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Gr 7-8 Math Learning Progressions with Student Work Examples

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Version 1.0 | Developed By:�Carla Evans & Caroline Wylie�National Center for the Improvement of Educational Assessment

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Background on Learning Progressions

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Learning Progressions

The stages of learning to walk include:

  • Pre-walking baby steps (3-6 months old)
  • Crawling (6-9 months old)
  • Pulling up on furniture (9 months old)
  • Walking with help (9-12 months old)
  • Standing without help (12-18 months old)
  • Walking (two years plus)

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A Progression is helpful, not deterministic

  • Not every baby hits every stage at the same time.
  • Some babies never crawl.
  • Some regress.
  • But the patterns of typical progress are helpful.

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Mathematics Learning Progressions

What are they?

  • Built on cognitive science, learning theory, and research studies that focus on how students typically develop understanding of big ideas in mathematics over time.
  • More than a scope and sequence.

Why Useful?

  • Provide an interpretive framework:
    • Support listening for what students do and do not understand, rather than focusing on correct/incorrect.
    • Analyze student work for understanding.
    • Support asset-based interpretations and next steps.

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Grade Spans

Mathematical Thinking

Progressions

K-3

Additive Reasoning

Base Ten, Addition, Subtraction

3-6

Multiplicative Reasoning

Multiplication, Division

3-8

Fractional Reasoning

Fractions

6-8

Proportional Reasoning

Ratios & Proportions

California 2023 Math Framework: Figure 3.1 Big Ideas to Be Presented in Each Grade-Level Band

TK–2

3–5

6–8

9–12

Organize and count with numbers

Compare and order numbers

Learn to add and subtract, using numbers flexibly

Extend flexibility with number

Understand the operations of multiplication and division

Make sense of operations with fractions and decimals

Use number lines as tools

Demonstrate number line understanding

Develop an understanding of ratios, percents, and proportional relationships

See generalized numbers as leading to algebra

See parallels between numbers and functions

Develop an understanding of real and complex number systems

Develop financial literacy

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A Couple Notes about Learning Progressions

Learning progressions are NOT a curriculum. You will use your curriculum to elicit student thinking and then use the progressions to make sense of and interpret evidence of student thinking as you analyze their work.

  • Sarama and Clements (2009) state that the value of learning progressions is that they can help teachers see “themselves not as moving through a curriculum, but as helping students move through levels of understanding” (p. 17).

Learning progressions are not evaluative but are intended to be used for descriptive evidence and instructional decision-making.

  • Not all possible strategies are represented on the progressions.
  • There is no one right path to move students towards more efficient and sophisticated strategies.

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Learning Progressions

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K-2

3-4

5-6

7-8

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Gr 7-8 Fractions Progression

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Individually, start from the bottom and work your way up to start to make sense of the progression.

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Quick Turn and Talk

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What do you notice in the progression?

What are you wondering about?

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Quick share out:

  • What did you notice?
  • Wonders?

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Interact with the Progression

  1. For what grades is the progression likely to be relevant?
  2. Where are students in grades 7-8 typically at this time of year on this progression?
  3. What is the range within each grade level of students on the progression?
  4. How does this information impact teaching and learning?
  5. What is the goal (based on the standards) for the end of each grade level?

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Stand up and form Gr 7-8 pairs to discuss the questions for 5 minutes.

We will ask one group to share out and others to add in if areas of disagreement.

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Share Out from the Jigsaw

Whole group conversation:

  • One group volunteers to share out their responses to the questions.
  • Does another group have anything significantly different to add?

  • For what grades is the progression likely to be relevant?
  • Where are students in grades 7-8 typically at this time of year on this progression?
  • What is the range within each grade level of students on the progression?
  • How does this information impact teaching and learning?
  • What is the goal (based on the standards) for the end of each grade level?

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Heuristic for Looking at Student Work

  1. What do you notice in the student work?
  2. How does the student work relate to the learning progression (where does it fall; what can be built upon)?
  3. What could you do next instructionally for the whole class, small groups, or for individuals?
    1. What nudge might support this student’s thinking?
    2. How do I group students together for small group instruction?
    3. Are there students who can share different strategies with the whole class to show their thinking and explain their reasoning?

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Example 1: Comparing Student Work Samples F-J

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Ashley bought 6 pounds of candy. She put the candy into bags that each hold ¾ of a pound of candy. How many bags of candy did Ashley fill?

F

G

Examples were taken from Petit, M. M., Laird, R. E., Ebby, C. B., & Marsden, E. L. (2023). A Focus on Fractions: Bringing Mathematics Education Research to the Classroom (3rd ed.). Routledge.

H

6 ÷ ¾ =

6/1 x 4/3 =

24/3 = 8 bags

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J

I

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Example Shareout

  • What do you notice in the student work?
  • How does the student work relate to the learning progression (where does it fall; what can be built upon)?
  • What could you do next instructionally for the whole class, small groups, or for individuals?

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Fractional Strategies

Student H: Divided whole number by fraction showing correct interpretation of problem and then calculated answer using correct procedures.

Transitional Strategies

Student F: Created number line showing 6 pounds of candy and then divided each pound into fourths; used skip counting of fourths to identify 8 bags.

Student I: Created a table and subtracted ¾ starting with 6 pounds for each new bag.

Student J: Used repeated addition to calculate number of bags using unit fraction strategy.

Early Fractional Strategies

Student G: Created area models showing ¾ filled in, but wasn’t able to figure out how many bags or show understanding of 6 pounds.

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Gr 7-8 Ratio & Proportions Progression

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Individually, start from the bottom and work your way up to start to make sense of the progression.

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Quick Turn and Talk

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What do you notice in the progression?

What are you wondering about?

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Quick share out:

  • What did you notice?
  • Wonders?

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Interact with the Progression

  • For what grades is the progression likely to be relevant?
  • Where are students in grades 7-8 typically at this time of year on this progression?
  • What is the range within each grade level of students on the progression?
  • How does this information impact teaching and learning?
  • What is the goal (based on the standards) for the end of each grade level?

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Stand up and form Gr 7-8 pairs to discuss the questions for 5 minutes.

We will ask one group to share out and others to add in if areas of disagreement.

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Share Out from the Jigsaw

Whole group conversation:

  • One group volunteers to share out their responses to the questions.
  • Does another group have anything significantly different to add?

  • For what grades is the progression likely to be relevant?
  • Where are students in grades 7-8 typically at this time of year on this progression?
  • What is the range within each grade level of students on the progression?
  • How does this information impact teaching and learning?
  • What is the goal (based on the standards) for the end of each grade level?

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Heuristic for Looking at Student Work

  • What do you notice in the student work?
  • How does the student work relate to the learning progression (where does it fall; what can be built upon)?
  • What could you do next instructionally for the whole class, small groups, or for individuals?
    • What nudge might support this student’s thinking?
    • How do I group students together for small group instruction?
    • Are there students who can share different strategies with the whole class to show their thinking and explain their reasoning?

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Example 1: Comparing Student Work Samples A-F

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B

Examples were taken from Petit, M. M., Laird, R. E., Wyneken, M. F., Huntoon, F. R., Abele-Austin, M. D., & Sequeira, J. D. (2020). A Focus on Ratios and Proportions: Bringing Mathematics Education Research to the Classroom. Routledge.

A

C

Donna runs at an average rate of 12 minutes a mile. At this rate how many miles does Donna run in 28 minutes?

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Example 1: Comparing Student Work Samples A-F

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E

Examples were taken from Petit, M. M., Laird, R. E., Wyneken, M. F., Huntoon, F. R., Abele-Austin, M. D., & Sequeira, J. D. (2020). A Focus on Ratios and Proportions: Bringing Mathematics Education Research to the Classroom. Routledge.

Donna runs at an average rate of 12 minutes a mile. At this rate how many miles does Donna run in 28 minutes?

D

F

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Example Shareout

  • What do you notice in the student work?
  • How does the student work relate to the learning progression (where does it fall; what can be built upon)?
  • What could you do next instructionally for the whole class, small groups, or for individuals?

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Proportional Strategies

Student C: Student finds unit rate (min/mile) and then applies by multiplying by 28 to get solution. Solution is not simplified.

Student D: Student sets up ratio relationships (12:1 and 28: X) uses multiplicative relationships to get scale factor of 2 ⅓ so solve the problem.

Early Transitional Proportional Strategies

Student A: Student uses multiplicative relationships to identify that 28 minutes falls between 2-3 miles. Student then divides 28 by 12 to get 2.4 miles because interprets the remainder as 4/10ths of a mile. Student does not use ratio or rate reasoning to solve the problem and misinterprets remainder.

Student B: Student seems to notice that 12 minutes a mile x 2 = 24 minutes and 2 miles. They then try to figure out the extra 4 minutes (28-24). Rather than use rate or ratio reasoning, the student notices that 4 minutes is ⅙ of 24 minutes (24/4=6; though should be out of 12 minutes).

Early Ratio Strategies

Student F: Student notices 12:1 = 24:2, but then uses incorrect procedure to find solution.

Non-Proportional Strategies

Student E: Student uses multiplication and addition to solve. No evidence of ratio or proportional understanding other than perhaps in first multiplication.

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Concrete → Representational → Abstract

Examples:

  • Ratio table
  • Visual model
  • Graph on equivalent ratios on a coordinate plane (x,y)

Example:

Scaling a punch recipe with 2 parts ginger ale to every part juice.

Examples:

y=kx

sets up proportion

3 min = 8 min

14 gal = x gal

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