 3: Shapes of Distributions | |
| Lesson 4: Choosing Appropriate Measures | Unit 8 Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) [Free lesson] Lesson 4: Lots More Dots Lesson 7: Snack Time Lesson 10: Hollywood Part 1 (Print available) Lesson 11: Toy Cars [Free lesson] Lesson 12: In the News Lesson 16: Hollywood Part 3 (Print available) Practice Day 1 (Print available) |
| Lesson 5: Box-and-Whisker Plots | Unit 8 Lesson 14: Car, Plane, Bus, or Train? (Print available) Lesson 15: Hollywood Part 2 |
Grade 7
Chapter 1: Adding and Subtracting Rational Numbers
| Big Ideas | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Rational Numbers | Unit 5 Lesson 1: Floats and Anchors [Free lesson] Lesson 3: Bumpers |
| Lesson 2: Adding Integers Lesson 4: Subtracting Integers | Unit 5 Lesson 2: More Floats and Anchors Lesson 4: Draw Your Own (Print available) [Free lesson] Lesson 5: Number Puzzles Lesson 10: Integer Puzzles [Free lesson] Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) |
| Lesson 3: Adding Rational Numbers Lesson 5: Subtracting Rational Numbers | Unit 5 Lesson 3: Bumpers Lesson 4: Draw Your Own (Print available) [Free lesson] Lesson 5: Number Puzzles Lesson 10: Integer Puzzles [Free lesson] Lesson 11: Changing Temperatures Lesson 13: Solar Panels and More (Print available) Practice Day 1 (Print available) |
Chapter 2: Multiplying and Dividing Rational Numbers
| Lesson 1: Multiplying Integers | Unit 5 Lesson 6: Floating in Groups Lesson 7: Back in Time Lesson 8: Speeding Turtles Lesson 10: Integer Puzzles [Free lesson] Practice Day 2 (Print available) |
| Lesson 2: Dividing Integers | Unit 5 Lesson 8: Speeding Turtles |
| Lesson 3: Converting Between Fractions and Decimals | Unit 4 Lesson 13: Decimal Deep Dive (Print available) |
| Lesson 4: Multiplying Rational Numbers | Unit 5 Lesson 7: Back in Time |
| Lesson 5: Dividing Rational Numbers | Unit 5 Lesson 8: Speeding Turtles |
Chapter 3: Expressions
| Lesson 1: Algebraic Expressions | Unit 6 Lesson 9: Always-Equal Machines Lesson 10: Collect the Squares [Free lesson] Unit 5 Lesson 9: Expressions (Print available) |
| Lesson 2: Adding and Subtracting Linear Expressions | Unit 6 Lesson 2: Smudged Receipts Lesson 10: Collect the Squares [Free lesson] Lesson 11: Equation Roundtable (Print available) |
| Lesson 3: The Distributive Property | Unit 6 Lesson 2: Smudged Receipts Lesson 6: Balancing Equations Lesson 8: Factoring and Expanding (Print available) Lesson 9: Always-Equal Machines Lesson 10: Collect the Squares [Free lesson] Lesson 11: Equation Roundtable (Print available) |
| Lesson 4: Factoring Expressions | Unit 6 Lesson 8: Factoring and Expanding (Print available) Lesson 11: Equation Roundtable (Print available) |
Chapter 4: Equations and Inequalities
Chapter 5: Ratios and Proportions
| Lesson 1: Ratio and Ratio Tables | Unit 2 Lesson 1: Paint [Free lesson] Lesson 2: Balloon Float |
| Lesson 2: Rates and Unit Rates | Unit 4 (Print available)Lesson 2: Peach Cobbler |
| Lesson 3: Identifying Proportional Relationships | Unit 2 Lesson 3: Sugary Drinks Lesson 4: Robot Factory Lesson 5: Snapshots Lesson 6: Two and Two (Print available) [Free lesson] Lesson 7: All Kinds of Equations Lesson 10: Three Turtles Practice Day (Print available) Unit 3 Lesson 1: Toothpicks Lesson 3: Measuring Around [Free lesson] |
| Lesson 4: Writing and Solving Proportions | |
| Lesson 5: Graphs of Proportional Relationships | Unit 2 Lesson 8: Dino Pops [Free lesson] Lesson 9: Gallon Challenge Lesson 10: Three Turtles Lesson 11: Four Representations (Print available) |
Chapter 6: Percents
| Lesson 1: Fraction, Decimals, and Percents | Unit 4 Lesson 1: Mosaics [Free lesson] |
| Lesson 2: The Percent Proportion | |
| Lesson 3: The Percent Equation | |
| Lesson 4: Percents of Increase and Decrease | Unit 4 Lesson 4: More and Less Lesson 5: All the Equations Lesson 6: 100% (Print available) Lesson 7: Percent machines [Free lesson] Lesson 8: Tax and Tip Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems [Free lesson] |
| Lesson 5: Discounts and Markups | Unit 4 Lesson 7: Percent machines [Free lesson] Lesson 8: Tax and Tip Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Lesson 12: Posing Percent Problems [Free lesson] Practice Day |
| Lesson 6: Simple Interest |
Chapter 7: Probability
| Lesson 1: Probability | Unit 8 Lesson 1: How Likely? (Print available) [Free lesson] Lesson 2: Prob-bear-bilities [Free lesson] Lesson 3: Mystery Bag |
| Lesson 2: Experimental and Theoretical Probability | Unit 8 Lesson 4: Spin Class Lesson 5: Is It Fair? Lesson 6: Fair Games Lesson 7: Weather or Not Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) |
| Lesson 3: Compound Events Lesson 4: Simulations | Unit 8 Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) |
Chapter 8: Statistics
| Lesson 1: Samples and Populations | Unit 8 Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines |
| Lesson 2: Using Random Samples to Describe populations | Unit 8 Lesson 8: Simulate It Lesson 9: Car, Bike, or Train? (Print available) Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines Lesson 12: Flower Power |
| Lesson 3: Comparing Populations Lesson 4: Using Random Samples to Compare Populations | Unit 8 Lesson 9: Car, Bike, or Train? (Print available) Lesson 10: Crab Island [Free lesson] Lesson 13: Plots and Samples Lesson 14: School Newspaper (Print available) Lesson 15: Asthma Rates (Print available) |
Chapter 9: Geometric Shapes and Angles
| Lesson 1: Circle and Circumference | Unit 3 Lesson 2: Is It a Circle? Lesson 3: Measuring Around [Free lesson] Lesson 4: Perimeter Challenges Practice Day 1 (Print available) [Free lesson] |
| Lesson 2: Areas of Circles | Unit 3 Lesson 5: Area Strategies Lesson 6: Radius Squares (Print available) Lesson 7: Why Pi? Lesson 8: Area Challenges [Free lesson] Lesson 9: Circle vs. Square Practice Day 2 (Print available) |
| Lesson 3: Perimeters and Areas of Composite Figures | Unit 3 Lesson 4: Perimeter Challenges |
| Lesson 4: Constructing Polygons | |
| Lesson 5: Finding Unknown Angle Measures | Unit 7 Lesson 1: Pinwheels Lesson 2: Friendly Angles Lesson 3: Angle Diagrams Lesson 4: Missing Measures (Print available) [Free lesson] |
Chapter 10: Surface Area and Volume
| Lesson 1: Surface Area of Prisms Lesson 2: Surface Area of Cylinders Lesson 3: Surface Area of Pyramids | Unit 7 Lesson 10: Simple Prisms Lesson 11: More Complicated Prisms Lesson 12: Surface Area Strategies (Print available) Lesson 13: Popcorn Possibilities |
| Lesson 4: Volumes of Prisms Lesson 5: Volumes of Pyramids | Unit 7 Lesson 10: Simple Prisms Lesson 11: More Complicated Prisms Lesson 13: Popcorn Possibilities Practice Day 2 (Print available) |
| Lesson 6: Cross Sections of Three-Dimensional Figures | Unit 7 Lesson 9: Slicing Solids |
Grade 8
Chapter 1: Equations
| Big ideas | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Solving Simple Equations | Unit 3 Lesson 10: Solutions Unit 4 Lesson 2: Keep It Balanced Lesson 3: Balanced Moves Lesson 4: More Balanced Moves (Print available) |
| Lesson 2: Solving Multi-Step Equations | Unit 4 Lesson 5: Equation Roundtable (Print available) [Free lesson] Lesson 6: Strategic Solving (Print available) |
| Lesson 3: Solving Equations with Variables on Both Sides | Unit 4 Lesson 3: Balanced Moves Lesson 4: More Balanced Moves (Print available) Lesson 5: Equation Roundtable (Print available) [Free lesson] Lesson 6: Strategic Solving (Print available) Practice Day 1 (Print available) |
| Lesson 4: Rewriting Equations and Formulas |
Chapter 2: Transformations
Chapter 3: Angles and Triangles
| Lesson 1: Parallel Lines and Transversals | Unit 1 Lesson 10: Transforming Angles |
| Lesson 2: Angles and Triangles | Unit 1 Lesson 11: Tearing It Up (Print available) Lesson 12: Puzzling It Out [Free lesson] |
| Lesson 3: Angles of Polygons | |
| Lesson 4: Using Similar Triangles | Unit 2 Lesson 1: Sketchy Dilations [Free lesson] Lesson 2: Dilation Mini Golf [Free lesson] Lesson 3: Match My Dilation Lesson 4: Dilations on a Plane (Print available) Lesson 7: Are Angles Enough? Lesson 8: Shadows |
Chapter 4: Graphing and Writing Linear Equations
| Lesson 1: Graphing Linear Equations | Unit 3 Lesson 4 Stacking Cups Lesson 5 Flags [Free lesson] Lesson 11 Pennies and Quarters Unit 5 Lesson 8 Charge! (Print available) |
| Lesson 2: Slope of a Line | Unit 2 Lesson 9 Water Slide Lesson 10 Points on a Plane Practice Day Unit 3 Lesson 2 Water Tank Lesson 4 Stacking Cups Lesson 5 Flags [Free lesson] Lesson 6 Translations Lesson 7 Water Cooler Lesson 8 Landing Planes Lesson 9 Coin Capture Unit 6 Lesson 6 Interpreting Slopes Lesson 8 Animal Brains |
| Lesson 3: Graphing Proportional Relationships | Unit 3 Lesson 1: Turtle Time Trials [Free lesson] Lesson 2: Water Tank Lesson 4: Stacking Cups |
| Lesson 4: Graphing Linear Equations in Slope-Intercept Form | Unit 3 Lesson 2: Water Tank Lesson 3: Posters Lesson 4: Stacking Cups Lesson 5: Flags [Free lesson] Lesson 6: Translations |
| Lesson 5: Graphing Linear Equations in Standard Form | |
| Lesson 6: Writing Equations in Slope-Intercept Form | Unit 5 Lesson 8: Charge! (Print available) |
| Lesson 7: Writing Equations in Point-Slope Form |
Chapter 5: Systems of Linear Equations
| Lesson 1: Solving Systems of Linear Equations by Graphing | Unit 4 Lesson 8: When Are They the Same? Lesson 9: On or Off the Line? Lesson 10: On Both Lines Lesson 11: Make Them Balance [Free lesson] Lesson 12: Line Zapper [Free lesson] Practice Day 2 (Print available) |
| Lesson 2: Solving Systems of Linear Equations by Substitution | |
| Lesson 3: Solving Systems of Linear Equations by Elimination | |
| Lesson 4: Solving Special Systems of Linear Equations | |
| Lesson 6: Scale Drawings |
Chapter 6: Data Analysis and Displays
| Lesson 1: Scatter Plots | Unit 6 Lesson 1: Click Battle Lesson 2: Wing Span Lesson 3: Robots [Free lesson] Practice Day 1 (Print available) |
| Lesson 2: Lines of Fit | Unit 6 Lesson 4: Dapper Cats [Free lesson] Lesson 5: Fit Fights Lesson 7: Scatter Plot City |
| Lesson 3: Two-Way Tables | Unit 6 Lesson 9: Tasty Fruit Lesson 10: Finding Associations [Free lesson] Lesson 11: Federal Budgets Practice Day 3 |
| Lesson 4: Choosing a Data Display |
Chapter 7: Functions
| Lesson 1: Relations and Functions | Unit 5 Lesson 1: Turtle Crossing [Free lesson] Lesson 2: Guess My Rule [Free lesson] |
| Lesson 2: Representations of Functions | Unit 5 Lesson 3: Function or Not? Lesson 5: The Tortoise and the Hare [Free lesson] |
| Lesson 3: Linear Functions | Unit 5 Lesson 6: Graphing Stories Lesson 7: Feel the Burn (Print available) [Free lesson] Lesson 8: Charge! (Print available) |
| Lesson 4: Comparing Linear and Nonlinear Functions | Unit 5 Lesson 4: Window Frames |
| Lesson 5: Analyzing and Sketching Graphs | Unit 5 Lesson 6: Graphing Stories |
Chapter 8: Exponents and Scientific Notation
| Lesson 1: Exponents | Unit 7 Lesson 2: Combining Exponents Lesson 3: Power Pairs [Free lesson] Lesson 4: Rewriting Powers Practice Day 1 (Print available) |
| Lesson 2: Products of Powers Property | Unit 7 Lesson 2: Combining Exponents Lesson 3: Power Pairs (Print available) [Free lesson] Lesson 4: Rewriting Powers Lesson 5: Zero and Negative Exponents Lesson 6: Write a Rule (Print available) Practice Day 1 (Print available) |
| Lesson 3: Comparing Populations | |
| Lesson 4: Using Random Samples to Compare Populations | |
| Lesson 5: Estimating Quantities | Lesson 7: Scales and Weights Lesson 8: Point Zapper Lesson 9: Use Your Powers |
| Lesson 6: Scientific Notation Lesson 7: Operations in Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson] Lesson 11: Balance the Scales [Free lesson] Lesson 13: Star Power Practice Day 2 (Print available) |
Chapter 9: Real Numbers and the Pythagorean Theorem
| Lesson 1: Finding Square Roots | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] |
| Lesson 2: The Pythagorean Theorem | |
| Lesson 3: Finding Cube Roots | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] |
| Lesson 4: Rational Numbers | |
| Lesson 5: Irrational Numbers | Unit 8 Lesson 14: Hit the Target |
| Lesson 6: The Converse of the Pythagorean Theorem | Unit 8 Lesson 9: Make It Right |
Chapter 10: Volume and Similar Solids
| Lesson 1: Volumes of Cylinders | Unit 5 Lesson 10: Exploring Volume Lesson 11: Cylinders [Free lesson] Lesson 14: Missing Dimensions (Print available) |
| Lesson 2: Volumes of Cones | Unit 5 Lesson 10: Exploring Volume Lesson 13: Cones [Free lesson] Lesson 14: Missing Dimensions (Print available) |
| Lesson 3: Volumes of Spheres | Unit 5 Lesson 10: Exploring Volume Lesson 15: Spheres |
| Lesson 4: Surface Area and Volumes of Similar Solids | Unit 5 Lesson 12: Scaling Cylinders |
Save the date
You’re invited: New Fellows Orientation 2026
Get ready for an unforgettable New Fellows Orientation event in Jacksonville, Florida! Come join our community of math enthusiasts (Yes, that’s you!) on an exciting journey of professional learning, jam-packed with collaboration, thoughtful mentorship, and new friends.

About the event
This interactive retreat for new Amplify Classroom Fellows will be held at the Hyatt Regency Hotel in Jacksonville, Florida, July 14–16.
During the New Fellows Orientation, you will:
- Engage in professional learning experiences led by Amplify Classroom experts.
- Explore new features of and enhancements to Amplify Desmos Math.
- Get early access to our best ideas and technology.
- Share how you’re supporting students with and without technology.
- Collaborate with other Amplify Classroom Fellows to create a resource to share with other teachers.
- Receive a certificate of attendance.
- Leave with new perspectives and goals for the upcoming school year.
Logistics:
Please plan to arrive by 12 p.m. ET on Tuesday, July 14, as we will kick off with lunch.
Participants will be provided lunch and dinner on July 14 and all meals on July 15. There are no scheduled activities on Thursday, July 16, and attendees may depart at their convenience.
Amplify will cover hotel and food costs. Travel costs to and from New Fellows Orientation are the responsibility of each attendee.
The Ohio High Impact Tutoring Consultancy Series
Buffalo Consultancy
Grade 6
Unit 1: Expressions and Equations: Area, Algebraic Expressions, and Exponents
| iReady Classroom | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Find the Area of a Parallelogram | Unit 1 Lesson 3: Exploring Parallelograms (Print available) [Free lesson] Lesson 4: Off the Grid |
| Lesson 2: Find the Area of Triangles and Other Polygons | Unit 1 Lesson 7: Off the Grid, Part 2 Practice Day 1 (Print available) |
| Lesson 3: Use Nets to Find Surface Area | Unit 1 Lesson 11: Nothing But Nets (Print available) Practice Day 2 (Print available) |
| Lesson 4: Work with Algebraic Expressions | Unit 6 Lesson 6: Vari-apples |
| Lesson 5: Write and Evaluate Expressions with Exponents | Unit 6 Lesson 4: Hanging it Up Lesson 5: Swap and Solve (Print available) Practice Day 2 (Print available) |
| Lesson 6: Find Greatest Common Factor and Least Common Multiple | Unit 5 Lesson 14: Common Multiples Lesson 15: Common Factors Practice Day 2 (Print available) |
Unit 2: Decimals and Fractions: Base-Ten Operations, Division with Fractions, and Volume
Unit 3: Ratio Reasoning: Ratio Concepts and Equivalent Ratios
| Lesson 12: Understand Ratio Concepts | Unit 2 Lesson 1: Pizza Maker [Free lesson] Lesson 2: Ratio Rounds (Print available) Practice Day 1 (Print available) |
| Lesson 13: Find Equivalent Ratios | Unit 2 Lesson 3: Rice Ratios (Print available) Lesson 4: Fruit Lab [Free lesson] Lesson 5: Balancing Act Lesson 9: Disaster Preparation [Free lesson] Lesson 10: Balloons Lesson 11: Community Life (Print available) Practice Day 1 (Print available) |
| Lesson 14: Use Part-to-Part and Part-to-Whole Ratios | Unit 2 Lesson 7: Mixing Paint, Part 1 Lesson 12: Mixing Paint, Part 2 Lesson 13: City Planning |
Unit 4: Ratio Reasoning: Unit Rates and Percent
| Lesson 15: Understand Rate Concepts | Unit 3 Lesson 1: Many Measurements (Print available) [Free lesson] Lesson 2: Counting Classrooms Lesson 3: Pen Pals |
| Lesson 16: Use Unit Rates to Solve Problems | Unit 3 Lesson 4: Model Trains Lesson 5: Soft Serve [Free lesson] Lesson 6: Welcome to Robot Factory Lesson 7: More Soft Serve Practice Day 1 (Print available) Practice Day 2 (Print available) |
| Lesson 17: Understand Percents | Unit 3 Lesson 8: Lucky Duckies [Free lesson] Lesson 9: Bicycle Goals Practice Day 2 |
| Lesson 18: Use Percents to Solve Problems | Unit 3 Lesson 10: What’s Missing Lesson 11: Cost Breakdown Lesson 12: More Bicycle Goals Lesson 13: A Country as a Village |
Unit 5: Algebraic Thinking: Equivalent Expressions and Equations with Variables
| Lesson 19: Write and Identify Equivalent Expressions | Unit 6 Lesson 7: Border Tiles Lesson 8: Products and Sums [Free lesson] Lesson 9: Products, Sums, and Differences (Print available) Practice Day 1 (Print available) |
| Lesson 20: Understand Solutions of Equations | Unit 6 Lesson 2: Five Equations (Print available) |
| Lesson 21: Write and Solve One-Variable Equations | Unit 6 Lesson 3: Hanging Around Lesson 4: Hanging it Up Lesson 5: Swap and Solve (Print available) |
| Lesson 22: Analyze Two-Variable Relationships | Unit 6 Lesson 13: Turtles All the Way Lesson 14: Representing Relationships Lesson 15: Connecting Relationships Lesson 16: Subway Fares [Free lesson] Practice Day 2 (Print available) |
Unit 6: Positive and Negative Numbers: Absolute Value, Inequalities, and the Coordinate Plane
| Lesson 23: Understand Positive and Negative Numbers | Unit 7 Lesson 1: Can You Dig It [Free lesson] Lesson 4: Sub-Zero |
| Lesson 24: Order Positive and Negative Numbers | Unit 7 Lesson 2: Digging Deeper Lesson 3: Order in the Class (Print available) [Free lesson] |
| Lesson 25: Understand Absolute Value | Unit 7 Lesson 5: Distance on the Number Line Practice Day 1 (Print available) |
| Lesson 26: Write and Graph One-Variable Inequalities | Unit 7 Lesson 6: Tunnel Travels [Free lesson] Lesson 7: Comparing Weights Lesson 8: Shira’s Solutions |
| Lesson 27: Understand the Four-Quadrant Coordinate Plane | Unit 7 Lesson 9: Sand Dollar Search Lesson 10: The A-maze-ing Coordinate Plane Lesson 11: Polygon Maker Practice Day 2 (Print available) |
| Lesson 28: Solve Problems in the Coordinate Plane | Unit 7 Lesson 12: Graph Telephone Practice Day 2 (Print available) |
Unit 7: Statistical Thinking: Data Distributions and Measures of Center and Variability
| Lesson 29: Understand Statistical Questions and Data Distributions | Unit 8 Lesson 1: Screen Time |
| Lesson 30: Use Dot Plots and Histograms to Describe Data Distributions | Unit 8 Lesson 2: Dot Plots Lesson 3: Minimum Wage (Print available) [Free lesson] Lesson 4: Lots More Dots Lesson 5: The Plot Thickens [Free lesson] Lesson 6: DIY Histograms (Print available) Practice Day 1 (Print available) |
| Lesson 31: Interpret Median and Interquartile Range in Box Plots | Unit 8 Lesson 11: Toy Cars [Free lesson] Lesson 13: Pumpkin Patch Lesson 14: Car, Plan, Bus, or Train? Lesson 15: Hollywood Part 2 Practice Day 2 (Print available) |
| Lesson 32: Interpret Mean and Mean Absolute Deviation | Unit 8 Lesson 7: Snack Time Lesson 8: Pop it! Lesson 9: Hoops Lesson 10: Hollywood Part 1 (Print available) Practice Day 1 (Print available) |
| Lesson 33: Use Measures of Center and Variability to Summarize Data | Unit 8 Lesson 10: Hollywood Part 1 (Print available) |
Grade 7
Unit 1: Proportional Relationships: Ratios, Rates, and Circles
Unit 2: Numbers and Operations: Add and Subtract Rational Numbers
| Lesson 7: Understand Addition with Negative Numbers | Unit 5 Lesson 1: Floats and Anchors [Free lesson] |
| Lesson 8: Add with Negative Numbers | Unit 5 Lesson 1: Floats and Anchors [Free lesson] Lesson 2: More Floats and Anchors Lesson 3: Bumpers |
| Lesson 9: Understand Subtraction with Negative Integers | Unit 5 Lesson 1: Floats and Anchors [Free lesson] |
| Lesson 10: Add and Subtract Positive and Negative Numbers | Unit 5 Lesson 1: Floats and Anchors [Free lesson] Lesson 2: More Floats and Anchors Lesson 3: Bumpers Lesson 5: Number Puzzles Practice Day 1 (Print available) Lesson 11: Changing Temperatures |
Unit 3: Numbers and Operations: Multiply and Divide Rational Numbers
| Lesson 11: Understand Multiplication with Negative Integers | Unit 5 Lesson 6: Floating in Groups Lesson 7: Back in Time |
| Lesson 12: Multiply and Divide with Negative Numbers | Unit 5 Lesson 8: Speeding Turtles |
| Lesson 13: Express Rational Numbers as Terminating or Repeating Decimals | Unit 4 Lesson 13: Decimal Deep Dive (Print available) |
| Lesson 14: Use the Four Operations with Negative Numbers | Unit 5 Lesson 10: Integer Puzzles [Free lesson] Lesson 13: Solar Panels and More (Print available) Practice Day 2 (Print available) |
Unit 4: Algebraic Thinking: Expressions, Equations, and Inequalities
| Lesson 15: Write Equivalent Expressions Involving Rational Numbers | Unit 6 Lesson 8: Factoring and Expanding Lesson 9: Always-Equal Machine |
| Lesson 16: Understand Reasons for Rewriting Expressions | |
| Lesson 17: Understand Multi-Step Equations | Unit 6 Lesson 2: Smudged Receipts Lesson 5: Balancing Moves |
| Lesson 18: Write and Solve Multi-Step Equations | Unit 6 Lesson 6: Balancing Equations Lesson 7: Keeping It True (Print available) Lesson 8: Factoring and Expanding Practice Day 1 (Print available) |
| Lesson 19: Write and Solve Inequalities | Unit 6 Lesson 14: Unbalanced Hangers Lesson 15: Budgeting (Print available) Lesson 16: Shira the Sheep [Free lesson] Lesson 17: Write Them and Solve Them (Print available) Practice Day 2 (Print available) |
Unit 5: Proportional Reasoning: Percents and Statistical Samples
| Lesson 20: Solve Problems Involving Percents | Unit 4 Lesson 7: Percent Machines [Free lesson] Lesson 8: Tax and Tip Lesson 12: Posing Percent Problems [Free lesson] |
| Lesson 21: Solve Problems Involving Percent Change and Percent Error | Unit 4 Lesson 5: All the Equations Lesson 6: 100% (Print available) Lesson 9: Minimum Wage (Print available) Lesson 10: Cost of College (Print available) Lesson 11: Bookcase Builder Practice Day (Print available) |
| Lesson 22: Understand Random Sampling | Unit 8 Lesson 2: Prob-bear-bilities [Free lesson] Lesson 3: Mystery Bag |
| Lesson 23: Reason about Random Samples | Unit 8 Lesson 6: Fair Games Lesson 11: Headlines |
| Lesson 24: Compare Populations | Unit 8 Lesson 10: Crab Island [Free lesson] Lesson 11: Headlines Lesson 12: Flower Power Lesson 13: Plots and Samples Lesson 14: School Newspaper (Print available) Lesson 15: Asthma Rates (Print available) Practice Day 2 (Print available) |
Unit 6: Geometry: Solids, Triangles, and Angles
| Lesson 25: Solve Problems Involving Area and Surface Area | Unit 7 Lesson 12: Surface Area Strategies (Print available) |
| Lesson 26: Solve Problems Involving Volume | Unit 7 Lesson 10: Simple Prisms Lesson 11: More Complicated Prisms Practice Day 2 (Print available) |
| Lesson 27: Describe Plane Sections of Three-Dimensional Figures | Unit 7 Lesson 9: Slicing Solids |
| Lesson 28: Find Unknown Angle Measures | Unit 7 Lesson 1: Pinwheels Lesson 2: Friendly Angles [Free lesson] Lesson 4: Missing Measures (Print available) [Free lesson] |
| Lesson 29: Draw Plane Figures with Given Conditions | Unit 7 Lesson 6: Is It Enough Lesson 7: More Than One? Lesson 8: Can You Draw It? (Print available) Practice Day 1 (Print available) |
Unit 7: Probability: Theoretical Probability, Experimental Probability, and Compound Events
| Lesson 30: Understand Probability | Unit 8 Lesson 1: How Likely? (Print available) [Free lesson] Lesson 2: Prob-bear-bilities [Free lesson] |
| Lesson 31: Solve Problems Involving Experimental Probability | Unit 8 Lesson 4: Spin Class Lesson 5: Is It Fair? |
| Lesson 32: Solve Problems Involving Probability Models | Unit 8 Lesson 6: Fair Games |
| Lesson 33: Solve Problems Involving Compound Events | Unit 8 Lesson 7: Weather or Not Lesson 8: Simulate It! (Print available) Practice Day 1 (Print available) |
Grade 8
Unit 1: Geometric Figures: Rigid Transformations and Congruence
| iReady Classroom | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Understand Rigid Transformations and Their Properties | Unit 1 Lesson 1: Transformers [Free lesson] Lesson 2: Spinning, Flipping, Sliding [Free lesson] Lesson 3: Transformation Golf |
| Lesson 2: Work with Single Rigid Transformations in the Coordinate Plane | Unit 1 Lesson 4: Moving Day (Print available) [Free lesson] Lesson 8: No Bending, No Stretching Lesson 9: Are They Congruent? Practice Day (Print available) |
| Lesson 3: Work with Sequences of Transformations and Congruence | Unit 1 Lesson 3: Transformation Golf |
Unit 2: Geometric Figures: Transformations, Similarity, and Angle Relationships
| Lesson 4: Understand Dilations and Similarity | Unit 2 Lesson 2: Dilation Mini Golf [Free lesson] Lesson 3: Match My Dilation |
| Lesson 5: Perform and Describe Transformations Involving Dilations | Unit 2 Lesson 4: Dilations on a Plane (Print available) Lesson 5: Transformations Golf With Dilations |
| Lesson 6: Describe Angle Relationships | Unit 2 Lesson 6: Social Scavenger Hunt (Print available) [Free lesson] |
| Lesson 7: Describe Angle Relationships in Triangles | Unit 1 Lesson 11: Tearing It Up (Print available) Lesson 12: Puzzling It Out [Free lesson] Unit 2 Lesson 7: Are Angles Enough? Lesson 8: Shadows |
Unit 3: Linear Relationships: Slope, Linear Equations, and Systems
Unit 4: Functions: Linear and Nonlinear Relationships
| Lesson 15: Understand Functions | Unit 5 Lesson 1: Turtle Crossing [Free lesson] Lesson 2: Guess My Rule [Free lesson] Lesson 3: Function or Not? |
| Lesson 16: Use Functions to Model Linear Relationships | Unit 5 Lesson 4: Window Frames Lesson 5: The Tortoise and the Hare [Free lesson] Lesson 6: Graphing Stories |
| Lesson 17: Compare Different Representations of Functions Lesson 18: Analyze Functional Relationships Qualitatively | Unit 5 Lesson 7: Feel the Burn (Print available) [Free lesson] |
Unit 5: Integer Exponents: Properties and Scientific Notation
| Lesson 19: Apply Exponent Properties for Positive Integer Exponents | Unit 7 Lesson 1: Circles [Free lesson] Lesson 2: Combining Exponents Lesson 3: Power Pairs (Print available) [Free lesson] Lesson 4: Rewriting Powers |
| Lesson 20: Apply Exponent Properties for All Integer Exponents | Unit 7 Lesson 5: Zero and Negative Exponents Lesson 6: Write a Rule (Print available) Practice Day 1 (Print available) |
| Lesson 21: Express Numbers Using Integer Powers of 10 | Unit 7 Lesson 7: Scales and Weights Lesson 8: Point Zapper Lesson 9: Use Your Powers |
| Lesson 22: Work with Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson] Lesson 11: Balance the Scale [Free lesson] Lesson 12: City Lights Lesson 13: Star Power |
Unit 6: Real Numbers: Rational Numbers, Irrational Numbers, and the Pythagorean Theorem
| Lesson 23: Find Square Roots and Cube Roots to Solve Problems | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] Lesson 5: Filling Cubes |
| Lesson 24: Express Rational Numbers as Fractions and Decimals | Unit 8 Lesson 12: Fractions to Decimals Lesson 13: Decimals to Fractions |
| Lesson 25: Find Rational Approximations of Irrational Numbers | Unit 8 Lesson 10: Taco Truck [Free lesson] |
| Lesson 26: Understand the Pythagorean Theorem and its Converse | Unit 8 Lesson 6: The Pythagorean Theorem |
| Lesson 27: Apply the Pythagorean Theorem | Unit 8 Lesson 7: Pictures to Prove It Lesson 8: Triangle-Tracing Turtle [Free lesson] Lesson 9: Make It Right Lesson 11: Pond Hopper Practice Day 2 (Print available) |
| Lesson 28: Solve Problems with Volumes of Cylinders, Cones, and Spheres | Lesson 10: Volume Lab Lesson 11: Cylinders [Free lesson] Lesson 12: Scaling Cylinders Lesson 13: Cones [Free lesson] Lesson 14: Missing Dimensions (Print available) Lesson 15: Spheres |
Unit 7: Statistics: Two-Variable Data and Fitting a Linear Model
| Lesson 29: Analyze Scatter Plots and Fit a Linear Model to Data | Unit 6 Lesson 3: Robots [Free lesson] Lesson 4: Dapper Cats [Free lesson] Practice Day 1 (Print available) [Free lesson] Lesson 5: Fit Fight [Free lesson] |
| Lesson 30: Write and Analyze an Equation for Fitting a Linear Model to Data | Unit 6 Lesson 6: Interpreting Slopes Lesson 7: Scatter Plot CityLesson 8: Animal Brains Practice Day 2 (Print available) |
| Lesson 31: Understand Two-Way Tables | Unit 6 Lesson 9: Tasty Fruit Lesson 10: Finding Associations [Free lesson] |
| Lesson 32: Construct and Interpret Two-Way Tables | Unit 6 Lesson 11: Federal Budgets Practice Day 3 |
Grade 6
Module 1: Ratios and Rates
Module 2: Fractions, Decimals, and Percents
| Lesson 1: Understand Percents | Unit 3Lesson 8: Lucky Duckies [Free lesson]Lesson 9: Bicycle Goals |
| Lesson 2: Percents Greater Than 100% and Less Than 1% | |
| Lesson 3: Relate Fractions, Decimals, and Percents | Unit 5Lesson 2: Decimal Diagrams [Free lesson]Lesson 13: Grocery Prices (Print available) |
| Lesson 4: Find the Percent of a Number | Unit 3Lesson 10: What’s Missing? (Print available)Lesson 11: Cost Breakdown |
| Lesson 5: Estimate the Percent of a Number | |
| Lesson 6: Find the Whole | Unit 3Lesson 10: What’s Missing? (Print available) |
Module 3: Compute with Multi-Digit Numbers and Fractions
| Lesson 1: Divide Multi-Digit Whole Numbers | Unit 5Lesson 8: Division DiagramsLesson 9: Long Division Launch (Print available)Lesson 10: Return of the Long Division (Print available)Lesson 11: Movie Time [Free lesson]Lesson 12: Budget Vehicles (Print available) |
| Lesson 2: Compute with Multi-Digit Decimals | |
| Lesson 3: Divide Whole Numbers by Fractions | Unit 4Lesson 1: Cookie CutterLesson 2: Making Connections (Print available)Lesson 3: Flour Planner [Free lesson]Lesson 4: Flower PlantersPractice Day |
| Lesson 4: Divide Fractions by Fractions | Unit 4Lesson 5: Garden Bricks (Print available)Lesson 6: Fill the Gap [Free lesson]Lesson 7: Break It DownLesson 8: Potting SoilLesson 9: Division ChallengesLesson 10: Swap Meet (Print available) |
| Lesson 5: Divide with Whole and Mixed Numbers | Unit 4Lesson 5: Garden Bricks (Print available)Lesson 6: Fill the Gap [Free lesson] |
Module 4: Integers, Rational Numbers, and the Coordinate Plane
| Lesson 1: Represent Integers | Unit 7Lesson 1: Can You Dig It [Free lesson]Lesson 4: Sub-Zero |
| Lesson 2: Opposites and Absolute Value | Unit 7Lesson 5: Distance on the Number Line |
| Lesson 3: Compare and Order Integers | Unit 7Lesson 2: Digging DeeperLesson 3: Order in the Class (Print available) [Free lesson] |
| Lesson 4: Rational Numbers | Unit 7Lesson 2: Digging Deeper |
| Lesson 5: The Coordinate Plane | Unit 7Lesson 9: Sand Dollar SearchLesson 10: The A-maze-ing Coordinate Plane |
| Lesson 6: Graph Reflections of Points | |
| Lesson 7: Absolute Value and Distance | Unit 7Lesson 5: Distance on the Number Line |
Module 5: Numerical and Algebraic Expressions
| Lesson 1: Powers and Exponents | Unit 6Lesson 10: PowersLesson 11: Exponent Expressions (Print available) |
| Lesson 2: Numerical Expressions | Unit 6Lesson 11: Exponent Expressions (Print available) |
| Lesson 3: Write Algebraic Expressions Lesson 4: Evaluate Algebraic Expressions | Unit 6Lesson 6: Vari-applesLesson 8: Products and Sums [Free lesson]Lesson 9: Products, Sums, and Differences (Print available)Lesson 12: Squares and Cubes |
| Lesson 5: Factors and Multiples | Unit 5Lesson 15: Common FactorsLesson 14: Common Multiples |
| Lesson 6: Use the Distributive Property | Unit 6Lesson 8: Products and Sums [Free lesson]Lesson 9: Products, Sums, and Differences (Print available) |
| Lesson 7: Equivalent Algebraic Expressions | Unit 6Lesson 1: Weight for It [Free lesson]Lesson 2: Five Equations (Print available)Lesson 3: Hanging AroundLesson 6: Vari-apples |
Module 6: Relationships in Geometry
| Lesson 1: Use Substitution to Solve One-Step Equations | |
| Lesson 2: One-Step Addition Equations Lesson 3: One-Step Subtraction Equations | Unit 6Lesson 1: Weight for It [Free lesson]Lesson 2: Five Equations (Print available)Lesson 3: Hanging AroundLesson 4: Hanging It UpLesson 5: Swap and Solve (Print available) |
| Lesson 4: One-Step Multiplication Equations | Unit 6Lesson 3: Hanging AroundLesson 4: Hanging It UpLesson 5: Swap and Solve (Print available)Lesson 4: Hanging It UpLesson 5: Swap and Solve |
| Lesson 5: One-Step Division Equations | Unit 6Lesson 3: Hanging AroundLesson 4: Hanging It UpLesson 5: Swap and Solve (Print available) |
| Lesson 6: Inequalities | Unit 7 Lesson 6: Tunnel Travel [Free lesson] Lesson 7: Comparing Weights Lesson 8: Shira’s Solutions |
Module 7: Relationships Between Two Variables
| Lesson 1: Relationships Between Two Variables Lesson 2: Write Equations to Represent Relationships Represented in Tables | Unit 6Lesson 13: Turtles All the WayLesson 14: Representing RelationshipsLesson 15: Connecting Representations (Print available) |
| Lesson 3: Graphs of Relationships | Unit 6Lesson 14: Representing Relationships |
| Lesson 4: Multiple Representations | Unit 6Lesson 13: Turtles All the WayLesson 14: Representing RelationshipsLesson 15: Connecting Representations (Print available)Lesson 16: Subway fares (Print available) [Free lesson]Practice Day 2 (Print available) |
Module 8: Area
| Lesson 1: Area of Parallelograms | Unit 1Lesson 3: Exploring Parallelograms (Print available) [Free lesson]Lesson 4: Off the GridLesson 6: Triangles and Parallelograms |
| Lesson 2: Area of Triangles | Unit 1Lesson 5: Exploring Triangles (Print available)Lesson 6: Triangles and ParallelogramsLesson 7: Off the Grid, Part 2Practice Day 1 (Print available) |
| Lesson 3: Area of Trapezoids | |
| Lesson 4: Area of Regular Polygons | Unit 1Lesson 8: Pile of PolygonsPractice Day 1 (Print available) |
| Lesson 5: Polygons in the Coordinate Plane | Unit 7Lesson 11: Polygon Maker |
Module 9: Volume and Surface Area
| Lesson 1: Volume of Rectangular Prisms | Unit 4Lesson 13: Volume Challenges |
| Lesson 2: Surface Area of Rectangular Prisms | Unit 1Lesson 9: Renata’s Stickers [Free lesson]Lesson 11: Nothing But Nets (Print available)Lesson 12: Face ValueLesson 13: Take It To Go (Print available)Practice Day 2 (Print available) |
| Lesson 3: Surface Area of Triangular Prisms | |
| Lesson 4: Surface Area of Pyramids | Unit 1Lesson 12: Face ValueLesson 13: Take It To Go (Print available)Practice Day 2 (Print available) |
Module 10: Statistical Measures and Displays
| Lesson 1: Statistical Questions | Unit 8Lesson 1: Screen TimeLesson 2: Dot PlotsLesson 3: Minimum Wage (Print available) [Free lesson]Lesson 4: Lots More Dots |
| Lesson 2: Dot Plots and Histograms | Unit 8Lesson 5: The Plot Thickens [Free lesson]Lesson 6: DIY Histograms (Print available) |
| Lesson 3: Measures of Center | Unit 8Lesson 7: Snack TimeLesson 10: Hollywood Part 1 (Print available)Lesson 11: Toy Cars [Free lesson]Lesson 12: In the NewsLesson 13: Pumpkin PatchPractice Day 1 (Print available) |
| Lesson 4: Interquartile Range and Box Plots | Unit 8Lesson 13: Pumpkin PatchLesson 14: Car, Plane, Bus, or Train? (Print available)Lesson 15: Hollywood Part 2 |
| Lesson 5: Mean Absolute Deviation | Unit 8Lesson 9: HoopsLesson 10: Hollywood Part 1 (Print available) |
| Lesson 6: Outliers | |
| Lesson 7: Interpret Graphical Displays | Unit 8Lesson 2: Dot PlotsLesson 3: Minimum Wage (Print available) [Free lesson]Lesson 4: Lots More Dots |
Grade 7
Module 1: Proportional Relationships
Module 2: Solve Percent Problems
| Lesson 1: Percent of Change | Unit 4Lesson 4: More and LessLesson 5: All the EquationsLesson 6: 100% (Print available)Lesson 7: Percent machines [Free lesson]Lesson 8: Tax and TipLesson 9: Minimum Wage (Print available)Lesson 10: Cost of College (Print available)Lesson 11: Bookcase BuilderLesson 12: Posing Percent Problems [Free lesson] |
| Lesson 2: Tax | Unit 4Lesson 8: Tax and Tip |
| Lesson 3: Tips and Markups | Unit 4Lesson 4: More and LessLesson 5: All the EquationsLesson 6: 100% (Print available)Lesson 7: Percent machines [Free lesson]Lesson 8: Tax and TipLesson 9: Minimum Wage (Print available) |
| Lesson 4: Discounts | Unit 4Lesson 4: More and LessLesson 5: All the EquationsLesson 6: 100% (Print available)Lesson 7: Percent machines [Free lesson] |
| Lesson 5: Interest | |
| Lesson 6: Commission and Fees | |
| Lesson 7: Percent Error | Unit 4Lesson 11: Bookcase Builder |
Module 3: Operations with Integers
| Lesson 1: Add Integers Lesson 2: Subtract Integers | Unit 5Lesson 2: More Floats and AnchorsLesson 4: Draw Your Own (Print available) [Free lesson]Lesson 5: Number PuzzlesLesson 10: Integer Puzzles [Free lesson]Lesson 11: Changing TemperaturesLesson 13: Solar Panels and More (Print available) |
| Lesson 3: Multiply Integers | Unit 5Lesson 6: Floating in GroupsLesson 7: Back in TimeLesson 8: Speeding TurtlesLesson 10: Integer Puzzles [Free lesson]Practice Day 2 (Print available) |
| Lesson 4: Divide Integers | Unit 5Lesson 8: Speeding Turtles |
| Lesson 5: Apply Integers Operations | Unit 5Lesson 10: Integer Puzzles [Free lesson] |
Module 4: Operations with Rational Numbers
| Lesson 1: Rational Numbers | Unit 4Lesson 13: Decimal Deep Dive (Print available) |
| Lesson 2: Add Rational Numbers Lesson 3: Subtract Rational Numbers | Unit 5Lesson 3: BumpersLesson 4: Draw Your Own (Print available) [Free lesson]Lesson 5: Number PuzzlesLesson 10: Integer Puzzles [Free lesson]Lesson 11: Changing TemperaturesLesson 13: Solar Panels and More (Print available)Practice Day 1 (Print available) |
| Lesson 4: Multiply Rational Numbers | Unit 5Lesson 6: Floating in GroupsLesson 7: Back in TimeLesson 8: Speeding TurtlesLesson 10: Integer Puzzles [Free lesson] |
| Lesson 5: Divide Rational Numbers | Unit 5Lesson 8: Speeding TurtlesLesson 10: Integer Puzzles [Free lesson]Lesson 12: Arctic Sea Ice (Print available)Lesson 13: Solar Panels and More (Print available)Practice Day 2 (Print available) |
| Lesson 6: Apply Rational Numbers Operations | Unit 5Lesson 11: Changing TemperaturesLesson 12: Arctic Sea Ice (Print available)Lesson 13: Solar Panels and More (Print available) |
Module 5: Simplify Algebraic Expressions
| Lesson 1: Simplify Algebraic Expressions | Unit 6Lesson 9: Always-Equal MachinesUnit 5Lesson 9: Expressions (Print available) |
| Lesson 2: Add Linear Expressions Lesson 3: Subtract Linear Expressions | Unit 6Lesson 10: Collect the Squares [Free lesson]Lesson 11: Equation Roundtable (Print available) |
| Lesson 4: Solve Inequalities Using Addition or Subtraction | Unit 6Lesson 14: Unbalanced HangersLesson 15 Budgeting (Print available)Lesson 16: Shira the Sheep [Free lesson]Lesson 17: Write Them and Solve Them (Print available)Practice Day 2 (Print available) |
| Lesson 5: Factor Linear Expressions | Unit 6Lesson 8: Factoring and Expanding (Print available)Lesson 11: Equation Roundtable (Print available) |
| Lesson 6: Combine Operations with Linear Expressions |
Module 6: Write and Solve Equations
| Lesson 1: Write and Solve One-Step Equations | Unit 6Lesson 3: EquationsLesson 4: Seeing Structure (Print available)Lesson 14: Unbalanced HangersLesson 15: BudgetingLesson 16: Shira the Sheep [Free lesson]Lesson 17: Write Them and Solve Them (Print available) |
| Lesson 2: Solve Two-Step Equations: px + q = r Lesson 3: Write and Solve Two-Step Equations: px + q = r Lesson 4: Solve Two-Step Equations: p(x + q) = r Lesson 5: Write and Solve Two-Step Equations: p(x + q) = r | Unit 6Lesson 4: Seeing Structure (Print available)Lesson 6: Balancing EquationsLesson 7: Keeping It True (Print available)Lesson 12: Community Day (Print available)Practice Day 1 (Print available) |
Module 7: Write and Solve Inequalities
| Lesson 1: Solve One-Step Addition and Subtraction Inequalities Lesson 2: Write and Solve One-Step Addition and Subtraction Inequalities Lesson 3: Solve One-Step Multiplication and Division Inequalities Lesson 4: Solve One-Step Multiplication and Division Inequalities with Negative Coefficients | Unit 6Lesson 14: Unbalanced HangersLesson 15: Budgeting (Print available)Lesson 16: Shira the SheepLesson 17: Write Them and Solve Them (Print available) |
| Lesson 5: Write and Solve One-Step Multiplication and Division Inequalities | Unit 6Lesson 15: Budgeting (Print available) |
| Lesson 6: Write and Solve Two-Step Inequalities | Unit 6Lesson 15: Budgeting (Print available)Lesson 16: Shira the Sheep [Free lesson]Lesson 17: Write Them and Solve Them (Print available)Practice Day 2 (Print available) |
Module 8: Geometric Figures
| Lesson 1: Vertical and Adjacent Angles | Unit 7Lesson 3: Angle DiagramsLesson 4: Missing Measures (Print available) [Free lesson] |
| Lesson 2: Complementary and Supplementary Angles | Unit 7Lesson 2: Friendly Angles [Free lesson] |
| Lesson 3: Triangles | Unit 7Lesson 5: Can You Build It? [Free lesson]Lesson 6: Is It Enough?Lesson 7: More Than OneLesson 8: Can You Draw It? (Print available)Practice Day 1 (Print available) |
| Lesson 4: Scale Drawings | Unit 1Lesson 1: Scaling Machines [Free lesson]Lesson 2: Scaling RobotsLesson 3: Make It ScaleLesson 4: Scale Factor ChallengesLesson 5: TilesLesson 6: Introducing ScaleLesson 7: Will It Fit? (Print available) [Free lesson]Lesson 8: Scaling States (Print available)Lesson 9: Scaling BuildingsLesson 10: Room Redesign (Print available)Practice Day 1 (Print available)Practice Day 2 (Print available) Unit 4Lesson 3: Sticker Sizes |
| Lesson 5: Three Dimensional Figures | Unit 7Lesson 9: Slicing Solids |
Module 9: Measure Figures
| Lesson 1: Circumference of Circles | Unit 3Lesson 2: Is It a Circle?Lesson 3: Measuring Around [Free lesson]Lesson 4: Perimeter ChallengesPractice Day 1 (Print available) [Free lesson] |
| Lesson 2: Area of Circles | Unit 3Lesson 5: Area StrategiesLesson 6: Radius Squares (Print available)Lesson 7: Why Pi?Lesson 8: Area Challenges [Free lesson]Lesson 9: Circle vs. SquarePractice Day 2 (Print available) |
| Lesson 3: Area of Composite Figures | Unit 3Lesson 4: Perimeter Challenges |
| Lesson 4: Volume | Unit 7Lesson 10: Simple PrismsLesson 11: More Complicated PrismsLesson 13: Popcorn Possibilities |
| Lesson 5: Surface Area | Unit 7Lesson 10: Simple PrismsLesson 11: More Complicated PrismsLesson 12: Surface Area Strategies (Print available)Lesson 13: Popcorn Possibilities |
| Lesson 6: Volume and Surface Area of Composite Figures | Unit 3Lesson 4: Perimeter ChallengesLesson 5: Area Strategies Unit 7Lesson 11: More Complicated PrismsLesson 13: Popcorn PossibilitiesPractice Day 2 (Print available) |
Module 10: Probability
| Lesson 1: Find Likelihoods Lesson 2: Relative Frequency of Simple Events Lesson 3: Theoretical Probability of Events | Unit 8Lesson 1: How Likely? (Print available) [Free lesson]Lesson 2: Prob-bear-bilities [Free lesson]Lesson 3: Mystery Bag |
| Lesson 4: Compare Probabilities of Simple Events | Unit 8Lesson 4: Spin ClassLesson 5: Is It Fair? |
| Lesson 5: Probability of Compound Events | Unit 8Lesson 6: Fair GamesLesson 7: Weather or NotLesson 8: Simulate It |
| Lesson 6: Simulate Chance Events | Unit 8Lesson 8: Simulate ItPractice Day 1 (Print available) |
Module 11: Sampling and Statistics
| Lesson 1: Biased and Unbiased Samples | Unit 8Lesson 10: Crab Island [Free lesson]Lesson 11: Headlines |
| Lesson 2: Make Predictions Lesson 3: Generate Multiple Samples | Unit 8 Lesson 10: Crab Island [Free lesson]Lesson 11: HeadlinesLesson 12: Flower Power |
| Lesson 4: Compare Two Populations | Unit 8Lesson 9: Car, Bike, or Train? (Print available)Lesson 10: Crab Island [Free lesson]Lesson 13: Plots and SamplesLesson 14: School Newspaper (Print available)Lesson 15: Asthma Rates (Print available) |
| Lesson 5: Assess Visual Overlap | Unit 8Lesson 13: Plots and SamplesPractice Day 2 (Print available) |
Grade 8
Module 1: Exponents and Scientific Notation
| Reveal Math | Desmos Math 6–A1 |
|---|---|
| Lesson 1: Powers and Exponents | Unit 7 Lesson 1: Circles [Free lesson]Lesson 2: Combining Exponents |
| Lesson 2: Multiply and Divide Monomials | Unit 7 Lesson 2: Combining ExponentsLesson 3: Power Pairs (Print available) [Free lesson]Lesson 4: Rewriting PowersLesson 6: Write a Rule (Print available) |
| Lesson 3: Power of Monomials | Unit 7 Lesson 3: Power Pairs (Print available) [Free lesson]Lesson 4: Rewriting PowersLesson 6: Write a Rule (Print available) |
| Lesson 4: Zero and Negative Exponents | Unit 7 Lesson 5: Zero and Negative ExponentsLesson 6: Write a Rule (Print available)Practice Day 1 (Print available) |
| Lesson 5: Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson]Lesson 11: Balance the Scales [Free lesson]Lesson 13: Star Power |
| Lesson 6: Compute with Scientific Notation | Unit 7 Lesson 10: Solar System [Free lesson]Lesson 11: Balance the Scales [Free lesson]Lesson 12: City LightsLesson 13: Star PowerPractice Day 2 (Print available) |
Module 2: Real Numbers
| Lesson 1: Terminating and Repeating Decimals | Unit 8 Lesson 12: Fractions to Decimals Lesson 13: Decimals to Fractions |
| Lesson 2: Roots | Unit 8 Lesson 2: From Squares to Roots Lesson 3: Between Squares Lesson 4: Root Down [Free lesson] Practice Day 1 (Print available) |
| Lesson 3: Real Numbers | Unit 8 Lesson 14: Hit the Target |
| Lesson 4: Estimate Irrational Numbers | Unit 8 Lesson 3: Between Squares |
| Lesson 5: Compare and Order Real Numbers | Unit 8 Lesson 14: Hit the Target |
Module 3: Solve Equations with Variables on Each Side
| Lesson 1: Solve Equations with Variables on Each Side | Unit 3 Lesson 3: Posters Lesson 6: Translations Lesson 10: Solutions Lesson 11: Pennies and Quarters Unit 4 Lesson 3: Balanced Moves Lesson 4: More Balanced Moves (Print available) Lesson 5: Equation Roundtable (Print available) [Free lesson] Lesson 6: Strategic Solving (Print available) |
| Lesson 2: Write and Solve Equations with Variables on Each Side Lesson 3: Solve Multi-Step Equations Lesson 4: Write and Solve Multi-Step Equations | Unit 4 Lesson 3: Balanced Moves Lesson 4: More Balanced Moves (Print available) Lesson 5: Equation Roundtable (Print available) [Free lesson] Lesson 6: Strategic Solving (Print available) |
| Lesson 5: Determine the Number of Solutions | Lesson 7: All, Some, or None? |
Module 4: Linear Relationships and Slope
Module 5: Functions
| Lesson 1: Identify Functions | Unit 5 Lesson 1: Turtle Crossing [Free lesson] Lesson 2: Guess My Rule [Free lesson] Lesson 3: Function or Not? |
| Lesson 2: Function Tables | Unit 5 Lesson 4: Window Frames Lesson 7: Feel the Burn (Print available) [Free lesson] |
| Lesson 3: Construct Linear Functions | Unit 2 Lesson 9: Water Slide Lesson 10: Points on a Plane Unit 3 Lesson 3: Posters Lesson 4: Stacking Cups Lesson 5: Flags Lesson 6: Translations |
| Lesson 4: Compare Functions | Unit 3 Lesson 7: (Print available)Feel the Burn |
| Lesson 5: Nonlinear Functions | Unit 5 Lesson 4: Window Frames Lesson 7: Feel the Burn (Print available) [Free lesson] |
| Lesson 6: Qualitative Graphs | Unit 5 Lesson 5: The Tortoise and the Hare [Free lesson] |
Module 6: Systems of Linear Equations
| Lesson 1: Solve Systems of Equations by Graphing | Unit 4 Lesson 9: On or Off the Line? Lesson 10: On Both Lines Lesson 11: Make Them Balance [Free lesson] Lesson 12: Line Zapper Lesson 13: All, Some, or None? Part 2 (Print available)Practice Day 2 |
| Lesson 2: Determine Number of Solutions | Unit 4 Lesson 13: All, Some, or None? Part 2 |
| Lesson 3: Solve Systems of Equations by Substitution | |
| Lesson 4: Solve Systems of Equations by Elimination | |
| Lesson 5: Write and Solve Systems of Equations | Unit 4 Lesson 14: Strategic Solving, Part 2 (Print available) |
Module 7: Triangles and the Pythagorean Theorem
| Lesson 1: Angle Relationships and Parallel Lines | Unit 1 Lesson 10: Transforming Angles |
| Lesson 2: Angle Relationships and Triangles | Unit 1 Lesson 10: Transforming Angles Lesson 11: Tearing It Up (Print available)Lesson 12: Puzzling It Out [Free lesson] |
| Lesson 3: The Pythagorean Theorem | Unit 8Lesson 6: The Pythagorean TheoremLesson 7: Pictures to Prove It |
| Lesson 4: Converse of the Pythagorean Theorem | Unit 8Lesson 9: Make It Right |
| Lesson 5: Distance on the Coordinate Plane | Unit 8Lesson 11: Pond HopperPractice day 2 (Print available) |
Module 8: Transformations
| Lesson 1: Translations Lesson 2: Reflections Lesson 3: Rotations | Unit 1Lesson 1: Transformers [Free lesson]Lesson 2: Spinning, Flipping, Sliding [Free lesson]Lesson 4: Moving Day (Print available) [Free lesson]Lesson 5: Getting Coordinated |
| Lesson 4: Dilations | Unit 2Lesson 1: Sketchy Dilations [Free lesson]Lesson 2: Dilation Mini-Golf [Free lesson]Lesson 3: Match My Dilation |
Module 9: Congruence and Similarity
| Lesson 1: Congruence and Transformations Lesson 2: Congruence and Corresponding Parts | Unit 1 Lesson 7: Are They the Same?Lesson 9: Are They Congruent? |
| Lesson 3: Similarity and Transformations | Unit 2Lesson 5: Transformations Golf with DilationsLesson 6: Social Scavenger Hunt (Print available) [Free lesson] |
| Lesson 4: Similarity and Corresponding Parts | Unit 2Lesson 7: Are Angles Enough?Lesson 8: Shadows |
| Lesson 5: Indirect Measurement | Unit 2Lesson 8: Shadows |
Module 10: Volume
| Lesson 1: Volume of Cylinders | Unit 5Lesson 10: Volume LabLesson 11: Cylinders [Free lesson]Lesson 12: Scaling Cylinders |
| Lesson 2: Volume of Cones | Unit 5Lesson 10: Volume LabLesson 13: Cones [Free lesson]Lesson 14: Missing Dimensions (Print available) |
| Lesson 3: Volume of Spheres | Unit 5Lesson 15: Spheres |
| Lesson 4: Finding Missing Dimensions | Unit 5Lesson 14: Missing Dimensions (Print available) |
| Lesson 5: Volume of Composite Solids | Unit 5Lesson 15: Spheres |
Module 11: Scatter Plots and Two-Way Tables
| Lesson 1: Scatter Plots | Unit 6 Lesson 1: Click BattleLesson 2: Wing SpanLesson 3: Robots [Free lesson]Lesson 7: Scatter Plot CityPractice Day 1 (Print available) |
| Lesson 2: Draw Lines of Fit | Unit 6 Lesson 4: Dapper Cats [Free lesson]Lesson 5: Fit Fights [Free lesson]Lesson 6: Interpreting SlopesLesson 8: Animal BrainsPractice Day 2 (Print available) |
| Lesson 3: Equations for Lines of Fit | |
| Lesson 4: Two-Way Tables | Unit 6Lesson 9: Tasty FruitLesson 10: Finding Associations [Free lesson] |
| Lesson 5: Associations in Two-Way Tables | Unit 6Lesson 9: Tasty FruitLesson 10: Finding Associations [Free lesson]Lesson 11: Federal Budgets |
The High-Impact Tutoring Implementation Workshop Series
The High Impact Tutoring Implementation Workshop Series
Administrators, welcome to Amplify Science!
Here you’ll find information about enrollment and licensing, technical requirements, professional learning resources, and more.
Onboarding: What to expect
Welcome to Amplify Science! There are six basic steps to onboarding. Use this visual as a reference, but also know that our dedicated implementation team will be there to support you during the entire process.
Technology requirements and guidelines
To ensure that your hardware and network meet the minimum technical requirements for performance and support of your curriculum products, please see Amplify’s customer requirements page.
You’ll also want to add the URLs on this page to the corresponding district- or school-level filters so that your teachers and students can access their Amplify Science materials.
Data sharing agreement
Partnering with Amplify through our data sharing program deepens learning outcomes and gives you the performance analysis you need to make impactful decisions within your district or school. By signing our data sharing agreement, your district will help us to better understand student performance as it relates to your state’s standards. It also allows us to compare results with the curriculum-embedded assessments and state-level assessments. These analyses will help you identify the areas where your teachers and students are excelling or may be experiencing challenges.
Stay tuned for additional updates.
Enrollment and licensing overview
During the enrollment and licensing call, your Amplify implementation partner will walk you through the enrollment process. We recommend exploring the enrollment web tool ahead of the call for suggestions on which enrollment method may be best for your district.
The following guides provide additional information about enrollment methods and the data sharing process.
Preparing for your materials
Each unit of Amplify Science comes with a hands-on materials kit.
Each hands-on materials kit arrives in 1–3 boxes and contains the following:
- Consumable materials
- Nonconsumable materials
- Classroom wall materials
- Premium print materials (cards, maps, etc.)
- 18 copies of each Student Book (K–5)
- A blackline master copy of the Student Investigation Notebook (K–5)
You can find complete materials lists for each unit in the following PDFs. This information is also available in the digital Teacher’s Guide within the program.
Once your district’s purchase order has been sent to Amplify and is processed, Amplify will provide tracking information on your materials kits and any additional print materials you’ve ordered.
Administrator Reports
Self-service Administrator Reports allow insight into teacher and student usage and student performance data for the current school year.
Access is limited to district and school administrators. Administrators can directly access these reports at my.amplify.com/admin-reports.
Announcements
Summer extension
With summer fast approaching, we recognize that some districts may be extending the school year and/or continuing the use of Amplify curriculum and programs for summer instruction. If your summer instruction will continue past June 30 and/or you need to make rostering or enrollment changes, follow our guidance on extending your rollover date.
Use stimulus funding to drive transformation
Learn about ESSER I, II, and III funding (or CARES, CRRSA, and ARP) and how to use these funds to help with learning recovery and acceleration. Districts have significant flexibility in how to use the ESSER money, with ESSER II and III specifying that some of the funds should be used to address unfinished learning. All Amplify programs and services meet the criteria for the funding. Get more information about funding and guidelines.
Next steps: How do I support my teachers?
Pre-launch checklist for teachers
Please share our Program Hub with your educators. It will provide helpful information as they prepare to implement Amplify in their classrooms, including a pre-launch checklist. Note that they’ll need to be logged into Amplify Science to access the Hub. If they don’t have a login yet, you can also download and share the Amplify Science pre-launch checklist for teachers PDF.
Professional learning
We partner with every district to make sure the Amplify Science rollout meets their unique needs. Check out these sample agendas to get a better understanding of what our team has to offer.
Advice and answers
The Science help website is filled with step-by-step resources to address educators’ questions. Encourage your educators to read through these tutorials and search for topics they want to learn more about.
Contact us
Powerful (and free!) pedagogical support
Amplify provides a unique kind of support you won’t find from other publishers. We’ve developed an educational support team of former teachers and administrators who provide pedagogical support at no cost to educators using our programs. This free service includes:
- Information on where to locate standards and other planning materials.
- Recommendations and tips for day-to-day teaching with Amplify Science.
- Support with administering and interpreting assessment data and more.
To reach our pedagogical team, click the orange icon while logged into the curriculum to get immediate help, call (866) 629-2446, or email edsupport@amplify.com.
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Our Customer Care and Support team is available Monday through Friday, 7 a.m. to 9 p.m. ET, and Sunday, 10 a.m. to 6 p.m. ET, through a variety of channels:
- Live chat: Click the orange icon while logged into the curriculum to get immediate help in the middle of the school day.
- Phone: Call our toll-free number: (800) 823-1969.
- Email: Send an email to help@amplify.com.
Join our community
Our Amplify Science Facebook group is a community of Amplify Science educators from across the country. It’s a space to share best practices, ideas, and support on everything from implementation to instruction. Join today.
S3-03: Instructional strategies for integrating science and literacy

We’re continuing our investigations around science and literacy with Doug Fisher, Ph.D., professor and chair of educational leadership at San Diego State University. We talk about the importance of integrating science and literacy, as well as practical guidance for teachers who want to unite the two disciplines in their own classrooms.
Listen as we discuss how science and literacy can be powerful allies and specific strategy areas to focus on when integrating the two disciplines. And don’t forget to grab your Science Connections study guide to track your learning and find additional resources!
We hope you enjoy this episode and explore more from Science Connections by visiting our main page!
Douglas Fisher (00:00):
It’s not that you have to become a reading specialist to integrate literacy into science. It’s how our brains work.
Eric Cross (00:10):
Welcome to Science Connections. I’m your host, Eric Cross. This season, we’re making the case for our favorite underdog, which of course is science. Each episode we’re showing how science can be better utilized in the classroom, and making the case for why it’s so important to do so. In our last episode, we examined the evidence showing that science and English instruction can support each other. And now on this episode, we want to give you some more strategies for really making that a reality in your own home or classroom or community. So to help me, I’m joined on this episode by Dr. Douglas Fisher, Professor and Chair of Educational Leadership at San Diego State University. Dr. Fisher is actually someone who has conducted literacy training at my own school, so I’m excited to be able to share some of his wisdom with all of you. Oh, and just a heads up, Dr. Fisher dropped some gems about the ways teachers can integrate literacy and science in their classrooms. So you may want to have a notepad. Ready. And now here’s my conversation with Dr. Douglas Fisher.
Eric Cross (01:12):
Well, Doug, thank you for your time and for being willing to come and talk about literacy and science. I know you’re busy, all over the place, and so I was super-excited that we were able to lock you in and talk about this. And, on this episode, we’re gonna talk about the ways that science and literacy can support each other. And one of the reasons why I’m really excited for you is because you said some really key things for me as a science teacher, when you talked about literacy and supporting students. That just resonated so deeply in me. And I was like, “I need more Doug!” Because we’re on that same frequency. And I know it’s a subject that you’ve spent a lot of time writing about. So can you tell us a little bit about how this became an area of interest or a passion for you? Just literacy, and all of the work that you’ve put into it?
Douglas Fisher (01:54):
Yeah. So I’ve wanted to be a teacher for a really long time. And I went to San Diego State as an undergraduate, and I was taking English class and we were assigned topics. You know, like, you’ll do an assignment, you’ll write a paper for this English class. And I got the topic “illiteracy,” and I was a freshman at San Diego State reading all of these things about adults who don’t read very well or not at all. And I ended up writing my very first college essay on illiteracy — at the time, you know, called illiteracy, at the time. And so I got super interested in this. And so as I moved through college and into my teaching career, literacy became a really important thing for me to think about, because it’s the gatekeeper. You know, you can be taken advantage of, if you’re not very literate. People can use vocabulary against you, if you’re not very literate. We know that people who have higher levels of literacy have better health outcomes. They have better lifespans, longer lifespans. I mean, there’s just — literacy impacts so much more than “Are you reading your fourth-grade textbook?” It really has lifelong implications.
Eric Cross (03:01):
That part that you said about being taken advantage of … I just got a flyer in the mail yesterday. It was one of these mailers that looked like it was an authentic debt-reduction type of thing, but it was really just like a marketing email. If you read the fine print at the very bottom, it had all of this jargon about “This is a paid, you know, for-profit company.” But when you look at it, it had official stamps all over it. And I could imagine if someone’s receiving that, that probably fools a lot of people. Is that kinda like what you’re talking about, like being taken advantage of?
Douglas Fisher (03:28):
Yes. I had a student turn 18, got a letter from a “credit card company” that was offering her daily compounding interest. And if you don’t know what that means — at 23 percent! — if you dunno what that means, you are gonna be a victim. Literacy really influences a lot of our life. It’s also how our brain works. We have a language-based system in our brain. We read, write, speak, listen, and view. And the things we learn, we learn through speaking, reading, writing, listening, and viewing. From what we know, we are the only species that has an external storage mechanism. Like, we have the ability to store complex information outside of our body, in the form of notes. We can type them. We can write them. And we can then go back and retrieve that information, that complex orthographic information later. And it means the same thing. We can say we have a storage system and we’ve been doing this for a really long time. Way back to, you know, hieroglyphics and messages on cave walls. And throughout the ages of humans learning, how to store information that they can re-access again later. That’s become a super-complicated system. It’s how computers operate. And we send messages to each other and we text each other and we write things down, and we’re really good at putting ideas, information out there. Now, if it’s just speaking and listening, then we can forget it. We can say, “No, you said this,” or “I said that.” But when it’s written, and it’s print literacy, you know, it’s the orthographics there, you can go back to the same message and over and over again. Now, you might change the interpretation of it, but the message is still there.
Eric Cross (05:16):
Right. And that is such a key element, at least of modern education, is this written element of it. It’s what many schools live and die by. They’re quantitatively and qualitatively analyzed by it. It’s public. They can see it. And so there’s this heavy emphasis. And why do you think science and literacy can be powerful allies together?
Douglas Fisher (05:38):
Awesome. Well, it’s hard to learn science if you’re not literate.
Eric Cross (05:42):
This is true.
Douglas Fisher (05:42):
But that’s a one-way direction. And yes, science teachers and scientists do a lot of reading, writing, speaking, and listening and viewing. They use the five literacy processes all the time. When we interview scientists, they spend a lot of their time reading the work of other scientists and writing their findings, writing grant proposals, presenting at conferences, you know. So a huge part of the work of a scientist is not just at a bench conducting experiments. But even if you’re conducting experiments, you’re using your literacy processes to think about what you’re seeing in your experiment. So that’s a one-way direction. And I do think literacy has an influence on science. But since science goes the other way, it influences literacy. As you learn more and you understand more about the world, your background knowledge grows, your vocabulary grows, you become more literate in those different areas. And how you think. So if I’m learning about life science; I’m learning how the world works in a more, biologic physical world. And that knowledge helps me think about when I’m reading a novel, and there’s an appeal to some science knowledge or a concept that gets played with, you know, perhaps time-space continuums … well, if I don’t have the science knowledge of how I think the world works, it’s hard for me to understand what this author is doing. So it does go both ways. They feed each other. And the more literate we become, the more complex science information we can understand. ‘Cause our background knowledge and our vocabulary influence how much we understand about what we read. And as we access more complex science information, it starts to change the way we think about other things in our world.
Eric Cross (07:23):
There was a couple of things that you said in that, but one of the first things that kind of perked my ears is when you said grant proposals. Because I have friends that are scientists — and this is one of the things that when I was in school, they don’t talk about — but how much of their research is reliant upon getting funding —
Douglas Fisher (07:37):
Mm-hmm. <affirmative>,
Eric Cross (07:38):
— which you don’t think about if you’re becoming a chemist or a physicist or a biologist or working in the field, is that that funding, coming from the NSF or anywhere else. And sometimes students ask in class like, “Why am I writing so much? Like, I want to go into science!” Or “I wanna do this!” And this is a real-life example of how the writing could actually apply, in addition to all of the things of collecting data and conclusions and results. But that grant proposal thing just really perked my ears, yeah.
Douglas Fisher (08:01):
And if you can’t write a grant proposal, your ideas and experiments are not gonna get funded. And if you can’t write a strong proposal, that compellingly convinces your readers to fund you, you’re not gonna get funded. But then once you get the grant, you have to write publications. You have to share your work with other people. Make PowerPoint presentations and write journal articles or books or whatever. So it’s a cycle that literacy influences the things we do, including the things we do in science.
Eric Cross (08:31):
Now to get in maybe some data, if you were trying to convince someone that like this happy marriage can exist, what would be like your number one piece of evidence to support this, this back and forth of supporting each other?
Douglas Fisher (08:44):
Awesome. So the quote I’ll often say — and this is from studies from more than two decades ago now — but in general, in high school science, students are introduced to 3000 unfamiliar words, 3000. Each year! Because there are words that are used in a scientific way that are used commonly in other places. And there are discipline-specific words. So 3000 words a year in high school science. The Spanish 1 textbook only has 1500 words in it. So science teachers have double the academic-language vocabulary demand that a typical introductory world-language class has. So just the vocabulary alone should say to us, literacy is gonna be important if you’re gonna learn science. And if you don’t understand these technical words, and you don’t understand the way science uses this particular word in this particular way… . When you say the word “process,” it means something very specific In science. “Division” — cellular division is not the way we think about it in mathematics; there’s a similar concept, but cellular division is different than dividing numbers. And those are words that get used in multiple areas. Then you have all these technical terms that you have to be able to use, to understand the concepts. To share the concepts. To talk to other people. Whether you’re in, you know, fifth grade and talking science, or you’re a university professor, there’s a shared language, appropriate for our grade level, that we have shared meanings of.
Eric Cross (10:22):
And we’re essentially … what I’m hearing you say is … most of the people that are listening to this are science teachers. We’re we’re also language teachers. In a sense.
Douglas Fisher (10:29):
So my frustration is when people say, “Every teacher’s a teacher of reading.” And I don’t like that. I’ve written against that phrase. I don’t think all teachers are teachers of reading, any more than all teachers are teachers of chemistry. Or all teachers are teachers of algebra. But what I will say is the human brain learns through language. And all of us — every teacher that I’ve ever met understands that language is important in my class. If my students don’t have strong listening skills and speaking skills; reading, writing, and viewing skills; I’m gonna have a hard time getting them to learn things. If I can help them grow their speaking, listening, reading, writing, and viewing in my content area, I’m gonna do a service for my learning of my subject and also their more broad literacy development.
Eric Cross (11:16):
- So, at a high level, what does it look like to integrate science and literacy? We’ve done education for the last, what, hundred years?
Douglas Fisher (11:24):
Mm-hmm. <affirmative>
Eric Cross (11:25):
—kind of pretty similarly, right? Kind of siloed way. What does this look like at the 30,000-foot level? You’re a professor, department chair. Run schools. Speak everywhere. Like, when you think about this from that high level, what does it look like?
Douglas Fisher (11:39):
A high level? Every time I meet with students in a science class, you know, biology or fifth grade or whatever? They should be reading, they should be writing, they should be speaking and listening. Every class. So what print do you want them to access? And it can be a primary source document, it can be an article, it can be from a textbook. Are they reading something? Are they writing to you? Because writing is thinking. If they are writing, they are thinking. As soon as their brain goes somewhere else, they stop writing. The pen won’t move or the fingers don’t type. And then speaking and listening, of course, is the dynamic of our classes. So every day we should see some amount of reading, writing, speaking, and listening, viewing in our classes. That’s at a high level. There are some generic things that seem to work across the literacy. So, learning how to take notes. Focusing on vocabulary. Using graphic organizers. These are generic things that as educators we can use in our classes. Then there’s more specialized things. So, scientists and science teachers think differently than historians and literary critics and art critics. So scientists, if you look at the disciplinary literacy work, there’s a whole body of research where they interview and study high-end experts in their field: chemistry, physics, biology, et cetera. And there are some characteristics that were more disciplined, specific. Scientists like cause and effect relationships. They look for them when they’re reading. They like sourcing information. “Where this come from?” “What’s the history of this idea?” Scientists have a long view in terms of time. Historians have a shorter view of time. English teachers have even shorter view of time. Scientists tend to think in long periods of time. And so all of that influences how a scientist reads and how we should apprentice young people after they get past the generic “I know how to take notes. I know how to study my vocabulary. I know how to do summary writing for my teacher in my notebooks and things,” there’s some generic tools. Once we get past those, we need to be looking at specifically how do people in science use literacy.
Eric Cross (13:52):
I’ve never had my thought process of reading deconstructed just now, but we just described how scientists read. I was like, “Yeah, that’s pretty much how I read, right there.” I also like how you said how we should apprentice young people. And I feel like you as the literacy guy, you chose that word very specifically, as far as apprenticing young people. That is a view, I think, that’s really important to hold. ‘Cause that’s what we’re doing essentially … is, if we’re doing what we should be doing, we are apprenticing these young people.
Douglas Fisher (14:18):
Yes.
Eric Cross (14:18):
And helping them develop. Now, let’s imagine there’s a listener out there and they’re interested in getting better at integrating science and literacy instruction. They want to start somewhere. Before we dive in, do you have any initial words of encouragement for the person who’s like, “Everything is like a priority right now,” in their classroom or in their world?
Douglas Fisher (14:37):
Yeah. So I’ll talk about elementary for just a moment. When we’re reading informational texts in our literacy block, we should be reading information that is aligned to what kids need to learn in science and history in, in that grade level. Why are we reading things that are gonna be in conflict with what they’re gonna learn in science later that day in fourth grade, for example? So when we look at our standards, our expectations, what is it that third graders need to know in history, science, mathematics, language arts? And when we’re reading text and we’re learning to apply our reading strategies during our literacy block, why aren’t we reading topics that build our background knowledge for our science time? So we’re seeing some synergy there. We should be looking at life cycles in grades that are appropriate for life cycles and knowing there’s more to life cycles than the frog and the plant or the seed. There are all kinds of life cycles. And we call ’em life cycles for a reason. That’s a general concept. Now in science, we’re looking at this particular lifecycle right now. And so that’s a high level. If we could get more connection to the content standards during our literacy blocks, it would be very good. When we talk about the time at which we call “science” in the day, in more of the K–8 continuum, the science needs to include some primary source documents. Some real things that students are reading. Read about a scientist; read about a scientist’s discovery; read about what they discovered. So that we’re building our background knowledge. So when we go to do things, activities, labs, simulations, we have background knowledge and we understand what we’re experiencing. It can’t be like—I watched this awesome lesson on lenses and the teacher had all these different lenses in the room and the students came in and they were brand new. They don’t know anything. They were picking ’em up. They’re exploring them. They’re trying to figure out, and they’re trying to come up with theories about what this is and how it works. And then the teacher gave them a reading, a short reading, on refraction of light. And they read this thing. And the clarity that they had about what these lenses must do, well! All of a sudden they’re putting them up to the lights! They’re asking if they can go get the lights out of the storage unit! ‘Cause there’s — and they’re shining different lights through the lenses to see what happens to the light. Because that little bit of reading turned some focus on for the students. And it allowed them to take what I’m thinking about, what I’m trying to figure out, how this thing works in another direction. That’s the power of using literacy in our classes.
Eric Cross (17:20):
And what I’m hearing essentially is transfer across disciplines, across content areas, ultimately. And in an elementary school classroom, would it be fair to say, probably the teacher has more autonomy to be able to do that, since they’re teaching all the subjects? But secondary, logistically, planning and those types of things … from what you’ve seen, is it fair to say this kind of needs to be like a top-down, full vertical alignment, to teach like this?
Douglas Fisher (17:45):
I think that would be awesome to do that. But if I’m a sixth grade English Language Arts teacher and I’m working with my sixth grade science teacher, the conversation should be, “What units are you teaching?” Because I’m choosing informational text. My job is to teach them how to find central ideas. My job is to teach them how to find the details in the text. My job is to have them make a claim and support that claim with evidence. The stuff I use is generic. Yes, we do read some literature and some narratives, but we also read about 50% of the text in English around informational text. So if I can help you and accomplish my standards as well, fantastic. So let’s have this conversation and say, “Oh, this is what you’re teaching in science in the next three weeks? I’m gonna choose some texts and we’re gonna analyze ’em for central idea. We’re gonna analyze ’em for details. We’re gonna, for mood or tone or whatever that we’re teaching. And by the way, I’m building background knowledge. So when they come to you, they know some stuff about what you’re going to be teaching next.” So I don’t think it’s impossible to say teams of teachers could come together and say, “What do we believe that our students need to know and learn and be able to do? And then how do we choose things that are gonna help them accomplish exactly that?”
Eric Cross (19:01):
And that’s empowering. Because that’s one thing that we can control maybe is this East-West, peer-to-peer, different content areas. A system may not be able to change as quickly, but I can definitely go talk to my English team or math team and check in and kind of see, “Hey, where do we have overlap in that?” And I know the times that I’ve accidentally had overlap with the teams, it’s super-exciting. And the students have been more bought in! Because it’s like, we’ve done something on the human microbiome and we’ve talked about genetics and all these different things, and then when they read The Giver, or they read some book about genetics, they have all this knowledge. And they’re excited. And they talk about colorblindness or they come to my class and they’re like, “Hey, we read about this!” It’s almost like they saw a magic trick, the fact that these things linked up. And the engagement has been so much higher when it’s the same content in different classes, but through different lenses. At least, that’s what I’ve seen in my years of teaching.
Douglas Fisher (19:54):
I saw a lesson on space junk that was so cool. Middle-school students learning space junk. And the history teacher had a part of it, science teacher had a part of it, English Language Arts teacher had a part of it. And these students, I mean, you watch them look up all the time, ’cause there’s space junk up there. Where’d it come from? Why is it there? What are the politics of this? How do we clean it up? I mean, it was just so interesting to watch them when the teachers came together. And the teachers met their standards in this couple-week-long space-junk exploration. Investigation was met. Politics was met. All these different things. Economy. You know, how much does it cost to clean up this problem? So there’s really cool opportunities when teachers come together and realize we can work together and improve the literacy and learning of our students.
Eric Cross (20:50):
Absolutely. So before this recording, we picked your brain a bit. And I know that there were three specific strategy areas that you wanted to touch on. And one of those — which is kind of coming back to the 3000-words language teachers — was vocabulary. So what are the opportunities that you see, as far as the way of educators to approach vocabulary? Because, you know, there’s a lot. We got a lot of it. The 3000 words.
Douglas Fisher (21:14):
Yeah. There’s a lot of it. So the worry is, we make a vocabulary list and have students look up the words in definitional kinds of things. That’s not really gonna help. Students need to be using the words. They need to be using the words in their conversations, in their writing, in how they think about your content in science. So vocabulary is a huge predictor of whether or not you understand things. Vocabulary is also a pretty good predictor if you can read on grade level. So when we think about vocabulary, there’s something called word solving. You show students a piece of text and you’re reading it, you’re sharing your thinking, and you say, “Oh, here’s a context clue!” Or “I know this prefix or suffix or root!” And in science, a lot of the words are prefixed, suffixed, or root words. We tend to add things together with a lot of prefixes and suffixes and have roots and bases in science. So we can help students think about, “Oh, what does geo- mean? We already know what geo- means here. It means the same thing in this word. Let’s apply that knowledge.” So word solving is part of it, showing students how we think about words that we might not know. The second is more direct instruction of vocabulary. As students encounter the words, we work on what it means, how we say it. We practice it a few times. The process is called orthographic mapping. It’s kind of a scientific idea here. But you have the sound and the recognition of by-the-word, by sight, and what it means. And your brain starts to automatically recognize that word in the future. So I don’t have to slow down, disrupt my fluency, and try to figure out what the word is saying. ‘Cause I’ve seen it enough. I’ve heard it pronounced enough, I’ve pronounced it enough, and I know what it means. So teachers should be saying, “What words in sixth grade science, what words in third grade science, do my students really need to know?” And I’m gonna have them encounter those words over and over. I’m gonna have them use the words. I’m gonna have them see the words. I’m gonna have them say the words. I’m gonna say the word and we’re gonna be over and over with these terms, so that students incorporate them into their normal view of, “These are the things I know about the world.” By the way, when they go to read that next thing, and they understand “geology,” you know, for sixth graders, for example, they know how to say it. They don’t stumble on it. And it activates a whole bunch of memories in their brains. “This is what geology is.” There are branches of geology, there’s physical geology, there’s all this thinking that activates as they read.
Eric Cross (23:35):
There was a practice that I participated in and am trying to incorporate — I don’t know what the name of it is. But essentially what happened was we were dissecting a flower. And the instructor had us name parts of the flower. But we got to come up with our own names for it.
Douglas Fisher (23:49):
Ah.
Eric Cross (23:50):
So, for instance, the stamen we call “the fuzzy Cheeto.” And we all used our own words and then everything was legitimized. And so we went through and learned the whole activity using our own vocab words. But then, in the end, after we presented and talked about it, then the words, the actual academic language was attached to our word. And we were able to say, “OK, the fuzzy Cheeto is the stamen,” and this, this, this, and this. But it was such an interesting practice, because it kind of legitimized all of our definitions. But we weren’t stumbling on these long Latin terms and things like that. Is there a name for that? Or. … ?
Douglas Fisher (24:29):
Yes. I don’t know the name for that. I think it’s really smart. So here’s what I would say about that, is: we don’t learn words, we learn concepts. Words are labels for our concepts. So what that teacher did for you was allow you to develop concept, a concept knowledge. “There’s a part of this plant, it goes like this, we’re gonna call it fuzzy Cheeto. Now I have this concept. And look, it occurred in all these plants. And those people called it that and that other group called it that. We called it a fuzzy Cheeto. Here’s the part of it.” And then the concept is in your brains. And the teacher said, “It’s really called stamen.” And it’s an instant transfer, because you already had the concept. What we often see is students are trying to learn a really hard academic word and the concept for the word at the same time. And so it slows down the whole process. And there’s higher levels of forgetting. Because human beings, we don’t learn words; we learn concepts. If you don’t have the concept, if I gave you a word out of the blue that you’ve never seen, never heard, and a week from now I asked you to remember it, you probably would not, because it didn’t register. It wasn’t part of your schema. You didn’t have a way to organize the information. You don’t have a concept. So that teacher? It’s a great idea. Got you to develop concept knowledge. And then said, “Here’s a real label for it: What some other people called it when they had the chance to come up with their own names.”
Eric Cross (25:50):
Shout out to my teacher, who was—
Douglas Fisher (25:51):
Right.
Eric Cross (25:52):
It was learned then. It was a great practice. And the fact that you’re right, like, I just mean from my own personal experience, I agree that learning concepts versus complicated words. And it’s interesting that you said higher levels of forgetfulness, you know. And you often hear that complaint about it: “Students forget! Students forget!” But this complex topic and this complex word that’s new to me, and I have to remember both of those things.
Douglas Fisher (26:12):
That’s right.
Eric Cross (26:13):
And the other neat thing that it did, is it actually honored the background and like the founts of knowledge of all the different groups in the classroom. You just said something about “this group called it this and this group called it this,” and so by letting different groups share all of those names, now we’re starting to build these kind of interesting connections. That’s at least what I remember experiencing. And so this, even this practice of this approach is very layered, beyond just kind of generating new knowledge of things. So I appreciate that aspect of it. Now another area that you mentioned was complex text.
Douglas Fisher (26:41):
Yeah.
Eric Cross (26:42):
And how we can get students into complex text. So what can we do there?
Douglas Fisher (26:46):
I think science is an ideal place to get students reading things that are hard for them. And I do believe that some parts of school should be a struggle. Not all day, every day. But there should be doses of struggle, which are good for our brains. And these complex pieces of texts that don’t give up their meanings easily allow students to go back and reread the text and maybe mark the text and talk to peers about the text and answer questions with their groups. And the whole point of complex text is to say, “We persevere through it. We may not understand it fully on our first read. But we go back and we might underline, we might highlight. We might write some margin notes. Our teacher might say, ‘What did this author mean here?’ And we go back and look at that part and we take it apart. What do we think about that? And we talk to each other. It’s showing that when we read things, we work to understand. We work through our thinking, often in the presence of other people. And our understanding grows as we go into the text over and over and over again.” So I said geology earlier. There’s about a two-page article on “what is geology” that sixth graders often read. And some kids find it super boring. It’s a once-read, “OK, geology, I don’t really understand it. There’s a bunch of words in here that I don’t understand.” But if you go back to it a few times and you start taking apart, “What are the branches of geology? Oh, I’m gonna go reread that.” How are these two branches related to each other?” “What are the subtypes of each branch of geology?” “How do geologists do their work?” You start asking questions where students are going back into the text. You spend a little bit of time. Now, the introduction to geology, the students know so much more. So whatever you do next— video experiments, whatever—they have a frame of reference, because of that deep, complex read. It’s probably better than simply telling them, “Here’s the information.”
Eric Cross (28:45):
Right. And I even feel like as an educator, when I reflect on my own learning in the classroom, and then looking at it through the perspective of an educator <laugh>, you find this difference between how you were taught and then what the data says good teaching is.
Douglas Fisher (28:59):
Mm-hmm. <affirmative> mm-hmm. <affirmative>.
Eric Cross (29:00):
It’s so easy to slide back into how you were taught!
Douglas Fisher (29:02):
Yeah.
Eric Cross (29:02):
Even though, you know, you mentally assent to, “This is the best way. This is the data shows.” And you find yourself kind of sliding back at times.
Douglas Fisher (29:10):
Yep. And there’s good evidence to support what you just said, that most people teach the way they experienced school. And it is very hard to change that. And people have studied this. And it’s very hard to change that. Because it worked for us. And we have an n of 1, and it worked for us. Now, remember, there were a whole bunch of other kids in the class that it may not have worked for. And we chose to be in school the rest of our lives, and some of your peers did not choose to be in school the rest of their lives. In fact, some of them hated school and found no redeeming qualities of their experience. So just because it worked for us in a case of one, n of 1, doesn’t mean it worked for all of the kids, or even the majority of them.
Eric Cross (29:57):
Very well said. It’s that, what is that, the survivor bias? Survivorship bias? Where you were the one that made it. But you don’t think about all the other folks. ‘Cause we’re thinking about ourselves.
Douglas Fisher (30:05):
That’s right.
Eric Cross (30:06):
Great case for empathy too, is thinking about the people left and right. Because my friends are like, “I hated science.” And I say, “Who hurt you? Like, what did they do? It’s so amazing, so much fun!”
Douglas Fisher (30:16):
“What happened to you? Science is the coolest. Right? It’s so amazing!”
Eric Cross (30:21):
But I also had a unique experience in seventh grade with my teacher who did some of these things, and made it accessible for so many of us, in opening opportunities that I wouldn’t have had otherwise. But you’re absolutely right. That was my story. That wasn’t the story of everybody that was around me. And I think that’s really important. Now, I know this is also a big one for you, but I wanna talk about writing. What are the opportunities that you see in terms of writing specifically?
Douglas Fisher (30:51):
So would love it if science teachers had short and longer writing tasks in the science time. Of course, you can integrate some of the science writing, the longer ones, in the English language arts time, especially if you’re the elementary teacher and you can have control of the whole day. But I said this earlier; I’ll say it again. Writing is thinking. While you are writing, there’s nothing else you can do but think about what you are writing. Your brain cannot do something else. So if a science teacher wants to know, do their students really understand the concepts? Have them write. Now some of the shorter ones, I like something called “given word” or “generative sentences”: “I’m gonna give you a word: CELL. C-e-l-l. We’re in science. I want you to write the word ‘cell,’ c-e-l-l, in the third position of a sentence. So it’s gonna go word, word, cell, and then more words.” You could also say, “I want the sentence longer than seven words,” or whatever. But the key is, I’m telling you where I want the word. You will know instantly if your students have a sense of what the word “cell” means in the context of science. If they write “my cell phone,” they don’t get it. If they write about spreadsheet cells or jail cells or whatever, they didn’t get it. But if they talk to you about plant cells and animal cells and the components of those cells, and then once they have that sentence down, you can say to them, “Now write three or four more sentences that connect to that sentence.” It’s super simple. So whatever concepts you’re teaching, put ’em in a specific position. Now you don’t have to only put it in the third position. You can say the first position, the fifth position, the fourth position. But it forces them to think about what they know about the word and then how to construct a sentence for you. That’s a very simple way to get some writing from your students that helps you think about what they understand. Other kinds of writing, you can have quick writes, you can have exit-slip writes. There’s something in the research space called the muddiest part, where halfway through the lesson you have them write so far what has been the least understood or the most confusing part of this lesson. And they do a quick write, right there, at the muddiest part. And as a teacher, you flip through these and you start to say, “Oh, these are the points that are confusing to my students.” So if 80% of them all have the same thing, I gotta reteach that. If these five got, “This is the muddiest part,” If these five thought, “This is the muddiest part,” these seven, “I thought this was the muddiest part,” what do I need to do? Because it’s gonna be hard to move forward if this is their area of confusion. There are also all kinds of writing prompts that have a little bit longer. My favorite one is RAFT. What’s your Role? Who’s your Audience? What’s the Format? And what’s the Topic we’re writing about? Super flexible writing prompt. When you teach something, we don’t want students to only think they write to their teacher. So your role is an atom. You are writing to the other atoms. What do you wanna write about? What’s the topic? What’s the format of it? Is it a love letter? Is it a text message? Is it … so we, we mix it up with students in saying, how do they show some knowledge through a prompt that we give them? And then of course, longer pieces as they get older. More opinion pieces through fifth grade. More claims and arguments starting in sixth grade. So that they’re starting to see, “I have to use the evidence from things I’ve learned, read, listened to, watched, and construct something: an opinion, an argument where I back it up with reasons or evidence.” And those longer pieces, you know, less frequently. The shorter pieces, pretty regularly. So the teacher sees the thinking of the students.
Eric Cross (34:29):
When you were speaking about these really creative writing prompts, there were specific students coming into mind, that were coming into mind … they’re, they’re great science students, but they also have this really strong artsy side drawing, creative writing, and things like that. And when you said something about atoms talking to each other, it elicited, in my brain, certain students that would really love this aspect of creativity in the sciences. And it’s not how we’re typically trained as science teachers, to kind of incorporate this, like you said. A book of props. But I’m imagining, like, as a science teacher, if I took this, this would be a great way to reach more students to be able to show what they know, in a way that might resonate with their own intrinsic “Oh, I get to write creatively!” So I was kind of writing furiously as you were sharing all that information there.
Douglas Fisher (35:12):
So here, I’ll give you another example for elementary people. Again, with RAFT. There’s a book called Water Dance. It’s a pretty popular book for elementary teachers. It’s really about the life cycle of water. For example, you are a single drop of water. You are writing to the land. The format is a letter. And you’re explaining your journey. Now, if they can do this, they’re essentially explaining to you the cycle of water. But you got it in a way that people are now, “Oh, I’m a drop of water. So it’s me. My perspective. Where do I go from? Where do I start?” Because you can start anywhere in the cycle, right? My drop could have started in the clouds. My drop could have started in the ground. My drop could have started in the lake. But it has to show you the journey. So there are many ways of showing you the right answers.
Eric Cross (36:02):
And that’s using the RAFT protocol.
Douglas Fisher (36:04):
That’s RAFT: Role, Audience, Format, Topic. It’s been around 20 or 30 years.
Eric Cross (36:09):
You just gave the name to something a teacher shared in our podcast community, Science Connections: The Community, on Facebook. Teacher shared a Google slide deck and on it were just three slides. And the role that the student had to have is they had to show, then tell, the story of a journey of a piece of salmon being eaten, a piece of starch from pasta being eaten, and then an air molecule in a child’s bedroom. And they had to give the path of travel and the experience from the mouth and then breaking down into protein and all those kinds of things. And this teacher shared it and I wish I knew the teacher’s name because I wanna give ’em credit, but they shared it. And so I used it with my students and then had ’em read aloud their stories and dramatize it. And they were so into it!
Douglas Fisher (36:49):
So cool.
Eric Cross (36:50):
But through it, I was able to see that they understood different parts of the body. They understood cell respiration. The whole thing. And it was fun! To watch them get so into this creative writing. And now I know the name of it. That’s been 30 years they were using RAFT. So you just talked a bit about complex texts and writing. And before we go, I wanted to circle back to something that you said, because I think it’s important, and if you could elaborate on it a little bit, about the value of struggle. Can you talk more about that?
Douglas Fisher (37:21):
Sure. I do believe in a lot of the U.S. we’re in an anti-struggle era of education. And it predates Covid. I think it made it worse during Covid. We front load too much. We pre-teach too much. We reduce struggle. We quote, “over-differentiate” for students. And there’s value in struggle. The phrase, “productive struggle” — if you haven’t heard it, Google productive struggle — it’s an interesting concept, that we actually learn more when we engage in this productive struggle. Now, productive struggle originally came from the math world, and it was this idea that it’s worth struggling through things to learn from it, that you’re likely to get it wrong, and then there was productive success. And there are times when we want students to experience success and we make sure we put things in place for productive success. But there are times where we want them to struggle through a concept. ‘Cause it feels pretty amazing when you get on the other side, when you know you struggled and you get to the other side. If you think about the things, listeners, think about the things in your life where you struggled through it and you are most proud of what you accomplished. I want students to have that. I don’t wanna eliminate scaffolding, eliminate differentiation. But I do want some regular doses of struggle. So if you look at the scaffolding, we have a couple choices. We have front-end scaffolds, distributed scaffolds, and back-end scaffolds. Right now we mostly use front-end scaffolds: We pre-teach, we tell students words in advance, that kind of stuff. But what if we refrained from only using front-end scaffolds, and we use more distributed scaffolds, when they encounter. So there’s a difference between “just in case” and “just in time” support for students. So we tend to plan on the “in advance, here are all the things we’re gonna do to remove the struggle before students encounter the struggle.” What if instead we said, “Let them encounter some struggle. Here’s the supports we’re gonna provide. We’re gonna watch; we’re gonna remove those scaffolds, and allow them to have an experience of success, where they realize, ‘I did it. I got it.’” Every science teacher I’ve ever worked with, when they do an experiment or a lab or simulation, they are looking for productive struggle. They don’t tell the answers in advance. They don’t tell if the answers are right. That’s your data. What does your data tell you? I mean, this is what you do. But then the other part of your day when you move into, like, reading, you don’t do that. You fall into the trap of removing struggle. And so allow them to grapple with ideas. Allow them to wonder what words mean. Allow them to say, “I’m not getting this, teacher! It’s really frustrating!” And you say, “Yeah, this is really hard. This is why we’re doing it at school. ‘Cause it’s really hard. If it was easy, I’d have you do it at home. But we’re doing it here, ’cause it’s really hard and it’s OK not to get it at first.” And create a place where errors are seen as opportunities to learn, and struggling through ideas and clarifying your own thinking and arguing with other people to reach an agreement or reach a place where we agree to disagree is part of the power of learning.
Eric Cross (40:38):
There’s a teacher, who I took this from. My master teacher when I was student teaching. And she said that there’s no such thing as failure in science, just data. And I took that same mantra. And I resonate with what you said about how science teachers, all of us, hold onto that productive struggle, because it’s part of being a scientist. It’s part of the experiments. That genuine “aha” moment. Or it didn’t work out? That’s great! That’s totally fine! Let’s write about it and let’s take photos and let’s publish it and let’s be scientists. That’s totally true. As we wrap up, Dr. Fisher, is there any final message that you have to listeners about bringing science and literacy together? I know you speak everywhere, but for everyone that’s listening, if you can put out your encouragement or message or suggestion … you’ve given so many great tips and practical applications. But, any final thoughts on the subject?
Douglas Fisher (41:32):
I think many science teachers are intimidated because they think they have to be reading teachers. And there’s a knowledge base to reading. And some teachers are reading teachers and science teachers, and I don’t wanna dismiss that. But it’s not that you have to become a reading specialist to integrate literacy into science. It’s how our brains work. And so as you think about the way in which you are learning and the ways in which you want your students to learn, what role does language play? What role does speaking, listening, reading, writing, viewing, play in your class? And then provide opportunities for students to do those five things each time you meet with them.
Eric Cross (42:12):
Dr. Fisher, thank you so much for being here and for your encouragement, and sharing your wisdom and experience. And then personally serving my city, here in San Diego, and my students, when they make it to your high school and ultimately the alma mater of San Diego State University.
Douglas Fisher (42:30):
That’s right.
Eric Cross (42:31):
Yeah. We really, really appreciate you in serving all kids and lifting the bar and making things more equitable for all students. And encouraging teachers. So thank you.
Douglas Fisher (42:39):
Thank you very much.
Eric Cross (42:42):
Thanks so much for listening to my conversation with Dr. Douglas Fisher, Professor and Chair of Educational Leadership at San Diego State University. Check out the show notes for links to some of Doug’s work, including the book he co-authored titled Reading and Writing in Science: Tools to Develop Disciplinary Literacy. Please remember to subscribe to Science Connections so that you can catch every episode in this exciting third season. And while you’re there, we’d really appreciate it if you can leave us a review. It’ll help more listeners to find the show. Also, if you haven’t already, please be sure to join our Facebook group, Science Connections: The Community. Next time on the show, we’re going to continue exploring the happy marriage between science and literacy instruction.
Speaker (43:26):
I had this moment of realization I felt a few months ago: I’m like, if I don’t teach them how to use the AI as a tool, as a collaborator, then they’re gonna graduate into a world where they lose out to people who do know how to do that.
Eric Cross (43:39):
That’s next time on Science Connections. Thanks so much for listening.
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Meet the guest
Douglas Fisher, Ph.D., is professor and chair of Educational Leadership at San Diego State University and a leader at Health Sciences High & Middle College having been an early intervention teacher and elementary school educator. He is the recipient of an International Reading Association William S. Grey citation of merit, an Exemplary Leader award from the Conference on English Leadership of NCTE, as well as a Christa McAuliffe award for excellence in teacher education. He has published numerous articles on reading and literacy, differentiated instruction, and curriculum design as well as books, such as The Restorative Practices Playbook, PLC+: Better Decisions and Greater Impact by Design, Building Equity, and Better Learning Through Structured Teaching.


About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.
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Without prejudice to any rights either party may have under this Agreement, in law, equity, or otherwise, a party will have the right to terminate this Agreement if the other party (or in the case of Amplify, an Authorized School User) materially breaches any term, provision, warranty, or representation under this Agreement and fails to correct the breach within 30 days of its receipt of written notice thereof. Upon termination, Customer will: (a) cease using the Products, (b) return, purge, or destroy (as directed by Amplify) all copies of any Products and, if so requested, certify to Amplify in writing that such surrender or destruction has occurred, (c) pay any fees due and owing hereunder, and (d) not be entitled to a refund of any fees previously paid, unless otherwise specified in the Quote. Customer will be responsible for the cost of any continued use of the Products following termination. Upon termination, Amplify will return or destroy any Student Data provided to Amplify hereunder. Notwithstanding the foregoing, nothing will require Amplify to return or destroy any data that does not include Student Data, including de-identified information or data that is derived from access to Student Data but which does not contain Student Data. Sections 3–14 will survive the termination of this Agreement.
15. Miscellaneous
This Agreement may not be modified except in writing signed by both parties. All defined terms in this Agreement will apply to their singular and plural forms, as applicable. The word “including” means “including without limitation.” For United States-based Customers, this Agreement will be governed by and construed and enforced in accordance with the laws of the U.S., state, commonwealth, or territory in which Customer resides based on the address set forth in the Quote, without regard to that state’s, commonwealth’s, or territory’s choice of law rules. For Customers based outside of the United States, this Agreement will be governed by the laws of the U.S., state of New York, without giving effect to the choice of law rules thereof. This Agreement will be binding upon and inure to the benefit of the parties and their respective successors and assigns. The parties expressly understand and agree that their relationship is that of independent contractors. Nothing in this Agreement will constitute one party as an employee, agent, joint venture partner, or servant of another. Each party is solely responsible for all of its employees and agents and its labor costs and expenses arising in connection herewith. Neither this Agreement nor any of the rights, interests or obligations hereunder may be assigned or delegated by Customer or any Authorized School User without the prior written consent of Amplify. If one or more of the provisions contained in this Agreement will for any reason be held to be unenforceable at law, such provisions will be construed by the appropriate judicial body to limit or reduce such provision or provisions so as to be enforceable to the maximum extent compatible with applicable law. Amplify will have no liability to Customer or to third parties for any failure or delay in performing any obligation under this Agreement due to circumstances beyond its reasonable control, including acts of God or nature, fire, earthquake, flood, epidemic, pandemic, strikes, labor stoppages or slowdowns, civil disturbances or terrorism, national or regional emergencies, supply shortages or delays, action by any governmental authority, or interruptions in power, communications, satellites, the Internet, or any other network. Each party represents and warrants that it has all necessary right, power, and authority to enter into this Agreement and to comply with the obligations hereunder.
Last Modified: February 2, 2026
Screen and intervene with mCLASS DIBELS 8th Edition.
Did you know mCLASS® DIBELS® 8th Edition is the industry’s first all-in-one universal and dyslexia screener? This means with just one screener, you’ll gain a complete picture of your students’ grade-level reading abilities and dyslexia risk factors. Our gold-standard assessment identifies students who need more support, then recommends targeted instruction they’ll love.

The right measures at the right time
With mCLASS DIBELS 8th Edition, you’ll assess students based on grade-specific curriculum and instructional standards, in accordance with International Dyslexia Association (IDA) guidelines.
mCLASS DIBELS 8th Edition offers one-minute, easy-to-administer measures of processing speed, phonological awareness, alphabetic principle, and word reading.
| DIBELS® 8th Edition subtest alignment with IDA Guidelines | ||||||
|---|---|---|---|---|---|---|
| Dyslexia Screening Area | mCLASS DIBELS 8th Edition Measure | Grade K | Grade 1 | Grade 2 | Grade 3 | Grade 4–6 |
| Rapid naming ability | Letter Naming Fluency (LNF) | |||||
| Phonological awareness | Phoneme Segmentation Fluency (PSF) | |||||
| Alphabetic principle | Nonsense Word Fluency (NWF) | |||||
| Word reading | Word Reading Fluency (WRF) | |||||
| Word reading | Oral Reading Fluency (ORF) | |||||
| Comprehension | Maze | |||||
Validated as a universal screener and a dyslexia screener
Strong reliability and validity evidence shows that DIBELS 8th Edition can effectively assess students in key skills linked to both dyslexia and broader reading difficulty. The research supporting DIBELS 8th Edition, conducted by the University of Oregon, is rigorous, meets high technical standards, and empowers educators to make well-informed decisions.
Read the DIBELS 8th Edition Dyslexia White Paper.
A complete system for data-based decision making

mCLASS DIBELS 8th Edition provides rich data that helps you make informed instructional decisions and seek out further dyslexia screening evaluation if needed:
- Assess skills: mCLASS DIBELS 8th Edition and optional dyslexia screenings in Rapid Automatized Naming (RAN), Spelling, Vocabulary, and Oral Language accurately assess students’ abilities.
- Identify risk: The DIBELS 8 composite score shows each student’s risk level, with ‘Well Below Benchmark’ indicating a need for intensive support. Students who are also ‘Well Below Benchmark’ in RAN and/or Spelling have an additional Risk Indicator icon next to their name.
- Provide instruction: The mCLASS Instruction feature analyzes student error patterns to key dyslexia-related subtests, then recommends small groups and explicit, multi-sensory activities for reinforcing skills.
- Progress monitor: mCLASS includes progress-monitoring measures to track student growth in letter sounds, alphabetic principle, word reading, oral reading fluency, and comprehension, so that informed instructional decisions can be made.
- Adapt instruction: mCLASS displays indicators based on progress monitoring performance that indicate when a change in instruction may be needed. It also updates instruction recommendations using the latest data.
Differentiated literacy instruction
mCLASS DIBELS 8th Edition lays the groundwork for a strong Multi-Tiered System of Supports (MTSS).
In addition to identifying students with symptoms of dyslexia, mCLASS DIBELS 8th Edition data recommends early intervention, personalized instruction, and core instruction within Amplify’s early literacy suite. Based on the Science of Reading, Amplify’s early literacy suite programs follow an explicit and systematic structure, build knowledge, and instruct on all of the foundational skills essential to literacy development.
- Intervene with mCLASS Intervention and Amplify Tutoring: Staff-led Tier 2 and 3 intervention for intensive support.
- Practice with Boost Reading: Personalized learning program to extend and reinforce core instruction.
- Instruct with Amplify Core Knowledge Language Arts (CKLA): Core curriculum to build foundational skills and knowledge.

Bilingual dyslexia screening
By assessing with mCLASS DIBELS 8th Edition and its Spanish counterpart, mCLASS Lectura, you’ll know with confidence whether a student truly shows signs of dyslexia or is experiencing difficulties learning a new language.
When used together, mCLASS DIBELS 8th Edition and mCLASS Lectura feature a Dual Language Report that analyzes dyslexia screening results in both languages. The report also details how each student can leverage their strengths from one language to support growth in the other.

Optional screening measures at no extra cost
Your mCLASS DIBELS 8th Edition program includes optional measures in vocabulary, spelling, RAN, and language comprehension that can be added flexibly to meet your specific instructional goals or requirements for dyslexia screening. These measures are available in English and Spanish and offered at no additional cost.
| English Measure | Spanish Measure | Description | Grade Level |
| Vocabulary | Vocabulario | Measures knowledge of grade-specific words and deriving meaning from texts. | K–3 |
| Encoding (Spelling) | Ortografía | Measures spelling skills for grade-specific words. | K–3 |
| RAN (Numbers) | – | Measures how quickly students can name numeric symbols aloud. | K–3 |
| Oral language | Lenguaje oral | Students are asked to repeat sentences verbatim while the assessor notes errors. | K–2 |
Dyslexia resources for families
Families play a crucial role in helping children overcome reading challenges. mCLASS DIBELS 8th Edition and mCLASS Lectura provide a Home Connect letter after each dyslexia screening to explain the results in family-friendly language, recommend activities, and direct families to a free website for additional at-home support.

Developmentally appropriate
Computer-based assessments that require students to complete tasks silently or independently may over-identify students for intervention services, especially young learners who are still developing focus and attention abilities.
mCLASS requires students to actively demonstrate their proficiency in producing letter sounds, forming words, and reading texts. This approach to assessment aligns with IDA guidelines for effective screening of reading challenges. By choosing mCLASS for dyslexia screening, you’ll gain accurate information about a student’s risk for dyslexia, and gain the capability to monitor every student’s path to reading proficiency.
Additional resources
- Science of Reading: The Podcast, Season 7, Episode 7: Debunking the “gift” of dyslexia in children, with Dr. Tim Odegard
- Science of Reading: The Podcast, Season 1, Episode 6: The facts and myths of dyslexia, with Emily Lutrick
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Welcome to www.amplify.com (together with any successor sites and the Site Services and Company Content (each as defined below), in whole and in part, the “Site”). The Site is operated by Amplify Education, Inc. (“Company” or “we”). The services that Company makes available on or through the Site include education-related articles, information and instructional services, purchasing functionality, support chat functionality and any other features, content, services, functionality and applications offered from time to time by Company on or through the Site (collectively, “Site Services”).
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Limitations on liability
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Registration is now closed.
Thank you for your interest, but registration is unfortunately closed.
If you’re interested in hearing about other virtual learning opportunities this fall, please contact us at STEM@amplify.com.

About the event
The 1.5-day interactive retreat for math and science district leaders will be held at the Intercontinental Hotel in Chicago, Illinois from October 20–21, 2022. During the retreat, you will spend your time in interactive workshops while learning from thought-leaders, and will also have time to collaborate with other district leaders.
By attending, you will:
- Immerse yourself in the latest math and science education trends with thought leaders and subject-matter experts.
- Expand your leadership network while sharing challenges and success stories with other district leaders.
- Build action plans that you can bring back to your district in interactive workshops.
Logistics
We will have an optional welcome reception on the evening of October 19, and the event will run from 8 a.m. on Thursday, October 20 through 1 p.m. on Friday, October 21.
Participants will be provided breakfast, lunch, dinner, and snacks on the 20th and breakfast, lunch, and snacks on the 21st.
Amplify will cover on-site hotel and meal fees. Attendees are responsible for their own travel costs.

Meet a few of our speakers
Rebecca Abbott

Professional Learning Lead
UC Berkeley’s Lawrence Hall of Science
Eric Cross

Middle school science educator
Host, Science Connections: The Podcast
Kristin Gray

Math Content Consultant
Amplify
Sunil Singh

Storyteller and author
Desiré Whitmore

Senior Physics Educator
The Exploratorium
Jason Zimba

Chief Academic Officer, STEM
Amplify
The fine print
While we’ve made every effort to ensure that this invitation is consistent with the gift and ethics rules adopted by most jurisdictions, we recognize that many public officials are subject to rules that do not permit acceptance of this offer or require approval of other officials at your agency. If you do plan to attend our event, please ensure that acceptance of our invitation is fully compliant with your local rules regarding travel, lodging, and meals for events with vendors. Please let us know if we can provide any additional information to support your determination.
Other publishers say they have “Desmos.” What’s the difference between what Amplify has and what they have?

If you’ve been in the math world for a while, you know the name Desmos. It’s synonymous with free dynamic math tools.
And lately, you’ve probably also been hearing about Amplify and Desmos together. But other publishers also say they have Desmos, so what’s the deal?
Let’s clear it up.
The most important thing to know is that, back in 2022, the original Desmos split into two separate parts. Think of them like a calculators and other tools part and a classroom activities and curriculum part.
The tools part: Desmos Studio
This is the Desmos you first fell in love with.
What it is: Desmos Studio is the name of the company that builds and maintains the powerful, free Desmos calculators. This is an independent Public Benefit Corporation, and can be found at www.desmos.com. That team builds and maintains a collection of free math tools:

What it’s for: This is your go-to for exploration, demonstrations, and “What if I change this?” moments. It’s the blank canvas you use on your smartboard or the tool your students use for homework.
The bottom line: The calculators are run by an independent company called Desmos Studio PBC. You can find their tools for free at their website, desmos.com; on state tests; and in curriculum programs (including ours).

The lessons: Amplify Classroom & Amplify Desmos Math
What it is: In 2023, Amplify acquired the Desmos instructional platform (then called Desmos Classroom, now called Amplify Classroom) as well as their math curriculum for grades 6–8 and the teams that built those resources. We had already been working on our own math curriculum, decided to combine forces with the Desmos curriculum team, and created Amplify Desmos Math, now available for grades K–12.
When other publishers may talk about having “Desmos,” what they mean is they license the calculators and Geometry tool from Desmos Studio.
What it’s for: Amplify has these tools, too, but we also have the Activity Builder, which integrates these tools much more deeply than is possible with other Desmos Studio partnerships. We take this powerful Desmos technology and layer instruction, student collaboration, and dynamic teaching tools on top, creating classrooms that buzz with excitement and learning.
What’s available for free:
- The “Desmos activities” platform (you might know it from teacher.desmos.com), now Amplify Classroom. This is where you can find hundreds of free lessons and activities. You can also use the Activity Builder tool to create your own custom activities from scratch.
- The beloved, pre-built “Activity Builder” activities like “Marbleslides” and more are still available for free on Amplify Classroom.
The bottom line: Educators can still use the vast library of free activities and build their own on Amplify Classroom. This is not changing.

The core curriculum: Amplify Desmos Math
This is the new, comprehensive curriculum available to districts and schools.
What it is: This is a full core math curriculum for grades K–12 that Amplify has built in collaboration with the Desmos curriculum team that joined us a few years ago. It uses the Desmos instructional philosophy and tools as its backbone, but it’s much more than a collection of activities.
What it’s for: This program is designed to be your primary, day-to-day curriculum. It includes a complete, standards-aligned scope and sequence, print materials, digital lessons (with activities enhanced and aligned to standards), assessments, intervention resources, and personalized practice.
The bottom line: If you want a complete curriculum in which every lesson is built on polished Desmos-style activities, you want Amplify Desmos Math K–12. This core curriculum is offered exclusively by Amplify.

Quick-reference chart
| What is it? | Where to find it? | Cost | |
| Desmos Studio Tools | Powerful math tools and calculators (graphing, scientific, etc.) for graphing, calculations, and geometry visualizations. | Access via desmos.com or embedded in partner products | Free for individual use |
| Amplify Classroom | A teaching and learning platform that couples Desmos Studio tools with instruction and collaboration tools – Rich activities and lessons that develop understanding with Responsive Feedback™ – Collaboration and facilitation tools designed for the classroom – Student ideas used to build new problems and scenarios Browse free activities and lessons or build your own with Activity Builder. | Only available from Amplify at amplify.com/classroom (previously Desmos Classroom) | Free |
| Amplify Desmos Math | A comprehensive K–12 math curriculum built on the Amplify Classroom platform – Ready-to-teach print and digital curriculum built on the Amplify Classroom platform – Comprehensive coverage of all standards without the searching. – Additional support for your classroom, including assessment, differentiation, practice, professional development, and more. | Try lessons for free on Amplify Classroom Contact us for more information on purchasing for your district | With a paid subscription |
How problem-based learning can transform the math classroom

With test scores and student engagement on the decline, it’s clear that traditional teaching methods aren’t meeting the needs of all of today’s math learners.
One solution that’s gaining momentum is problem-based learning. By focusing on real-world problems and structured approaches, this approach develops critical thinking, reasoning, and application—skills that are essential for math success.
But making this shift isn’t easy. For math teachers and educators, it requires careful planning, a clear strategy, and community commitment.
That’s why we’re here to help.
The decline in test scores and engagement
The latest National Assessment of Educational Progress (NAEP) results show a sharp decline in math proficiency across grade levels. Only 26% of eighth graders performed at or above the NAEP Proficient level in 2022. These results represent the largest score declines in NAEP mathematics at grades 4 and 8 since initial assessments in 1990. The pandemic didn’t help, but it’s not the only factor.
This downward trend is compounded by a sense of disengagement. According to YouthTruth’s report Making Sense of Learning Math: Insights from the Student Experience, only half of students feel that what they’re learning in math connects to the real world. Recent survey data also shows that less than half of U.S. students feel that they “often” or “always” work on interesting problems in math class.
When math feels irrelevant or intimidating, students disengage—and the learning gaps that follow can be difficult to close.
An opportunity to grow
But the data also includes opportunities. According to NAEP research, more than 70% of students report that they enjoy activities that challenge their thinking and thinking about problems in new ways.
Problem-based learning helps give those students what they want.
And in a world that relies increasingly on data, analysis, and innovation, students need to learn not just how to follow steps and apply formulas, but how to think mathematically. In other words, problem-solving skills need to be part of student learning. This is particularly important in elementary and middle school math, where foundational concepts are built—and where students have the chance to forget their identities as “math people.”
That’s why working to infuse problem-based math learning into your district’s instruction can help reverse negative math and engagement trends.
What does problem-based learning in math look like?
Let’s go back and define this approach more fully. Research shows that math instruction is most effective when it encourages students—individually or grouped with peers—to grapple actively with math problems. When instruction gives students the opportunity and freedom to solve problems, rather than dictating solutions and then having them practice, students are more motivated.
For example, instead of memorizing the formula for calculating area and then practicing it in a series of disconnected problems, students might tackle a problem-solving challenge like:
How much paint is needed to cover our classroom walls?” Or they might work on a broader question such as: “How can we design a park, taking into account constraints like space, cost, and accessibility?
At its core, problem-based learning values mathematical thinking and reasoning. Rather than focusing on procedures and memorization, problem-based learning encourages students to:
- Explore open-ended problems.
- Ask questions and make connections.
- Develop strategies to solve problems collaboratively.
- Build curiosity and perseverance.
- Reflect on their reasoning and process.
In the problem-based learning classroom, students are positioned as active participants in their math experiences, building a deeper understanding of concepts as they work through challenges. This is particularly critical for ensuring students don’t just learn math, but understand why it works and how to apply it. These approaches can transform math classrooms into spaces where students build both foundational and real-world math skills—and a healthy dose of math confidence, too.
Critical factors in making the shift
Integrating problem-based learning into traditional math teaching can feel like (and is!) a big change—in lesson-planning, mindset, and more.
To make it work for administrators, teachers, and students alike, schools do best when they focus on a few critical factors. These include:
- Clear vision: Understand (and communicate) why the shift matters and what it looks like in action.
- Leadership buy-in: Gain commitment from school leaders and administrators.
- Teacher support: Offer professional development, resources, and ongoing guidance specific to math instruction.
- Structured approaches: Establish a well-defined plan for implementing problem-based learning in math classrooms effectively.
What problem-based learning can look like in the classroom
While problem-based learning offers proven benefits, it can be difficult to integrate into the classroom without a clear structure. Teachers need tools and strategies to guide students through the process and ensure that learning goals are met.
A structured approach to problem-based learning in math should include:
- Defining the problem: Present a clear, engaging math challenge connected to real-world scenarios.
- Student inquiry: Encourage exploration, discussion, and different solution paths.
- Collaboration: Support teamwork to share ideas and reasoning.
- Reflection: Allow students to evaluate their process, solutions, and learning.
This structured approach not only improves students’ conceptual understanding, but also aligns with Amplify’s research findings, which show that students who engage in active learning outperform their peers in more traditional settings.
By embracing problem-based learning in math classrooms, educators can:
- Boost student engagement and confidence.
- Improve student problem-solving and mathematical reasoning skills.
- Help reverse declines in math achievement over time.
- Empower students to see the value and relevance of math in academics and in their lives.
Ready to learn more?
If you’re ready to explore how your school can make the shift to problem-based learning in math, our new change management ebook is the perfect place to start. It offers practical guidance, real-world examples, and a deeper look at the strategies highlighted above.
Download the ebook now to discover actionable insights and strategies to help make problem-based learning come alive in your math classrooms.

Early literacy assessment and intervention, grounded in the Science of Reading
mCLASS® is an all-in-one system for Science of Reading-based universal screening, dyslexia screening, progress monitoring, and instruction for grades K–8. Powered by DIBELS® 8th Edition, mCLASS helps you measure and strengthen the foundational skills that all students need to become confident readers.
What is mCLASS?
mCLASS, the only digital provider of DIBELS 8th edition assessments, provides universal screening, dyslexia screening and progress monitoring to assess your students on their reading trajectory and what skills they need to develop.
You’ll observe students as they form sounds or read words and text. Then, mCLASS instantly scores and analyzes student response patterns to provide you with diagnostic data and instructional focus for each student and group.
With mCLASS, you’ll have everything you need to support every type of learner in your classroom, including advanced learners, multilingual learners, and students with signs of dyslexia.

Valid and reliable DIBELS 8th Edition assessments
Developed in partnership with the University of Oregon, mCLASS DIBELS 8th Edition is founded on the strongest-ever research base for predicting reading proficiency, including identifying those at risk for dyslexia.
For more than 30 years, the University of Oregon has led the research behind DIBELS (Dynamic Indicators of Basic Early Literacy Skills). mCLASS is the only licensed digital provider of the evidence-based DIBELS 8th Edition assessment. See more of our research.
Our approach
mCLASS provides rich data to help you match Science of Reading-based instruction with your students’ precise needs. You’ll be able to monitor the effectiveness of instruction and make timely decisions when students or classrooms need extra support.
Grounded in the Science of Reading
From phonics to fluency and comprehension, mCLASS assesses the skills that are most critical for students to become successful readers. Once students are assessed, you’ll have the data you need to drive instructional decisions at the classroom, school, and district level.
- Data you can trust, with teacher-administered assessments
- Skill-level data aligned with the Science of Reading
- Data-driven instructional recommendations to support intervention, remediation, and enrichment


Precise, trustworthy data through direct observation
Our approach to assessment is focused on providing you with immediate insights you can trust. Through direct observation of students and detailed reports, including assessment transcripts and diagnostic error patterns, you’ll have total transparency into each student’s performance.
Instant analysis and next steps
With mCLASS, you can interpret and act on data in real time with instant instructional guidance based on benchmark and progress-monitoring results. In one click, teachers can access differentiated skill-based groups and targeted resources to develop students’ foundational literacy skills.


A complete picture of English and Spanish biliteracy
Amplify’s Spanish language assessment, mCLASS Lectura (K–6), works in tandem with DIBELS 8th Edition’s English assessments to highlight areas of growth as students develop into bilingual readers. mCLASS Lectura provides complete parity with English mCLASS assessments, skill coverage, instructional tools, and reporting.
Ready to continue your learning journey?
Help build teacher confidence and improve effectiveness of intervention delivery with mCLASS professional development. Launch sessions help your team get up and running, while Strengthen sessions help teachers go beyond the basics.

What’s included
The mCLASS program includes quick assessments of critical reading skills, real-time reporting, and data-driven instructional recommendations.

Efficient one-minute measures
DIBELS 8th Edition’s predictive one-minute assessments of phonemic awareness, phonics, fluency, and comprehension are proven to identify risk as early as possible.
- Phonological awareness
- Alphabetic principle/phonics
- Reading fluency
- Reading accuracy
- Reading comprehension
Early detection of dyslexia symptoms
With mCLASS, you can efficiently screen students and assess the full range of skills linked to dyslexia risk factors at the same time. mCLASS DIBELS 8th Edition and mCLASS Lectura are both validated as dyslexia screeners for English and Spanish, with additional Vocabulary, Spelling, RAN, and Language Comprehension measures available at no additional cost.


Progress monitoring and goal setting
To help you target the right skills and areas of instruction, mCLASS recommends progress-monitoring measures and automatically sets meaningful, attainable goals for each student. Our Zones of Growth goal setting framework examines your student’s DIBELS scores to predict the rate of growth they need to reach end-of-year goals.
- Automatic progress monitoring recommendations
- Customizable goals
- Semester and full-year growth reports
Differentiated instruction for all students
Our library of more than 500 evidence-based activities makes it easy to plan lessons that reinforce your core instruction. The embedded professional development supports consider the varied language backgrounds of all students and provide cross-linguistic transfer and language variety guidance to inform phonological awareness instruction.


One-of-a-kind dual language reporting
When you use mCLASS DIBELS 8th Edition with mCLASS Lectura, you can identify and develop students’ English and Spanish literacy skills regardless of your own Spanish-language proficiency. With the dual language report, you can see a side-by-side view of students’ assessment results and receive instructional guidance based on the data.
Educator and caregiver reports
Easy-to-use reports, ranging from classroom-level to school- and district-wide, help you evaluate each student’s reading skills over time and pinpoint exactly when a change in instruction is needed.
To reinforce learning at home, the Home Connect feature provides letters to caregivers about their child’s reading development in English and Spanish, and includes activities for reinforcement at home or on the go.


Instructional alignment across all tiers
Amplify’s early literacy system ensures that you have all the core, intervention, and personalized instruction you need to support each stage of a student’s literacy journey. mCLASS data drives placement into mCLASS Intervention and Boost Reading personalized learning. It also recommends core instruction resources within Amplify CKLA core curriculum based on the skills in which students need additional practice.
Explore more programs based on the Science of Reading
Our literacy programs are designed to support and complement each other. Learn more about our related programs.
Free K–8 science classroom resources
Download free K–8 science resources built to fuel your classroom. Our Science Classroom Resource Library provides printable activities, posters, and guides to elevate teaching and learning in your classroom. Browse and filter resources for grades K–2, 3–5, and 6–8, and download what you need at no cost. Our team adds new resources regularly, so check back often!

USBE Data Analysis for K-3 Reading Assessment Program
Introduction
mCLASS Assessment: Acadience™ Reading
How it works: Quickly identify the needs of each student and inform next steps with instant analysis, reports, and instructional planning tools included in the only licensed mobile version of the research-based Acadience Reading assessment.
- Use short, 1-minute fluency measures for foundational reading skills.
- Replace manual calculations with instant results and recommended activities.
- Compare student progress with predictive, research-based benchmark goals.
- Track progress and target instruction to individual student needs.
- Support decision-making at every level using aggregate reports.
- Translate class- and student-level reports into individualized instruction using the Now What?Tools.
- Get a more complete view of early literacy skills with the new mCLASS:Early Literacy Measures (ELM).
Enrollment for mClass
Please review the Utah Enrollment for mCLASS document for important information about the rostering process for LEAs in Utah.
Benchmark Windows
The USBE has required that each Acadience Reading testing benchmark window occur within the below dates:
BOY — the first benchmark before October 14
MOY — the second benchmark between December 1 and February 5
EOY — the third benchmark between the middle of April and June 15
Benchmark windows for LEAs are set to the state benchmark window dates in mCLASS. Each LEA is to have 2-4 week benchmark period that is within the state benchmark window dates and LEA leaders are to share those dates with staff. The benchmark windows in mCLASS are set to the state benchmark window dates; not the LEA benchmark window dates and this can not be changed in mCLASS. If a student moves into your LEA and your benchmark window is closed, but the state benchmark period is still open, the student must be benchmarked. Should your LEA need an extension of a benchmark window beyond the close of the state benchmark windows, that must be approved by the USBE Assessment Department. Once the benchmark window closes, do not give the benchmark to a student, instead, educators can progress monitor the student on the measures they would have received a benchmark in order to get the students current instructional levels.
If you have questions regarding your current benchmark window dates, feel free to reach out to Amplify Customer Services at help@amplify.com.
Acadience Reading Benchmark Invalidations
Before you invalidate a benchmark probe, review the USBE’s list of acceptable reasons for invalidating on the Frequently Asked Questions: Acadience Reading Invalidations document. If a district/charter has a significant percentage of invalidations, contact and further action will be deployed. If you believe an invalidation is required, please contact your District/Charter Literacy Director. If they need support, they can contact Sara Wiebke, sara.wiebke@schools.utah.gov, to request an invalidation.
Progress Monitoring
The impact of progress monitoring
Progress monitoring is the most powerful tool we offer with regards to student achievement.
“Scores for Daze increase more slowly than they do for other Acadience Reading measures, so more frequent monitoring may not be as informative. For students who need to be monitored on Daze, we recommend monitoring once per month.”
Progress Monitoring with Acadience Reading
© Acadience Learning
October 2012
The Acadience Reading authors recommend progress monitoring students in the Well Below Benchmark category once every 7-10 days (and once every 10-12 days for students in the Below Benchmark category).
Progress monitoring is the practice of testing students briefly but frequently on the skill areas in which they are receiving instruction, to ensure that they are making adequate progress. When students are identified as at risk for reading difficulties, they can receive progress monitoring testing more frequently to ensure that the instruction they are receiving is helping them make progress. (Acadience Learning/October 2012, Progress Monitoring Guide)
The purposes of progress monitoring are:
- to provide ongoing feedback about the effectiveness of instruction,
- to determine students’ progress toward important and meaningful goals, and
- to make timely decisions about changes to instruction so that students will meet those goals.
How to progress monitor?
- Select students for progress monitoring
- Select Acadience Reading materials for progress monitoring
- Set progress monitoring goals
- Determine the frequency of progress monitoring
- Conduct progress monitoring assessment
- Access data through class and student reports
- Evaluate progress and modify instruction.
The key to progress monitoring: Instruction should link to progress monitoring and progress monitoring should link to instruction. They should run parallel and merge as one to confirm student growth in reading.
Check your progress monitoring fidelity report in mCLASS to ensure you are on track with these students. For more information regarding progress monitoring guidelines, visit the official progress monitoring guidelines.
Support Team
Amplify Customer Services
(800) 823-1969
Monday to Friday, 5 a.m. to 5 p.m. MT
help@amplify.com
Educational Support Team
Pedagogical Questions
(800) 823-1969
Monday to Friday, 5 a.m. to 5 p.m. MT
edsupport@amplify.com
For more information, please contact:
Sarah McCarty
Associate Director, Educational Partnership
(812) 593-5776
smccarty@amplify.com
Donna Bright
Educational Partnership Manager
(303) 960-3772
dbright@amplify.com
Robert McCarty
Regional Director of Educational Partnership
(435) 655-1731
rmccarty@amplify.com
Cydnee Carter
Assessment Development Coordinator
(801) 538-7654
cydnee.carter@schools.utah.gov
Liz Williams
Elementary ELA Assessment Specialist
(801) 538-7542
Liz.williams@schools.utah.gov
Sara Wiebke
Literacy Coordinator
(801) 538-7935
sara.wiebke@schools.utah.gov
Krista Hotelling
K-3 Literacy Specialist
(801) 538-7794
krista.hotelling@schools.utah.gov
Christine Elegante
K-3 Literacy Specialist
(801) 538-7551
christine.elegante@schools.utah.gov
Julie Clark
K-3 Literacy Specialist
801-499-2515
julie.clark@schools.utah.gov
Melissa Preziosi
Assessment Data Specialist
(801) 538-7949
melissa.preziosi@schools.utah.gov
Resources
Helpful tips and guides
- Implementation Roadmap Every school system has different objectives and needs, and this document is designed to help you define how the mCLASS system can best support you in achieving your goals.
- Checklist Use this checklist to ensure your staff is trained and your programmatic expectations are clearly communicated to all stakeholders. Completing each of these steps during the correlated benchmark window will help you realize the full value of your mCLASS assessment program.
- mCLASS: Online Help
- Acadience Reading Assessment Manual (Note: You will need to register as a user to get access to the materials; both registration and materials are available at no cost.)
- Acadience Reading Benchmark Goals and Composite Score
- Grouping Worksheets for Acadience Reading
- Acadience Reading Key Skills This document correlates the Acadience Reading measures to Basic Early Literacy Skills.
- The Big Ideas in Early Reading This document is a reference of the five Big Ideas in Early Reading.
- Acadience Reading Reminders A list of reminders the teacher can give to students while assessing Acadience Reading.
- USBE Literacy Framework
- Utah School Report Card: Early Literacy
- Utah State Board of Education Reading on Grade Level Targets for Acadience Reading K-6
- Five leadership practices that drive success in K-2 literacy
mCLASS:Acadience Reading tutorials
- mCLASS:Acadience Reading Next Scoring Practice
- mCLASS Now What? Tools Tutorial
- Pathways of Progress: Purpose
- ?Pathways of Progress: Setting Meaningful Goals
- Pathways of Progress: Highly Skilled Learners Criteria
- ?Goal Setting in mCLASS
- mCLASS How to calculate student pathways video
- Calculating Pathways from DYD Presentation
Technical resources
Amplify Enrollment This guide walks you through the necessary steps to complete enrollment using the manual enrollment tools on Amplify Home. It shows you how to manage staff, student, and class assignment information, and maintain the accuracy of your staff, student, and class assignments.
Devices & Requirements Ensure mCLASS is compatible with your devices and systems for optimal performance and support.
Remote Assessing
Videos:
Remote Assessment Guidance from the Acadience Team:
mCLASS®: Acadience® Reading (formerly known as DIBELS Next)
Key Points:
Before you assess:
1. Determine how you will show student materials and score in mCLASS at the same time.
| Description | |
|
Description Recommended set up |
|
| Modified set up |
Note: mCLASS app is optimized for touchscreen; scoring with a mouse may need more practice. |
2. Familiarize yourself with the digital copies of student materials.
3. Schedule virtual meetings with students. To communicate with English-speaking caregivers, consider sending this email or video. To communicate with Spanish-speaking caregivers, consider sending this email or video.
4. Determine how you will handle scenarios where there’s a lag:
| Description | |
| Record the meeting |
|
| Use a phone |
|
While you assess:
1. Take the opportunity to connect individually with your students as they experience so much change. Don’t make the session solely about testing, and remind caregivers and students that the assessment is a way to see how you can best tailor instruction.
2. Make student materials visible to your student.
For Maze, choose the model that works best for you:
Enter results into the mCLASS web reports
- Students complete online Maze during a video conference
- Put a link to the student assessment site (mclass.amplify.com/student) and the student’s credentials into the chat box (learn how to generate student credentials in this video)
- Ask your student to complete Maze.
- Students complete online Maze outside of a video conference (caregiver support is needed with log-in)
- Students complete Maze on paper
- Locate the benchmark Maze Acadience Learning’s site.
- Print a copy of the form you need (e.g. BOY) for each student in your class.
- Send the form home in a sealed envelope with students, mail the form to caregivers, or have caregivers get forms via school-based pick-up. Provide instructions not to open the envelope until the student is ready to take the assessment.
- Provide parents with instructions on how to proctor the assessment for their child. They need to:
- Give the form to their child
- Sit with their child and read the instructions and practice items
- Tell their child to stop when 3 minutes has elapsed
- Send screenshots of their child’s work via email or text, or return the completed form to the school in a sealed envelope provided by the school.
| Guidance | |
| Acadience:Reading |
Use the share screen feature to display student materials on your screen. Optional next step for measures that have student materials: Zoom users: grant your student control of your screen so you can see their cursor as they read:
Note: For Mac OSX, you will need to give Zoom access in the Accessibility tab in the Privacy and Security preferences of your Mac. For more information on giving Zoom access in Security and Privacy, click here. |
3. Score in mCLASS.
| Benchmark | Progress monitoring | |
| Acadience Reading (formerly known as DIBELS Next) | Available for free download on the Acadience Learning website | |
Desmos Math 6–A1 correlations with Carnegie Math Texas
Welcome CKLA 1st Edition users!
Thank you for being part of the CKLA® family!
The Amplify CKLA 1st Edition experience is no longer supported as of January 1st, 2023. The 1st Edition has been a wonderful and essential part of our CKLA journey, but as we expand our program, we want to make sure we serve teachers with updated instruction that blends powerful content and a digital experience that meets the needs of all learners. On this page you will find more information about next steps, and resources we’d like to share with you as you prepare for this change.

FAQ
When did support for CKLA 1st Edition end?
Due to the age of the digital experience, the original CKLA 1st edition website began to experience a loss of functionality on June 30, 2022. Print materials, including consumable Activity Books, are no longer available for purchase as of December 22, 2022.
What does this mean for me as a 1st Edition user?
You may continue to use your print materials, but your access to digital content will be limited. We strongly encourage you to explore the all-new digital experience and updated content in the CKLA 2nd Edition to see how it could transform your classroom.
Who can I talk with if we have additional questions?
Please reach out to the customer care and support team at amplify.com/request-support.
CKLA 2nd Edition
As part of our commitment to creating even richer and more wide-ranging curricula, we have built on the foundation of the 1st Edition to release a new edition of Amplify CKLA with a collection of program enhancements that can save you time and help you reach every student. Built on feedback from users all over the country, the CKLA 2nd Edition has a number of fantastic resources and tools, including:
- The Teacher Resource site, a website with digital versions of physical materials, digital components, and a full suite of planning documents to help keep you on course throughout Amplify CKLA, along with our Professional Learning site, which gives teachers and administrators access to free PD professional development modules, model lessons, and a wealth of resources to develop expertise.

- Our brand-new Knowledge Research Units that carry forward our powerful and proven instructional approach while also adding increased variety, authentic literature, and instructional flexibility. With one unit per grade K–5, each is built around a trade book, and is supported with a Teacher Guide, Student Activity Books, Image Cards, and digital license.
- Redesigned Skills Readers for grades K–2 to increase representation of characters and illustrators, to better showcase the content, and to look more like trade books! Selected updates have also been made to texts.
- Novel Guides for grades 3–5, which provide 15 full days of instruction on contemporary trade books, as well as writing prompts that help students navigate the authentic literature they love.
- The Intervention Toolkit, which provides easy-to-use resources to assist teachers in filling gaps in students’ foundational skills. Teachers have access to hundreds of activities to support phonics, fluency, comprehension, handwriting, and other key skills.

- The Amplify CKLA Hub, a place where students can access digital resources independently from anywhere, taking full advantage of the instructional multimedia experiences that Amplify CKLA has to offer.
- For grades K–2, Knowledge Builder videos to introduce each domain, Sound Library videos and songs for each sound in the English language, and audio-enabled eBooks of grade-level Student Readers.
- For grades 3–5, access to the Vocab App for independent practice with domain vocabulary and audio-enabled eBooks in English and Spanish.

At an additional cost, you can experience additional CKLA offerings, including:
- A new K–5 digital experience that makes instruction more flexible for students and teachers in in-person, hybrid, and remote classrooms. Everything you need is in one place, making it easier and more engaging than ever to plan lessons, present digital content, and review student work.

- Writing Studio, which provides a full sequence of targeted writing activities that are tied both to writing standards and to the CKLA domains.
- Language Studio, an English language-development companion program to CKLA. Our carefully developed program follows the CKLA Knowledge Domains, previewing and reinforcing skills and content from core instruction using instruction specifically built for English Language Learners.
Explore the 2nd Edition Program Guide for more information about this powerful program!
If you’d like to learn more about upgrading to CKLA 2nd Edition, use the form below to get in contact with an Amplify representative!
Contact your Amplify representative
Utah – USBE Data Analysis for K-3 Reading Assessment Program – New
Products available for TCLAS Decision 3B

mCLASS® Texas Edition provides a full K–6 assessment solution, enabling you to leverage and connect valuable student data from the beginning of their literacy journey to later grades, reflecting a reliable and valid view of every student’s progression. Learn more

Part of the new mCLASS Español suite, mCLASS Lectura K-6 is a full authentic dual language assessment and instruction solution which provides complete parity between English and Spanish-speaking students. Learn more

Amplify Reading is a K–8 student-driven literacy program that provides both remediation and enrichment for all students, leveraging the power of compelling storytelling to engage students in personalized reading instruction and practice. Learn more
mCLASS® Intervention is a staff-led reading intervention for K–6 that performs data analysis and lesson sequencing with Tier 2 and Tier 3 small-group intervention to get struggling readers back on track. Learn More

Amplify ELAR Texas 6-8 features multicultural literature and high-quality multimedia lessons grounded in the TEKS – and was designed for the way middle schoolers learn today. Learn more
Form
Fill out the form below to trigger the order process with Amplify.
Administrators, welcome to mCLASS!
Here you’ll find information about enrollment and licensing, technical requirements, professional learning resources, and more.

Onboarding: What to expect
Welcome to mCLASS! There are six basic steps to onboarding. Use this visual as a reference, but also know that our dedicated implementation team will be there to support you during the entire process.
Technology requirements and guidelines
To ensure that your hardware and network meet the minimum technical requirements for performance and support of mCLASS, please see Amplify’s customer requirements page.
You’ll also want to add the URLs on this page to the corresponding district- or school-level filters so that your teachers and students can access their mCLASS materials.
Data sharing agreement
Partnering with Amplify through our data sharing program deepens learning outcomes and gives you the performance analysis you need to make impactful decisions within your district or school. By signing our data sharing agreement, your district will help us to better understand student performance as it relates to your state’s standards. It also allows us to compare results with the curriculum-embedded assessments and state-level assessments. These analyses will help you identify the areas where your teachers and students are excelling or may be experiencing challenges.
Stay tuned for additional updates.
Enrollment and licensing overview
During the enrollment and licensing call, your Amplify implementation partner will walk you through the enrollment process. We recommend exploring the enrollment web tool ahead of the call for suggestions on which enrollment method may be best for your district.
The following guides provide additional information about enrollment methods and the data sharing process.
You can also reference the mCLASS Enrollment Help collection for additional information.
Preparing for your materials
If you have ordered printed assessment kits, you or the materials coordinator at your school or district will receive a shipping logistics survey to ensure a smooth delivery. It is critical that this survey be completed prior to the shipment of materials. If your school or district has not received a survey, reach out to your Amplify implementation manager.
What’s included in the kits?
Below you will find a list of the print materials included in each mCLASS kit.
DIBELS 8th Edition
The mCLASS DIBELS® 8th Edition kits are grade-specific and contain the student materials for assessment with mCLASS software. K–6 (Kits for each grade sold separately):
- How to Get Started with mCLASS one sheet
- Student Benchmark Assessment materials
- Student Progress Monitoring Assessment materials
- Assessment Administration and Scoring manual
Maze administration:
- Maze for grades 2–6 is typically administered online to a group of students, each on their own computer or device. No printed materials are needed.
- If your school does not have sufficient student devices or if your students are not yet ready for online assessment, you may administer Maze with paper and pencil and enter the scores manually. Get more information.
Materials for additional assessments in the mCLASS suite
For customers who use Text Reading and Comprehension (TRC), IDEL®, TRC Spanish, mCLASS® Math, and/or Intervention, we provide the following:
TRC Atlas Benchmark kit
- 76 leveled readers covering levels A–Z (both fiction and nonfiction)
- Tabs to organize books by level grouping
- Information pamphlet
mCLASS: Math
Kindergarten and grade 1 combination kit
- Activities Guide
- Counting chips
- Screening and Progress Monitoring student materials
Grade 2 kit
- Activities Guide
- Counting chips
- Screening and Progress Monitoring Teacher Guide and answer key
- Screening and Progress Monitoring forms 1–10
Grade 3 kit
- Activities Guide
- Screening and Progress Monitoring teacher guide and answer key
- Screening and Progress Monitoring forms 1–10
Multi-grade kit, including K–3
- All materials listed above
IDEL
IDEL Multi-grade kit (K–3):
- Kit includes K–3 student and teacher materials
TRC Spanish
TRC Spanish Benchmark kit (K–3)
- 20 leveled readers covering Descrubriendo la Lectura (DLL) levels 1–24 (both fiction and nonfiction)
- Information pamphlet
- 16 additional texts available online via the mCLASS home training page
Intervention
K–3 and 4–6 kits (sold separately)
- Printed cards
- Puppet
- Whiteboard
- Sticker book
- 25 resealable bags
- Magnifying glass
- Burst® binder
- Burst messenger bag
- User Guides
- Accordion file
- Burst posters
- Light blue carrying case (includes double-tipped markers, dry erase markers, counting chips, and sand timers)
- Assessment books
Announcements
Use stimulus funding to drive transformation
Learn about ESSER I, II, and III funding (or CARES, CRRSA, and ARP) and how to use these funds to help with learning recovery and acceleration. Districts have significant flexibility in how to use the ESSER money, with ESSER II and III specifying that some of the funds should be used to address unfinished learning. All Amplify programs and services meet the criteria for the funding. Get more information about funding and timelines.
Next steps: How do I support my teachers?
Logging in to mCLASS Home
mCLASS Home is where you will access mCLASS Reporting, Instruction, and other helpful resources. Teachers can log in by navigating to mclass.amplify.com.
Setting up your assessment device
Assessments are administered using the mCLASS app. The mCLASS app is installed by creating a shortcut from your school’s preferred web browser on the desktop or home screen of a teacher’s device. Share this link with teachers for best practices specific to their device’s operating system.
Professional development
We partner with every district to make sure the mCLASS rollout meets their unique needs. Check out our professional development site to get a better understanding of what our team has to offer.
Contact us
Powerful (and free!) pedagogical support
Amplify provides a unique kind of support you won’t find from other publishers. We’ve developed an educational support team of former teachers and administrators who provide pedagogical support at no cost to educators using our programs. This free service includes:
- Support with administering and interpreting assessment data and more.
- Guidance for developing lesson plans and intervention plans.
- Recommendations and tips for day-to-day teaching with mCLASS.
To reach our pedagogical team, click the orange icon while logged into mCLASS to get immediate help, call (866) 629-2446, or email edsupport@amplify.com.
Timely technical and program support
Our Customer Care and Support team is available Monday through Friday, 7 a.m. to 9 p.m. ET, and Sunday, 10 a.m. to 6 p.m. ET, through a variety of channels:
- Live chat: Click the orange icon while logged into mCLASS to get immediate help in the middle of the school day.
- Phone: Call our toll-free number: (800) 823-1969.
- Email: Send an email to help@amplify.com.
Join our community
Our mCLASS Facebook group is a community of mCLASS educators from across the country. It’s a space to share best practices, ideas, and support on everything from implementation to instruction. Join today.
Join our Amplify learning community!
Looking to connect with fellow educators, share insights, and help shape the future of Amplify programs?
Our Facebook groups encourage educators to collaborate, ask questions, and exchange experiences. Join one of these groups for valuable teacher-to-teacher conversations!
You can also follow Amplify on Facebook, X, LinkedIn, and Instagram.


Science of Reading: The Community
Join a vibrant community of educators passionate about early literacy! In Science of Reading: The Community, you’ll find discussions on the latest research, best practices, and classroom strategies for implementing the Science of Reading. Want even more expert insights? Subscribe to Science of Reading: The Podcast for conversations with top researchers and practitioners.
Amplify Classroom Educators Facebook group
Join a dynamic community of educators who are passionate about leveraging Amplify Classroom’s interactive tools and activities. In this group, members exchange ideas, share activities, discuss best practices, and explore innovative ways to deepen student understanding. Whether you’re looking for inspiration or collaboration, you’ll find it here!


Amplify Desmos Math Facebook group
This group is the go-to space for teachers, coaches, and educators using Amplify Desmos Math, mCLASS Math, and Boost Math. Connect with peers, ask questions, get answers, provide feedback, and stay informed on important updates.
Amplify CKLA Facebook group
Looking to enhance your reading instruction? Our Amplify CKLA Facebook group is a space where educators discuss strategies for teaching reading, writing, speaking, listening, and vocabulary. Ask questions, share insights, and connect with colleagues who are using Amplify CKLA to support literacy success.


Amplify ELA Facebook group
Teaching middle school ELA comes with unique challenges and opportunities—let’s navigate them together! In the Amplify ELA Facebook group, educators swap teaching ideas, classroom successes, and concrete strategies for using Amplify ELA effectively. Join the group to gain insights from fellow teachers and share what’s working in your classroom!
Boost Reading & mCLASS Facebook group
This group is a collaborative space for educators and caregivers using Boost Reading and mCLASS®. Whether you have questions, need support, or want to share success stories, this is the place to connect. Join us to exchange ideas, get helpful tips, and learn how to create the best reading experience for your students.


Amplify Science Facebook group
Engage with fellow science educators in the Amplify Science Facebook group! Discuss best practices for implementing Amplify Science, explore ideas on how to teach in three dimensions, and share strategies for meeting NGSS standards. Educators also post classroom success stories, providing inspiration and real-world applications of the curriculum.
If you’re an Amplify Science instructional leader, the Lawerence Hall of Science encourages you to learn more and apply to join the exclusive, no-cost Instructional Leaders Community of Practice (ILCP).
Connect with us—and educators everywhere.
Our social media channels deliver a steady stream of news, insights, and conversations that support educators in connecting with each other and creating great learning experiences for students. Find Amplify on Facebook, X, LinkedIn, and Instagram!

Administrators, welcome to Amplify Reading!
Here you’ll find information about enrollment and licensing, technical requirements, professional learning resources, and more.
Onboarding: What to expect
Welcome to Amplify Reading! There are six basic steps to onboarding. Use this visual as a reference, but also know that our dedicated implementation team will be there to support you during the entire process.
Technology requirements and guidelines
To ensure that your hardware and network meet the minimum technical requirements for performance and support of your curriculum products, please see Amplify’s customer requirements page.
You’ll also want to add the URLs on this page to the corresponding district- or school-level filters so that your teachers and students can access their Amplify Reading materials.
Data sharing agreement
Partnering with Amplify through our data sharing program deepens learning outcomes and gives you the performance analysis you need to make impactful decisions within your district or school. By signing our data sharing agreement, your district will help us to better understand student performance as it relates to your state’s standards. It also allows us to compare results with the curriculum-embedded assessments and state-level assessments. These analyses will help you identify the areas where your teachers and students are excelling or may be experiencing challenges.
Stay tuned for additional updates.
Enrollment and licensing overview
During the enrollment and licensing call, your Amplify implementation partner will walk you through the enrollment process. We recommend exploring the enrollment web tool ahead of the call for suggestions on which enrollment method may be best for your district.
The following guides provide additional information about enrollment methods and the data sharing process.
Administrator Reports
Self-service Administrator Reports allow insight into activation, usage, growth, progress, and instruction overviews illustrating how students are performing within the adaptive program.
Access will be limited to district and school administrators. Administrators can directly access these reports at my.amplify.com/admin-reports.
Announcements
Summer extension
With summer fast approaching, we recognize that some districts may be extending the school year and/or continuing the use of Amplify curriculum and programs for summer instruction. If your summer instruction will continue past June 30 and/or you need to make rostering or enrollment changes, follow our guidance on extending your rollover date.
Use stimulus funding to drive transformation
Learn about ESSER I, II, and III funding (or CARES, CRRSA, and ARP) and how to use these funds to help with learning recovery and acceleration. Districts have significant flexibility in how to use the ESSER money, with ESSER II and III specifying that some of the funds should be used to address unfinished learning. All Amplify programs and services meet the criteria for the funding. Get more information about funding and timelines.
Next steps: How do I support my teachers?
Professional development
We partner with every district to make sure the Amplify Reading rollout meets their unique needs. Check out our professional development site to get a better understanding of what our team has to offer.
Advice and answers
We have an array of online resources available to address educators’ questions. As they get started with the curriculum, we encourage educators to visit the Amplify Reading help site to read through tutorials and search for topics they want to learn more about.
Contact us
Powerful (and free!) pedagogical support
Amplify provides a unique kind of support you won’t find from other publishers. We have developed an educational support team of former teachers and administrators who provide pedagogical support at no cost to educators using our programs. This free service includes:
- Guidance for developing lesson plans and intervention plans.
- Information on where to locate standards and other planning materials.
- Recommendations and tips for day-to-day teaching with Amplify Reading.
- Support with administering and interpreting assessment data and more.
To reach our pedagogical team, click the orange icon while logged into the curriculum to get immediate help, call (866) 629-2446, or email edsupport@amplify.com.
Timely technical and program support
Our Customer Care and Support team is available Monday through Friday, 7 a.m. to 9 p.m. ET, and Sunday, 10 a.m. to 6 p.m. ET, through a variety of channels:
- Live chat: Click the orange icon while logged into the curriculum to get immediate help in the middle of the school day.
- Phone: Call our toll-free number: (800) 823-1969.
- Email: Send an email to help@amplify.com.
Join our community
Our Amplify Reading Facebook group is a community of Amplify Reading educators from across the country. It’s a space to share best practices, ideas, and support on everything from implementation to instruction. Join today.
The Science of Reading Star Awards are back!

If you’re reading this, someone taught you to read! You might remember learning your letters with a standout teacher, or simply curling up with a loved one to point out pictures and sound out words.
No matter who stands out to you, it takes a constellation of people to help children learn to read—both inside classrooms and beyond, and from district leadership to student families.
It also takes science: specifically, the science of teaching reading.
And we want to celebrate Science of Reading stars!
That’s why we created the Science of Reading Star Awards. Read on for more information about them, including how to nominate someone for the 2023 Awards. (If you’re already ready to nominate a star in your community, go right ahead!)
Reading educator awards for teachers who shine.
We launched this awards program in 2021—a year when schools, educators, and students were still working to bounce back from pandemic challenges and into a new normal. Even then, educators drove change, leading their school communities on a journey to the Science of Reading.
Our inaugural award program honored educators who championed and advocated for the Science of Reading in their classrooms, schools, or districts.
They generated buy-in. They inspired their peers and students. They successfully brought research-based instruction, phonics instruction, and foundational literacy skills into their approaches—and had remarkable gains to show for it.
Our 2021 awards, both finalists and winners, celebrated:
- Teachers who directly impacted their students and served as role models for their colleagues by applying the Science of Reading.
Winner: Anila Nayak, instructional coach and reading intervention teacher, Los Angeles Unified School District, California.
She says: “The Science of Reading is becoming my North Star because it’s guiding me to give the best that research has shown for my students.”
- Principals who have supervised the successful shift to the Science of Reading in many classrooms across several grades.
Winner: Cathy Dorbish, principal, Austintown Elementary School, Ohio
She says: “We know our kids come from all different backgrounds, different opportunities, and parents who read or don’t. By teaching them in this manner, we’re leveling the playing field. Those kids who may be economically disadvantaged, [but] they’re going to be readers just like the kids whose parents bought them 100,000 books.”
- District leaders who have driven or are driving change using the Science of Reading.
Winner: Alli Rice, elementary ELA lead, Kansas City, Kansas Public Schools
She says: “Teachers are saying things like ‘I never really thought my kids could have a discussion about the Renaissance during language arts class, but they are doing it.’”
Winner: Brittney Bills, curriculum coordinator, Grand Island Public Schools, Nebraska
She says: “I believe the Science of Reading is about hope. Knowing 95% of students are cognitively able to read at grade level with the right explicit instruction was empowering for me and the teachers I support.”
Nominate a Science of Reading star!
Inspired? Now think of the educators in your world—especially those devoted to literacy. Do you know someone who has transformed their classroom and empowered their students with the Science of Reading? What about someone who’s gone above and beyond core instruction based in the Science of Reading to apply these evidence-based practices in less traditional ways in areas like assessment, intervention, biliteracy, and beyond? (And yes, this person might be you!) We also have new categories this year, to honor both the traditional, and less traditional, Science of Reading champions!
Submit your nomination for the 2023 Science of Reading Star Awards by February 28!
All award winners will receive:
- A free professional development session with Susan Lambert, host of Science of Reading: The Podcast.
- A library of Science of Reading books to guide their journey.
- A subscription to The Reading League Journal.
- A spotlight on an episode of Science of Reading: The Podcast.
The Grand Prize winner will receive full conference registration and associated travel costs to Big Sky Literacy Summit in Big Sky, Montana, Sept. 2023 (dates forthcoming).
Learn more
To hear more from the 2021 winners, you can watch our Amplify Science of Reading Star Award Winners panel, now available as an on-demand webinar, or tune into Science of Reading: The Podcast to hear their conversations with host Susan Lambert.
Their stories and perspectives may help you discover how you can drive change in your classroom, school, and district with the Science of Reading!
Introducing the 2024 Science of Reading Star Awards

There’s more than one way to name a star. You can honor someone you admire by symbolically attaching their name to a star in the night sky…or you can nominate a teacher you admire or a district lighting the way for students for Amplify’s third annual Science of Reading Star Awards!
As we like to say, it takes a constellation of people to help children learn to read—from district leadership to student families, and from inside the classroom to out there the real world. It also takes science—specifically, the science of teaching reading. And it takes leaders who can successfully lead their district in the shift to a curriculum grounded in the Science of Reading, educators who thoughtfully connect students and their families to the impact of the Science of Reading, and teachers who artfully use evidence-based reading instruction to light the way for their students.
We want to celebrate all of these Science of Reading stars!
That’s why we created the Science of Reading Star Awards. Read on for more information about them, including how to nominate someone (or an entire school or district) for the awards. (And if you’re already ready to nominate a star, go right ahead!)
Honoring stellar educators, leaders, schools, and districts in the Science of Reading
We launched this awards program in 2021—a year when schools, educators, and students were still working to bounce back from pandemic challenges and into a new normal. Even then, educators drove change, leading their school communities on a journey to the Science of Reading.
Our awards program honors educators who advocate for and champion the Science of Reading in their classrooms, schools, and districts. They generate buy-in. They inspire their peers and students. They successfully bring research-based materials, phonics instruction, and foundational literacy skills into their approaches—and have remarkable gains to show for it.
These award-worthy educators can include/have included:
- Teachers who’ve connected with their students and served as role models for their colleagues by applying the Science of Reading.
- Principals or district leaders who’ve supervised a successful shift to the Science of Reading in many classrooms across several grades.
- Schools or districts that are driving changes and seeing incredible results using the Science of Reading.
Meet (and learn from) some of our previous winners!
Javonna L. Mack, Lead Content Teacher, Caddo Parish Schools, LA
Award: Changemaker
How did it feel to be selected as a Star Award finalist?
I was and am still over-the-moon excited about being selected as an Amplify Changemaker Star Award finalist. I was very humbled by becoming the winner. It is an amazing feeling of accomplishment when you receive awards. It has become a hallmark of the hard work I have done in my district to support our push in the Science of Reading.
Do you have any advice for educators submitting to the Science of Reading Star Awards for the first time?
Make sure to tell your story. Be clear and concise. Remember to be reflective of all the ways that you have supported your district. I advise that you speak with your peers and gain feedback as to the ways that you have impacted the work they do. Detail your support. Be unique and track and celebrate your achievements.
Shennoy Barnett, Kindergarten Teacher, Johnston County Public Schools, NC
Award: Data Dynamo
How did it feel to be selected as a Star Award finalist?
It was an amazing feeling even to be considered as a semi-finalist, and an even greater one to be selected as a winner, given that it was my first year using the tool.
Do you have any advice for educators submitting to the Science of Reading Star Awards for the first time?
Your hard work and dedication with your students through [the] Science of Reading will tell your story. Even if you are not selected as a finalist, you are still a winner as you are using an amazing tool and touching the lives of your students.
Anila Nayak, Instructional Coach, Intervention Teacher, Los Angeles Unified School District, CA
Award: Science of Reading Superstar Teacher
How did it feel to be selected as a Star Award finalist?
I felt exhilarated at first and later responsible for sharing my learning about how best to teach children to read. It certainly made me more energized to work harder and continue to improve my practice. The award validated my efforts and steered my obsession to become an efficient and knowledgeable reading teacher.
Do you have any advice for educators submitting to the Science of Reading Star Awards for the first time?
Write your compelling narrative about the impact you make each day in the lives of young readers who need you most. You have the tools to reach students who may be struggling but just have not been reached yet. Tell about how you evolved into an expert despite challenges and how learning about the best ways to teach is an absolutely rich experience. After all, you are impacting so many students through your work. Show your pride, because you are doing important work. The Awards journey opens you up to a community of experts and makes you feel a part of new horizons; you get to listen to many experts and read about the new knowledge that is impacting our understanding of how literacy grows.
You can meet all of our 2023 winners here. Their stories and perspectives may help you discover how you can drive change in your classroom, school, and district with the Science of Reading!
Nominate a Science of Reading star!
Inspired? Now think of the educators in your world—especially those devoted to literacy. Do you know someone who has transformed their classroom and empowered their students with the Science of Reading? (And yes, this person might be you!) How about a school or district that has established strong evidence-based practices and seen incredible results? We also have new categories this year to honor both the traditional and less traditional Science of Reading champions!
Submit your nomination for the 2024 Science of Reading Star Awards by Feb. 15!
All award winners will receive:
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S3-05: Thinking is power

Join us as we sit down with Melanie Trecek-King, college professor and creator of Thinking is Power, to explore how much of an asset science can truly be in developing the skills students need to navigate the real world. You’ll learn about “fooling” students and the importance of developing critical thinking, information literacy, and science literacy in the classroom. We’ll also share real strategies and lesson examples that help build these essential skills and engage students in learning.
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We hope you enjoy this episode and explore more from Science Connections by visiting our main page!
Melanie Trecek-King (00:00):
We say knowledge is power, but it’s not enough to know things. And there’s too much to know. So being able to think and not fall for someone’s bunk is my goal for my students.
Eric Cross (00:12):
Welcome to Science Connections. I’m your host, Eric Cross. On this third season, we’ve been talking about science’s underdog status. And just this past March at the NSTA conference in Atlanta, I had the chance to speak with science educators from around the country about this very topic.
Hermia Simanu (00:28):
Right now, there’s only two teachers in our high school teaching science.
Shane Dongilli (00:32):
I have 45 minutes once a week with each class. The focus is reading and math.
Alexis Tharpe (00:38):
Oftentimes science gets put by the wayside. And you know, I love math and I love my language arts, but I also think science needs to place be placed on that high pedestal as well.
Askia Little (00:46):
In fifth grade, oh, they teach science, because that’s the only grade that it’s tested.
Eric Cross (00:50):
That was Hermia Simanu from American Samoa. Her team flew for three days to make it to the conference. You also heard from Shane Dongilli from North Carolina, Alexis Tharpe from Virginia, and Askia Little from Texas. All of these teachers were excited to be at the conference and had a lot to say about the state of science education in their local schools. Throughout this season, we’ve been trying to make the case for science, showing how science can be utilized more effectively in the classroom. We’ve explored the evidence showing that science supports literacy instruction. We’ve talked about science and the responsible use of technology like AI. My hope is that all of you listeners out there can use some of this evidence to feel empowered to make the case for science in your own communities. And on this episode, we’re going to examine how science can help develop what might be the most important skill that we try to develop in our students: Good thinking. On this episode, I’m joined by a biologist who actually advocated for eliminating the Intro to Bio course at her college. Instead, Professor Trecek-King created a new course focused on critical thinking, information literacy, and science literacy skills. In this conversation, we discuss why the science classroom is such a good environment for helping students become better thinkers. Now, I don’t think that you can make a much stronger argument for science than using it to develop the skills that Melanie describes in this conversation. So, without further ado, I’m thrilled to bring you this conversation with Melanie Trecek-King, Associate Professor of Biology at Massasoit Community College, and creator of Thinking Is Power. Here’s Melanie.
Eric Cross (02:29):
Well, Melanie, thank you for joining us on the show. It’s so good to have you.
Melanie Trecek-King (02:34):
I am so happy to be here.
Eric Cross (02:35):
Now, I went to your session at NSTA in Chicago … I think it was two years ago. A couple years ago. And I was listening to your session, and as I was listening to you, I started Reverse Engineering in my mind what you were doing with your college students. I started reverse engineering the K–8. I was like, “This is amazing.” Where has what you’ve been doing been hiding? We need this not just in the college, higher ed. We need this all the way up and down. Because I hadn’t seen it before. So I think a good place for us to start is gonna be like the story of how and why you as a biologist wound up making the case to actually eliminate the Intro to Biology course at your college. So can you start off and tell us a little bit about that story?
Melanie Trecek-King (03:20):
Sure. So I started teaching at a community college in Massachusetts. And I absolutely love teaching at a community college. And I was teaching the courses that people who don’t wanna be scientists when they grow up have to take to fulfill their science requirement. And that course was Intro Bio. And I tried every way I could figure out to make that class be useful,] relevant to students. I mean, the thing is, our world is based on science and you have to understand science to be a good consumer of information, to make good decisions. And I’m a biologist, so it pains me to say this, but you know, somewhere in the middle of teaching students about the stages of mitosis and protein synthesis, I thought, “Is this really — like, if I have one semester that’s gonna be the last chance that someone’s gonna get a science education, is this really what they need?” And I just decided, “No.” So, to my college’s credit, they were very supportive. I went to them and said, “You know, I think we should assess the non-majors courses. Like, why do we teach non-majors science?” And we all agreed, well, it was for science literacy. OK, great. Do our existing non-majors courses do that? And so we evaluated each of the courses. I made a case that Intro Bio was not doing it. And so we actually replaced it with a course that I call Science for Life. And the whole course is designed to teach science literacy, critical thinking, and information literacy skills.
Eric Cross (04:48):
And so you did this while you were looking at mitosis. And you’re looking at students who may or may not be science majors. And then kind of asking that question. I know every educator asks this, and whether or not it’s welcomed or supported is a different question: “Is what I’m teaching actually gonna be relevant and useful later on down the road for this group of students?” And you actually got to run with it and then create this course, this new course. So, what were the skills that you were hoping to achieve with the new course you developed, and and why were those skills so important?
Melanie Trecek-King (05:21):
Well, if I just go back for a second to what you said, ’cause it, really hit me: I remember the actual moment — it had been building up to that point, but the actual moment that it hit me — I was teaching students the stages of mitosis. And I was applying it to cancer, because the thought is that if we use issues that are relevant to students to teach concepts, that it will be more meaningful to them. They’ll learn it better; they’ll be able to apply it. And they just looked absolutely deflated. They didn’t wanna be there. And I had this moment where I thought, “You know, if, if these students ever have cancer somewhere in their lives, is what I taught them going to be something that they remember? Is it going to be useful to them?” And quite frankly, like, no. <Laugh> They’re not gonna remember proto-oncogenes. And quite frankly, is that really what they need to know at that moment? What they need to know is, “What does this mean? Who is a reliable source of information here? If these treatments are recommended, what is the evidence for them? What are the cost-benefit analyses? Where do I go to find reliable information?” And in that space, cancer in particular, we have this whole field of — I wanna say charlatans, ’cause they may not actually be lying, but they’re pedaling false cures, false hopes. And people need that kind of hope, and so in their time of need, they’re more likely to fall for that kind of thing. Which leads me to the skills that I teach students. I call them this tree of skills. And the order is important. I start — and there’s a lot of overlap to be fair — but critical thinking, and then information literacy, and science literacy. The idea is that students carry in their pockets access to basically all of human’s knowledge at this moment in time. And if they needed to access it, they could. The question is, do they know what they’re looking for? Are they aware of their own biases that are leading them to certain sources, or certain false hopes? Are there certain things that are making them more vulnerable to the people that might prey on them? Are they able to use that information to make good decisions? There’s a great Carl Sagan quote, and it’s something like, “If we teach people only the findings of science, no matter how useful or even inspiring they may be, without communicating the method, then how is anyone to be able to tell the difference between science and pseudoscience?” So yes, the process of science is a process of critical thinking. However, we do tend to present science most of the time. Like, here’s what science has learned. And to be fair, those things that we’ve learned from science are really useful and inspiring. But if we don’t teach the process, so you’ve got somebody now who let’s say has been diagnosed with cancer and is on their phone and they’re scrolling through social media and everything looks the same. And of course the algorithms learn who you are. Next thing you know, there’s all of these like pseudo-treatments popping up. It all looks the same. Somebody who says that acupuncture can be used to cure cancer can feel the same, from someone who doesn’t understand the process of science, as a medical fact. And so the process is the process of critical thinking. My class everything is open note. The quizzes are open note. The exams — and I say open note, they’re also open online, because I know for the rest of their life they’re gonna have resources available to them; I want them to be good consumers with that information, which to me requires metacognition and critical thinking and information literacy and all those skills that I’m trying to teach them.
Eric Cross (08:58):
You’re basically taking what … we’ve taught science for so long. And more recently, it’s changed to more focusing on skills. At least in K through 12. But a lot of it was just memorization of a ton of different things that now we can pull up our phone, go on the internet. You can pull up a lot of those facts. But those facts don’t necessarily translate to actual real-world skills. When I listen to… I kind of make this analogy sometimes: students say … it’s funny, I have 12-year-olds that say this. They go, “How come they don’t teach us how to do our taxes?” And you know they’re regurgitating what they hear from adults, right? “Teach us real-world skills!” And I was like, really, if we taught you right now how to do your taxes, how many of you would really be like, “Oh, this is an awesome lesson! We’re really engaged!” But their point is that “I wanna learn something that I could actually use later on, that’s that I’m gonna carry on.” And in your course, you’re talking about these skills that actually can apply. Like you said, if I had cancer and I’m looking at different types of medical procedures, do I have the skills to really be able to evaluate and make informed decisions on that? And that’s, that’s not something that I’ve seen explicitly taught really anywhere. And I hadn’t heard anybody talk about it, really, until I heard your session, where you’ve kind of unpacked this, and over the last couple of years, have created some programs or resources for educators, where they can take this into their classroom. So what were some of those skills, again? What were were some of the skills that you thought, “I wanna make sure that my students can walk out and they know how to do this and apply it to maybe several different fields”?
Melanie Trecek-King (10:35):
Oh, that’s a really good question. Because the whole thing was a process for me. Like, when I finally let go of Intro Bio, I was so glad to see that class go, by the way. ‘Cause I just felt like I was beating a dead horse. So when I let go of it, I thought, “What do they need instead?” And for me, what I realized was I was trying to make the class I would’ve wanted to take. I realized the things that I personally didn’t know, that my own education maybe let me down a bit. But things that I thought were important. So then I took all of those, synthesized them, tried to figure out the best order. The class is currently in its third iteration. And I hope every iteration is an improvement. But I’m thinking about the students that I taught before the pandemic. It was Intro Bio. Up to just maybe the couple years before the pandemic, and during the pandemic, we had a new virus and we had a new vaccine and we had new treatments. There was hydroxychloroquine and there was ivermectin and then there’s masks. Are masks effective? Well, you know, in what circumstances? What kind of mask? There are all of these questions. And that whole thing was we saw science playing out in real time.
Eric Cross (11:50):
Absolutely.
Melanie Trecek-King (11:51):
And so were my students able to follow that? And then what happened in that process is that science became politicized. And in a time where things are uncertain and we need answers, ’cause it’s scary, people want certainty and science doesn’t tend to provide that. Especially when it’s just starting out. And then when it becomes politicized, people decide that they’re going to — it’s not necessarily a conscious decision — but they retreat into what people in their camps are saying or their groups are saying. Which actually leads me to one of the more important parts of information literacy skills in there, which is most of our knowledge is shared. We tend to have overinflated senses of what we individually know. And studies actually show that with Google, if you have access to Google, you think you’re smarter than if you don’t have access to Google. But we all have access to knowledge in our communities, and that’s one of the reasons humans are so successful, is that we can each specialize in different things and share our expertise and become greater than the sum of our parts. The problem with that, of course, is that we forget what we don’t know, and we assume that we know what the community knows. And so recognizing the limits of your own knowledge and how different communities produce knowledge, like the different epistemic processes that communities use to come to knowledge. When it comes down to it, an important part of knowing is knowing who to trust, right? Knowing where the source of knowledge lives. And in order to do that, you have to understand the processes that they’re using to come to that knowledge and the limits of your own knowledge. And then how to find who has that knowledge so that you can use that to make better decisions.
Eric Cross (13:38):
So, when I hear what you’re doing with your college students, and I think about what I’m doing in the classroom, in the middle school, we are really focusing on literacy as skills. Reading, writing, speaking, listening. And then when I think of the next step of the journey, your information literacy and the literacy you’re teaching is really the application of those things in the real world. And the examples that you gave are very critical examples. Evaluating claims about Covid. Making informed decisions about a medical procedure that you might need. And we all get that applied to us. We’re scrolling through social media and somehow social media is listening. It’s figuring out exactly what I’m doing, because all of a sudden the ads are telling me … how did you know I was alking about KitchenAid mixers now? I just said KitchenAid mixers and it’s gonna show up in my feed! But <laugh> I take that in the same way from the same place that I take in maybe an oncologist. So it’s it’s coming through the same channels. So now I kind of wanna pivot. So we’ve talked about what you’re doing, why you’re doing it, the connection between “am I really teaching the skills that my students need in the science class? Is it really critical thinking explicitly or is it just kind of implied?” Now I wanna ask you how you do it. What’s the annotated, abbreviated kind of syllabus of your course?
Melanie Trecek-King (15:03):
So the course is called Science for Life. And the premise behind it is the kinds of skills and understanding of the process of science that they would need to make good decisions to be empowered in a world based on science. And so the very first lecture, I say, “OK, I’m gonna tell you a story and I just want you to listen to the story. And at the end I’m gonna ask you why I told the story.” And the story that I tell them is some of the history of the witchcraft trials in Europe. And I start with the Malleus Maleficarum, or the Hammer of Witches, from the Pope, and about how people would accuse witches of causing birth defects or storms or crops dying. And, the best evidence that they had to absolutely know somebody was a witch was if somebody accused them, and then if they were accused, if they confessed. OK? But the problem is, to get them to confess, they would torture them. Roasting over coals, or splitting until somebody broke. And so I tell my students, “OK, this was absolute proof that someone was guilty of witchcraft. I don’t know about you; I would confess to anything, right? Make it stop!” So this is where I get to ask students, “Why would I ask you this? Why would I tell you this story? And traumatize you on the very first day of lecture?” And they see the reasoning, right? They thought they had evidence. The question was, is that good evidence? And so, you know, I’m getting students to have a basic understanding of epistemology, right? Without calling it that, or without going into all of the philosophical background of epistemology. Apply this to your own reasoning. What are you wrong about? Well, you probably wouldn’t know. OK, how would you know if you were wrong? Like what kinds of things do you feel that you’re so right about? How good is your evidence for that? So what I want them to do is internalize the thinking about thinking, and analyzing how they come to conclusions, and proportioning how strongly they believe. Their confidence in how right they are. So I think starting with that kind of misinformation, and getting students to internalize that process is important. But I think the example is really useful, because most of my students don’t believe in witchcraft. Right? So it’s not an issue that would immediately threaten them in some way. So when, when a belief is tied to identity or how we see ourselves or is really important to us, then it’s very difficult to be objective about that belief. And so by starting with witchcraft, it’s not triggering. I get them to think about thinking and practice that muscle so that when we get to those more important issues, they have the skills they need to evaluate them.
Eric Cross (17:55):
So would it be fair to say that your Science for Life class is really applied scientific thinking for the real world?
Melanie Trecek-King (18:01):
Absolutely. That’s the idea. I mean, science is too good to keep to ourselves, right? And it’s everywhere. So how can you understand the world through a scientific lens?
Eric Cross (18:10):
What are the nuts and bolts of how you teach your students these strategies? What do you do? What are some strategies and techniques that we can maybe share with listeners? And then where I want to go after that is I wanna ask you, how early do you think this can be started? So lemme start off first with, what do you do?
Melanie Trecek-King (18:28):
So I use three different strategies. One is, I provide students with a toolkit. And the toolkit is one that I created and it is like my one toolkit to rule them all. It is trying to apply critical thinking and science reasoning all together in one place. So that if students are met with a claim, they’ve got the toolkit with an acronym. They can now start and have somewhere to go. In that if I gave you a claim and said, “Just critically think through this claim,” I mean, that’s a mighty task. But if you have a structured toolkit, then it’s hopefully a systemic way that’s helpful. The toolkit is summarized by FLOATER. I have published it on Skeptical Inquirer. It’s free. So it’s Falsifiability, Logical, Objectivity, Alternative Explanations, Tentative Conclusions, Evidence, and Reproducibility. So I provide students with a toolkit. The next thing I do is I use a lot of misinformation in class. Back to what Carl Sagan says: What I heard was we should use pseudoscience to teach students the difference between a pseudo-scientific process and a scientific process. So, I use science denial, conspiracy theories, and give my students a lot of opportunities to practice evaluating claims with the toolkit. And the other thing I do is, I use inoculation activities. So inoculation theory is based on William McGuire’s original research in the ’60s, which is basically like a vaccine analogy. Where you can inject a small amount of a virus or bacterium into the body, so that it creates an immune response, so that it can learn the real thing. And so in the real world, it can fight it off. Inoculation theory does the same thing, but with misinformation. So, what we can do is, in controlled environments, expose students to little bits of misinformation so that they can recognize it in the real world. There’s different kinds of inoculation, but I’m a big fan of what’s called active and technique-based inoculation. So technique-based means that students are learning not the facts of misinformation, not factually why this thing is wrong, but about the technique used to deceive. So maybe the use of fake experts. Or maybe the use of anecdotes. Or the use of logical fallacies. The other part of that is active, which is where students create the misinformation. So for example, my students, just now, we finished covering pseudoscience. And I teach students the characteristics of pseudoscience. And basically we have fun with it. Where they pretend to be grifters and they sell a pseudoscience product. And so they have to make an ad like they’d see on social media, using the different techniques. And the point there is that it’s supposed to be funny, right? And lighthearted. But in a real way, by using the techniques used to sell something like pseudoscience, it’s opening their eyes. You can’t unsee how every alternative product has, “it’s an all-natural and used for centuries and millions use it and look at this person who says, ‘Wow, it worked for me!’ And it’s certified by some society that doesn’t exist, but this doctor behind it says that it’s really great!” I mean, it’s all the same stuff. So they create the misinformation using their own techniques.
Eric Cross (22:02):
That’s one of my favorite things that you’ve talked about, and I want to dive in that a little bit more. But when you’re teaching the toolkit, FLOATER, what does that look like in the classroom, when you’re actually breaking all of those things down? What does it look like as you’re walking your students through this, and you’re kind of coaching them on all of those different things? ‘Cause I feel like some things might be like, “Oh yeah, I got that.” And then some of them might be, “Oh, what is that?”
Melanie Trecek-King (22:24):
Yeah, it takes me probably a good solid lecture to get through the basis of the toolkit. But then over the rest of the semester, I’ll spend more time going into different parts, different rules, a bit more in-depth. So, for example, logical fallacies and objectivity. So the rule of objectivity basically states that you need to be honest with yourself. I’m gonna quote Feynman here, so: “The first principle is that you must not fool yourself — and you are the easiest person to fool.” We don’t tend to think that we can be fooled. But of course we can. So actually, if you wanna talk about it, I start class by fooling my students.
Eric Cross (23:03):
Wait, what do you do? What do you do for that?
Melanie Trecek-King (23:05):
Oh, so this is really fun. Day 1 of class, after the syllabus, I tell my … so you’re in my class now, Eric. “So I have a friend, and she’s a psychic. She’s an astrologer and she’s pretty good at what she does. I mean, she’s got books and she’s been on TV and stuff. She knows I teach this course about skepticism. And so she’s agreed to test how effective she is by providing personality assessments to students in class. So if you wanna participate, what I need from you is your birthday, your full name, answer a few questions. Like, if your house was on fire and you could take one thing, what would it be? Or if you could get paid for anything to do anything for a living, what would it be? Um, there’s a third one. Oh! If you could have any superpower, what would it be?” So the next class, it’s usually over a weekend. The next class I say, “OK, I’ve got your personality assessments back, but remember, we wanna test how effective she is. So in order to do that, I need you to read your profile as quietly as possible. And then I’m gonna have you rate her accuracy on a scale of 1 to 5. OK? So close your eyes; rate her.” Over the years doing this, it’s about a 4.3 to 4.5 out of 5. They think she’s pretty accurate. OK? “So now, if you feel comfortable, get with a person next to you. And I want you to talk about what parts of the personality assessment really spoke to you and, and why, and why you thought she was accurate or not.” And it takes them 5, 10 minutes before they realize they all got the same one. So, this is not my original experiment. It was first done by Bertram Forer in … I think it was the ’50s. And it’s done in psychology classrooms. James Randi made it famous. But the personality assessment itself is full of what are called Barnum statements. So, named after P.T. Barnum. These are statements that are very generic. So, “You have a need to be liked and admired by people. You are often quiet and reserved, but there are times where you can be the life of the party.”
Eric Cross (25:13):
How do you know this about me, by the way? This is a — I feel like you know me right now.
Melanie Trecek-King (25:17):
“There are times where you’ve wondered whether you’ve done the right thing.”
Eric Cross (25:19):
This is getting weird.
Melanie Trecek-King (25:21):
I’m just on fire, right? So these are Barnum statements. They’re the basis of personality assessment.
Eric Cross (25:29):
Mel, can I pause you right there? You said Barnum. Is that the same Barnum, like Barnum & Bailey Circus?
Melanie Trecek-King (25:34):
Yeah. P.T. Barnum, who didn’t actually say “There’s a sucker born every minute,” but we attribute him with that kind of ethos. These statements though, if you read a horoscope or even like personality indicators, like the MBTI, it is basically pseudo-scientific. And it ends up with lots of these Barnum statements. They produce what’s called the Barnum Effect, which is, “Wow, that’s so me! How did you know me?” I could even do more. Like, you have a box of photos in your house that need to be sorted. Or unused prescriptions. And these can apply to nearly everyone, but they produce this effect where we go, “Wow, that is so me!” Right? So by fooling them this way, I get to … well, so the next thing is, “Yes, I lied to you. And I’d like to tell you I won’t do that again. But I’m not going to, ’cause I might. So be on your guard.” But I did it for free. And why did I do it? “I did it because I could tell you ‘I could fool you,’ but you wouldn’t necessarily believe me. So I fooled you, so that you would learn what it feels like to be fooled.” It’s not fun. But we’re gonna make a joke outta this. And students are almost never upset about this ’cause it’s a fun process and they’re all fooled. And again, the point is, I didn’t disprove psychic powers. I didn’t just disprove psychics with this exercise. But I did show you how easy it was to fake. So if somebody is gonna tell you that they can know these things about you through some way, hopefully the evidence they provide should be stronger than something that’s easily faked. Right? Extraordinary claims require extraordinary evidence. If you claim to be able to read my personality based on my birthdate, then I need more than something that you can be taught to do in 15 minutes. So, I fool them to convince them that they could be fooled.
Eric Cross (27:27):
You’re giving them a practice scenario for thinking. And I was thinking about basketball. I grew up playing basketball. And my coach would have our own team be the defenders of the next team we were gonna play, so that we can be prepared for the defense. We were gonna see. Now, when I’m thinking about education, and what you just said reminded me of this, it’s like we’re often just teaching offense. We’re always teaching the plays. We’re always teaching what to do. But we rarely teach defense. What happens when someone comes towards you and, and they challenge you or they come at you with claims? How do we evaluate this? And I think in pockets we do it. We do claim-evidence-reasoning. We present claims and evidence and reasoning. But we don’t always have practice defending them. And I think there’s great resources. There’s Argumentation Toolkit and there’s all these awesome resources that do this. But does that fit? You’re kind of having them practice defense?
Melanie Trecek-King (28:26):
Yeah. You know, that’s brilliant. I never considered that analogy. But, yeah, in the real world, you don’t just get to always try to score all the time. Someone’s gonna challenge you and give you a claim that maybe you haven’t heard before. So how do you think through it?
Eric Cross (28:41):
Yeah. And you become better. So now I’m thinking about how early could we start doing this? For one, I love the idea of lying to your students, because I do that. And it’s just such a fun scenario. How early could we start implementing these strategies or these ideas or these toolkits? In your mind, what do you imagine? How early could we start this with young people?
Melanie Trecek-King (29:07):
Yeah. I’m so glad you asked that question, ’cause honestly, by the time they get to me, it’s almost too late. And I don’t wanna say it’s too late, ’cause it’s never too late. But, oh, we need to start so much earlier! That example that I gave about the selling pseudoscience argument? I have a wonderful colleague, Bertha Vasquez, who’s a middle school teacher in Miami and the director of TIES at CFI. She did this with her middle school students. And quite frankly, their examples were just as good, or in some cases better, than my college students. And they had so much fun with it, too. And she just said that, you know, <laugh>, they actually are more savvy with the kinds of things that they see online than we — I don’t wanna say give them credit for. But almost that we want to believe. My students give me examples of things that are from corners of the internet that I didn’t know existed. And quite frankly, that’s probably a good thing for my own mental health. But students are on there too, like middle school students, and we need to prepare them for the kinds of things that they see in the wild.
Eric Cross (30:13):
So in middle school, definitely. Now, you’ve also done some work in high school as well, right? In Oklahoma? Did you do some. …?
Melanie Trecek-King (30:17):
Yeah.
Eric Cross (30:18):
…some work with high schoolers? What was that like? Did you see any impact there?
Melanie Trecek-King (30:21):
So I didn’t actually do it in Oklahoma. I have taught the course … actually, you were talking about younger kids. I’ve taught the course to high schoolers in my area that are parts of dual enrollment. And they absolutely ate up the curriculum. And they were wonderful, wonderful students. And it was completely appropriate for … they were juniors, actually. But the course has also been taught in Oklahoma, through a dual enrollment program as well. And it was a small sample size. But we have pre-post testing that showed that it improved their critical thinking, their acceptance of science. But anecdotally the head of the program there said that in his years doing this, he’d never seen a course that helped them improve in their other courses so well. So, I felt very rewarded by hearing this. But apparently their critical thinking skills and information literacy skills helped them succeed in their other courses that they were taking. And I love that the students were transferring those skills to other classes. That’s the whole point.
Eric Cross (31:23):
And that’s a big … I think that what you just said is really the core, especially of what we’ve been talking about this season: What you’re talking about and what you’re teaching can transfer and supports literacy. And this is an example of science doing that across all other content areas. So I think that that’s huge, that that was said. What do people say about this course? I know I went on your website, and I looked at some of the comments that some folks were saying, and I know it’s just a snippet, but what do you hear from the education world about this? Because I don’t see it in many places. I see it kind of embedded, sprinkled into different content areas. But you’re actually teaching it explicitly. Do you tend to find positive feedback, overwhelmingly? Or do you get pushback on on some of this? What’s it been like for you?
Melanie Trecek-King (32:16):
I think the biggest pushback — and it’s good pushback, and I would agree entirely — is with inoculation activities, you do need to be careful to, when you debrief students, you wanna tell them why you did what you did and to use their powers for good and not for fooling other people. And I think importantly, for not putting misinformation out into the wild without having context around it. So if you do these kinds of inoculation activities, like if you have your students create pseudoscience ads, don’t just let them put them on social media. Obviously, you can’t control everything that they’re doing. But explain to them why you wouldn’t wanna do that. As far as everything else, I’ve heard really great feedback. You’re referencing my website. So, when I put together the course, I was trying to find resources for students to read. Textbooks are ridiculously expensive and I couldn’t find anything that I really wanted students to buy. So I just started writing, and I put it on my site. I have a site that’s basically the core of the curriculum. More in progress. And then I’ve got some of the topics that we explore and those are all assigned readings. My students are captive, in that I know they want a grade, and for four months they have to sit with me for the entire semester, in that I’ve specifically ordered the content in a way that would be most conducive to them learning these things. On the internet, though, and on social media, ’cause I post on there as well, people come in from all kinds of entry points, and so the goal would be to have them start at the beginning and go to the end. But people … I’m pleasantly surprised that there is an audience for critical thinking and science literacy content out there. And so that really warms my heart. But I am doing more and more for educators. And so I have a section for educators. I put content on there. I put assignments, the assignments that we’ve talked about and more, are on there. And the educators that I’ve had use it have just been really wonderful. Like, I hear great things. If I might, the biggest issue that I’m having is actually reaching educators. I’ve gone to — I met you at NSCA, actually, that was only last summer.
Eric Cross (34:30):
Oh, wow. Wow.
Melanie Trecek-King (34:32):
Right?
Eric Cross (34:32):
Yeah, you’re right. It wasn’t even a year.
Melanie Trecek-King (34:35):
Yeah, I think it was like July last year. So, um, you’ve been to the conferences. And I just went to the last one as well. But I have yet to figure out a way to really get in front of enough educators to share the content. So if anybody’s listening and is interested in learning more, please let me know! <Laugh>
Eric Cross (34:52):
Yes. And we talked about your website, but I didn’t say what the website was. So it’s ThinkingIsPower.com.
Melanie Trecek-King (34:57):
Yes.
Eric Cross (34:58):
And on there, there’s tons of resources. There is the toolkit. And it’s all free.
Melanie Trecek-King (35:06):
Yes.
Eric Cross (35:07):
And there’s a dope t-shirt on there that I just bought today, that Melanie’s actually wearing right now. It says, “Be curious, be skeptical, and be humble.” And I love that. Because I think one of the things that we can’t forget about teaching people how to think and critically evaluating information, sometimes those conversations can become very dehumanizing. And what I mean by that is it sometimes can become, like, intellectual sport, where we forget that there’s a human being on the other other side. And we lose that empathy and compassion. We can kind of see that. It just becomes this intellectual jousting and arguing. And one of the things I know about you, and when you talk about this or you talk about the work that you do, and even the shirt that you’re wearing, there’s this, “be humble.” There’s this human that is never lost in this. And you said it, too: When you’re teaching your students and you’re equipping them with all of these intellectual skills and all of these tools, to use it for good. So to maintain your humanity, to maintain your character, and then to use it to edify and lift people up, not to go out and do harm. That balance, I think, is so, so important. So it’s something that I really appreciate about you and how you teach.
Melanie Trecek-King (36:19):
I appreciate those kind words. Actually—
Eric Cross (36:21):
Oh, of course!
Melanie Trecek-King (36:22):
—and if I might, I sometimes see people using critical thinking like a weapon. It’s like, “I have learned fallacies and I’m just gonna use the tools of critical thinking to tell you why you’re stupid, or why you’re wrong, and why my position is right!” But real critical thinking involves applying those same standards to your own thought processes. And even something like argumentation: the goal of our argumentation is not to BE right; it’s to GET it right. And so we’re on the same team. If we’re arguing about something, if the idea is in scientific argumentation we’re trying to find the truth, which one of us is making a better argument based on the evidence? Can your perspective help me see my own blind spots and vice versa? And the more different perspectives that we have, the more able we are to find whatever reality is. But we are in this together. And so, yeah, I think … I’m glad to hear that that’s coming through. But if you don’t have the kind of humility that says, “You know, I could be wrong,” then you’re never gonna change your mind anyway. So having the humility to say, I’m wrong. <Laugh>
Eric Cross (37:33):
Yeah. You end up just seeing people just defend turf, as opposed to support “look for truth.” And I know for me, my own education journey, I end up with more questions than answers anyways. So I go in trying to find an answer for something and I end up with 10 more questions. And I go, “OK, this is kind of how it is.” You go down this rabbit hole and you just end up with all these different questions. And it forces the humility, because you’re like, “I don’t know! I think this is what it could be, but it could also be these other answers or explanations. So this is just where I’m at, based on what we know right now, at this present time, which might shift.”
Melanie Trecek-King (38:07):
And that sounds reasonable. Yes. Which might shift. Yes.
Eric Cross (38:11):
And especially for us as life-science biology teachers, our content is something that definitely shifts. I know some of the things I teach now are not things that I learned when I was even in middle school. Just because things evolve. They change. We learn, we get new data. That’s just the way it is.
Melanie Trecek-King (38:24):
<Sighs> And Pluto is no longer a planet.
Eric Cross (38:26):
I know. Rest in — well, no, Pluto’s still there. Yeah. It’s no longer a planet. But that was one part of my kindergarten memorizations <laugh> is Pluto being in there.
Melanie Trecek-King (38:36):
Gotta change your mind.
Eric Cross (38:38):
I know. Any words of advice for science educators out there who want to focus more on honing these critical thinking skills and strategies with their own students, but they don’t know where to start? Where would you point them? Or what advice would you give them?
Melanie Trecek-King (38:52):
I think start with what you want the students to know. And not necessarily the FACTS that you want students to know, but start with the skills that you want them to know. And then really be honest with your process. When I designed Science for Life, I started with, “these are the skills that I want students to know.” And everything was in service of that. So this sort of backwards design, I think, helped me follow a path that was more likely to be useful, if that makes any sense. But it really required doing it all over again. So don’t be afraid to question the things that you’re currently doing, even if that’s all you’ve been taught or all you know.
Eric Cross (39:41):
What I’m hearing is, don’t be afraid to question your own assumptions about what you’re doing. And don’t be afraid to adapt or change or modify. Kinda, pivot. Be flexible.
Melanie Trecek-King (39:51):
Yes, be flexible and pivot. And this is where I’m in a different position than middle school and high school educators. Because I have complete freedom over what I teach in my class.
Eric Cross (40:01):
Sure.
Melanie Trecek-King (40:01):
At the end of the semester, I always joke with non-majors that there’s nothing they have to know, which actually gives me a lot of flexibility, because I could teach ’em a lot of different things. So if there are things that you have to teach students, obviously that’s one thing. But I personally think that the way that we’ve been teaching science needs a refresher. A rethinking. And so I would say, “If you want your students to learn science literacy, honestly ask, what does that mean to you? And what would that look like to get to that point?” For me, though, it was also keeping in mind that maybe I didn’t already know the best way to do that.
Eric Cross (40:43):
One of the things you mentioned earlier is trying to reach out to educators. And I know that when we work together, it’s a force multiplier. And what you’re doing is developing skills. And there’s these skills that are happening right now in academia that you’re doing. And then how do we transfer that into middle and high school. Or, I’m sorry, middle and elementary school, high school. We need to get more people into this conversation to kind of brainstorm and figure that out. We have a Facebook group, Science Connections: The Community, where we have educators that gather. That can be one place we start the conversation. And again, I know on your website you’ve been super active on social media; you’ve grown your presence on Twitter and all these different places, engaging with folks. Which is awesome. ‘Cause I know I see your posts and I’m saving the things that you’re posting and I’m thinking of ways that I can do it in my classroom. I’m gonna take that product. By the way, is that on your website, the lesson that you do with the product?
Melanie Trecek-King (41:43):
No, actually. So the article, “How to Sell Pseudoscience” is … I know Bertha Vasquez wrote up a version of it.
Eric Cross (41:50):
Maybe we can grab that. ‘Cause we might be able to put that into the show notes for folks, because she’s a middle school educator. If there’s already something that’s been done for teachers like us, we’re like, “Yeah, let me get that and let me remix it and make it my own!” if there’s already a exemplar out there.
Melanie Trecek-King (42:04):
Yeah, she’s done it. And so I will absolutely share that with you.
Eric Cross (42:08):
So, all season long, we’ve been talking about science as the underdog. We kind of framed it, you know, science oftentimes takes a back seat to math and English. It’s kinda the first thing to go. Or the first area where time can get cut. Because of what gets tested gets focused on, oftentimes. And then in addition to that, when you’re a multi-subject teacher, elementary science isn’t just one thing — it’s every field. You know, you’re a biologist, which is different than a geologist. And when you’re teaching every subject, that’s a lot. And you might not have had a science class for years. And the realities that we’re seeing over and over with different researchers and practitioners is that science could actually enhance literacy, and building those skills. And I think you really talked about it with the critical thinking skills. Those can transfer. Or the administrator that said, “This is one of the only courses I’ve seen where it transfers to other areas.” Could you share maybe with our listeners, just any advice for advocating for science in their own world?
Melanie Trecek-King (43:13):
Wow, I’m not sure I’m qualified to answer that question! One of the things that comes to mind though — because I was listening to your last episode and educators … I honestly didn’t realize how little time they had for science. And how often science was then the first to go, to allow room for other subjects. But science overlaps with a lot of other issues. And so I feel like there could be a way to bring in science when teaching these other subjects. So, for example, argumentation and logical fallacies are easy to apply to reading and writing. Information literacy, and being able to find good information online, teaching students how to laterally read, to be able to check a source, or how to use Google effectively, to put in neutral search terms to find sources, or teaching students how to recognize the characteristics of conspiratorial thinking: All of these things can overlap with so many other subjects. So the scientist in me is a little biased towards science being important enough to do this. But try to bring it into the other subjects. It doesn’t have to be completely separate.
Eric Cross (44:43):
So integrating science into other things. And I … big believer. And a hundred percent agree with you. Now I’m gonna ask a question that kinda like takes us backwards. You shared an app with me when we first met that I thought was really cool. And I know it’s a friend or colleague of yours. But as a middle school teacher, I thought it was great, because it was something that my students could download and practice some of the skills that you’re talking about. Would you talk a little bit about the cranky uncle? Is it the Cranky Uncle app?
Melanie Trecek-King (45:17):
Cranky Uncle.
Eric Cross (45:18):
Could you share a little bit about that?
Melanie Trecek-King (45:20):
Yeah. Cranky Uncle is awesome. So, Cranky Uncle is the brainchild of John Cook, who is the founder of Skeptical Science and the author of the 97% Consensus study on climate change. Cranky Uncle … so he’s also a cartoonist. And Cranky Uncle is a cartoon game where … I don’t even have to explain who Cranky Uncle is to my students. Everybody inherently gets the, the character, right? So he’s like the guy at Thanksgiving that you don’t wanna talk to because he denies climate change and he’s just really cranky. But Cranky Uncle uses the techniques of science denial, which are summarized by the acronym FLICC: So it’s Fake experts, Logical fallacies, Impossible expectations, Cherry-picking, and Conspiratorial thinking. So he uses those techniques. Again, this is technique-based inoculation. So they recognize the techniques in the game, and you earn cranky points. And as you make Cranky crankier and crankier because you’re recognizing his techniques, you learn the techniques of science denial, and level up and open up other techniques. This is another one of those examples where climate change has a lot of science behind it, right? And if you wanted to get to the science behind climate change for any particular issue … so let’s say it’s cold today, so I’m gonna say there’s no climate change. OK? If I’m gonna unpack that at a factual level, and with science, we could be here for a while. But if I told you, “That’s like saying, ‘I just ate a sandwich so there’s no global hunger.’” OK? So that’s a parallel argument. Humorous. Love to use this kind of argumentation, ’cause it makes for some … I mean, it’s funny, but you get the point. It’s an anecdote. And anecdotes aren’t good evidence. So just like that, you could teach the technique of using an anecdotal fallacy for climate-change denial. So, I have my students play this game. You could do it when you’re studying argumentation. You could do it for science denial. I use an inoculation extension with that, where I have my students pretend that … um, actually, back up for a second. So I teach a class on critical thinking. And at the end of semesters I would get emails from students on, well, they’re failing the class, but they really shouldn’t, for all of these reasons. And reading these emails, I’m like, “If you think that’s a good argument, you clearly didn’t learn what I was hoping you would learn.” So I now have my students, early in the semester, after they play Cranky, pretend that it is the end of the semester and you’re failing the class and you’re failing because you didn’t do the work. Use at least four of the fallacies from class to argue for why you should pass. So they have to put it on a discussion forum, and they’ll say things like, “Well, if you fail me, then I won’t get into graduate school and then people will die and it will all be your fault.” Or, “My dog died, and so I was really sad.” Or, um, “You’re just a terrible teacher. And you’re short. So I don’t like you.” Or that kind of thing. So, oh, they love to attack my character. It’s really funny. But it’s supposed to be funny. And the point is, the students are using those arguments, they’re using the fallacies, to argue for something. And so by creating that misinformation themselves, they learn how those fallacies work. But taken together, I mean, everything that we just talked about there, Cranky Uncle, and the fallacy assignment, or whatever iteration you want that to be in, that doesn’t have to be in a purely science unit. Right? That could be sociology. It could be argumentation. It could be English.
Eric Cross (49:01):
Absolutely. That could be totally a prompt in an English class. And practiced in there. And then this could be an interdisciplinary thing, going back and forth between English and and science. Just having these discussions and looking at it from different angles. And you’re practicing the skills in two different contexts. So you get into argumentation. And then that app, I know I had fun with it. And the questions on there definitely resonate with people in my own family. I’m like, “I feel like I’m talking to exactly somebody that I’m related to right now.” <Laugh> Melanie, anything else that you wanna share, or discuss or highlight, before we wrap up?
Melanie Trecek-King (49:39):
So we could talk about lateral reading, if you like. ‘Cause I know a lot of educators use the crap test.
Eric Cross (49:45):
Please, please, please talk about that.
Melanie Trecek-King (49:47):
So, when evaluating sources, a lot of educators teach what’s called the CRAP test. And I wish I remembered what it stood for. But basically what you do, a lot of us have been taught when you go to a website, to figure out if it’s reliable, you wanna go to the about page. Read the mission; see who they are; maybe read some of the content; evaluate the language. So is it inflammatory? Are they making logical arguments? Are the links to reputable sources as well? And the problem is that if a site wants to mislead you, they’re not going to tell you that it’s a bunk site, right? They’re just gonna do a good job of misleading you. And so, what you wanna do instead … the CRAP test basically is an evaluation of a site. And that’s what’s called vertical reading. So you’re looking through a site to determine if it’s reliable. Uh, I think his name’s Sam Wineberg at Stanford, proposed something called lateral reading. Where, instead of on the site, what you wanna do is literally open a new tab and into the search engine type the source. You could do the claim, too. And then something like Reliability or FactCheck or whatever it’s that you’re checking, and then see what other reputable sites have to say about it. So, in their study, actually, they did a really interesting study where they compared professional fact checkers to PhD historians to Stanford undergrads. And they evaluated — I wish you could … um, there’s two pediatrician organizations. One’s like the American Association of Pediatrics and the American Academy of Pediatricians, something like that. They’re very similar sounding. So you give them to students. I do this with my students as well, the same study. So I give my students those two websites. And I say, “Which one of these is more reliable?” And they do exactly what most of us do, which is spend time on the site looking around. And most of the time, if not nearly all the time, they come to the wrong conclusion. And so then I tell them what lateral reading is: “OK, instead of looking through the site, open a new tab, search the organization and reliability.” Something like that. And it takes probably 30 seconds before they realize one of them has been dubbed by the Southern Poverty Law Center as a hate group. As opposed to the other one, which is like a hundred year old huge pediatrician organization that produces their own journals and so on. But nearly all my students are fooled. And in the study, none of the fact checkers were fooled. I’m gonna get the number right. It’s something like 50% of the historians and 20% of the Stanford undergraduates got the correct answer. And they spent a lot more time on it. So it’s a great way to teach students how to use the power of the internet to evaluate sources much more quickly and, effectively. And yes, use Wikipedia, right? Wikipedia is not a final answer, but Wikipedia is actually pretty accurate. So if Wikipedia is the first place you stop, then yes, go there, see what Wikipedia says, and then follow some of their sources.
Eric Cross (52:47):
What popped in my head was like, Yelp reviews for websites. That almost sounds like what it was. It’s like when I search for a product, I don’t go and read the product description marketing. ‘Cause that’s all designed to sell me on something. But I’ll go and look in Reliability, if it’s like a car, or just other sites to cross-reference. And that sounds like what you were talking about is like cross-referencing. Seeing what FactChecker [sic] said about this site, versus seeing what a site says about itself.
Melanie Trecek-King (53:14):
Well, that’s a great analogy. Because if I wanted to know if a product was effective, what the manufacturer says about the product, clearly there’s a strong chance of bias. Right? They’re going to be on their best, um, put their best foot forward. Versus, what do independent reviewers say about this product?
Eric Cross (53:35):
Yep. And I am known to research something to death. And I get something called “paralysis by analysis.”
Melanie Trecek-King (53:42):
Ohhhh, yeah.
Eric Cross (53:44):
And it’s so bad that even if I’m trying to buy, like, towels, I need to find the best-bang-for-the-buck towel. I have to defer some of these decisions out, because I’m on the internet for three hours now. I’ll be a pseudo-expert in towels, and thread count, and all of that stuff. But yeah, that maybe that’s just the science person.
Melanie Trecek-King (54:03):
I mean, I feel your pain. I do the same thing. <Laugh> It’s annoying. Like, it’s just towels. What does it really matter? But yeah.
Eric Cross (54:10):
Coffee! It doesn’t matter what it is. I just need to go, “OK, I have to use these powers for good. Otherwise I’m gonna be researching forever.”
Melanie Trecek-King (54:16):
I wanna say one other thing. So, again, this is a college class and I have a lot of freedom. But one of the driving philosophies behind the class is a wonderful quote in a book, Schick and Vaughn, How to Think about Weird Things. And they said, “The quality of your life is determined by the quality of your decisions, and the quality of your decisions is determined by the quality of your thinking.” And I know my students want a grade. But I’m really trying to teach them how to be empowered through better thinking. That’s where the name “Thinking is Power” came from. I mean, we say “Knowledge is Power,” but it’s not enough to know things. And there’s too much to know. So being able to think and be empowered to have your own agency and not fall for someone’s bunk is my goal for my students.
Eric Cross (55:07):
And doing that is gonna help them through the rest of their lives. Not be swindled, not be taken advantage of, be able to make better decisions. There’s so many benefits to building that skill. And I know your students have definitely grown and benefited. I’m sure you’ve heard, long after you’ve taught them, heard back from them and how they’ve applied that course to their lives. Melanie, thank you so much for being here. For a few things. One, for providing and filling this space where there’s such a need. Again, the critical thinking resources, the tools that you used, are so, so important. If we ever lived in a time where they were critical, it was really what we experienced during the pandemic in the last few years. We watched people’s information literacy and science literacy play out in real time. And we literally saw life-and-death decisions being made based off those skills. That highlighted, I think how important this is. And then, taking the time to generate resources for educators like myself, that we can take and adapt and put into our classroom and start teaching our students. ‘Cause like you said, by the time they get to you, they’re, they’re so far downstream or so far in a system that, depending on the teachers that they’ve had and the education system they’ve been in, may or may not have even touched on these things. They might have learned a lot of facts, but they may not have built their muscle to be able to critically analyze and interpret the world around them. And you’ve just — even the last year, it hasn’t even been a year since we talked the first time — I’ve watched your resources continue to grow, and you share them. And so I, on behalf of those of us in K–12, thank you. And thank you for being here.
Melanie Trecek-King (56:49):
Oh, well, thank you so much for this opportunity. Thank you for everything that you do, reaching out to other educators and for giving me a platform to hopefully reach other educators.
Eric Cross (57:00):
Thanks so much for listening to my conversation with Melanie Trecek-King, Associate Professor of Biology at Massasoit Community College and creator of Thinking Is Power. Make sure you don’t miss any new episodes of Science Connections by subscribing to the show, wherever you get podcasts. And while you’re there, we’d really appreciate it if you can leave us a review. It’ll help more listeners to find the show. You can find more information on all of Amplify shows at our podcast hub, Amplify.com/Hub. Thanks again for listening.
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Meet the guest
Melanie Trecek-King is the creator of Thinking is Power, an online resource that provides critical thinking education to the general public. She is currently an associate professor of biology at Massasoit Community College, where she teaches a general-education science course designed to equip students with empowering critical thinking, information literacy, and science literacy skills. An active speaker and consultant, Trecek-King loves to share her “teach skills, not facts” approach with other science educators, and help schools and organizations meet their goals through better thinking. Trecek-King is also the education director for the Mental Immunity Project and CIRCE (Cognitive Immunology Research Collaborative), which aim to advance and apply the science of mental immunity to inoculate minds against misinformation.


About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.
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S3-02: How science strengthens literacy and language development

In our second episode of the season, we continue finding ways that science is overlooked and how it can be better utilized in schools—and as an ally to other subjects!
We sat down with Susan Gomez Zwiep, former middle school science teacher and senior science educator and staff advocate at BSCS Science Learning. She shared past experiences and research that shows the benefits of integrating science and literacy, as well as strategies for applying these ideas in the classroom.
We hope you enjoy this episode and explore more from Science Connections by visiting our main page!
Dr. Susan Gomez Zwiep (00:00):
We started to see this trend of students communicating more in English because they were excited about the science that they had been learning.
Eric Cross (00:10):
Welcome to Science Connections. I’m your host Eric Cross. In this third season, we’re exploring the theme of science as the underdog. And last time around, we delved into the data showing that compared to other subjects, science is often put on the back burner. Now it’s time to explore why it’s so important to change that and how to do it effectively. So over the course of these coming episodes, we’re gonna make the case for science and equip you with data and strategies for advancing science in your own home, school, or community. To kick things off, we’re going to spend a few episodes going in depth on the integration of science and English instruction. We know we need to dramatically improve literacy rates in this country, and as we’ll show in the coming episodes, science can be a key ally in that goal. We’ll also show how language development and literacy instruction can support science. Yes, it can be a win-win, folks. To start out, I’m joined by someone who has been studying science and language development for more than a decade. Dr. Susan Gomez Zwiep is a senior science educator and staff advocate for BSCS Science Learning. On this episode, she talks about her own experience as a middle school science teacher and share some key insights and strategies from the research on integrating science and English language development. Please enjoy this conversation with Dr. Susan Gomez Zwiep.
Eric Cross (01:36):
Welcome to the podcast. Thank you for being here and having this really important conversation. So I’m so glad you can make it, Susan.
Dr. Susan Gomez Zwiep (01:43):
Yeah, I’m excited to be here.
Eric Cross (01:44):
We’re gonna talk all about language development and science. But first I was hoping that you can just kind of set the stage and tell the listeners about yourself and how you came about to studying this specific subject.
Dr. Susan Gomez Zwiep (01:57):
Sure. So I am a California native. I grew up in the San Gabriel Valley and that’s where I started teaching. I have an undergraduate degree in integrated biology from UC Berkeley. And I thought I was gonna go be a field scientist. And while I was waiting for grad school applications to run their course, I took a substitute job in Montebello to kind of bide my time. And because I had a science degree, they asked if I would take a permanent placement, well, a temporary permanent placement. And I said sure. And found myself teaching seventh and eighth grade general science to a population that at the time was about 68% English language learners, in a school that you would consider urban, under-resourced with a community that was large percentage immigrants from Mexico, Central and South America. And I never looked back. I kept that job.
Dr. Susan Gomez Zwiep (03:04):
I loved it. I love the middle school classroom. I love teaching science to my middle school students and truly, truly just found a really good home for my love of science, but also my love for talking about science and helping other people understand science. So at some point I was entertained with the idea of going to graduate school. So while I was still teaching, I actually did a Ph.D. At the University of Southern California in the science education field. And once there, realized that I actually had a unique experience in higher ed, that experience of teaching with populations that are learning English or have home languages other than English, was actually not common in higher ed circles. And being from that community was also not common. And so I pretty quickly leveraged that experience to combat what I think is universally agreed as an equity issue that in my school where I taught, the district had advocated for ELs to get an extra hour of language development in order to promote their English language proficiency.
Dr. Susan Gomez Zwiep (04:28):
And, our principal wisely said, there are not enough English-only students in this school to do that without losing all of our science teachers because there’s not enough kids left to actually fill a day, a teacher’s day. And she said, these kids learn more language in their science courses than they do anywhere else, so I don’t wanna remove that. But the reality is, is that at that time–this was in the late nineties, early two thousands–if you were not proficient in English, you went to more time with language development. And that makes a lot of sense in some ways. But when you look at the big picture, you realize, well, that means those kids aren’t going to science and they’re not having opportunities to have consistent quality science learning opportunities simply because they spoke a language other than English at home. And so that’s really how I fell into this work.
Eric Cross (05:28):
And that has a downstream effect. I mean, once you start pulling students from a course, that automatically sets the trajectory for later outcomes, which we ultimately see in STEM fields where we, we don’t see the population of our students represented in the STEM fields. Now, I know this goes back a few years, but you were doing research for your Ph.D. What did you start to follow?
Dr. Susan Gomez Zwiep (05:50):
Yeah, so I eventually took a position at Cal State Long Beach, which was not by chance, it’s a Hispanic-serving institution, and that’s where I wanted to do my academic work. And once I was there, sought funding with a district to support elementary science learning. So it had a teacher professional learning component that was both summer and in-class, sort of like PD in the classroom component. And the district came back and said, the only way you are gonna get time to even talk about science in elementary school is if it’s attached to language development. And so that’s what we did. It was a three-year grant, there was a sister grant that followed–so all told, it was about a five-year program where we basically said, what if instead of following the traditional ELD, English Language Development curriculum, we modified and put science as the context for language development in the K2 bands.
Dr. Susan Gomez Zwiep (07:01):
Teachers at the district traditionally had not been excited about their language development curriculum until we said, we’re gonna take that and we’re gonna do some science instead. And then they were like, no, no, no! We love our ELD curriculum. But they hung in there with us. The project was successful enough that it actually became a K4 and then a K5 project. The district ended up having to put in a ton of money into this because the grant only paid for so much. But their schools actually wanted “in” ’cause what they heard is when we put science as a context for language development, kids were talking more. Kids were speaking in English more. Kids were writing more. Kids were engaged. And the ultimate, kids were developing English quickly and in a community where you could actually operate within the community without speaking English. These are Spanish-speaking communities and the schools operated in Spanish outside the classroom. So if you walked into the school’s office, the principal secretary, the person who manned the door, spoke Spanish. The field supervisors that the lunch supervisors spoke Spanish.
Eric Cross (08:17):
The non-teaching staff that are supporting the rest of the students outside of the classroom.
Dr. Susan Gomez Zwiep (08:23):
Yeah. Everybody spoke Spanish and they spoke Spanish at school. And even the principals came back and said, from being in this project, that the kids were coming into the office and had transitioned to communicating in English, especially when they wanted to talk about science, and they really wanted to talk about science ’cause they were super excited about the stuff that they were learning. So we started to see this trend of students communicating more in English because they were excited about the science that they had been learning. And yeah, that sold itself and we had schools jumping in.
Eric Cross (09:01):
So you started off in a situation where you were told that you had to, if you wanna get science and you had to merge it into English, basically. And is it fair to say that that’s because of testing requirements that schools have on them? Like this is what gets analyzed or what was the purpose behind that?
Dr. Susan Gomez Zwiep (09:15):
It was district policy and it was site policy and those policies were put into place for very good intentions. Students don’t get reclassified into English only, and reclassification is how you traditionally got access to all this other programming, electives, AP college prep, all those other things. And the best way to get them reclassified was to learn English, and to learn it sooner rather than later. So it was in an attempt to get kids reclassified from English learner to English proficient.
Eric Cross (09:55):
And then during that process it was able to be expanded to K4. And then with these open-minded teachers, you gave them the content, they used science as the context for learning. And then your students who were mostly emerging bilinguals and multilingual students, you found that they started speaking English more frequently. What did you make of that result? Like what did you come to after seeing all that happen?
Dr. Susan Gomez Zwiep (10:20):
So I do wanna say that there’s a couple of reasons why we think this works so well. But I have to really acknowledge that there were linguistics, second language acquisition experts that were part of this team. And we wouldn’t have been able to make any of this work if it was purely science educators leading this cause. There’s a lot we didn’t understand about language development, and they really helped us. But one of the things that we think is unique about science, there’s a few really important aspects–one is that we all have experiences in the natural world, since we can process outside information, right? We all have observations, things we’ve observed with our eyes, we’ve heard, we’ve felt, and all of those experiences build some pretty good science ideas before we enter formal schooling. You know, kids already have ideas about this.
Dr. Susan Gomez Zwiep (11:20):
We don’t have to give them language for it. They already have these concepts and experiences. The other thing is that we are inherently interested in the natural world we occupy. And so we’re curious, science is often considered cool, there are science channels and science fiction movies and science fiction books and magazines–and this is just … it’s just cool. And that tended to be the trigger, you know, when we gave kids something interesting to observe. A Ziploc bag with water that we added an Alka-Seltzer to, and strange things starts happening in the baggie. That curiosity, that excitement allowed kids to leap over any concerns they had about the language they were supposed to use in the classroom. One of the most difficult things about learning a language is using a language that is imperfect. So saying things and communicating in a language that you are not a hundred percent confident about, that you’re not sure you’re using the right words or the right tenses. But when kids were excited about this thing in a Ziploc bag, they didn’t care. They communicated however they could, sometimes in their primary language or their home language, sometimes in imperfect English, but by and large they just communicated. They did it in oral language, like listening and speaking, but they also did it in writing. And that was easy. Like we didn’t have to do anything other than provide interesting science experiences. And that’s, that’s pretty common.
Eric Cross (13:06):
Yeah. I feel like, to co-sign on the science is cool, it is objectively, if a matter of fact, even just looking at the Oscars, like we have multiverse, you know, we have sci-fi you know, the costume designer of Wakanda Forever. We have all of these different movies that are all founded in some kind of these scientific principles. And so the idea that science is cool and organic, naturally engaging is something I think we, we all can connect to and it resonates with all of us. So I feel like is sort of your origin story too.
Dr. Susan Gomez Zwiep (13:33):
That’s the origin story.
Eric Cross (13:34):
That’s the origin story right there, to continue with this like movie theme. Now if we fast forward to today, based on all the research that you’ve seen since then, and your experience, why would you advocate merging English language development and science?
Dr. Susan Gomez Zwiep (13:49):
Well, for one, the research that we conducted actually provided some really nice evidence that showed, even though we had essentially stole minutes from language development time and inserted science. And on state mandated tests and on their students’ language proficiency measures, the kids in the program with the blended, did significantly better than students who were getting ELD instruction alone. Traditional ELD instruction. And that kind of blew our mind. We would’ve been happy if they had done just fine. Like we could put science into a student’s day and do no harm. They could get their language development; they could get science. But in fact, what we found was that they did better. That they actually gained English more quickly and it showed up in multiple measures, including the state English language arts assessment, which again, kind of blew our mind.
Eric Cross (14:55):
So just to be clear about the study that you did, you looked at two groups and one was the blended science and English language development, and then the other one was a control group. And the blended group ended up showing more improvement.
Dr. Susan Gomez Zwiep (15:09):
Yes. So there’s quite a bit of research now, this research was done in the early two thousands, and the research has built around it to really suggest that this does seem to be a more efficient way to promote language development while still maintaining students’ access to a core content area. But in recent years, the standards have shifted and that has been just a remarkable, wonderful change. And both standards have shifted. So when we did our research, we did it under the old California Science standards that were fairly heavy in technical terms. They were heavy in science concepts rather than kids doing things. And they were a much narrower focus.
Eric Cross (16:04):
And these are the standards that most of us grew up on, right? Those of us who are pretty much teachers in the classroom today pretty much grew up on what you’re talking about. Is that fair to say?
Dr. Susan Gomez Zwiep (16:12):
That’s fair to say, yes. So the new standards that we have now, the California NGSS Standards emphasize not just ideas, but they also emphasize students doing things in science. And we didn’t have to build-in language portions to the standards. They now exist. The NGSS is a very, very rich linguistic opportunity for students. And at the same time, the way we’ve thought about language development has also shifted. We used to talk about language and science… we used to think about science as a lot of words, and you had to know the words, you had to have this technical language. And we’ve sort of shifted that to really thinking about, language is no longer a prerequisite for science learning. Language is now developed through the science learning or the content learning experiences.
Eric Cross (17:11):
So now there’s more chances to integrate English into science. Have you seen success stories or have you seen examples of this? Maybe just anecdotes of teachers kind of doing this since you’ve been doing this research and kind of watching. If so, would you mind sharing one or two?
Dr. Susan Gomez Zwiep (17:30):
Yeah. And I will just give a nod to Dr. Dr. Okie Lee who’s now at NYU who has really led sort of this reconception of language and science. And one of the ways she talks about it is this notion that I enter this learning experience, I enter this observation of this phenomena with fairly naive, simple scientific ideas. And my language about it is equally simple. But as I develop more and more ideas, as my understanding of the phenomenon, what I figured out becomes more sophisticated, I need more sophisticated language. And so what we’re starting to see are these spaces where teachers are building science ideas and science and understanding along with the language. And in order to do that, you really need to know what’s the storyline arc of my science lesson? What do they figure out in lesson one? What do they figure out in lesson two?
Dr. Susan Gomez Zwiep (18:35):
What do they figure out in lesson three? How are the science ideas building over time? So that I can then look at the language that they’re using and what language supports do I need in order to allow students to not only engage and figure things out, but communicate their ideas about it. And so we’re seeing teachers blow up what we call language, what we call text. It’s not just words. It’s not just sentences written on a paper, but it’s models, it’s pictorial representations, it’s gestures, it’s this wide range. We pretty much said, let’s blow language up. Let’s like use all of the linguistic registers that we have in order to make meaning of what we’re seeing it in together in this classroom. So that’s one thing that we’re starting to see. The other thing is that teachers are really allowing students opportunities to use what we call social language, non-standard dialects.
Dr. Susan Gomez Zwiep (19:40):
The language I use at home and with my friends. Because earlier I had said, we have all these experiences and those experiences in the world are tied up in my social register. They’re tied up in my home language ’cause that’s where I experience them. And to let students have access to using that language in the classroom, especially initially in a unit, means we’re giving ’em access to those experiences that they have that are related to the phenomena under study. So I totally understand the benefit of promoting academic language and promoting language frames and forms that we use in more academic settings. But it’s a sticky wicket. You have to be careful how you tell students about the way you want them to communicate. Because when we tell them that language that you use at home with your friends and family is not welcome here, we can send a message that they’re not welcome here. And that those experiences that they have outside of classroom about how things fall, the way sunlight heats up different surfaces, where you’ll find plants and what plants you will find based on conditions. All of those experiences, we’re sending a message that those are not welcome in the classroom. And so this expansion of language, including non-standard dialects and even home language, is really important for letting students bring their whole selves into the classroom.
Eric Cross (21:23):
I love what you just said. It legitimizes the funds of knowledge, the language, the cultures that our students are bringing to the table. I remember when I first learned the word code-switching in college and you know, I’m biracial, I grew up in my home community and my school community were two different communities and I ethnically, culturally belonged to both. And I had to code-switch in order to kind of survive and be accepted into different communities. And not until I was in college did I actually understand what I was doing. Now there were all kinds of teasing and jokes that went on to how I would talk if I code-switched improperly. And in my classroom, I would see students who would explain concepts in a way that was maybe like a casual register. They just were explaining it the best way they could.
Eric Cross (22:10):
And the way they were speaking was kind of denigrated or it was seen as negative even though they were communicating their concept. And when I became a middle school teacher, one of my, I don’t know, it’s like sometimes when you teach, you get to, you change how you were taught or what you experience and legitimizing my students’ language, and they would tell these beautiful stories and in their most common like, casual language, but they’re explaining the concept brilliantly. And it was phenomenal to see this barrier be removed of saying, you have to talk like this in order to be a scientist or you have to say these right words. And, and that’s what I feel like I’m hearing that in how you’re describing kind of how science has been done and what language can do to certain groups of students.
Dr. Susan Gomez Zwiep (22:58):
Yeah, very much so. And you know, back to the origin story, you know, I grew up in a multi-generational household. My mom, my aunt, my grandmother, Spanish was their first language, but they lost it because my mom was raised in Riverside and she, you know, went to school in the, the fifties and sixties and back then you weren’t allowed to speak Spanish at school. And so they lost the language.
Eric Cross (23:27):
They weren’t allowed to speak it at all.
Dr. Susan Gomez Zwiep (23:29):
At all. I didn’t directly observe it, but that is the story that my family tells, that there was no English spoken anywhere on school grounds. And that was a different issue. Right? That was very much for people unfamiliar with some of the history in Southern California. Their segregated schools, severe racism, linguistic racism, racial racism against Mexicans was a real thing. But yet I grew up in this household where the sort of way of speaking, like I think many Mexican households, the context is everything. So you can’t get to the facts until you’ve told the whole context of everything happening around it. So we used to joke that we couldn’t send my grandmother to the doctor by herself ’cause he had 15 minutes, and she was gonna take 20 just to tell him how she got there before she got to why she was there. But this telling of the context, the telling of the story around the idea is part of the linguistic, this sort of linguistic way of my household. When I got to school, I had to learn to drop it because teachers found me off topic. You know, I still have to be careful how I express things and sometimes I’m not a fast storyteller <laugh>, and I monitor that for myself. So I can only imagine what it’s like to be a kid in a classroom.
Eric Cross (24:59):
Right. And there are so many constraints in the school day, you know, especially if you’re multi-subject and you’re elementary and you’re teaching multiple subjects and someone’s trying to tell a story and you’re just like, land the plane! And they’ve, you know, gotta tell ’em the story, but realizing that when you look at it through a lens of like, culturally, this is how we communicate, then it reframes what the student is trying to do. They’re communicating to you based on how they’ve learned to communicate and they’re including essential parts of the story. And so how do you both honor that while also, you know, certain things like brevity and being concise and things like that that they’ll have to learn. But also honoring that and making sure that there’s space for that in your classroom. Even me, I’m thinking about this where I had students record this video and it was one minute to two-and-a-half minutes explaining three concepts. And I had students coming up to me afterwards saying, Mr. Cross, I need to record two videos because two-and-a-half minutes is not long enough. And I was like, how? I even extended it. But I’m realizing and listening to you and going, they’re probably not just getting to the point. They’re probably including more context into this because that’s how they story tell and that was actually part of the lesson.
Eric Cross (26:12):
So now I need to go back and extend their time that I’ve given them for <laugh> that project. I wanna come back to kind of, since we’re on this topic about why this is also an equity issue. Mm-hmm. <affirmative>. So we were talking about language, you touched on this a bit, and we were talking about integrating into science, but can we go a little bit further into how this integrated approach maybe can benefit English language learners in particular? And maybe anything else that’s related to equity that comes to mind.
Dr. Susan Gomez Zwiep (26:40):
So there’s a couple of layers of the equity issue. The most tangible and clear is student access. If we wait until students develop English proficiency to allow them access to quality science learning, we lose a tremendous number of students that could not only could they benefit from science, we could benefit from their entering this science conversation. And I was at a university and I was in a college of natural sciences and we were dedicated to increasing the diversity of the faculty. And it was a struggle ’cause the number of Ph.D. science ed or biology or chemistry academics that come from marginalized populations is very, very small. And it’s not by accident. You know, the number of students that make it into the next level, that make it into college prep courses, that make it into STEM majors, that complete STEM majors and go on to either careers or advanced degrees narrows at every possible step.
Dr. Susan Gomez Zwiep (28:01):
And so the equity issue is really one of access. And as basic as that is, it’s the easiest to solve. So that’s the first layer of equity. But the second issue around equity is how we engage these students once they’re in this space. Do we make it possible for them to see themselves as a scientist or an engineer? Are we creating learning experiences that not only allow them to use all the sense-making resources that they have, but do we make them feel like they’re valuable and useful in that space? Because there’s a lot of people that will say, I could be successful as a scientist, but I’m not willing to give up who I am in order to do that. And that’s a real thing. There’s a lot of research about like, why are they leaving? Like why, you know, is it because they’re not able?
Dr. Susan Gomez Zwiep (29:05):
Is it because they don’t see themselves as being capable? And now I think we’re looking at this as a different issue. It’s not that students don’t see themselves as capable and not that they’re not achieving. They see the cost that it will take to enter these fields and essentially not be able to be their full selves. So that’s the second equity issue. And in both cases we lose. As a society, we lose. We lose access to the full range of human resources that we have, and we lose access to their unique perspectives that they would bring to real problems facing us. It’s like all hands-on deck. We need to stop making it too difficult to participate in the conversation and we need to be more inclusive about how we invite these other perspectives and how we respect and utilize their ways of sense-making. That may not be Western science ways that we have in our books now, but hopefully those science materials are gonna change and we’re gonna start to see other ways of sense-making and other people involved in the stories that we tell around science concepts.
Eric Cross (30:29):
And just to be clear, this practice in integration, while it lifts up equity for marginalized or underrepresented groups or students who are emerging bilinguals or students who typically we don’t see representation of, this approach also benefits native speakers as well. Correct?
Dr. Susan Gomez Zwiep (30:47):
Yeah. And there’s actually a group of native speakers that come from text poor homes. It’s typical in underserved communities. Poor people living in poverty that may be native English speakers. They may not be marginalized populations. But they don’t have access to like text. And so that’s another group altogether that needs linguistic support. And then once you have all voices in the room contributing, everybody benefits because now the conversation, the building understanding conversation we’re having or the sense-making conversation that we’re having has everybody involved. And we all benefit from that.
Eric Cross (31:33):
And we see, I think one of the benefits about a country like the U.S., is we have such a heterogeneous group of people. And when we’re moving in the same direction, we’re all coming to the same problem, but from different perspectives and we’re able to come up with more innovative and novel solutions to them. And that’s kind of what I’m hearing is like as we generate scientists that are all coming from different backgrounds, we’re gonna be able to solve future problems, current problems a lot more effectively because nobody has a monopoly on perspective. Nobody has a monopoly on knowledge or the fastest way to do something or the best way to do something.
Dr. Susan Gomez Zwiep (32:11):
Right. Right. And traditionally we really have privileged particular experiences, particular ways of sense-making particular linguistic registers. And if we could just kind of put that privileged ways aside and open up space for everybody to feel like they have a voice, I think the next generation could change the world. I think they could solve some real problems. I’m truly hopeful that they would see themselves not just as capable, but as necessary in these pursuits.
Eric Cross (32:50):
So what does it actually look like today to do this work in instruction well? So to integrate the science, to integrate literacy, to take the benefits of the things that we’ve been talking about. What are some practical things that educators could do to get started, whether it’s in early, you know, K5 or middle school or even high school.
Dr. Susan Gomez Zwiep (33:13):
So I will say, I’m gonna kind of separate ’cause in the elementary space, students are primarily developing literacy in multiple languages. The language of the classroom, typically English, home language, languages, they may be multilingual. In the secondary setting where students tend to have developed social language in some language, it’s a little different. So I’m gonna kind of separate those two. So for elementary spaces where teachers tend to teach multiple things, I recommend that you get a partner. Don’t do this work alone. You cannot do this work alone. I mean you can, but it’s very frustrating and not nearly as much fun. So you really wanna take a look at what is the science that kids are going to be engaged in. Because when we look at science first and build language development around it, the experience tends to be more authentic and organic.
Dr. Susan Gomez Zwiep (34:18):
And what we used to do is we used to, like when we were talking about the science, we’d monitor the language we were using and then use that to say these are the registers. This is the language that we use when we were thinking about this. So if students are gonna use this, these are the scaffolds they’re gonna need. ‘Cause to do it, well, to do it efficiently, the scaffolds need to be specific to the science learning. So if we’re doing cause and effect, those are specific linguistic scaffolds that are different than if, say we’re doing model and systems and systems models, those are a whole other slew of scaffolds. And so you wanna be really tending to, what is the science being discussed and what is the language that kids are going to use and build scaffolds around it.
Dr. Susan Gomez Zwiep (35:10):
And then you also wanna think about what is the social language? What are the experience that kids will have either in words or pictures that I can leverage in this space. And then you wanna do that for the arc of the unit and slowly increase sophistication around those linguistic supports, as well as the science learning. But if kids have social language and they’re now in, there’s a group we call long-term English learners who have not been reclassified way beyond what the typical reclassification is. And that actually is important to think about because if you think about the kinder group, the group of kindergartners that enter a school when they’re five or six, those kids are going to go from grade to grade to grade. And as students develop proficiency, will get reclassified and they move out of this group that we’re still calling English learners.
Dr. Susan Gomez Zwiep (36:10):
So by the time you get to like seventh, eighth, ninth grade, if they’re still students in that category, they have very different needs on average than the group we started with. Often when we talk about secondary or these long-term English learners, we can leverage social language a lot more, but have to build the scaffolds more carefully around, for lack of a better word, the more academic content transferring that those social nonverbal language into more sophisticated forms. I think in any setting, you wanna utilize your resources. If I’m in a secondary space and I have a language development teacher and I’m not talking to her or him or they, that’s a problem. You need to go talk to the other people that have these same kids and talk to them about, how are you engaging in language, what are you doing?
Dr. Susan Gomez Zwiep (37:07):
Because you know, you could actually have a lesson, maybe this is a lesson about energy and you’re using a model and the kids are creating an initial model. And over in ELD land, they’re doing some linguistic supports. They’re working on some forms and functions of language. You could talk about the catapult, you could talk about the solar heater. You could use the context of the science conversation, which has a whole bunch of tangible experiences. You know, there’s the solar heater in front of you. I don’t need to keep it all in my head ’cause it’s in front of me and we can point to things and talk about things by manipulating the materials. And then I can take all of that and my ELD partner can use that as context when available. But it takes collaboration, but it’s collaboration well spent. And it’s more challenging in the initial phases of the collaboration. Once you kind of the get into the groove, it becomes a lot easier.
Eric Cross (38:16):
The meta of this, as we talk about integrating science and literacy is, and this is great advice, but it’s basically integrate your science teachers with your English teachers and co-plan and do this work together. It’s a force multiplier. One, you’re both, you’re getting two specialists together. It also, I’m just listening to just the parallels. It also resembles what you actually do in the STEM fields of collaboration working together to problem-solve, and you’re modeling for your students what you want to happen. And if I was an administrator listening to this, someone who had control, like master schedules and things like that, there also needs to be space created for these teachers to talk to each other and plan and do all these other things to kind of maybe come up with like interdisciplinary units or even just meet and begin the conversation. It just seems like such great advice.
Dr. Susan Gomez Zwiep (39:07):
Yeah. We’re professionals. We have academic degrees and credentials and experience in the classroom and yet more often than not, we leave it to the students in the seats to make the connections between my class and the class they go to next. And that’s not fair. We need to be talking to each other. So if we’re talking about argumentation, argumentation in science and argumentation in ELA and argumentation in math–we’re not even talking about the same thing. I mean, cognitively we’re talking about taking some evidence and creating a claim and supporting it, but what we mean by evidence is very different in the different disciplines. What counts as more convincing evidence changes. And yet we assume that because we say evidence in one class, the kids know what we’re talking about. And the kids are sitting there going, which one is this? Which evidence are you talking about? Because last period it was something else. And so I think we also need to really consider who’s in the best position to clarify the connections and the integration because we leave it to kids more often than not right now.
Eric Cross (40:19):
I agree. Just having those conversations and defining your terms and agreeing on them just to make it easier for students. ‘Cause you’re right, they are left to make those connections or bridge the gaps. And when you have an education system for many schools, I think most of us, it’s still pretty siloed. You’re still kind of like, especially when you’re in secondary, it’s we’re doing this or even elementary, different times of the day you do different subjects, versus the way that we experience life itself or even our professions. We’re actually integrating science and math and reading and writing throughout the day, and ebbs and flows going back and forth. And without making those explicit connections, we’re leaving a lot of things to chance, hoping that the learning’s there in such a valuable moment. Before we go, I’m wondering if you have a parting message for listeners about the topic of integrating science and literacy. You’ve already said so many amazing things, but you have the platform speaking to educators and folks out there. What would you wanna say to them?
Dr. Susan Gomez Zwiep (41:18):
This is not an easy endeavor. The system that we operate in does not make this effort easy, but it is worth it. It is worth it to the kids in our classrooms. It is worth it to the building of a scientific community and a scientifically literate populace. It’s important to solving problems in the future. It’s important to have kids feel like regardless of how they say things, that they belong in a classroom. If we can relax the sort of linguistic demands on kids and let them enter science learning in a way that allows them to use all their resources and they’re curious, they can really leverage both areas in a way that they don’t do individually. It’s really hard to think about what it is I’m trying to say if I’m worried about how I have to say it. And so we really need to think about, when are those times that we’re gonna let kids just tell us what it is that they’re excited about and when is it that we’re going to help them craft a more formalized language around those ideas. Right now we do a really good job at that second half. We need to do better at the first.
Eric Cross (42:46):
Susan, thank you so much for joining us today and for sharing your expertise and your wisdom and your passion for serving the students and for bringing everybody to the table through language and through science. We really appreciate it and the listeners will too.
Dr. Susan Gomez Zwiep (43:03):
Thank you so much. This is my favorite topic.
Eric Cross (43:06):
Thanks so much for listening to my conversation with Dr. Susan Gomez Zwiep, senior science educator and staff advocate at BSCS Science Learning. And please remember to subscribe to Science Connections so that you don’t miss any of the episodes in this exciting third season. And while you’re there, we’d really appreciate it if you can leave us a review. It’ll help more listeners find the show. Next time on the show, we’re going to continue exploring the how and why of integrating science and literacy instruction.
Speaker 3 (43:35):
When we interview scientists, they spend a lot of their time reading the work of other scientists and writing their findings, writing grant proposals, presenting at conferences. A huge part of the work of a scientist is not just at a bench conducting experiments, but even if you’re conducting experiments, you’re using your literacy processes to think about what you’re seeing in your experiment.
Eric Cross (43:57):
That’s next time on Science Connections. Thanks so much for listening.
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Meet the guests
Susan Gomez Zwiep began her career in science education as a middle school science teacher in Los Angeles where she spent over 12 years working in urban schools. Prior to joining BSCS, Susan worked at California State University, Long Beach as a Professor of Science Education.
Susan has also worked as a Regional Director for the K-12 Alliance, providing high-quality professional development in science and mathematics for K12 educators, including the CA NGSS Early Implementer Initiative. Susan consistently works toward establishing equitable access for all students to rigorous, inquiry-based science instruction and supporting teachers in their journey to become advocates for students, science education, and their own professional development.


About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.
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S2-04: Gamification in the K–8 classroom

In this episode, Eric Cross sits down with his colleague and friend Fabian Hofmann to talk through gamification in the K–8 classroom. They discuss Fabian’s experience teaching outside of the United States, and the differences in classrooms outside of the country. Fabian explains the integration of game mechanisms in the classroom, standard-based grading, and shifting student thinking about learning by forming strong relationships. Fabian also shares how he created a new STEM course at his school revolving around his own passion for Star Wars. Explore more from Science Connections by visiting our main page.
Fabian Hofmann (00:00):
In Mr. Hofmann’s class, I get to earn points and I get to be a Jedi. I can suspend my disbelief and I’m learning history, but at the same time, I’m traveling through the galaxy.
Eric Cross (00:13):
Welcome to Science Connections. I’m your host, Eric Cross. My guest today is Fabian Hofmann. Fabian is a middle school IB educator, currently teaching seventh grade multimedia design and history at Albert Einstein Academy’s middle school here in San Diego, California. He also hosts the podcast Rebel Teacher Alliance, a podcast dedicated to encouraging and supporting teachers to rethink student engagement. Fabian’s one of the most innovative teachers that I’ve ever met. His use of technology and gamification makes learning fun and accessible for our students. And I have firsthand experience with these students because we teach on the same team and have worked alongside each other during my entire career as a teacher. In this episode, we discuss gamification of the classroom, how he approaches grading from an innovator’s mindset, and his newest STEM class, Immersive Design, where his students are working with former Disney Imagineers to completely renovate their classroom into an interactive Star Wars-themed learning environment. And now, please enjoy my conversation with my good friend and colleague, Fabian Hofmann. We’ve worked together for how many years now? How many years have you been at Einstein?
Fabian Hofmann (01:23):
Well, I started when you started, like after you were student teaching, so 2014.
Eric Cross (01:28):
OK, so it’s been a while.
Fabian Hofmann (01:30):
Yeah. And then I took two years off and I went to Hawaii. I couldn’t handle the pressure. And then I came back. So we’ve worked together for six years but known each other for eight.
Eric Cross (01:39):
What’s your origin story? We’re gonna talk about your origin story. I told you.
Fabian Hofmann (01:42):
All right, cool. Right. So when I was a little boy…no. <Laugh>
Eric Cross (01:46):
This podcast is not that long!
Fabian Hofmann (01:49):
So no, I started out, teaching in 2009. I started student teaching in Germany and was teaching history and English. Did this two-year student-teaching program there. And then, when I was done, my wife and I, she’s American, we got married and we decided to move to the States. And then I started teaching at a German cultural center called the Goethe-Institut in San Francisco. We lived in the Bay Area. And from there, after a year we moved down to San Diego; I started subbing; I worked for a year at High Tech High. I taught humanities there. And then, after that year, I ended up at Einstein teaching German because that was what was available. I didn’t want to teach German. That wasn’t like, on the top of my list. But it made sense because I had taught German in San Francisco and it kind of was like, “Well, I can do that, I guess.” And then, yeah, and then I went back to—we went to Hawaii for a couple of years and then I came back here to start teaching history. So I’ve taught like a million things essentially.
Eric Cross (02:52):
And then during that time, what’s your evolution been like in the classroom? Kind of like your view of education? And how does that play out in your day-to-day with kids?
Fabian Hofmann (02:59):
So when I started teaching here in the States, I noticed that it’s very different. Technology was much further along here than it was in Germany. So when I got here and we had like an iPad cart; I helped setting up the iPad carts. And I worked with the Chromebooks and I was like, holy, holy crap, this is so cool. Like, kids can like actually do things with this technology. And then, I mean, I love technology. I’ve had an iPad when it came out and stuff like that. And so I was like, “Oh, so how about we use this in our classroom?” And so I always moved—I moved very quickly to having students create on the iPad. And at first it was like, “Oh, we use the Apple apps and stuff.” And then I went to an ed-tech teacher summit here in San Diego and my eyes were like opened to, “Oh my God, there’s so much more than just the Apple apps.” And ever since then I was like, “OK, we’re gonna use this; we’re gonna do that.” It’s just crazy stuff that I thought was cool and that students really seemed to enjoy, because it wasn’t like a typical language class; it was more like, “Well, what can we do to create, and how can we somehow still use the language but we are learning coding at the same time, or we are creating something in 3D at the same time?” Like, I was always trying to make it have two angles: the language angle, obviously, and then also the technology angle.
Eric Cross (04:25):
What was it that kept you kind of pushing? ‘Cause I remember the beginning in the Classcraft days to where you are now, I feel like you’re like light-years ahead of where you started.
Fabian Hofmann (04:37):
So you were actually the one who showed me Classcraft, which is like a gamification portal, kind of off-the-shelf thing that you can subscribe to. It has some free features and it’s like a gamification platform where students can create characters. And then these characters go on adventures. That’s like their avatar, and they get experience points in the classroom game and stuff happens. You can create, like, adventure paths for them. So if you have an assignment that you want students to do that has different steps, so, that could be an adventure path. That’s what I liked about Classcraft, is like this idea of like, “OK, we’re taking a game and applying it.” But it wasn’t enough for me. And so I started developing my own classroom game. I did some reading. I met online with John Meehan, worked with him. I read the book by Michael Matera, Explore Like a Pirate. And so it just broadened my whole world to, or just opened the world of gamification to me.
Eric Cross (05:38):
You present on gamification; you mentor other teachers on gamification. You host a podcast where you talk about it. But for those people who haven’t done it or gotten into it or maybe have a perception of it maybe that’s not quite accurate, can you talk a little bit about like what gamification is and what it’s not?
Fabian Hofmann (05:54):
- So the biggest difference…we all know game-based learning, because we all do it. We use Quizlet; we use quizzes; we use Gimkit, Blookit, Jeopardy, anything like that. Those are game based. That’s game-based learning. So using a game to facilitate learning. Which is great. I love game-based learning too. But the difference is with gamification, in the pure definition of gamification, is that you’re using game mechanics and elements and apply them to a non-game setting. A couple of smart educators were like, “Why don’t we just do that in our classroom?” And so we borrow these elements, these mechanics, these game mechanics, like getting experience points, and applying them to the classroom. So anything that students do, they earn points. So they turn in an assignment, that gets you a hundred points. They go and do something extra for the class, they get 50 points. Whatever it is, whatever your value is. That’s one aspect, like a leaderboard, virtual money, stuff like that that just in reality is not necessary, but you’re putting it somewhere where it doesn’t exist. And all of a sudden students have this weird shift in their view where it’s like, “Well, school is school, but in Mr. Hofmann’s class, I get to earn points and I get to be a Jedi and I can suspend my disbelief and I’m learning history, but at the same time I’m like traveling through the galaxy.” And it’s just amazing how that shift happens just because we’re changing the language a little bit.
Eric Cross (07:29):
Yeah. You seem to have like tapped into something that is already kind of in that zeitgeist culture thing. We’re gaming and it appeals to—I know it appeals to our students regardless of how they feel about even the subject that’s being taught, the fact that they’re immersed into this environment where they’re taking on this character role and they’re part of this bigger narrative. And you’ve so dynamically constructed this whole storyline and these experiences, and they’re learning experiences, like, they’re learning, but they’re enjoying it in a different way. But I wanted to ask you about something that I really admire that you do, and it’s how you grade. And I remember the first time you said this, we were in a parent-teacher conference and we’re all talking on Zoom with these parents and we’re all sharing our spiel. And you go, I don’t grade kids. They grade themselves. Can you talk a little bit about your conferencing with students? The rubric you use like that that, I’ve really been paying close attention to lately.
Fabian Hofmann (08:24):
Yeah. So, when I was working in Hawaii, I noticed I was teaching English, and grading papers in English is really not fun. Like, that is like my least favorite thing. Some teachers are like, “Yeah, it’s grading! Awesome! I can read stuff!” For me, it’s like, yes, I like to read stuff, but I—and it was the same in German class. I gave them feedback. Sometimes I would use oral feedback, I would, like, record stuff for them, and they would listen to it, and then they would work on it. And so I noticed when I’m giving them feedback and its oral feedback, they’re more inclined to actually work on the stuff that I was critiquing, versus when I sat down and I wrote something. They would never read it. Or some would, and most of them would not. And so I was like, this sucks. <Laughs> And I encountered this book called Hacking Assessment, because it’s such a waste of time, right? You spend so much time, because you wanna do the due diligence. And for those few kids who actually do care, that benefits them. But I want this to benefit everybody. And so I read this book called Hacking Assessment, by Starr Sackstein. And she talks about how she put the onus of grading into the student hands, essentially. And so she did standard-based grading and essentially said, “You know what? Here’s the thing. I am not going to grade you anymore. You are going to get a rubric that we are going to dissect and explain and make sure that you understand. And then you sit down and you give yourself a grade based on this rubric.” And I was like, “Wow, what? That is….I can do that? And the cool thing about this book is that she covers all the roadblocks that we as teachers have. And she explains, like, she gives examples on what we can do to convince parents, to convince admin, to convince the community, convince other teachers why what we’re doing is much, much better for a student than the previous system is. If you think about it, when a student comes into school, they start at a hundred, they start the year at a hundred, and all they’re doing is just lose points. And they’re just trying to keep up. Right? And it kind of flips this on its head, because not only with the gamification, I’m changing the name of the game, literally, but I’m also now with ungrading, I’m giving them the responsibility and the accountability to really look at their stuff and really be critical about how they’re doing. And I taught like normal in my first year in Hawaii when I was teaching English, by me grading everything and turning it and giving it to them. And I used peer grade and I did all that kind of stuff. But in the end, I was always the one responsible for the grade. But then I started to do the ungrading move and I just started to conference with kids and started giving them feedback, with the help of gamification, because there’s like a bunch of rubrics you can use to make it more fun. But all of a sudden, kids that in the year before would’ve failed my class in English, because they were English learners; they were just not into it; they didn’t care as much…all of a sudden that flipped completely. I did the exact same content again. We had to write an essay and all of a sudden, the essays were all like, up there, because we sat down, we talked about it, we went through this review process, gave them feedback. In the end, they could say, “Hey, I want this grade. And then I still have the last say. I would say, say, “Yep, sounds good.” Or “If you wanna get an A on this, or whatever it was, a 4, then here are the things you still need to do.” And because I did that, all of a sudden, the students are like, “Oh, that’s all I need to do?” And then they did it and turned it in, and all of a sudden, they got a 4. It’s, it’s amazing how that the conferencing with students, how that shifted their attitude. And I got to know my students way better than I ever had.
Eric Cross (12:20):
Yeah. That’s, that’s one of the things that I’ve noticed. And I watch you get so much more facetime with students having conferences than I do. I find myself grading…and, you know, at our school, it’s mastery-based instruction, so students can retake assessments, but you’re absolutely right: I give a grade; they get a score; and some of ’em score lower, but in their minds it’s like, OK, I’m done with that. And even though they can retake it, such a small percentage actually do. But the information that I give them in the feedback is often not read. But you’re sitting down and having a conversation and really listening and there’s so much more of a connection that you have. I just think it’s so rich. But the question I have now is how do you make the time for those conversations with those kids in your class?
Fabian Hofmann (13:01):
Yeah, it’s definitely a learning curve. Like the first year I did it, it was horrible. Like <laugh>, it cost so much time. Because kids came, because when it was time to grading, because I had not figured it out yet, I had not streamlined it. And I’m still learning. I’m still trying to figure this out and do it even better. But the idea is that you do something, you check in with me really quick. That doesn’t have to be like a full-on conference. It’s—I walk around or I call them up and say, “Hey, I saw you working on this. How did, how are you doing there? How many—” Like, let’s say I use a rubric that gives them crystals for different parts. They write the introduction; they write a bibliography; whatever, so I can bring them up and say, “Hey, how is the bibliography looking?” And they’re like, “Oh yeah, I’m missing…like, I only have like one or two sources.” And then we say, “OK, so right now you would get two crystals out of three because you have something. When you come back, you get all the crystals.” And so that’s a gamified aspect again, right? They’re coming back to get more crystals, not because they wanna do better necessarily. But because they’re like, “Hey, I wanna get those crystals because it gives me points in the game.” They are very good about like grading themselves and kind of like, they’re really hard on themselves sometimes too. And I have students who are like—
Eric Cross (14:08):
Yeah, they are.
Fabian Hofmann (14:09):
“Well, how can you make sure that people don’t just give themselves an eight?” And I’m like, “Because there’s a system in place that that does not happen. Like, there is a rubric, and if they cannot back up what they want, then it’s not gonna happen. They can write an eight all day long. I’m still the person entering it into the grade book!” <Laugh>
Eric Cross (14:27):
And let me premise this for listeners who don’t teach at IB schools, which is probably like most people.
Fabian Hofmann (14:31):
Yeah.
Eric Cross (14:32):
So IB, we teach zero through eight on a rubric system. And seven-eight is kind of like the A, kind of, quote-unquote. I know IB people are probably cringing when I say that, but <laugh>, you know, when you transfer it to like a high school? Seven, eight would be the highest score, you know. Four, five, six. So when we say eight, we’re talking about the highest score.
Fabian Hofmann (14:49):
Yeah. And so it’s really interesting because I can call them out on stuff, and it’s a one-on-one conversation, right? And if, especially if they turn something in that is not great, and they give themselves like a—I don’t know, like a C, let’s say, or a four, or whatever it is—and they’re like, “And you’re happy with that?” And then they’re standing there and they’re like, like, “No…?” <Laugh> And all of a sudden there’s a conversation. Where it’s like, and then I can be very intentionally like, “Hey man, I know you can do better. I would not—I’m not gonna accept this. I’m gonna push you to turn this in again.” And most of them actually sit down and do more. It’s a process. It takes a while. It’s not pretty in the beginning. But the payout is, so it’s incredible. Just like the amount of time that I get to spend with students, like specifically talking to them about things that they still need to work on, celebrating stuff they do, it’s incredible. Like the relationships are just so different than what I had years ago.
Eric Cross (15:50):
And you’ve also created a system where we preach—and schools always talk about this Dweck growth mindset and not having a fixed mindset, but I wonder how many opportunities or how systems are set up that are actually fixed, where it’s like one and done, OK, you did this exam and then that’s it, but there’s no opportunities to grow until the next exam! Which is gonna be….or whatever the assessment is, which is a whole different area of content or different topic or whatever. But here, you’re actually able to facilitate this growth mindset and push back if a student says, like, “Well that’s—I just got a four,” and you can actually pour into them and talk to them. And do you ever hear more about a student’s story as to why they were where they’re at, as you’re having these conferences?
Fabian Hofmann (16:29):
Oh, absolutely. Like for some kids who, who are just like not getting the work done or whatever, there’s always something where it’s not because they’re not smart or because they’re lazy. It’s like, sometimes, literally they tell you, well, ’cause I ask them, “Hey, can you work on this at home?” Or “Can you come in during lunch, after school, whatever? I’m always here.” And then they drop some bombs on you, like, “Hey, my parents, like, divorced. My mom lives in Mexico.” ‘Cause we live in San Diego. So some students live in Mexico and come to school here in San Diego and they get stuck at the border or, even though they have internet at home, they have to share. It’s like kind of what we experienced during the pandemic, where it’s like, there’s like three kids at home and one computer. Stuff like that. Right? And it’s these stories where you’re like, first of all, it’s very humbling ’cause they’re going through stuff that I never had to go through. I mean, my childhood was not amazing, but compared to what they’re going through, it’s like, “Oh yeah, that exists.” And it kind of like puts you in your place a little bit. It’s also because of the system that I use. There’s no late, really, in my class. Some of the students are like, “I need to subtract points from my grade because I turned it in late.” And I’m like, “No, no, no, no, no. The fact that you’re doing it is quote-unquote punishment enough ’cause you have to do it outside of class, you have to do it at home; you have to do it during lunch. Like, that is, that is not comfortable. You’re still doing it. So why would I punish you by taking a grade away? That doesn’t make sense. You got the work done. That’s all that matters.” I try to be that person that like is understanding. It’s still pushing them to do their best and reminding them and harping on them. And with the spark that I threw in there and fanning that flame of them becoming a better student because I’m supporting them. You’re supporting them. We’re all—our seventh-grade team is incredibly supportive. And then some people might push back, like “That’s not preparing them for the real world.” This is the real world.
Eric Cross (18:20):
There’s a lot of life skills that they’re gonna need…but like, they’re 12 right now! Or 11 or six, you know, whatever it is! Let’s—we can hold off on taxes and the crushing weight of adult reality later on. You got it done! Well-done! I do wanna talk about this thing that is your baby lately, this embryonic thing that you’ve been growing and I’ve been fortunate to be able to watch it since its inception. But you have this class that you created from scratch that’s essentially a STEM class. Two questions: Why did you create the class? And you’ve done some uncommon things. I’m gonna leave it wide open just for you to talk about it because it’s your baby and I’ve been fortunate to be able to watch it from the start. So can you talk about that?
Fabian Hofmann (19:01):
So yeah, so I’m obsessed with Star Wars. I think that’s putting it mildly. I love Star Wars. Always have. My classroom game is called Jedi Academy. And I’ve been playing around with this idea of creating a room that is more immersive. So I put a space, like a window to space, on my wall. I have the Millennium Falcon in my room. I have like a bunch of Resistance stuff or whatever. Anything Star Wars, you can find in my classroom. It’s not like overloaded, but I was very intentional in the things that I put in there, because I want my students to come in and feel like they are playing the game. And one of those things that I used was like smells; I used sounds to try to immerse them more. And then so one day I was like, wouldn’t it be cool to create a classroom that looks literally like a Star Wars set? Like you walked onto a set. Onto a spaceship, onto a rebel base, onto whatever it is. And how can I, how can I make that happen? And then we talked about it and you were like, “Yeah, how about you let the kids do it?” And that’s kind of how the course was born. And now I have students in my classroom who are in the process of designing a classroom based on Star Wars. And they’re gonna build everything. And we’re all learning at the same time. I’ve never done anything like this. I do like STEM, but I’ve never like actually made it a class. And so I contacted a bunch of people on LinkedIn ’cause I was like, it would be cool to talk to an Imagineer and to get like my foot in the door at Disney and then have an Imagineer come in and tell us about what they did. I have this book called The Art of Galaxy’s Edge, which is like the Star Wars land in Disneyland. And I just looked at the list and was like, “Who could be a good person to contact here?” And it said one of them was Eric Baker, and it said, “Executive Creative Director.” And I googled him or I looked for him on LinkedIn and I found him and I was like, “I’m just gonna send him a message. I’m just gonna tell him what I do in my class in history, gamification and all that, and they’re Jedi, and blah, blah, blah.” And he wrote back! Like, he was the only person that wrote back. I wrote a bunch of people and he was like, “Yeah, I’d be super-interested. I don’t know what you want me to do, but I’m down.” And so it created this relationship between me and Eric Baker who used to work for Imagineering, who are like the people at Disney who create the rides in the park and all that. And I talked to him and he gave me some feedback on the room. And then he was like, “Oh, so if you ever want me to talk to students, I’m down.” I was like, “Uh, yes!” And so we had him Zoom in. He talked about his life and how he became one of the people to look for when it comes to theme park design and to create immersive experiences. And I contacted other people on YouTube, like somebody who is like a Star Wars room builder. He’s willing to chat with us about this project. And then, I discovered that there is this thing called Imagination Campus at Disneyland, which they offer workshops on immersive storytelling. And I was like, “Oh, that’s what I want! I want my students to tell a story with my room!” And so I wrote up a proposal. Took a long time, but they signed—our admin signed it off. We kind of financed it. And then, about two weeks ago, you came along, another teacher, and we took 30something students to Disneyland and they did this workshop where they learned all about like how the Imagineers design story elements and put them in the parks. And then we took all of the kids to Galaxy’s Edge. And we took a bunch of photos. We went on the rides together. We had this collective experience. And it was life-changing for a lot of students. Because, I mean, we’re a Title One school; there’s like, we have about 60% free or reduced lunch. And a lot of them had never been to Disneyland. About half of them had never been. Some of them went when they were little. And so just watching their faces, going to Disneyland, watching them walk into Galaxy’s Edge, experiencing all these things, it was just, my mind was just blown. And I like literally, I don’t know if you noticed, but I was just smiling. Literally.
Eric Cross (23:19):
You were loving it.
Fabian Hofmann (23:20):
Yeah. Then we come back and we have these amazing conversations about design and what they noticed and how they created this immersive experience in their world. And we talk about how we can bring this back to our classroom. And parents are sending emails saying, “Oh my God, we’re so happy that you did this for our kids and you’re the coolest teacher.”
Eric Cross (23:39):
You touched on something that I wanted to ask you about. So you stay connected to people that inspire you, I feel like, or you have a pretty broad network of educators and professionals. Like, how much does that play into what you do in the classroom and the ideas that you have, as your network or your community of people?
Fabian Hofmann (23:57):
So the one network that helped me the most is Twitter. And I know people have opinions about Twitter, for good reason. But when I started to gamify, I just started to follow specific hashtags for areas that interested me. And that was gamification; eXPdup, which is like Explore like a Pirate—it’s an acronym. And it just opened up all these people, all these people, all these educators who are out there just like doing cool stuff and sharing it on Twitter. And I started connecting with them. And one of them is on my podcast. We met through Twitter; we started sharing stuff. We started talking about the things that we do. We both happened to have a gamified classroom. And so we connected over this thing Twitter, and now we’re like friends and we’re presenting together at Q and all those places. Teacher Twitter is incredibly supportive and people want to show you the stuff that they work on, just like I do. Like when I have stuff that I worked out, I shared it on there. And it’s so fun to hear back from teachers saying, “Hey, this looks awesome.” It’s just, it makes you feel good and it makes you feel like, “Oh, what I’m doing is not a total waste of time.” <Laugh>
Eric Cross (25:10):
<laugh> Those thoughts do creep in, right? Like, even though you’re doing something awesome and you might think so, we become our own worst critic sometimes, or we always see the things that we can improve and we overlook the things that we’re doing well. Fabian, where can people hear more about you, about gamification, about what you’re doing in the classroom, about how you’re innovating? I know you talk about this stuff with some—and you talk about it with some pretty legit people in the education industry. So can you tell some folks where they can hear more about it?
Fabian Hofmann (25:37):
So you can find me on Twitter at Hofmann edu—one F, two Ns—edu, and then I also host a podcast called Rebel Teacher Alliance. There’s three of us, where we talk all things gamification. But we also talk to teachers who don’t gamify at all. And we just, we just invite people who are interesting, who have stuff to share, who do cool stuff. You can find the podcast on the internet at Rebel Teacher Alliance dot com. Follow us there. If you wanna be a guest, just send a message and we’ll get you on.
Eric Cross (26:10):
Fabian, I’m gonna gush on you right now, but when you came back to Einstein, I was so happy because I knew that you sharpened me; you make me a better science teacher. Your innovation, your passion for kids, your sense of humor, your outside-the-box thinking, all of that. And when you got onto the seventh-grade team and you were here, I just knew that it was going to be awesome. And it has been. And so as a teaching colleague, as a friend, dude, you just rock, man. I’m super proud of you. And thank you for making me better.
Fabian Hofmann (26:40):
Aw, now I’m starting to cry. It’s like, don’t…
Eric Cross (26:43):
<laugh>. All true, dude. All true, my brother.
Fabian Hofmann (26:46):
Thank you.
Eric Cross (26:46):
All true. And thank you for letting me be part of the journey and I will definitely be walking down the hall asking you questions as I try to implement some of these great ideas that you’re doing with kids. Thanks so much for listening. And now we wanna hear more about you. Do you know any inspiring educators? Nominate them as a future guest on Science Connections by emailing STEM at amplifycom.wpengine.com. That’s S T E M at amplifycom.wpengine.com. Make sure to click subscribe wherever you listen to podcasts and join our Facebook group, Science Connections: The Community. Until next time.
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Meet the guest
Fabian Hofmann is a middle school International Baccalaureate teacher and host of the Podcast, Rebel Teacher Alliance. He is currently teaching 7th grade History and Multimedia Design just down the hall from Eric Cross at Albert Einstein Academies Middle School in San Diego. To engage students, he uses technology and gamification. Students embark on a year-long journey through a galaxy far, far away to learn the ways of the “Force” and some world history along the way. Follow him on Twitter and check out the Rebel Teacher Alliance podcast.

About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.
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S2-03: Building meaningful student connections in the science classroom

In this episode, Eric Cross sits down with Indiana State Teacher of the Year, Sharita Ware, to talk about how to successfully build meaningful student connections in the science classroom. Sharita shares her journey from a corporate career to becoming Indiana’s 2022 Teacher of the Year, and her passion for creating project-based lessons for her students. Together, Eric and Sharita discuss how educators can teach students to love science content by building strong relationships, adding in other content areas, and supporting students’ imagination. Explore more from Science Connections by visiting our main page.
Sharita Ware (00:00):
I try to create that equal playing field where there’s nobody’s voice, that’s more important than anyone else’s and try to make them all feel that what they have to say is important.
Eric Cross (00:14):
Welcome to science connections. I’m your host Eric. My guest today is Sheta where Sheta is the 2022 Indiana state teacher of the year. And in her 10 year career, as an engineering and technology teacher, she has dedicated herself to helping students build knowledge and skills for high school and life. Beyond. In this episode, we discuss how she inspires her seventh and eighth grade students to build problem solving and critical thinking skills through hands on real world and collaborative projects. She is as humble as she is knowledgeable and through our conversation, it was easy for me to see why her students feel successful under her guidance. And now please enjoy my conversation with Sharita Ware.
Eric Cross (00:59):
Can I start off by saying congratulations on teacher of the year. Thank you for the state of Indiana. Um, that’s amazing. So I, I, I did watch, uh, your videos, uh, short interviews, and then you spoke, was it Purdue? Yes. You were there. And so, uh, to see if fellow seventh grade, eighth grade science teacher out there being celebrated, like I was so excited, so yeah, I wanted to congratulate you on that and, and just kind of talk to you about like your teaching journey and ask you, uh, maybe just kind of start off with your story about what brought you into, into the classroom, especially the middle school.
Sharita Ware (01:29):
Classroom. So what happened is when I was working in industry as an engineer and when my husband and I got married, we decided that I was gonna, um, stay home with the kids because, you know, we wanted, um, our influence to be greater on our kids than, you know, the people that would be watching them, you know, because they would ultimately spend more time with them than they would with us. And, and so, um, I stayed home and when my youngest was going to be going to kindergarten the next year, I was like, okay, what am I going to do? Cuz I really don’t necessarily feel like I need to stay at home. Mm-hmm <affirmative> but um, I knew going back to industry would be a challenge just because in my field, I, I was traveling a lot before I got married and had kids.
Sharita Ware (02:14):
And so I knew that that wouldn’t really be conducive to again, raising children. So I, I get this email, my inbox for Woodrow Wilson, teaching fellowship at Purdue. And they were just looking for people in stem fields to go into teaching. And I was like, okay. And it was a national search, you know, I filled out the application, we had to go in and do some sample teaching mm-hmm <affirmative>. And I was picked as, as one of the, the teachers to go through the program. And I started off thinking I wanted high school. And the really cool thing about this, uh, program is that we had long observation periods at high school and at middle schools. And so we would go to a school and we’d stay there two or three weeks. And so it, it kind of gave you right. A little bit more insight to what happened on a daily basis. And after those observations, I was like, I like middle school better than I, uh, like high school. And so I just kind of went that direction and you know, the rest is history. So
Eric Cross (03:19):
I feel like our stories are similar because I went into teaching thinking I wanted to do high school because I like the maturity and you a little bit more sophistication, advanced things, but yes, middle school, I felt like I can, I could get them more upstream before and kind of help shape mm-hmm <affirmative> that experience for them? Because I feel like at middle school is really where they kind of decide like what they can do based on their experiences.
Sharita Ware (03:39):
I found in the middle school that the kids, I mean, they just, they clamor around you and they’re like, what are we doing today? You know? And they get so excited and, um, they’re, they’re just, I don’t know, I guess in some ways, just more hungry in the sense of like they’re willingness to, um, now sometimes they’re a little reluctant, but you know, their willingness just to try new things. And I think, um, my students really what I have found over the years that they have found a safe space and I hear the kids, you know, say to me so many times that, you know, it it’s safe. I feel, I feel safe in here. And, and it’s not something that in my mind I’m thinking about, oh, I need to make this a safe place. It’s just, I guess part of just who I am as a person has created this environment of, of safety and, and the kids recognize that, you know, I don’t play favorites. You know, everybody starts out mm-hmm, <affirmative> on equal footing. I, I don’t care what your backstory is. I don’t care how many times I see you in the hallway when I’m walking during my prep. You know, when you hit my room, I’m, I’m gonna treat you the same way on day one, that I treat everybody else.
Eric Cross (04:54):
You really understand how to build culture with, in, with your classroom, with your students. And, and you said they feel safe, but is there anything that you do that someone could like apply? And like you found that you’ve gotten a lot of just relational capital through doing these things, or is it just your personality? Like how, how do you build those connections?
Sharita Ware (05:12):
You know, growing up being a, a very quiet person. I, I think a lot of times my voice was ignored because I was the quiet kid in the back of the room. And oftentimes I became seen or heard because of my work, you know, in the beginning it was kind of like, oh, she’s just this quiet girl in the back of the room. And then, you know, the first essay was due or the first project was due. And then it was like, oh, you know, then you’re the person to be on, you know, people’s teams. And, and that, I don’t know, that always kind of bothered me because, you know, I’m thinking just because you’re not the loudest person in the room doesn’t mean that you don’t have something to say, mm-hmm <affirmative>, you just might not be talking all the time. You know? And, and so for my students, I just, I try to create that equal playing field where there’s, nobody’s voice, that’s more important than anyone else’s and try to make them all feel like that what they have to say, or what they have to contribute is, is enough, is good.
Sharita Ware (06:14):
Enough is important as…
Eric Cross (06:16):
It is, as it is. And there’s probably a lot of things that you do. But in addition to building these relationships, what do you do? Like how do you make your learning fun for students?
Sharita Ware (06:25):
I think, um, I’m also a little bit on the silly side. Um, we do a, a Barbie prosthetic leg project, and this was after trial and error of having the kids make full size prosthetic legs. And I try to make it as real world as possible, but with none of the children being amputee or, you know, having access to someone, it was really hard for them to really visualize what needed to happen. Mm-hmm <affirmative>. And so, um, I found this Barbie that had a prosthetic leg and I was like, well, LA, so I just started collecting Barbies and chopping their legs off <laugh>. And so I have this jar of Barbie legs. And so, and I said, you’re gonna make prosthetic legs. And I lay this jar of legs on the counter and the kids are like, like they gasp and then they crack up and then they’re like, okay, this lady’s crazy. So…
Eric Cross (07:22):
That’s when you take off your scarf and there’s this necklace of just Barbie legs that are just around and you’re like, I’m a middle school teacher and they go, oh, okay. I understand. Yeah. Yeah. It’s totally fine. Is this a lesson that someone that you made up or is it something that you’ve re remixed? Is it something that someone could do if they looked it up anywhere?
Sharita Ware (07:38):
Um, so I think teach engineering has the, the full size leg that the kids make. And that’s where I initially got it from.
Eric Cross (07:47):
Is that the website teach engineering?
Sharita Ware (07:49):
Yes. And, um, I, in fact, I get lots of ideals from there. Um, and I, I always usually tweak them, but it’s, it’s one of those things that kind of gets your brain going. And so it was kind of a mixture of, uh, project lead the way gateway to technology and the teach engineering. And I think the project lead the way had us making like braces, uh, for, um, kids with, um, like cerebral palsy or, or something like that. And the kids did okay with that project. Uh, but I wanted to go just a little bit, uh, deeper with it because part of what I was wanting them to do is that context and that connection, that human connection, because for me, it’s not just enough for them to make a project. Uh, before we start this prosthetic leg, I read them a story out of a Scholastic magazine, and it’s a, a teenage girl that lost her leg in a boating accident.
Sharita Ware (08:42):
And she was super active, um, playing sports and running. And, and so I was, you know, trying to get the kids to, you know, make that connection, someone close to their age. Um, and then how it’s not, it’s, it’s more than about her physical healing. It’s also about her mental healing and how she had to, you know, talk to herself to say that she could, you know, recover and, and come back from this and still go on to do all of the things that she was doing before. Um, and in some ways it’s kind of cool because, um, you know, she has a running prosthetic, she has a, a swimming prosthetic, and she has her every day with the pain and toils prosthetic. So just trying to, you know, help them to see that it’s more than just the, you know, the biomedical mechanical engineering aspect of the project.
Sharita Ware (09:30):
And so they have to design for comfort. They have to design for, um, swelling. And then, um, they also can, if they, if they want to, they don’t have to, if they want to, they can create their own backstory. So when they get there, um, we have a day where they are introduced to their client, so they get to meet their Barbie and, and then they get to decide if they want a backstory and, and then do their research based off of that. So if it’s someone that was a runner, then they can design a prosthetic running blade. So just, they have lots of, uh, flexibility.
Eric Cross (10:04):
The, that aspect of adding the narrative. It does so much for like listening to it on the outside. It one, it adds this humanity to, you know, what can sometimes just feel like it may be cold, logical stem. We’re just, we’re just doing things. We’re fixing things. We’re, you know, we’re discovering things, but really the stem has value when we’re actually applying it to, to, to serve humanity or our ecosystem or whatever it is. There was a, a coding, uh, class I was doing with my students and I showed them this app called be my eyes. And it’s for people who are visually impaired and it pairs them with a volunteer. And when they call, and there’s a whole huge pool of volunteers and I’m one of them. And when my, when it happens in class, I answer and it uses the FaceTime. So the person who’s visually impaired is holding up their phone and you see what they see and you tell them and real time what’s happening.
Sharita Ware (10:54):
Oh, wow. That’s so cool.
Eric Cross (10:56):
These are, these were the things I think for students that the story, the, the human part of it, mm-hmm, <affirmative>, it must bring in so many more students into engagement.
Sharita Ware (11:05):
Yeah. I, I feel like it does because I, I think, um, and, you know, along the journey, they kind of lose, um, they lose sight a little bit because, you know, they get out in the lab and they have access to all of these different materials. And I think, you know, truly making it, you know, project based for me is I try not to control the materials too much. Um, I try not to make it so wide that they just get lost, but I try to throw a few curve balls in there, you know, of, of materials that really don’t make sense to use, but they kind of think they make sense to use. Um, because the, the, the meat of it is that the prosthetic leg is a similar size of the original leg and that the, the knee functions. And so I don’t limit, and I grade them off of efficient use of materials.
Sharita Ware (11:59):
So, and that just throws them off because I think, well, how many Popsicle sticks can I use? And I’m like, you can use as many as you like, but remember, this is a prosthetic leg that, um, your Barbie, which is one six scale, um, is going to be wearing all day. So you could think that a Popsicle stick, if you chose to use a Popsicle stick is kind of like dragging around a two by four <laugh>, you know? So do, is that what you really want to use as your material? And some of the kids really think about it and saying, okay, I’m, I’ve got this aluminum rod, okay. This is probably what I would use for my bone structure, because it’s lightweight, but yet it is supportive. And then sometimes they come up with their own ideas in terms of materials, like one student brought in his, um, 3d doodle pin mm-hmm <affirmative> and he made joints and everything with this pin.
Sharita Ware (12:54):
And I’m, and I had delayed buying one, cause I’m like, I, how do you have control over that thing? Mm-hmm <affirmative> he brought that in and he did probably two or three iterations of it and, and got it to work where even the knee where it bit back 90 degrees, but it stopped. He made like, so that it didn’t bend forward. It blows my mind. I’m like so many UN unexpected things have, have happened just from my, um, teaching style. Now I did have, my first few years, I had a, a teaching coach, um, come in and, um, I asked her to come into my room because I just wanted to make sure because I was not a traditional teacher. She said, this classroom is amazing. And, and I think the one thing that she helped me with was, was purpose and consistency and the sense of making sure that with the standards that all of these cool things and ways of being, um, that I was doing in my classroom, that, that I kept it purposeful and intentional. So many times as educators, I know in having student teachers again, ask yourself the question, what is the big picture I want the kids to take away. And once you ask that question, then everything that you have them do will lead to that big picture. Well, it should lead to that big picture.
Eric Cross (14:22):
So it sounds like they’re, you’re starting with this end goal in mind and then kind of backwards planning to get there. Yeah. Do you think you would’ve been the same type of teacher if you would’ve gone straight from college into the classroom? No. And if, if, no, as you’re shaking your head, what do you think it is about? Cause I’ve been asking myself these questions, like just over the years, what is it about coming from industry and going into the classroom? Do you feel like, is how has that impacted you in how you teach?
Sharita Ware (14:45):
Well, I think it’s twofold cuz I was older. I already had three children. I think the combination for me, I think is I was already a mom and I had worked in industry. So the behavior aspect of kids and, and then having that real world experience. And I, I just feel like whether it’s in the classroom, um, marriage, kids, to me, it’s 90% relationship, you know, and the rest will work itself out. That’s, that’s just my, my take on it. But I, I feel like having kids, so some of the behavioral things I kind of was aware of, you know, and just learned many times just not to react to some of the things that they did.
Eric Cross (15:31):
Which is huge. Right. Especially in middle school is controlling your reactions.
Sharita Ware (15:35):
Yes. Cuz that’s what they want. You know? And, and I had this student last year as well. She’s brilliant. And so if she cannot wrap her mind around the purpose of what you’re doing and, and you’re pushing her to do something that she doesn’t think is necessary, mm-hmm <affirmative>, she kind of has these meltdowns. And, and so we just had this, you know, I don’t know, we just came to this understanding and it, and it works to control the meltdowns. I tried to make sure. And, and I used her as a gauge because I knew she wasn’t, she wasn’t getting upset because she didn’t understand. She didn’t understand the why mm-hmm <affirmative>. And so I felt like if she got the why then so would everyone else. So when she, if she was okay with it, then I was like, okay, then I must have explained it well enough.
Sharita Ware (16:25):
And so in my mind that I really need to make sure they understand the, again, going back to that purpose <laugh> and intention, making sure that that is clear. And then I think that’s what gets lost. Sometimes mm-hmm <affirmative> uh, with us as teachers, we, we know where we want the kids to go and we want us to trust the process, you know, just do it because I said so, but sometimes, you know, empowering your children to under to understand the why, because that again is what allows them to be able to do bigger and greater things on their own. So on that next project comes along. They’re starting to tell you, well, first we need to make sure we understand what, um, we’re being asked to do to do. So we have to define the question. We have to make our driving question that will help us stay focused. And, and you’re just standing up there going, okay, now you don’t need me. I’ll go here and sit down. <laugh> so it’s, uh, it is really cool.
Eric Cross (17:28):
Now I’m thinking about my own kids. Like, do my students know the why behind the lesson we did today? It’s one area of growth that I wanna make sure I do this year with my students. And so I really appreciate that. So the, and you just hit on something that is, has been in the forefront of my mind lately and math and English as you know, tend to be prioritized in schools everywhere because it’s what state tested. And it’s what, you know, this is a whole other conversation, but I’ve been talking to math teachers frequently about one of the challenges that they experience or they’ve been telling me is that math is kind of taught. Like it’s just computational, you’re solving these problems, but it’s really separated from any real life application. A lot of times, you know, it’s pizza or gumballs or, or just fictional scenarios and students don’t perform well many times. And some of the reasons why is cuz just no connection. I don’t want to solve puzzles. Like it’s not my jam. Do you have any just inside or, or perspective on how math is, is taught in maybe a way that you think it would students would benefit more?
Sharita Ware (18:32):
You know how kids learn in elementary school, you’ve got this, the same teacher teaching all of the subjects. And so wouldn’t that be an awesome opportunity for you to have like these, these projects where I feel like you could, a class could legit work on the same project for a whole entire year. And so couldn’t the English be writing your persuasive letter to the mayor, asking him to do this or do that. And the process of doing that they’re, they’re, they’re writing with a purpose with a true purpose. Um, and then when they’re doing math, you know, they want, they want a new neighborhood park. So, you know, well how much is this gonna cost? Well, math, what size is it gonna be math? Let’s see what it looks like, art, you know, you just, you have all of this things. And then of course then science.
Sharita Ware (19:32):
So if it’s on a heel, how can we, you know, deal with erosion? And you know, you can just pull so many different things into that. And so not only are they learning, but they’re narrowed in and focused on a project, they’re, they’re able to dive deep into, you know, learning more of learning, how to express themselves and communicate with real people. So it’s more of taking these compartmentalized learning that we do in middle school and high school. Mm-hmm, <affirmative> where you’re almost learning apprenticeship style. Mm-hmm <affirmative>, you know, you have these master educators and it’s not about them being the best at math or being the best at this or that. Cuz there’s so many tools now that could help you through that. But you’re, you’re giving, you’re teaching them so many life skills and so many ways to think and problem solve that, that we’re just that the kids just don’t have.
Eric Cross (20:27):
I think that that is amazing. And I think that in that situation, what I’m hearing is we’re going deeper, not wider because there are a lot of different concepts that kids are expected to learn. Or I should say there are several concepts that teachers are expected to teach doesn’t necessarily mean that our kids are learning, but we’re teaching them. And this way you’re embedded it into an authentic context. Students are able to go through this cycle just like real life. And then they’re also able to build these kind of really transdisciplinary skills. Not only am I learning the math, the English, the the, but I’m also learning the interpersonal skills of being able to sell myself and present myself in a way that’s winsome. And it’s especially powerful coming from someone from industry. Last question, even just listening to you, I know you, you are this for a lot of people, but I wanted to ask you who inspires you?
Sharita Ware (21:14):
I think there have been lots of people over the years. Like I’m thinking of my shop teacher who has since, uh, the last few years passed away. Um, he was one of those people, I think similar personality to me, super quiet person, but he was always in the background on my journey and his name was Joe Mo and we called her Madam Carol was my 10th grade English lit teacher. And she was the one that started reading my work out in front of the class. And you know, and that just gave me courage, not so much to be seen. Uh, but that the work I was doing was, was good. And, and I think I needed that kind of encouragement. Lastly, my students inspire me because when I look at their faces and see the excitement, I think of those students for the first time and, and, and think about this seventh and eighth graders for the first time feeling like they really have something to say, they really have something to contribute of value. And, and I do it for them. You know, the reason why I am here in this moment is because of them. Um, without them, you wouldn’t be talking to me <laugh>
Eric Cross (22:37):
This is, this is true. This is, this is true. You would probably never say this about yourself, but you just exude a humility and a service in how you talk about your students and yourself. And I just wanna thank you for using your gifts, but I don’t wanna just call them gifts because it makes it sound like you didn’t earn ’em and your skills that you’ve earned and worked very hard to acquire over the years to go back into the classroom and leave industry, cuz you, you could have gone back to industry too, but you decided not to. And you could have worked in the industry and your hours were a little different pay is a little different, but you came back to serve the kids of Indiana and because of you and because of that choice, those students have a brighter future and believe in themselves and they’re finding their voice. And I want to thank you for that and for representing all of us stem teachers who are in middle school and being that leader. So thank you for that and thank you for being on the podcast.
Sharita Ware (23:24):
You’re welcome. Thank you for having me.
Eric Cross (23:28):
Thank so much for listening. Now we wanna hear more about you in the amazing work you’re doing for students. Do you have any educators who inspire you? You can nominate them as a future guest on science connections by emailing stem, amplifycom.wpengine.com. That’s ST E M amplifycom.wpengine.com. Make sure to click, subscribe wherever you listen to podcasts and join our Facebook group science connections, the community until next time.
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Meet the guest
Sharita Ware, a Purdue University graduate, is in her 10th year of teaching engineering and technology education to middle school students in the Tippecanoe School Corporation. Ware challenges her students with real-world, problem-based design scenarios that will help them contribute to global technology and integrated STEM. Follow her on Twitter and Instagram.

About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher. Listen here!
You might also like:
S1-02: Community and joy within K–8 science instruction: Desiré Whitmore

In this episode, we join Eric Cross as he sits down with physicist and science education specialist, Desiré Whitmore. Listen in as Desiré explains her work at the Exploratorium, a public learning laboratory. Eric and Desiré discuss finding passion in science, the importance of meeting students we’re they’re at, and K–8 science instruction with real-life connections. Desiré chats with Eric about her work on supporting the science of teaching science content at the Exploratorium museum.
Explore more from Science Connections by visiting our main page.
Desiré Whitmore (00:00):
I think it’s really amazing when we can realize as teachers, like, no, our job is not to just enforce rules on our students, right? Our job is to help students to achieve more learning.
Eric Cross (00:37):
Welcome to Science Connections. I’m your host, Eric Cross. My guest today is Desiré Whitmore. Desiré has held positions as a science curriculum specialist with Amplify Science, a professor of laser and photonics technology at Irvine Valley College, and is now the senior physics educator in the Teacher Institute at the Exploratorium in San Francisco. Her current work is focused on providing support and professional development to middle and high school science teachers to help them teach through inquiry. In this episode, we discussed Desiré’s pathway into physics, the impact of educators in her life, and the importance of representation for students in the classroom. I’m so excited for you to meet my physicist friend, Dr. Desiré Whitmore. All right. So just like a superhero, STEM superhero, you have an origin story and so—
Desiré Whitmore (01:36):
How long is this podcast gonna be? ‘Cause, you know, I can talk for days, so you—
Eric Cross (01:40):
I know, I know! But it’s, it’s…so, OK. We can give us a highlight. So, you know, 30 minutes. But what would be the origin story? You can start from any point in time, but what’s that journey like?
Desiré Whitmore (01:51):
I’m gonna start at the beginning, when I was really young, just because I think it’s important. Neither of my parents were college-educated. My mother didn’t finish high school. My father went back and got a GED later. But my father’s grandmother, her name was Claudia Pairs, and she was a teacher, right? So when I was a kid, she actually kind of raised me from, I don’t know, until I was around seven or eight. And so she was very important in who I became, I think because she taught me that college is important and she taught me to think. She taught me to ask questions. She taught me how to ask questions. Just the Exploratorium likes to do. Which is why I fit so well here. She taught me to always wonder and always think about things. And I remember as a kid, she taught me to count and read and write when I was, like, three. And she would always have bubbles at her house. And I was obsessed with bubbles. I thought bubbles were the coolest thing in the world. And just how you can take your breath and create this thing that now you can see, and it’s your breath, right? It’s your breath inside of a bubble and it’s flying around and it has all these cool colors, and then it would fly up and then eventually just pop. And you’re like, where did it go? Now my breath is just up there. Not understanding, as a kid, but my breath is always everywhere. I didn’t understand any of that, but I understood that my breath was inside of a bubble. That’s my earliest memory of thinking about science, was from that. And she was not a science teacher. She was—I don’t even know what she taught. I think she was an elementary school teacher, maybe. She died when I was 12. So I don’t have super-strong memories or of understanding who she was, only that she raised me and what she taught me as a kid. But that in itself really helped me because then when I was in the environment that I was in at home with my parents, which was not at all the environment she provided for me, I always had the things she taught me in my head, right? So I was always asking questions. My mother hated it. I was always taking things apart and putting them back together. So I used to take apart TVs and VCRs and vacuum cleaners and telephones, and my mother’s like, “Oh my God, I’m gonna murder you.” And she tried a couple times, too.
Eric Cross (04:25):
Did you ever put ’em back together and realize you had extra parts? You’re like, oh, hi.
Desiré Whitmore (04:29):
Oh yeah. All the time. Yeah. Yeah. VCRs have a lot of extra pieces. You’re like, “What do you even…it still works. It’s fine.” <laugh> You know? And vacuum cleaners too. They had a lot of extra parts, <laugh> all the time. And TVs. I should not have been playing with TVs. But like I said, I didn’t have a lot of parental, guidance as a child. So, like, whatever—I’m opening up TVs.
Eric Cross (04:54):
There’s a lot of open inquiry going on in your household. Yeah. Unsupervised.
Desiré Whitmore (04:59):
Unsupervised. But I didn’t know what it was or what it meant as a kid. I mean, I used to put things in the microwave. I did so many microwave experiments as a child, trying to cook different foods or melt different things. And so I think those kinds of experiences, where I was allowed to just be curious, kind of shaped who I am today. And then I kind of got into…you know, when I was in school, I loved math. In 10th grade, I had my first Black teacher, he was my chemistry teacher. His name was Mr. Strickland. And I was like, chemistry is cool, dude. And he was not the best teacher, but he was fun. Like you were saying, he was me, and he was talking to us the way I speak. And he was so like, just kind of chill and happy-go-lucky, I guess. But he wasn’t…he hadn’t taught chemistry in a long time. So he wasn’t a very good teacher. And me and one other kid in the class were in love with chemistry. And so we would read the book and do all the homework and he’d be in class lecturing and we’re like, “That’s not right, Mr. Strickland, like, what are you talking about?” And then he’d be like, “Oh, really, Desiré? Do you wanna teach the class, then?” And I’d be like, “Yeah.” And so I would go up and I would teach my chemistry class in high school, because the teacher was trying to make an example out of me. But he was also, I think, willing to be like, “I really don’t know.” And I really appreciated that. That he wasn’t just like, “I know all of the answers and you’re wrong.” Like, he wasn’t being a jerk, right? Like, the fact that I said, “Yes, I do wanna teach it,” and he actually let me do it? That’s pretty dope. And then I liked physics in my senior year in high school, but I didn’t think it was where I was gonna go or anything. I loved music and I loved math. Those were my two subjects.
Eric Cross (06:51):
What was it about math that resonated with you?
Desiré Whitmore (06:55):
I think it helped me understand the world a lot better. I didn’t have strong science teachers, I guess, growing up. It was a lot of reading out of books or watching laser discs in class. That’s how old I am.
Eric Cross (07:12):
Laser discs.
Desiré Whitmore (07:13):
Laser discs. And you know, so there wasn’t a lot of…I moved around a lot as a kid. I didn’t have this straight curriculum. You know, in one year, in the third grade, I went to three different schools.
Eric Cross (07:25):
Mm. Oh wow.
Desiré Whitmore (07:26):
It was kinda hard for me to latch onto school. But with math, because I could look at math and actually understand the world in it, I could see how math can be used to describe how things work.
Eric Cross (07:40):
I almost imagine, especially with so much transition in your life, it helped make sense of things. You had a lot of transition going on, but you were able to understand the world through the process of math. And then this early exposure, it kind of reminds me my own story too. Because there were these books that would do these cross sections of a cruise ship or a machine; that’s what got me really into engineering. Kind of How Stuff Works. I would watch that on Nova, How Stuff Works. I’d always be fascinated. Even Sesame Street had a segment where they would show you crayons and how the dye was added. You remember that?
Desiré Whitmore (08:19):
Yep. Yeah.
Eric Cross (08:20):
Young Desiré, doing photronics…photronics?
Desiré Whitmore (08:24):
Photonics.
Eric Cross (08:24):
Photonics. Photonics at home with the microwave and all these other things.
Desiré Whitmore (08:29):
Sure. How ’bout that.
Eric Cross (08:30):
<laugh> Right. And then loving math. So, early, I could see this combination, sort of this alchemy, happening inside you. And then, how did that lead to you becoming a physicist?
Desiré Whitmore (08:46):
It’s not as straightforward as it seems it should be. It’s obvious to everyone. <laugh>. But it wasn’t obvious to me. ‘Cause I wanted to be a lawyer. You know, because my parents weren’t educated, they didn’t really know…both of my parents and their subsequent spouses when they broke up—so my parents and my stepparents—are all bus drivers. And so they don’t know what options are. Right? So for them it’s like, “You have to be—you can be a doctor. You can be a lawyer. ‘Cause you’re smart. I know you’re smart, so you’re gonna be one of those things.” And I was like, “I don’t wanna be a doctor. That’s not actually interesting to me.” I did wanna be a teacher when I was younger, because I knew that my grandmother was one. But yeah, I went in and I was like, “I’m gonna be a lawyer. I’m gonna be a lawyer.” And then I go to college and I was like, ‘Eh, I don’t. I hate writing.” <Laugh> Like, I love reading, but I don’t writing. So I don’t think I wanna be a lawyer. I love music and I love math. I was originally going to major in music and math, but then I went to community college because I missed my opportunity to go to university for…long story. And so I’m at community college and I was like, “You know what? I’m gonna just do something new. I’m gonna be a marine biologist.” So my major was marine biology, and then they’re helping me pick out my classes. And they had zero math there. And I was like, “Pardon me. I think there’s a mistake, but I’m not taking any math.” And they were like, “No, you’re done with all your math. For marine biology, you only need calculus. And you took all of that in high school, so you’re done.” And I was like, “No, this is not gonna work for me, dude.” So I continued taking calculus anyway and moving on in math. And then I realized that biology wasn’t what I needed, but I did love my chemistry and I loved my physics classes. So I asked those teachers—chemistry, physics, and math teachers in community college, my professors—”I don’t wanna be a marine biologist and I don’t wanna be a lawyer. What do I do? What do you think I could study? I really like chemistry and math and physics.” And so all of them, all three of these professors told me, “Oh, it sounds chemical engineering would be good for you, so you should be a chemical engineer.” And I was like, “OK, cool. No problem.” That’s what I did. So I got my degree in chemical engineering. Right. And I finished community college, studying chemical engineering. I was like, “This is really cool. This is a lot of fun. I love engineering.” And then I transferred to UCLA as a chemical engineering major. And I was like, “I hate this.” <Laugh>. “I hate it a lot.” It was just…
Eric Cross (11:07):
What was it about chemical engineering that you were just not feeling anymore? What was it that just made you go, “nope”?
Desiré Whitmore (11:12):
It didn’t—at least the way it was taught to me—it wasn’t as as…exploratory, I guess. There wasn’t a lot of theory in it. There was just a lot of “OK, pull out a ruler and you’re gonna draw a thing and then this is how you’re gonna build a reactor.” And it didn’t seem very scientific to me. The science was missing. And don’t get me wrong, I understand, now that I have a degree in chemical engineering, that it’s not that chemical engineering is not scientific. But it’s that you build up the science and then you don’t focus on it. You focus on the engineering aspect of it. Which is, you have the science and the scientists will work on that aspect. But then how can WE do kind of larger batch chemistry. And for me, that was just less interesting. It was a lot of pushing buttons and just plug-and-play equations stuff. Instead of diving into first principles of why things happen in chemical engineering. There was no “why things happen”; it was “this is what happens, so this is the next step.”
Eric Cross (12:25):
You had to go so far into your academic career to realize that this is what chemical engineering is. And we were talking about representation, and not having examples or parents; your families were bus drivers. My mom was a receptionist and executive assistant, things like that. And I was the first of many, like you…we kind of had to go through and invest all this time and money to finally get to this place to realize, “This ain’t it.”
Desiré Whitmore (12:58):
This is not for me, yeah.
Eric Cross (12:59):
This is not for me. That was a long journey to get to that point.
Desiré Whitmore (13:03):
It was. Especially because I went through community college and I took a long time in community college, ’cause I was working full-time. So I was working full-time, going to community college. Took me a while. And then I finally get to UCLA. I’m like, “Yeah, I’m finally gonna get my degree and go make money!” And then I was like, “Ooh, no.” I mean, I could go and make money, don’t get me wrong. I could have graduated and made a ton of money. But I was not happy at all and I did not enjoy what I was doing. So, while I was in undergrad, I realized I don’t wanna do chemical engineering anymore. But what do I wanna do? But then I was taking…I took a quantum mechanics class. And that class blew my whole mind. And I was like, “This is the coolest thing that I’ve ever learned in my life, and this is what I wanna do.” And so I went and talked to my professor and I was like, “Can I work for you? Can I do research? Because this is amazing and I wanna do this.” I felt it was too late for me. I had been in school for so long and I was already kind of burnt out. So I was, “I’m not going to change my major. That’s just outta the question for me right now. It costs so much money for this degree and I don’t have—I’m not just gonna waste my time and keep working all these jobs.” So I had three jobs in college. And it was like, I worked at Radio Shack, I did research for this professor, and I worked in the library, the chemistry and physics library.
Eric Cross (14:28):
I love the fact that we’ve talked about laser discs; you said Radio Shack; and we talked about the analog internet of the encyclopedia salespeople. And I know all of those things. And I’ve been through all of those things together.
Desiré Whitmore (14:43):
Just in case people don’t know how old I am. <Laugh>
Eric Cross (14:47):
For our listeners who are way younger, yeah, this is how we grew up. This is how we—these things are extinct now. There’s this element of this kind of cultural connection. I think that we experience that. It kind of it flies under the radar. People don’t really realize it until you’re in an environment that’s different from what you’re used to. And you realize that, “Oh wow. this is not what I’m used to.” And the things that I’m finding funnier, the things that I connect with, it’s not what everybody else connects with. And as a teacher, it’s the same thing, right? Like, we go in the classroom and you know, you and I are rapping about laser discs and Radio Shack and I’m trying to talk to my kids about it. And they’re like, “Yo, Cross, what is that? Are you gonna give us a history lesson? What are these things?”
Desiré Whitmore (15:35):
Yeah.
Eric Cross (15:36):
And I found myself having to stay connected to pop culture, because I teach 12- and 13-year-olds all day. And it’s great for keeping things relevant for my students. But when I talk to my friends that are my peers, they’re like, unless they’re a teacher, they’re like, “I got no idea what you’re talking about.”
Desiré Whitmore (15:55):
Yeah. I have a friend who’s also a middle-school teacher and she’s always coming to me with all this. I’m like, “What are you talking about?” She did the Glow-up Challenge, but she did the Glow-down Challenge. So she invented a new thing. She’s like, “No, I couldn’t do Glow Up ’cause that’s too much. So I did the Glow-Down Challenge.” And it’s the cutest thing ever. And the students think it’s amazing. And I’m like, “That’s awesome. But I have no idea what the point of that is.” <Laugh>
Eric Cross (16:21):
And there’s this theme, too, that when we talk about teaching kids STEM, there’s this soft part of it, this relational piece of it that you mentioned, of this connective aspect that in a certain way kind of even superseded the content knowledge that your teacher even had at that point, where you’re going up and teaching the class. But just the fact that someone looked like you or spoke like you or connected with you in a certain way made a big difference to who you are as…well, the trajectory of where you went.
Desiré Whitmore (16:57):
Yeah.
Eric Cross (16:57):
“I like chemistry. It resonates with me.” And it’s something I think can get lost. And I think just to kind of a good segue, I use Amplify my classroom, and one of the reasons why is because of the representation that is in these videos. And you were part of crafting this for…was it the fifth grade?
Desiré Whitmore (17:21):
I mean, it was K–8. So I was—
Eric Cross (17:23):
OK, so you were doing the whole thing.
Desiré Whitmore (17:24):
Yeah, I was a part of the K–8 science team. My title was science curriculum specialist. But in reality I was hired to do the engineering internships, mostly. Which are middle school. And to be a sim developer. So sims K–8. I worked on several of them in both middle school and elementary. Yeah.
Eric Cross (17:47):
What was that like for you? When you were designing curriculum? ‘Cause as a teacher, it’s, you know, I think with teachers it’s kind of…I would consider myself, if I was gonna use hip hop as a metaphor, I’m more of a DJ than an MC. Where I wanna remix things that exist, versus, I don’t wanna write the lyrics in freestyle. So I don’t want to go and write the curriculum completely; I wanna take something that’s solid and then I want to go ahead and remix it. You are great at both. What was the process for you, being on that team, designing? How did you go about making, “OK, we’re gonna create this experience for kids”?
Desiré Whitmore (18:25):
It was, it was amazing. I learned so much, so much. It was the best job I had before I came to the Exploratorium. The process was amazing, because it wasn’t just me, right? It wasn’t just me. It was a whole team. And each unit had its own team. So we had a scientist, which I was the scientist we had. So we had a scientist; we had a literacy specialist, because it was really important to increase science literacy so that students understand not just that science exists, but “What are the terms that are used in science and how can I speak and act a scientist? What are the things that scientists actually do in their real life?” Then we had an assessment specialist and then we had a simulation specialist. And so, on the units that I was on, sometimes I was both the sim developer and the scientist, or sometimes I was just the sim developer and I got to work alongside another scientist, which was always fun. And so it was really nice, because I was working alongside master teachers. People who had been teaching for years, and they were able to help me better understand. ‘Cause I’ll come in and I’ll be like, “Yeah, there’s a unit on light waves, let’s come in and teach this unit on light waves!” <laugh> I was the sim developer and scientist on that unit, and there was another scientist working on the unit, but they were like, “Well, Desiré literally builds lasers, so I think she should be the science developer.” So we kinda had two science developers on that one, which was fun. But I come in and she’ll come in and she’ll be like, “Yeah, I think this is where we wanna go and this is what we wanna teach.” I’m like, “No way! Like, that’s not accurate, right?” And so I can come in, but then I’m coming in with all this crazy lingo, right? I’m up here. But then also I have taught kids about lasers and optics and photonics my whole career. So I’m also very capable of bringing it down to where kids need it to be. What I don’t know is how effective that is, right? When to do it and when not to do it. When to bring the level up; when to bring the level down. And so working alongside these other teachers and assessors really helped me to do that. And so for me it was just two years of deep learning experience. I learned—every single day at work, I learned something new. Which is something that I value and I’ve wanted in my career, my whole life. We made active decisions in that room. Like, “We want to interview scientists who are scientists of color or who have different abilities or who have different representations in all kinds of ways.” Right? And then we also have these fake internships, or not even the internships, but just in the general units. And we actively wrote scripts for those. And we actively wrote in those scripts, like, “This is a Black woman. This is an Indian woman. This is a Jewish man in a wheelchair.” Like, we specifically dictated exactly who we wanted in these videos, because we knew that representation was super-important and we knew that we wanted students to be able to connect.
Eric Cross (21:35):
Right. One of the things, I appreciate what I’m hearing a lot in that is the amount of intentionality that went into this. But even now as you’re reliving it, you’re still almost iterating on how could we improve it or how can we make it different or reach more people. And I think that goes towards when we’re talking about including more people and inclusion. Like, it’s not a binary thing. You’re always modifying; you’re always iterating; you’re always redesigning and improving to be more inclusive, to reach more students. Because you know, to your point, part of it is, “Yes, we wanna do this really awesome science curriculum,” but the other part of it is there’s more to it than just your content. And I think now more than ever…I use—we just finished the food bar unit. Metabolism. And in there there’s a simulator. They always ask me when I show the videos, “Are these, are these real people? Are these real situations?” And I tell ’em, “Well, the story is real, but these are all fictional actors. But what’s actually happening happens. It’s real.” And they get really into it. And I think one of the other things is with your simulations—especially the engineering units—there’s no one right answer. And so my students who want to go, “Mr. Cross, I wanna make the best bar! Perfect 10, best taste, cheapest!” And I’m like, “All right, good luck!”
Desiré Whitmore (23:06):
Yeah. Go do that.
Eric Cross (23:09):
Casue there’s something called trade-offs! It could happen! And they’re like, they’re trying. They get into the code. They try to open up the Inspect Element, when they feel like hackers.
Desiré Whitmore (23:17):
Yeah, they do. But these kids like, they’re so smart and they’re so resourceful. And I’m just thinking like, maybe that’s how we challenge them more, right? Sometimes we can give them these kinds of things where it’s like, “Go and create a program, ’cause that’s the level you’re at <laugh>. Go and create this program to do something similar that’s related to the work that we’re doing.”
Eric Cross (23:38):
I’ve had some of my own students redesign—I have one student who redesigns every assessment I give him. I give the project; I give the options for the final goal; and he always chooses—if I give three options, he always chooses option four. If I choose two options, he’s choosing option three. And so he’ll go into Google Sheets, he’ll pull all the data and then he’ll construct his own kind of spreadsheet with all the probabilities of different things.
Desiré Whitmore (24:06):
You tell this kid to make a GitHub right now <laugh> so that he can get a job as soon as he’s done with high school. <laugh>.
Eric Cross (24:12):
He’s amazing. And we did this one project where students had to design a Netflix show to show their understanding of metabolism. And they had to do four episodes. So I gave him a template. It’s not from me; it’s from, I think, EdTechPicks.org or something. And it looks like the whole Netflix splash page. They took photos, did the whole deal. He created NOTflix. Everyone else did Google Slides. His Google Slides was interactive. So when you clicked on different boxes, it actually took you to the next splash page of that show. I mean, it was….
Desiré Whitmore (24:48):
That’s fantastic.
Eric Cross (24:49):
It was, it was. I recorded his presentation. It was brilliant.
Desiré Whitmore (24:53):
But that’s amazing. And that speaks to your strengths as a teacher and why you’re an amazing teacher. Because you see the students and what they’re trying to do and you work with them; you meet them where they are. Right? There are so many teachers who would just be frustrated with that student. And it’d be like, “No, these are not your options. Your option was to do what I told you to do.” And there are many teachers who would do that. And I think it’s really amazing when we can realize as teachers, “No, our job is not to just enforce rules on our students. I mean, that is part of the job, because that’s what school was when it was created. But our job is to help students to achieve more learning in what we’re trying to do. And so the fact that you are so good with this student and that you encourage him to go above and beyond when he can, I think it’s so amazing.
Eric Cross (25:49):
Well, that brings me to my favorite group, organization, and the phase of your career of where you are now: The Exploratorium. And I wanted to kind of rap, talking about what you do now. Because the Exploratorium—I tell people, they go, what is that place? And maybe you can tell us what it is and then what you do. But for me, I’ll just tell everybody: It’s Disneyland for science teachers. And I love going there. I not only love going there because of what I receive from it professionally. Many of the PDs, I don’t even call ’em PDs—just communal learning experiences, that I’ve had that have been led by you and Lori and, and Tammy and the rest, and everybody that’s there have been incredible. And I have so much fun. Emotionally, I get excited when I go. When I’m on the plane, I’m like, “Here we go!” And then we go and we’re making fudge or we’re blowing darts with marshmallows across the room in the theme of Boba Fett. There’s just these rad things that are going on there. And it’s not like anything I’ve ever experienced before. So maybe we can close with talking about what the Exploratorium is, what you do there, for people who’ve never been and have been a part of it.
Desiré Whitmore (27:19):
I’m gonna give you what my definition of the Exploratorium is.
Eric Cross (27:21):
That’s what we want.
Desiré Whitmore (27:22):
So, the actual definition is, we are a public learning laboratory. We are known as the Museum of Art, Science and Human Perception. Cool. But, like, what does that all mean? Right? And I think your description of the Disneyland for science teachers, I think that’s a perfect description. ‘Cause for me, I tell people like, “Oh, I wanna go to the happiest place on earth.” And for me, that is the Exploratorium. And yes, I work there, and yes, it’s still true for me. So the Exploratorium is this huge museum. It’s an interactive science museum. And art—we have a lot of art. And it’s all about learning through doing. It’s not about learning science by going up to an exhibit and reading the little paper next to it. It’s like, no, you go up to an exhibit and you interact with it and you teach yourself science. The goal of the Exploratorium is really to help people understand that learning science, doing science, isn’t reserved for only scientists. Doing science is something that everyone in the world should and does do. And so helping people understand that everything we do is science is kind of the point of the Exploratorium to me.
Eric Cross (28:35):
Even the building itself…one of the other cool things too is, for people that don’t know, it’s the size of Costco or two.
Desiré Whitmore (28:43):
Yeah. Yeah.
Eric Cross (28:44):
It’s immense! And even the building itself teaches. Like, you have that whole workshop, dead-center in the middle of the floor where they’re designing things. It’s like inside-out. And then I remember going to the one experience where I think it was Eric who showed us that it’s one of the few facilities that is actually cooled by the Bay water. And there’s only a couple of those in the state that can do that. And it has a platinum rating, something wild that. So even just the building itself…everything that if they can extract every ounce of science teaching in that, it’s in there. And you are in a very important program for me. And can you talk a little bit about maybe what you’re doing in T.I.?
Desiré Whitmore (29:33):
So I am in the Teacher Institute. I’m a physicist in the Teacher Institute. And the Teacher Institute is a group of teachers and scientists. And our job is to basically support middle school and high school science teachers and teacher leaders in the state of California, but science teachers around the world, in their pursuit of science teaching. And by support, I mean we provide professional development. We provide other things, communities of practice, and we go and do workshops in certain places. We go to India to teach Tibetan monks and nuns science. And we go to Costa Rica to teach teachers all over the country of Costa Rica about science. And so our job is really, to help science teachers feel more secure in their science teaching and help to retain them in the field, because a good science teacher is so important in helping our students thrive. And so our job—and we take this very seriously—is to help science teachers thrive. And we are made up of PhD scientists and veteran classroom teachers. So we have on the one side teachers who have been teaching middle school or high school for years. One of my coworkers, Zeke, who I work with the most, he was a high school physics and environmental science teacher for 21 years before coming to the Exploratorium. And then me, I was never a classroom teacher. I was a professor; I was a physics professor at a community college, and I was a researcher. So my deep knowledge of physics and current knowledge of physics—or knowledge of current physics—combined with Zeke’s extremely experienced pedagogy is really how we work together as a team. And it’s not just Zeke, right? We’ve got a geologist on the team, Eric Muller. We’ve got Tammy, who’s a middle-school bio teacher. We’ve got, Julie Yu, who is a chemical engineer, PhD, and also a prior middle school teacher, former middle school teacher. We’ve got Hilleary Osheroff, who was a PhD biologist who used to work at the American Museum of Natural History. We’ve got Lori Lambertson, who was a middle-school math teacher. And so, you know, we all come together to bring our experiences both in and out of the classroom and in and out of the research lab to provide teachers with the best inquiry-driven stuff we can. And we’re very—we’re so equity-focused, because we believe that that’s important, right? We know that the impact of our work is, I think, why most of us are here. It’s why I’m here. In undergrad, my grad school, and my postdoc, I would go into classrooms. I would go into science museums and teach science to people. And I probably reached out to maybe…over that whole time, I would say a couple thousand people, right? Maybe a couple thousand people total. That’s great. But over 15 years of reaching out and only reaching a couple thousand people, that’s rough, right? And now I’m at the Exploratorium, and I know that if I reach one teacher, right? If I can teach one teacher…let’s say you. How many students do you have in your classes a year?
Eric Cross (33:11):
Two hundred a year.
Desiré Whitmore (33:12):
You have 200 students a year that you teach. So if you teach for 10 years, that’s 2000. That’s 2000 students. So I have, by teaching you today, assuming that I’m actually teaching you something that’s gonna be useful for you—
Eric Cross (33:29):
You do! And you are!
Desiré Whitmore (33:30):
You are going to be impacting these 2000 students over the next 10 years. And of course you’re gonna be in teaching for much longer than that. But let’s just say in 10 years, that payoff is so much higher, right? And you’re one teacher. But I have 30 of you in my workshop! And so if all of these 30 teachers each teach 2000 kids over the next 10 years, then I’m actually doing something. I’m actually changing the way that students see science, through changing the way that you see science. Right? And so I take my job very seriously, as we all do. Like, we’re so invested in our teachers. And it’s not that we don’t care about students, ’cause we absolutely do. But we understand that without good teachers, students aren’t going to be able to thrive, as often as they would otherwise. I was able to do it somehow. But I’m one. There are so many other kids who could have gone into science who didn’t because they felt they never connected to it. So our job is to try to help teachers connect to it. And an important part of that is allowing you all to experience science as a learner. We want you to play and have joyful experiences. We want you to enjoy science and to try to think about it from the perspective of your students. Walk in their shoes. So that when you then go back to your classroom, you are able to think about like, “Oh yeah, you know, my students totally asked the same question that I asked, or that another teacher asked in the workshop because they had the foresight to think about that’s what my students would ask.” Right?
Eric Cross (35:02):
Well, I think it’s really effective to create empathy for the learner. Because I find myself in that position. I don’t know if some kind of memory displacement field happens to me when I sit in those workshops, but Hillary will ask a question that I know the answer to and I’m like, “I don’t want to answer the question. I don’t—I might be wrong.” And I teach the subject! And I embody what it’s like to be a student. And when I leave, I might have to go back and reference exactly what the lesson was, but I remember how I felt when I didn’t know. And very rarely as teachers do we get put in positions like that. And so it helps me be in the position of my students emotionally, of what it’s like. Even even the intentionality of how do you ask questions and not showing an affect on your face when somebody says the right answer or the wrong answer.
Desiré Whitmore (35:55):
Well, I’m still learning that. I’m not great at it. Julie is the mast.
Eric Cross (35:59):
Julie’s got it nailed.
Desiré Whitmore (36:00):
I’m still trying to learn from her. She’s amazing. And I really would like to get there one day. But I’m still not there. I’ll be like, “Oh! Oh! Well, that’s…”. I have a terrible poker face. So I’ll be like, “Oh yeah, but you think that? Maybe…”. That’s a piece of it that’s really important, right? It’s this not giving away the answer, even when you have the right answer. Allowing people to ask the questions and explore and become invested in the problem, before giving away the answer. That’s something that I learn here at the Exploratorium. And like I said, I learn every day. And it’s something that I think is so important for us as teachers to learn and try to implement. Because oftentimes you’ll come and you’ll have students who are like, “I’m too stupid. I don’t know the answer.” And then somebody else will say the answer, and then the student is like, “Yeah, I was right. I’m too stupid.’” But it’s like no! But if you have that student actually think about it, then the student—once they do hear the right answer—they might be like, “Oh yeah, that would make sense.” Instead of “I’m stupid.” It’s like, no, this is, “I explored this and I figured it out on my own.”
Eric Cross (37:08):
Things keep coming back to how this experience and the process of them learning science even outweighs the content of it. ‘Cause the content is almost easier to share, it’s easier to get, you can look it up really quickly. But in your story and in many other people’s stories, the exposure, the experience, how they’re going through that process—I know that’s something that I’ve learned a lot in just watching. Not teaching science, but actually the science of teaching. Sitting in the workshops and watching how we’re treated as students, how you interact with us, and then being able to take that back to the classroom. And just to add onto the value that it’s created, I think one thing that it’s also done is given us community. And in addition to being able to impact students, it’s also been able to build resilience in teachers. Because we as teachers can feel very isolated. And especially now when things are incredibly difficult, and every teacher’s experiencing Covid and shutdowns and low staffing across the country in different ways, when you don’t feel you have community or people that you can connect with, it just makes everything feel exponentially harder. And you’ve done a great job at being able to build community with us in our community of practice. The Exploratorium has been able to do that. And it’s something that I’m super-grateful for probably more than anything else is that through these last two years, being able to connect really made me feel like, “OK, we’re gonna be able to do this.” And it’s not just about Cross or my other teacher in eighth grade or my sixth grade teacher who’s doing this. That message, I think, is really, really important. I wanna ask this: Was there a teacher or an experience that impacted you or inspired you throughout your educational career? You know, kindergarten all the way to college? Was there a moment or a person or anything that that really stuck with you, that you felt maybe influenced who you became? Met you where you were at? I know you mentioned your chemistry teacher at that point, but is there anyone else, or was it that person that was really the person who sticks out for you?
Desiré Whitmore (39:21):
There actually have been a few. Of course, the first is my great-grandmother, Claudia Pairs. But I think in the fourth and fifth grade I had the same teacher. She stayed with us going from fourth to fifth grade. And fourth grade was a new school for me. New town. I was the only Black child in the school, me and my sister. And my teacher recognized that I had no real help at home, I guess? And she really kind of…she saw that I was really smart. She would give me extra assignments when she could tell I was bored. It meant that someone outside of my house cared about me in a way that I didn’t feel cared about at home. Her name is Ms. Comet. Mrs. Comet.
Eric Cross (40:11):
Like…comet?
Desiré Whitmore (40:13):
Yeah. Mrs. Fran Comet. And I’ve tried looking her up as an adult and I can’t find her. But I work with so many teachers, and I know how hard teaching is and how degrading it can be…or demoralizing, I guess, to not be appreciated. And so I know what it feels to me when a student has reached out and shown me like, “Hey, I’m now in dental school,” or “I’m now getting a PhD in science,” and I’m just like….
Eric Cross (40:40):
I got a message this morning on Instagram from a student. And none of my students use their real names in their Instagram handles. So I got a message from Moonshine. <Laugh> And I was a seventh grade teacher. And through deduction, deductive reasoning, I figured out who it was. This person’s now in college and they responded in that…you know, you get one of those every once in a while. And I feel it just fills your tank. It’s just so important that we—it’s funny because, kind of to your point, we don’t realize who or how we’re making impacts on people. And in what ways. We just know that we are. And I tell other teachers, I said, “You have one of the few professions where you fall asleep worrying about other people’s kids.” And it’s the words that we speak, the things that we do, people are always watching. I know, no pressure, right!? Hopefully, someone listening can find Ms. Comet.
Desiré Whitmore (41:37):
Ms. Comet. Teacher at Buena Vista Elementary School back in the ’80s. But your talk about this impact, it reminds me of the thing I wanted to say, but I didn’t. But I’m gonna tell you right now. I mentioned how science was not a priority when I went to school, in my hometown. That’s Lancaster, California. But recently I got a phone call from a family friend and she was so excited. And she called me to tell me that her daughter was super-excited when she picked her up from school. Because I was in her classroom. She said, “Auntie Desiré was in my class today! And she works on lasers! And she does spectroscopy! And I wanna learn about spectroscopy now. So can we call Auntie Desiré?” And I was like, “Wait, what?” My friend was kind of confused. She’s like, “Desiré didn’t tell me she was in town.” She had no idea why her daughter was saying I was in her classroom, ’cause I was not physically there. And then I had to put the pieces together and I was like, “Oh my God, your daughter’s in eighth grade already.” It made me feel really old, ’cause I know this girl from a little baby. But I was like, “Oh my God, that’s the eighth grade unit on light waves for Amplify that I wrote, and I’m featured as the scientist.” Because we have real scientists in the units. And they featured me in that one, in my laser lab. And so this little girl who knows me really well, who lives in my hometown, is seeing representation in science. She doesn’t necessarily know I’m a scientist. She knows that—I don’t know what she knows about me. She just knows I’m Auntie Desiré and, you know, I like gumbo at Christmas. That’s what she knows about me. <Laugh>. And so she comes back and she’s so excited ’cause now she knows so much more about me. And she knows that if I can do it and I came from where she’s at, she can do it too. And she was super-excited. And I was just…it brought me to tears. I was just crying in the car. I was driving <laugh> at the time and I was like, “This is amazing. Work that I did is teaching you and all of your friends in this tiny little town that you live in. And that to me is so important because now this little girl knows that, like, she knows me as just a normal human right. Who likes Star Trek and Star Wars and The Owl House. And now she’s over here like, “Oh my gosh, this normal human wrote the science curriculum that I’m learning from.” Which I think is just so fantastic. And it really brought home for me kind of the importance of my work and why I’m doing what I’m doing. And that’s pretty awesome. And I get messages from Instagram, you know, from teachers who are like, “Hey, did you work on this? ‘Cause you were featured in the video, but did you write this light waves unit?” And I’m like, “Yeah.” And they’ll tell me, “I have students, this is their favorite unit. I’ve gotten notes from students saying, ‘This was my favorite unit in all of middle school.’” And I’m like, “Ohhhhhh!”<Laugh>
Eric Cross (44:33):
That story just gives me chills. Because I just can imagine how surreal that must feel. And you’re directly making that impact on those kids. And I’m glad that you shared that story so that everyone can hear it, because it’s a powerful story and I lived—I feel I was living it through you, just now, as you were discussing it.
Desiré Whitmore (44:54):
Yeah.
Eric Cross (44:54):
And I feel that way in the classroom to a small degree, because I get to have—when my students create posters of scientists that we don’t typically see, I’ve got you on my list of scientists, and I’m they’re like…And I’m like, “I can call her!” Like, “Mr. Cross, you KNOW her?!” I’m like, “Yeah, she’s a friend of mine! I was talking to her the other day!” And they’re like, “Whoa. She works with lasers?!”
Desiré Whitmore (45:17):
<Whispers> I do.
Eric Cross (45:18):
Desiré. I’ve held you for so long and—
Desiré Whitmore (45:23):
Yes, I’m sorry! I told you, I talk so much! I’m a teacher!
Eric Cross (45:26):
No! No, no, no, no. It was great! I wanna honor your time. Can you tell everybody where they can find out more about you again?
Desiré Whitmore (45:33):
So first off, you can find me on Twitter at Darth Science, D A R T H S C I E N C E, and you can also find me at Instagram at Dr. Laser Chick: D R dot laser chick. Even though I don’t post on Instagram that much. I also have a website, which is laser chick dot net. I’m still working on it. It’s not the best website yet. But, you know, it’ll, it’ll be better in the future.
Eric Cross (46:02):
Would you be willing to come back later on in the year and do a part two?
Desiré Whitmore (46:07):
Oh, for sure. Yeah. So I can actually finish telling you the story of how I got into physics! ‘Cause I totally didn’t. ‘Cause I’m all over the place.
Eric Cross (46:15):
So, everybody, cliffhanger! Next time she comes back, she’ll continue to tell us the story. Desiré, thank you so much.
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Meet the guest
A Southern California native, Desiré earned an associate of science from Antelope Valley College, a bachelor of science in chemical engineering from UCLA, and a master of science and Ph.D. in chemical and material physics from UC Irvine. Her research focused on developing very fast laser and microscope systems that could capture molecules vibrating and rotating in real time. She was a postdoctoral fellow at UC Berkeley, where she designed and built attosecond lasers (the fastest laser pulses, which emit x-ray light, ever measured). At the Lawrence Hall of Science she wrote an all-digital K–8 science curriculum (Amplify Science), which aligned to the NGSS, with the Learning Design Group (LDG). Desiré left LDG to teach hands-on laser technology and physics courses at Irvine Valley College before joining the TI staff. She is the proud mom of Stella, a four-year-old boxer-pit mix. In her spare time, Desiré is restoring her 1967 VW bug.

About Science Connections
Welcome to Science Connections! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher. Listen here!
LITERACY CHAMPIONS
The Science of Reading Star Awards
Making the shift to the Science of Reading is no small feat. Every day, educators like you are successfully improving student outcomes in schools and communities, and we’re eager to celebrate your accomplishments with the Science of Reading Star Awards.
We’re no longer accepting submissions for this year’s Star Awards cycle. See you next year!


Get excited for the prizes!
Exceptional accomplishments deserve to be rewarded.
All award winners will receive:
- Honorary Amplify Ambassadorship.
- Amplification on our website and social media.
- A Science of Reading starter library.
- Enrollment in Science of Reading: The Learning Lab for each winner and a friend.
- Tons of swag!
The grand prize winners in the District and School categories will receive access to an exclusive library of professional development resources. The grand prize winner in the Individual category will be given full conference registration and associated travel costs to The Annual Conference of The Reading League.
Recognizing leaders in education
Learning to read is nothing short of a transformation—and at the heart of this transformation are literacy educators harnessing the Science of Reading to ignite lifelong learning.
Science of Reading Star Award winners shine bright, going above and beyond to light the path for students nationwide. Be part of the celebration—help us recognize these heroes!
An award category for everyone!

District:
The District Captain
This award honors a district that exemplifies strong Science of Reading practices across the board.

School:
The Literacy Legend
This award honors a school that has seen significant reading gains among their students school-wide when using the Science of Reading.

Individual:
The Background Knowledge Builder
This award is for showing the world that the Science of Reading empowers students with knowledge, context, and vocabulary from elementary through middle school.

Individual:
The Changemaker
This award is for showcasing exemplary Science of Reading routines and practices, and serving as an inspiration to others on the journey.

Individual:
The Comprehension Champion
This award is for fostering deep understanding and critical thinking by expertly guiding students to make meaning from complex texts, ask thoughtful questions, and connect reading to their world and experiences.

Individual:
The Data Dynamo
This award is for expertly using data to drive instruction within an MTSS framework, identifying student needs with precision, and implementing targeted interventions that accelerate literacy growth for every learner.

Individual:
The Language Luminary
This award is for outstanding success in developing the skills and strengths of emergent bilingual students and multilingual/English learners.

Individual:
The Science of Reading Rookie
This award is for a teacher in their first three years of teaching, already making strides with the Science of Reading.

Individual:
The Writing Whiz
This award is for integrating writing instruction with the Science of Reading, cultivating articulate and confident writers through innovative and effective practices.
Submit a nomination to the Science of Reading Star Awards!
Entry is quick and simple—just provide the required information and an overview of the nominee you think deserves recognition.
- You may submit multiple entries, but please nominate for only one category at a time.
- Your submission can include an overview of the educator, school, or district’s journey with the Science of Reading; how they overcame challenges; how they are empowering their students with the Science of Reading; how they implemented strong Science of Reading practices; and/or what results they are seeing.
- The more specific you can be in your submission, the better! If data is a big part of your story, we’d love to hear about it.
- As part of your entry, you agree to allow us to contact you about the details of your application.
- A member of the team will be in contact by March 2026 if you are short-listed as a finalist.
Amplify Desmos Math
for New York
Welcome to Amplify Desmos Math, a powerful new core program from Amplify and Desmos Classroom built for NYC teachers and students.
Amplify Desmos Math is built on four core tenets:
- Math can motivate students.
- A structured approach to problem-based learning can best tend to all aspects of rigor.
- Student thinking is valuable and visible.
- Students can catch up while keeping up with grade-level math.

What if your students asked to do more math?
Amplify Desmos Math lessons are powerful in their ability to elicit student thinking and spark interesting, productive discussions.
The lessons pose problems that invite a variety of approaches with their dynamic and interactive learning experiences on devices, as well as experiences on paper that are flexible, creative, and engaging.
As students work online, they interact with visuals and simulations that show their thinking and decisions. When appropriate, students see other students’ responses and engage in collaborative math discussions.
A Responsive Feedback feature responds to student thinking by showing the mathematical meaning behind it. This is more powerful than simply evaluating thinking as right or wrong, because it motivates and engages students in the learning process.

In this Grade 6 activity, students internalize the coordinate plane by plotting points to navigate the marble through the maze to collect the star.

This prepares students to accurately and efficiently plot points with positive and negative coordinates on grids with different scales and explain the relationship between ordered pairs that differ only by the signs of the coordinates.

In this Grade 7 activity, students explore positive and negative integer operations using the up and down movement of a submarine.

Students are then prepared apply this understanding in a variety of word problem contexts.

In this Grade 8 activity, students create rate, distance, and time equations based on turtle races.

This prepares students to understand that a graph representing a proportional relationship is a line through (0, 0) and (1, k). They also begin to see connections between a context and features of a corresponding graph, equation, and table.
Data at your fingertips on the road to mastery
Facilitate a collaborative, connected classroom community.
The powerful teacher facilitation tools in Amplify Desmos Math give teachers insight into student thinking in real time. Teachers can select student work to display and discuss quickly and easily, leading to better questions that guide more productive discussions.
Amplify Desmos Math helps guide the learning process by connecting students to each other and to an understanding that they can use math to make sense of the world. Students learn and collaborate in every lesson. Whether using print, digital, or a mix of both, students stay connected to each other’s ideas and thinking, fueling classroom conversations and a shared understanding of math.


Standards alignment
Amplify Desmos Math is customized specifically to meet the New York State Next Generation Math Learning Standards. Within each document below, you’ll find direct links to lessons and activities where each individual standard is addressed.
Grade 6 correlation
Grade 7 correlation
Grade 8 correlation
The program is also aligned with the expectations outlined in the New York City Department of Education Definition of Culturally Responsive-Sustaining Education and the New York State Culturally Responsive-Sustaining Education Framework. Download the CR-SE alignment.
Digital review
Ready to explore the program? To log in, click the orange “Review now” button below, select “Log in with Amplify” and use the following login credentials:
Username: t.nycadmsample-01@tryamplify.net
Password: AmplifyNumber1
To review Algebra 1 content from Desmos Math 6–A1, which serves as the foundation for Amplify Desmos Math, click this link after logging in using the credentials above.


Support
Throughout your review, you can reach our support team by email or phone. We are available any time over:
Live chat: Click the orange icon while logged in to get immediate help.
Phone: Call our toll-free number: (888)-960-0380.
Email: Send an email to help@amplify.com. In the message body, please include your name and question. Provide as much detail as possible, so we can help you find a solution.
Acceptable Use Policy
Amplify Education, Inc. (“Amplify”) products support classroom instruction and learning and include Amplify CKLA, Amplify ELA, Amplify Science, Amplify Desmos Math, Desmos Math, Boost Reading, Boost Math, mCLASS, Mathigon, services at classroom.amplify.com (for creating and assigning activities) and student.amplify.com (for use of the activities or curricula as directed by an instructor), and any other product or service that links to this Acceptable Use Policy (together, the “Products”). This Acceptable Use Policy (the “AUP”) provides the general terms and conditions applicable to your use of the Products. By accessing, downloading, or using the Products, you agree to be bound by the terms of this AUP.
Notwithstanding the foregoing, nothing in this AUP supersedes or limits your rights under the terms of any other agreement you or your institution have entered into with Amplify regarding the use of Products. In the event of any conflict between the AUP and the terms and conditions of an applicable agreement that you or your institution have entered into with Amplify, the terms and conditions of such agreement shall control.
Our Products are geared towards K–12 students, educators, and staff who use the Products as authorized by their School District or State Agency (each as defined in the Privacy Policy (defined below), and together, “School”) (“Authorized School Users”). Student Data (defined below) is owned and controlled by the School, and Amplify receives Student Data as a “school official” under Section 99.31 of the Family Educational Rights and Privacy Act of 1974 (“FERPA”) for the purpose of providing the Products hereunder. In addition, we rely on the School acknowledging that it is acting as the parent’s agent and consenting on the parent’s behalf to process personal information of students under the age of 13 (“Child Users”) in accordance with the Children’s Online Privacy Protection Act (“COPPA”).
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In each case, we provide these Products solely for the benefit of the School and for no other commercial purpose. We require all Schools to review our Privacy Policy, available at amplify.com/customer-privacy (“Privacy Policy”), and to make a copy of the Privacy Policy available to the parents or guardians of Child Users.
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Subject to compliance with this AUP, you are granted a non-transferable, non-exclusive, non-sublicensable license to access and use the Products. You understand that your use of the Products does not confer to you any intellectual property rights held by Amplify or its licensors. Unless otherwise indicated, any future release, update, or other addition to functionality or content of the Products will be subject to this AUP.
2. Restrictions
You may access and use the Products solely for non-commercial instructional and administrative purposes. Guidelines for such purposes may be set forth at http://amplify.com/amplify-program-usage-guidelines and additional guidelines may be detailed in materials associated with the Product You are accessing. Further, You may not, except as expressly authorized by Amplify: (a) copy, modify, translate, distribute, disclose, or create derivative works based on the contents of, sell, or otherwise exploit, the Products, or any part thereof; (b) decompile, disassemble, reverse engineer the Products, or otherwise use the Products to develop functionally similar products or services; (c) modify, alter, or delete any of the copyright, trademark, or other proprietary notices in or on the Products; (d) rent, lease, or lend the Products or use the Products for the benefit of any third party; (e) avoid, circumvent, or disable any security or digital rights management device, procedure, protocol, or mechanism in the Products; (f) use any content from the Products, including but not limited to text, images, videos, assessments, lesson plans, or code, as input or training material for any machine learning or artificial intelligence system, including large language models, neural networks, or other algorithmic models, for any purposes, commercial or non-commercial; or (g) permit any Authorized User or third party to do any of the foregoing. You also agree that any works created in violation of this section are derivative works, and, as such, You agree to assign, and hereby assign, all right, title, and interest in such works to Amplify. The Products and derivatives thereof may be subject to export control laws, restrictions, regulations, and orders of the U.S. and other jurisdictions (together, “Export Laws”). You agree to comply with all applicable Export Laws, and will not, and will not permit Authorized Users to, export, or transfer for the purpose of re-export, any Product to any prohibited or embargoed country in violation of any U.S. export law or regulation. Further, You represent that You are not located in a country that is subject to a U.S. Government embargo, subject to sanctions by the U.S. Office of Foreign Assets Control, or included on any restricted party list maintained by the U.S. Bureau of Industry and Security. The software and associated documentation portions of the Products are “commercial items” (as defined at 48 CFR 2.101), comprising “commercial computer software” and “commercial computer software documentation,” as those terms are used in 48 CFR 12.212. Accordingly, if You are associated with the U.S. Government or its contractor, You will receive only those rights set forth in this Agreement in accordance with 48 CFR 227.7201-227.7204 (for Department of Defense and their contractors) or 48 CFR 12.212 (for other U.S. Government licensees and their contractors).
3. Use of the products
In connection with your access to and use of the Products, you agree not to: (a) post, upload, or otherwise transmit or link to content that is: unlawful; threatening; harmful; abusive; pornographic or includes nudity; offensive; harassing; excessively violent; tortious; defamatory; false or misleading; obscene; vulgar; libelous; hateful; or discriminatory; (b) violate the rights of others, including patent, trademark, trade secret, copyright, privacy, publicity, contract, or other proprietary rights; (c) harass or harm another person; (d) exploit or endanger a minor; (e) impersonate any person or entity; (f) introduce or engage in activity that involves the use of viruses, bots, worms, Trojan horses, time bombs, spyware, or any other computer code, files, or programs that interrupt, destroy, or limit the functionality of any computer software or hardware or telecommunications equipment, or otherwise permit the unauthorized access to or use of a computer or a computer network; (g) interfere with, damage, disable, disrupt, impair, create an undue burden on, or gain unauthorized access to the Products or any account (as defined below), or Amplify’s servers or networks; (h) restrict or inhibit any other person from using the Products (including by hacking or defacing the Products); (i) remove, disable, block, or obscure any portion of the Products; (j) use technology or any automated system, such as scripts or bots, to collect user names, passwords, email addresses, or any other data from or through the Products, or to circumvent or modify any security technology or software that is part of the Products; (k) send or cause to send (directly or indirectly) unsolicited bulk messages or other unsolicited bulk communications of any kind through the Products; (l) solicit, collect, or request any information for commercial or unlawful purposes; (m) post, upload, or otherwise transmit an image, audio recording, or video of another person without that person’s consent; (n) use the Products to advertise, promote, or engage in any commercial activity (including engaging in advertising, sales, contests, sweepstakes, or other promotions) without Amplify’s prior written consent; (o) frame or mirror the Products without Amplify’s express prior written consent; (p) use the Products in a manner inconsistent with any applicable law, rule, or regulation; (q) use any robot, spider, search/retrieval application, or other manual or automatic device to retrieve, index, “scrape,” “data mine,” or in any way gather content of the Products or reproduce or circumvent the navigational structure or presentation of the Products; (r) attempt, facilitate, or encourage others to do any of the foregoing. In addition to the foregoing restrictions, your use of the Products may also be subject to an additional acceptable use policy provided to you by your School, as applicable. You are responsible for meeting the hardware, software, telecommunications, and other requirements listed at amplify.com/customer-requirements.
4. Intellectual property
The Products and any Product logo, and certain other of the names, logos, and materials displayed in the Products, may constitute trademarks, trade names, or service marks (“Marks”) of Amplify or other entities. You are not authorized to use any such Marks. Ownership of all such Marks and the goodwill associated therewith remains with Amplify or those other entities. The content provided to you in the Products, including the software, graphs, text, and graphics, is protected under copyright laws, is subject to other intellectual property and proprietary rights and laws, and is owned by Amplify or its licensors. Your access to the Products does not transfer to you or any third party any rights, title, or interest in or to such intellectual property rights. You may not use the content of the Products, in whole or in part, to train or fine-tune any machine learning or artificial intelligence model or system, including for research, product development, commercial services, or any other purpose, commercial or non-commercial. Such use constitutes unauthorized derivative work and a violation of Amplify’s intellectual property rights. Your rights to make use of the Products are limited to those provided under this AUP, any additional terms as may be agreed upon between your School and Amplify, and any available exceptions under applicable intellectual property laws. Amplify Products are protected by patents (see amplify.com/virtual-patent-marking).
5. Account information
Your authentication to enable your access and use of these Products is based in part upon information supplied by you. You are required to (a) provide accurate information to Amplify and promptly report any changes to such information, (b) not share or allow others to use your account, (c) maintain the confidentiality and security of your account information, and (d) use the Products solely via such authorized accounts. You may not share your credentials (i.e., username and password) to access the Products with anyone except the person for whom that account was created. You agree to notify Amplify immediately of any unauthorized use of your account or related authentication information. Amplify will not be responsible for any losses arising out of the unauthorized use of your account.
6. Student data
The parties acknowledge and agree that in the course of providing the Products, Amplify may collect, receive, or generate information that directly relates to an identifiable current or former student of a School (“Student Data”). Student Data may include personal information from a student’s “educational records,” as defined by FERPA. Student Data is owned and controlled by the School and Amplify receives Student Data as a “school official” under Section 99.31 of FERPA for the purpose of providing the Products hereunder. Individually and collectively, Amplify and School agree to uphold our obligations, as applicable, under FERPA, COPPA, the Protection of Pupil Rights Amendment (“PPRA”), and applicable state laws relating to Student Data privacy. Amplify’s Privacy Policy governs the collection, use, and disclosure of Student Data collected or stored on behalf of the School under this AUP. The School is responsible for providing notice or obtaining appropriate consents under applicable laws to authorize Authorized School Users’ use of the Products, including making a copy of the Privacy Policy available to the parents or guardians of Child Users. Please see Additional Terms for Mathigon and Amplify Classroom accounts (Section 18) for additional information.
7. Confidentiality
You acknowledge that in connection with these terms, Amplify may provide you with certain sensitive or proprietary information (“Confidential Information”), including software, source code, assessment instruments, research, designs, methods, processes, customer lists, training materials, product documentation, know-how, or trade secrets, in whatever form. You agree (a) not to use Confidential Information for any purpose other than use of the Products in accordance with the AUP, and (b) to take all steps reasonably necessary to maintain and protect the Confidential Information of Amplify in strict confidence. Confidential Information shall not include information that, as evidenced by your contemporaneous written records: (i) is or becomes publicly available through no fault of your own; (ii) is rightfully known to you prior to the time of its disclosure; (iii) has been independently developed by you without any use of the Confidential Information; or (iv) is subsequently learned from a third party not under any confidentiality obligation.
8. User materials
You represent, warrant, and covenant that you have all the necessary rights, including consents and intellectual property rights, in connection with any data, information, content, and other materials provided to or collected by Amplify from you or on your behalf in connection with your use of the Products, including materials and content that you post, upload, transmit, email, or otherwise make available on, through, or in connection with the Products (“User Materials”), and that except as otherwise agreed by your School and Amplify, you retain any ownership rights that you have in your User Materials. You hereby grant to Amplify and its affiliates, licensees, and authorized users, a perpetual, non-exclusive, fully paid-up, royalty-free, sublicensable (through multiple tiers), transferable (in whole or in part), worldwide license to use, modify, excerpt, adapt, create derivative works and compilations based upon, publicly perform, publicly display, reproduce, and distribute such User Materials in connection with the Products, subject to Amplify’s Privacy Policy. You and your School are responsible for the accuracy, integrity, completeness, quality, legality, and safety of such User Materials. You further represent and warrant that the posting of such User Materials through or in connection with the Products does not violate the privacy rights, publicity rights, copyrights, contract rights, or any other rights of any person or entity. Amplify and your School reserve the right (but have no obligation) to monitor the Products, including for inappropriate content or conduct, and to remove any content in their discretion without liability to you or any third party. Further, Amplify reserves the right to investigate and take appropriate legal action against anyone who, in Amplify’s discretion, violates this AUP or attempts to do so, including terminating or suspending a user’s account or access to or use of the Products, or reporting any content or conduct to law enforcement authorities. You are solely responsible for creating and maintaining your own backup copies of your User Materials. Amplify is not responsible for any loss, theft, or damage of any kind to any User Materials.
9. Feedback
If you provide us with any ideas, proposals, or suggestions related to the Products (“Feedback”), you hereby acknowledge and agree that your provision of any Feedback is gratuitous, unsolicited, and without restriction, and does not place Amplify under any fiduciary or other obligation. You hereby grant to Amplify a worldwide, royalty-free, fully paid-up, exclusive, perpetual, irrevocable, transferable, and fully sublicensable (through multiple tiers) license to reproduce, distribute, perform and/or display (publicly or otherwise), adapt, modify, and otherwise use such Feedback, in any format or media now known or hereafter developed, and you hereby represent and warrant that you have all necessary rights to grant the foregoing license.
10. Third party links and services
The Products may make available, or third parties may provide, links to websites, software, applications, resources, advertisements, content, or other products or services created, hosted, or made available by third parties (“Third Party Services”). When you access or use a Third-Party Service, you are interacting with the applicable third party, not with Amplify, and you do so at your own risk. Inclusion of any Third-Party Service or a link thereto within the Products does not imply approval or endorsement of such Third-Party Service. Amplify does not control any content that is not Amplify content, and as such, you may be exposed to offensive, indecent, inaccurate, or otherwise objectionable content in the course of accessing or using such Third-Party Services linked from the Products. You are solely responsible for your interactions with other users of the Products, providers of Third-Party Services, and any other third parties with whom you interact on, through, or in connection with the Products. AMPLIFY IS NEITHER RESPONSIBLE NOR LIABLE FOR ANY THIRD-PARTY SERVICES, INCLUDING THE ACCURACY, INTEGRITY, COMPLETENESS, QUALITY, LEGALITY, USEFULNESS, OR SAFETY OF, OR INTELLECTUAL PROPERTY RIGHTS RELATING TO, SUCH THIRD-PARTY SERVICES. ANY ACCESS TO OR USE OF SUCH THIRD-PARTY SERVICES MAY BE SUBJECT TO THE TERMS AND CONDITIONS AND INFORMATION COLLECTION, USAGE, AND DISCLOSURE PRACTICES OF THIRD PARTIES. THIS AUP DOES NOT CREATE ANY RELATIONSHIP BETWEEN YOU AND ANY PROVIDER OF THIRD-PARTY SERVICES, AND NOTHING IN THIS AUP WILL BE DEEMED TO BE A REPRESENTATION OR WARRANTY BY AMPLIFY WITH RESPECT TO ANY THIRD-PARTY SERVICE.
11. Digital Millennium Copyright Act
The Digital Millennium Copyright Act of 1998 (“DMCA”) provides recourse for copyright owners who believe that material appearing on the Internet infringes their rights under U.S. copyright law. If you believe that any material residing on or linked to from the Products infringes your copyright, please send (or have your agent send) to Amplify’s Copyright Agent, by email, fax, or regular mail, a written notification of claimed infringement with all of the following information: (a) identification of the copyrighted work claimed to have been infringed, or, if multiple copyrighted works are covered by a single notification, a representative list of such works; (b) identification of the claimed infringing material and information reasonably sufficient to permit us to locate the material on the Products (such as the URL(s) of the claimed infringing material); (c) information reasonably sufficient to permit us to contact you, such as an address, telephone number, and, if available, an e-mail address; (d) a statement by you that you have a good-faith belief that the disputed use is not authorized by the copyright owner, the copyright owner’s agent or the law; (e) a statement by you that the above information in your notification is accurate, and a statement by you, made under penalty of perjury, that you are the owner of an exclusive right that is allegedly infringed, or that you are authorized to act on such owner’s behalf; and (f) your physical or electronic signature. Amplify’s Copyright Agent for notification of claimed infringement can be reached as follows: Amplify Education, Inc., 55 Washington Street #800, Brooklyn NY 11201; Attn: Copyright Agent. Amplify’s Copyright Agent for notification of claimed infringement can also be reached electronically at legal@amplify.com. Amplify reserves the right to terminate infringers’ and suspected infringers’ accounts or their access to or use of the Products.
12. Changes to the products
Amplify may, without prior notice, change any Product or stop providing any features of any Product. We may permanently or temporarily terminate or suspend your access to any Product features without notice for any reason, including if in our sole determination you violate any provision of this AUP. Upon termination, you continue to be bound by this AUP.
13. Warranty disclaimer
PRODUCTS ARE PROVIDED “AS IS” AND WITHOUT WARRANTY OF ANY KIND BY AMPLIFY. AMPLIFY EXPRESSLY DISCLAIMS ALL WARRANTIES, EXPRESS OR IMPLIED, INCLUDING ANY WARRANTY AS TO TITLE, NON-INFRINGEMENT, MERCHANTABILITY, OR FITNESS FOR A PARTICULAR PURPOSE OR USE. YOU ASSUME RESPONSIBILITY FOR SELECTING THE PRODUCTS TO ACHIEVE YOUR INTENDED RESULTS AND FOR THE ACCESS AND USE OF THE PRODUCTS, INCLUDING THE RESULTS OBTAINED FROM THE PRODUCTS. WITHOUT LIMITING THE FOREGOING, AMPLIFY MAKES NO WARRANTY THAT THE PRODUCTS WILL BE ERROR-FREE OR FREE FROM INTERRUPTIONS OR OTHER FAILURES OR WILL MEET YOUR REQUIREMENTS. AMPLIFY IS NEITHER RESPONSIBLE NOR LIABLE FOR ANY THIRD-PARTY CONTENT OR SOFTWARE INCLUDED IN PRODUCTS, INCLUDING THE ACCURACY, INTEGRITY, COMPLETENESS, QUALITY, LEGALITY, USEFULNESS, OR SAFETY OF, OR IP RIGHTS RELATING TO, SUCH THIRD-PARTY CONTENT AND SOFTWARE. ANY ACCESS TO OR USE OF SUCH THIRD-PARTY CONTENT AND SOFTWARE MAY BE SUBJECT TO THE TERMS AND CONDITIONS AND INFORMATION COLLECTION, USAGE, AND DISCLOSURE PRACTICES OF THIRD PARTIES.
14. Limitation of liability
IN NO EVENT WILL AMPLIFY BE LIABLE TO YOU FOR ANY INCIDENTAL, SPECIAL, CONSEQUENTIAL, PUNITIVE, RELIANCE, OR COVER DAMAGES, DAMAGES FOR LOST PROFITS, LOST DATA, LOST BUSINESS, OR ANY OTHER INDIRECT DAMAGES, EVEN IF AMPLIFY HAS BEEN ADVISED OF THE POSSIBILITY OF SUCH DAMAGES. TO THE EXTENT PERMITTED BY APPLICABLE LAW, AMPLIFY’S ENTIRE LIABILITY TO YOU ARISING OUT OF PERFORMANCE OR NONPERFORMANCE BY AMPLIFY OR IN ANY WAY RELATED TO THE SUBJECT MATTER OF THIS AUP, REGARDLESS OF WHETHER THE CLAIM FOR SUCH DAMAGES IS BASED IN CONTRACT, TORT, STRICT LIABILITY, OR OTHERWISE, WILL NOT EXCEED $100 IN AGGREGATE. UNDER NO CIRCUMSTANCES WILL AMPLIFY BE LIABLE FOR ANY CONSEQUENCES OF ANY UNAUTHORIZED USE OF THE PRODUCTS THAT VIOLATES THIS AUP OR ANY APPLICABLE LAW OR REGULATION.
15. Termination
Amplify may terminate or suspend your access to the Products at any time for any reason, including if Amplify believes that you have violated the AUP or have engaged in conduct that violates applicable law or is otherwise harmful to the interests of Amplify, any other Amplify user, or any third party. Upon termination, you will: cease using the Products and return, purge, or destroy all copies of any Products and, if so requested, certify to Amplify in writing that such surrender or destruction has occurred. Sections 3–13, 16, and 17 will survive the termination of this Agreement.
16. Governing Law
This Agreement will be governed by and construed and enforced in accordance with the laws of the U.S., state of New York, without giving effect to the choice of law rules thereof.
17. Additional terms for iOS apps
By downloading any Products through Apple, Inc.’s App Store (“iOS Products”), you agree that the following additional terms apply to your use of our iOS Products:
- This AUP is not a legal agreement with Apple, Inc. (“Apple”). As between Amplify and Apple, Amplify (not Apple) is responsible for the iOS Products and the contents thereof.
- The license to use the iOS Products under Section 3 above is limited to use (i) on iOS devices that you or your School owns or controls, separate from and in addition to any specific technical requirements for any iOS Product, and (ii) as permitted by the Usage Rules set forth in Apple Media Services Terms and Conditions.
- You must comply with applicable third-party terms of agreement when using the Products.
- Without limiting Section 13 above and solely as between Amplify and Apple, you acknowledge that: (i) Apple has no obligation whatsoever to furnish any maintenance and support services with respect to the iOS Products; (ii) Amplify (not Apple) is responsible for addressing any claims of yours or of any third party relating to the iOS Products or your possession and/or use of the iOS products, including but not limited to (1) product liability claims, (2) any claim that the iOS Products fail to conform to any applicable legal or regulatory requirement, and (3) claims arising under consumer protection, privacy, or similar legislation; (iii) in the event of any failure of the iOS Products to conform to any applicable warranty, you may notify Apple, and Apple will refund the purchase price for the iOS Products to you; to the maximum extent permitted by applicable law, Apple will have no other warranty obligation whatsoever with respect to the iOS Products, and any other claims, losses, liabilities, damages, costs, or expenses attributable to any failure to conform to any warranty will be Amplify’s sole responsibility; and (iv) in the event of any third-party claim that the iOS Products or your possession and use of the iOS Products infringes that third party’s intellectual property rights, Amplify (not Apple) will be responsible for any investigation, defense, settlement, and discharge of any such intellectual property infringement claim.
- You represent and warrant that: (i) you are not located in a country that is subject to a U.S. Government embargo, or that has been designated by the U.S. Government as a “terrorist supporting” country; and (ii) you are not listed on any U.S. Government list of prohibited or restricted parties.
- Apple and Apple’s subsidiaries are third-party beneficiaries of these Terms, and upon your acceptance of these Terms, Apple will have the right (and will be deemed to have accepted the right) to enforce these Terms against you as a third-party beneficiary thereof.
- Any questions, complaints, or claims with respect to the Products should be directed to:
Email: privacy@amplify.comMail: Amplify Education, Inc., 55 Washington St. #800, Brooklyn, NY, 11201
18. Additional terms for Mathigon and Amplify Classroom accounts.
a. Mathigon updates: Amplify no longer offers accounts for Child Users, but we will continue to allow Child Users to access their active legacy Mathigon accounts where verifiable parental consent was obtained. We will continue to protect personal information in accordance with the Privacy Policy and applicable law.
b. Mathigon and Amplify Classroom:
i. School Use:
- Educators: If you are an Educator, you can create a Mathigon or an Amplify Classroom account using any existing email or through an existing third-party account (e.g. Google, Microsoft). Go to https://mathigon.org/signup#teacher to sign up for Mathigon. Go to classroom.amplify.com to sign up for Amplify Classroom.
- Students can also sign up using a unique class code provided by an Educator. Educators are responsible for gaining appropriate authorization or permission from their School to use the Products with students, including Child Users, before providing their unique class code or linking the Products to a third-party service like Google Classroom. For such use in the school context, we do not request additional consent from parents in accordance with the “school official” exception under FERPA and relevant COPPA guidance. For more information, visit our Privacy Policy, which describes how we collect, use, and disclose personal information and data through the provision of our Products in schools.
ii. Outside of School Use: If you are an individual user using the Products at home or otherwise outside of the school context, you are prohibited from collecting or providing any personal information from students or minors. You are permitted to access the platform for instructional purposes, but you may not enroll or roster minors, create accounts for minors, or input any personal information of minors into the Product.
19. Updates to this policy
We may change this Acceptable Use Policy in the future. For example, we may update it to address changes in our product offerings, or to address changes in the law or best practices. If we make changes that materially impact your legal rights or use of our products, we will provide prominent notification to you (e.g. via the Site or by email). Otherwise, we will post any updates to the policy with an updated “Last Revised Date” and all changes will become effective immediately. Please check the Last Revised Date to confirm if the policy has been revised.
Last Modified: February 2, 2026
TEA announces additional innovative learning solutions for K-12 English and Spanish and K-5 science to support schools across Texas
AUSTIN, Texas—October 5, 2020—The Texas Education Agency today announced the next set of instructional materials—covering K-12 English Language Arts and Reading (ELAR), K-5 Spanish Language Arts and Reading (SLAR), and K-5 Science—that will be made available to school systems through the Texas Home Learning 3.0 (THL 3.0) initiative. Like other THL 3.0 offerings, these instructional materials are optional, digitized, customized for Texas, and aligned to Texas Essential Knowledge and Skills (TEKS)—the state standards for what students should know and be able to do.
TEA has partnered with Amplify for K-8 ELAR and K-5 SLAR, Odell Education for 9-12 ELAR, and Great Minds for K-5 Science to develop and deliver this next set of high-quality resources including TEKS-aligned unit and lesson plans. Additional materials will be released on a continuous basis. Before release, all THL 3.0 instructional materials undergo a rigorous review that includes Texas teacher feedback to confirm alignment with TEKS and quality standards. Additional THL 3.0 instructional materials for other subjects and grade levels will be announced over the coming weeks.
“As the pandemic continues to disrupt public education across our state, TEA is committed to supporting schools with effective distance learning resources,” said Texas Education Commissioner Mike Morath.
Amplify’s K-5 Texas Elementary Literacy Program for ELAR and SLAR and 6-8 Amplify ELAR Texas are TEKS-aligned language arts curriculum designed to support Texas learners in the classroom, at home, or wherever learning takes place. Built on the science of teaching reading, the K-5 Amplify Texas Elementary Literacy Program combines foundational skills with content knowledge—so that learning to read and reading to learn develop together. The 6-8 Amplify ELAR Texas program is a TEKS-aligned, blended language arts curriculum that places text at the center of every lesson. Designed specifically for Texas middle schools, this flexible program supports digital, print, and hybrid classrooms.
“We are thrilled to partner with TEA to provide Texas teachers and students with the highest quality reading and language arts programs that align to TEKS standards,” said Larry Berger, chief executive officer of Amplify. “Amplify’s flexible core and supplemental materials will support Texas educators and students whether learning is happening at home, in school, or some of each.”
Odell Education’s Texas High School Literacy Program, which covers 9-12 ELAR, is an innovative program created specifically for Texas high school students and educators. It is designed to support seamless learning in a variety of contexts. The program empowers teachers and students through dynamic activities centered on rich texts and topics as they develop TEKS-aligned literacy skills, habits, and knowledge.
“We are thrilled to partner with Texas educators to develop an exciting new literacy program for the high school students in Texas,” says Odell Education CEO Judson Odell. “Thanks to the tremendous commitment of the Texas Education Agency, Texas high schoolers will have a flexible program for this year and beyond that fosters the literacy they need to thrive wherever their path may lead them.”
Great Minds’ K-5 PhD Science TEKS Edition is a phenomenon-based program in which teachers facilitate the learning, but students own it. In every module, students explore authentic phenomena to build an enduring understanding of core science concepts through hands-on investigations and evidence-based learning. And now it is being adapted to align with the TEKS and, in partnership with TEA through its Texas Home Learning initiative, will be available as an open education resource for all schools and districts in the state.
“Science education should start early, and it should be comprehensive,” says Pam Goodner, Great Minds Chief Academic Officer for Science. “Texas recognizes that students need coherent instruction that builds knowledge from lesson to lesson to develop deep scientific understanding. PhD Science TEKS Edition will deliver what the state is seeking to help students act as scientists to observe, model, investigate, and understand the world around them.”
THL 3.0 is a comprehensive initiative to support school systems, teachers, parents, and students during the public health crisis and beyond with high-quality instructional materials, technology solutions, and professional development resources. TEA previously announced that it will offer all Texas school systems a world-class Learning Management System (LMS) from PowerSchool’s Schoology for two years at no cost. Nearly 400 Texas school systems have already signed up, with another 200 currently engaging with the Schoology team.
For more information on Texas Home Learning 3.0, please click here.
The Texas Education Agency news release is available here.




































