MathLab

Mark Coté, Project Manager

How do you create time?  I pondered this Einsteinian conundrum one day while working with a handful of struggling students during my sixth period algebra class.  Despite good effort, these students were making minimal progress toward understanding the material and were clearly missing key concepts that should have been acquired during previous instruction.  I knew that I could help them catch up if we just had a little more time together.

Extra time to help students is the one educational commodity that is always in short supply.  It seems elusive, constantly slipping through our fingers as the days and weeks and months of each school year race by at an uncomfortable velocity, while we try to adhere to a timeline commensurate with course completion.  Many teachers are able to extend the school day by offering extra assistance before or after school, but all too often the students who would benefit most cannot or will not set the time aside.

So following one particularly frustrating session with my sixth period algebra class, I met with my principal and our school’s counselors to discuss options for additional support.  A review of student records indicated that none of those that I was concerned about qualified for special education services.  Several of the students participated in an after-school tutoring club that was staffed by volunteers from the community, but finding folks who could help with the algebra was typically rare.  We decided to try a variation of the resource room intervention model that has been around since the 1970’s following the passage of Public Law 94-142 – The Education of All Handicapped Children Act.

The typical resource room is a separate classroom in a school where students with qualifying educational disabilities, such as specific learning disabilities, are given direct, specialized instruction with the goal of academic remediation.  Additionally, assistance with homework and related assignments is provided.  At the secondary level, students usually receive resource room support during one class period out of a six or seven period day.  And during that period, as many as ten to twelve students may be working on assignments and projects from a dozen different courses, with possibly two dozen teachers putting their own spin on each academic task.

The modified model that we implemented targeted mathematics instruction and became known as MathLab.  Recommendations for this type of intervention, known as Tier 2, have been published by the U.S. Dept. of Education as an IES (Institute of Education Sciences) Practice Guide

Our first attempt involved the following procedures:  1) At a math department meeting during the late spring, teachers generated a list of students who needed extra instructional support, which tallied to 25 – 30 per grade level in a school with a population of 900.  2)  Three teachers (one for each middle school grade) volunteered to teach a MathLab class in the fall as part of their five-period day.  3)  The counselors scheduled the students accordingly and we opened for business in September.  Or so we thought.

By the end of week one, we set aside any illusions of miraculous remediation and realized that behavior management would be a daily priority superseding math instruction.  We quickly discussed options for damage control so that the classes retained a modicum of educational value and took stock of our three major mistakes.

  1. Oversized Classes – Believing that modest academic growth would result from grouping 30 struggling students who generally disliked math into one classroom was presumptuous to say the least.  Noting that general social immaturity, impulse control, weak attention spans, and the absence of study skills were all common characteristics of our student population, we resolved that all future MathLab classes would have a maximum of twelve students.
  2. Screening – We never asked the students what they thought about losing an elective (which is usually a daily highlight for a struggling student) and replacing it with a second hour of a subject that was synonymous with failure.  Many arrived the first day of class with a disgruntled attitude and little or no desire to take on the challenge of trying to understand the math.  The new screening process involved consultations with both the students and the parents in the spring, well before student schedules were created for the fall.  Only those who wanted the additional support were enrolled and anyone was welcome to transfer out of the MathLab to a different elective when a term ended.
  3. Single Teacher – Conducting an intervention class in concert with the entire math department presented numerous logistical challenges.  Our goal was to help each student succeed in his or her “regular” math class.  But with varied teaching styles, individual preferences for lesson focus, pacing discrepancies, and differences in grading philosophy, the number of days when everyone was on the same page regarding instruction were few and far between.  The solution was to ensure that all twelve students in the MathLab class would also have the MathLab teacher as their “regular” class instructor.  So I worked with my twelve MathLab students during first period, and then again in groups of three or four (as members of classes of 30-36 students) as they attended one of my four periods of algebra later in the day.

After making these organizational adjustments, year two of MathLab was deemed a resounding success.  The design features of the CPM curriculum fit the goals of this intervention class like a glove.  Employing Study Team Teaching Strategies in conjunction with team roles helped the students focus and practice the types of behaviors they would need for participation in the regular algebra class.  Daily front-loading with the key problems in each lesson gave the students a leg up when it came time to attack the problems with their algebra class teams later in the day.  On numerous occasions, it was the MathLab students leading their teams through the problem solving challenges, a big change from the past practice of sitting quietly and doing nothing or finding an off-task behavior to engage in.  MathLab time was also used to get a jump start on the Review and Preview problems, extend time for tests and test corrections, target specific mathematical deficits for extra practice, and offer extra learning strategies that are compatible with developing growth mindset behaviors.

Since this intervention model was so successful, I decide to share the idea and results at the 2015 CPM National Conference during a session entitled They Don’t Get the Algebra – Now What?  As a participant in the session, TRC teacher Pam Lindemer found the MathLab idea to be very exciting and something she might like to try at her school.  So she went home and convinced her principal to add MathLab to the schedule for the 2015-16 school year.  Watch for the spring CPM Newsletter to find out how MathLab is going in Pam’s school.

Inspiring Connections
Course 1

Prelude

0.1.1 What do they have in common?
0.1.2 How can I effectively communicate with my team?
0.1.3 Is there another perspective?
0.1.4 How can I persevere through struggle?
0.1.5 How can I see this happening?
0.1.6 What patterns can I recognize?
0.1.7 What is the best strategy?
0.1.8 How does respect look?

Chapter 1

1.1 Proportions and Proportional Relationships
1.1.1 How can I determine the length?
1.1.2 How big is a million?
1.1.3 How can I predict the outcome?
1.1.4 What is your fair share?
1.1.5 How can I prove two ratios form a proportion?
1.1.6 What is the relationship between the numbers?
1.2 Integer Operations
1.2.1 How can I change temperatures?
1.2.2 How can I show my thinking?
1.2.3 How can adding zero help?
1.2.4 How can I multiply integers?
1.2.5 How can I divide integers?
1.2.6 How can I compose numbers?
1.2.7 What is My Number?
1.3 Proportions and Graphs
1.3.1 How can a graph tell a story?
1.3.2 How do graphs, scale, and proportions connect?

Chapter 2

2.1 Fraction and Decimal Conversions
2.1.1 How can I rewrite it?
2.1.2 How do I write it?
2.1.3 Which representations are equivalent?
2.2 Probability
2.2.1 Is it likely or unlikely?
2.2.2 How can I represent probability as a fraction, decimal, and percent?
2.2.3 How does probability work in real-world situations?
2.2.4 How can I predict the theoretical probability using experimental data?
2.3 Scale Drawings
2.3.1 How can I determine the distance?
2.3.2 How can I enlarge a shape?
2.3.3 Does that look right?
2.3.4 Is it a scaled copy?
2.3.5 What is the best scale?
2.4 Cross Sections
2.4.1 What do I see when I slice a three-dimensional object?
2.4.2 How are cross sections and volume related?

Chapter 3

3.1 Proportional Relationships
3.1.1 How does it grow?
3.1.2 How does the money grow?
3.1.3 Is this a proportional relationship?
3.1.4 How can I create a graph?
3.1.5 What do the points mean?
3.1.6 What connections can I make?
3.2 Data and Statistics: Using Samples to Make Predictions
3.2.1 What connections can I make?
3.2.2 Which sample is more accurate?
3.2.3 Does the sample represent the population?
3.2.4 How close is my sample?
3.2.5 How are the problems related?

Chapter 4

4.1 Multiple Representations of Proportional Relationships
4.1.1 How fast can I click?
4.1.2 How can I determine which grows faster?
4.1.3 How do I see the unit rate?
4.1.4 How can I write an equation?
4.1.5 What is the better deal?
4.1.6 What impact do I have?
4.1.7 How can I calculate values more efficiently?
4.1.8 How can I convert between different units of measurement?
4.1.9 How can I make the connections?
4.2 Circumference and Area of a Circle
4.2.1 How are they proportional?
4.2.2 How much space is inside?
4.2.3 What is the formula for the area of a circle?
4.2.4 How can the formula for the area of a circle help me?

Chapter 5

5.1 Probability
5.1.1 What are the chances?
5.1.2 How can I calculate the probability of more than one event?
5.1.3 What if there is more than one event?
5.1.4 What if there are more than two events?
5.1.5 How can I determine all of the outcomes?
5.1.6 What if it is more complicated?
5.2 Integer Operations Continued
5.2.1 How does each operation move points on a number line?
5.2.2 How can I show division?
5.2.3 How can I calculate it?
5.2.4 How can I check my guess?

Chapter 6

6.1 Data Distributions
6.1.1 Who is steadier?
6.1.2 How different are they?
6.1.3 How do they compare?
6.1.4 Who is more efficient?
6.1.5 How can I simulate a sample?
6.2 Numerical and Algebraic Expressions
6.2.1 How can I combine them?
6.2.2 How can I rewrite an expression?
6.2.3 How can I write an expression with negatives?
6.2.4 What does zero look like?
6.2.5 How does it move?
6.3 Equivalent Expressions
6.3.1 How can I group them?
6.3.2 Are they equivalent?
6.3.3 What are the connections?

Chapter 7

7.1 Operations With Rational Numbers
7.1.1 Will the amount increase or decrease?
7.1.2 Are differences and distance the same?
7.1.3 Can I add these?
7.2 Percent Change
7.2.1 Does this represent an increase or a decrease?
7.2.2 How does this change the total?
7.2.3 How is the money split?
7.2.4 Do I pay more?
7.3 Percents in the Real World
7.3.1 Is this good for business?
7.3.2 How much did it change?
7.3.3 Is this acceptable?
7.3.4 How are percents represented in expressions?
7.3.5 Which is easier, calculating with fractions or decimals?

Chapter 8

8.1 Multiplication and Division of Rational Numbers
8.1.1 Is the product positive or negative?
8.1.2 How are multiplication and division connected?
8.1.3 What is the relationship?
8.1.4 How can I divide?
8.1.5 How do I solve it?
8.2 Working With Expressions
8.2.1 Which is greater?
8.2.2 How can I record my work?
8.2.3 What happens when the comparison depends on x?

Chapter 9

9.1 Angle Relationships
9.1.1 How can I draw an angle?
9.1.2 How can I combine angles?
9.1.3 How can I calculate the measure of a missing angle?
9.2 Triangle Creation
9.2.1 How can I put angles and lengths together?
9.2.2 Will these lengths make a triangle?
9.2.3 How many triangles? 9.2.4 Can I construct it?
9.3 Volume and Surface Area
9.3.1 How much material do I need?
9.3.2 How do I calculate the surface area and volume?
9.3.3 How much will it hold?
9.3.4 What am I measuring?

Chapter 10

10.1: Explorations and Investigations
10.1.1 How can I make 0?
10.1.2 What number properties pair well?
10.1.3 How can you place algebraic expressions on the number line?
10.1.4 How can I solve it?
10.1.5 What can you say about the sums of consecutive numbers?
10.2: Restaurant Math
10.2.1 How can you draw it to scale?
10.2.2 How can you calculate the cost?
10.2.3 What do portions have to do with proportions?
10.2.4 What markdown undoes a markup?

Inspiring Connections
Course 2

Prelude

0.1.1

Who are my classmates?

0.1.2

How do I work collaboratively?

0.1.3

What questions can I ask?

0.1.4

How can I categorize my words?

0.1.5

How can I communicate my ideas?

0.1.6

How can the team build this together?

0.1.7

What do we need to work togethe

 

Chapter 1

1.1 Numbers and Data

1.1.1 How should data be placed on this line?

1.1.2 Where do these numbers belong on this line?

1.1.3 How can I use two lines to solve problems?

1.1.4 How can data be used to answer a question?

1.1.5 How are histograms helpful?

1.1.6 How else can data be displayed?

1.2 Shapes and Area,

1.2.1 How can I write equivalent expressions in area and perimeter?

1.2.2 What shapes make up the polygon?

1.2.3 How can I make it a rectangle?

1.3 Expressions

1.3.1 How can I describe it using symbols?

1.3.2 What are the parts of an expression?

1.3.3 How do I work with decimals?

1.3.4 How do I multiply multi-digit decimals?

1.3.5 How can I represent the arrangement?

Chapter 2

2.1 Ratio Language

2.1.1 How can I compare two quantities? 

2.1.2 How can I write ratios?

2.1.3 How can I see ratios in data representations?

2.2 Equivalent Ratios

2.2.1 How can I visualize ratios?

2.2.2 How can I see equivalent ratios in a table?

2.2.3 How can I see equivalent ratios in a double number line?

2.2.4 How can I see equivalent ratios in tape diagrams?

2.2.5  How can I use equivalent ratios?

2.2.6 What do these represent?

2.3 Measurement

2.3.1 What are the measurements?

2.3.2 What are the units?

2.3.3 How can I convert units

Chapter 3

3.1 Measures of Center 

3.1.1 How can I measure the center?

3.1.2 How else can I measure the center?

3.1.3 Which is the better measure of center?

3.1.4 What happens when I change the data?

3.2 Integers

3.2.1 What numbers do I see?

3.2.2 What number is this?

3.2.3 What does a number line say about a number?

3.2.4 How do I compare different types of numbers?

3.3 Absolute Value

3.3.1 How do I describe the location?

3.3.2 How far do I walk?

3.3.3 Which one is greater?

3.3.4 How do I communicate mathematically?

 

3.4 Coordinate Plane

3.4.1 How can you precisely indicate a location?

3.4.2 What is the correct order?

3.4.3bWhat symbol represents me?

Chapter 4

4.1 Fractions, Decimals, and Percents
4.1.1 How can I tell if the ratios are equal?
4.1.2 What does “percent” mean?
4.1.3 How can I convert a fraction?
4.1.4 How can I convert a percent?
4.1.5 How can I convert a decimal?

4.2 Percents 4.2.1 How can I show it?
4.2.2 What can I learn from the label?
4.2.3 Are the percents fair?
4.3 Unit Rates in Tables and Graphs 4.3.1 How can I compare rates?
4.3.2 Which rate is better?
4.3.3 Which deal is best?
4.3.4 What is the unit rate?
4.3.5 How can I use different data representations?

Chapter 5

5.1 Variation in Data
5.1.1 How do I ask a statistical question?
5.1.2 What does each representation say about the data?
5.1.3 What does the box in a box plot represent?
5.1.4 How else can I describe data?

5.2 Area
5.2.1 What is the height?
5.2.2 Can I reconfigure a parallelogram into a rectangle?
5.2.3 How do I calculate the area?
5.2.4 How many triangles do I need?
5.2.5 What is my perspective?
5.2.6 Is it fair to play by the rules?
5.2.7 What shapes do I see?

5.3 Fractions
5.3.1 How can I represent fraction multiplication?
5.3.2 How can I multiply fractions?
5.3.3 How can I multiply mixed numbers?

Chapter 6

6.1 Rules of Operations
6.1.1 What does it mean?
6.1.2 What do mathematicians call this?
6.1.3 How much should I ask for?
6.1.4 How can I write mathematical expressions?
6.1.5 How do mathematicians abbreviate?
6.1.6 In what order should I evaluate?

6.2 Multiples and Factors
6.2.1 When will they be the same?
6.2.2 What are multiples?
6.2.3 What do they have in common?
6.2.4 Who is your secret valentine?
6.2.5 How can I understand products?
6.2.6 How can I rewrite expressions?
6.2.7 Which method do I use?

Chapter 7

7.1 Whole Number and Decimal Division
7.1.1 How can I share equally?
7.1.2 Which strategy is the most efficient?
7.1.3 How can I write the number sentence?
7.1.4 How can I divide decimals?
7.1.5 How should the problem be arranged?

7.2 Fraction Division
7.2.1 What if the divisor is a fraction?
7.2.2 How many fit?
7.2.3 How can I visualize this?
7.2.4 What is common about this?
7.2.5 How can I use a Giant One?
7.2.6 Which method is most efficient?

Chapter 8

8.1. Algebra Tiles
8.1.1 What do these shapes represent?
8.1.2 What does a group of tiles represent?
8.1.3 What is an equivalent expression?
8.1.4 Which terms can be combined?
8.1.5 What do the numbers mean?
8.1.6 What can a variable represent?

8.2 Expressions
8.2.1 How can I count it?
8.2.2 What if the size of the pool is unknown?
8.2.3 How can I use an algebraic expression?

8.3 Equations and Inequalities
8.3.1 Which values make the equation true?
8.3.2 How can patterns be represented?
8.3.3 What is the equation?
8.3.4 How many could there be?

Chapter 9

9.1 Equations and Inequalities Continued
9.1.1 When is the statement true?
9.1.2 How do I undo that?
9.1.3 How can I visualize an equation?
9.1.4 How can I solve an equation?
9.1.5 How can I make the unknown known?
9.1.6 How can I include all the solutions?
9.1.7 Which method should I use?
9.2 Rate Problems
9.2.1 How much does rice cost?
9.2.2 How long will it take?
9.2.3 How can I compare them?
9.2.4 How long will the race take?
9.2.5 How can I represent the rate?

Chapter 10

10.1: Explorations and Investigations
10.1.1 How can I make 0?
10.1.2 What number properties pair well?
10.1.3 How can you place algebraic expressions on the number line?
10.1.4 How can I solve it?
10.1.5 What can you say about the sums of consecutive numbers?
10.2: Restaurant Math
10.2.1 How can you draw it to scale?
10.2.2 How can you calculate the cost?
10.2.3 What do portions have to do with proportions?
10.2.4 What markdown undoes a markup?

Chapter 11

11.1: Ratios and Proportions
11.1.1 How much food is there?
11.1.2 How much do we need?
11.1.3 How much is that?
11.1.4 How can I redesign the classroom?
11.2: The Number System
11.2.1 Can I determine all the right measurements?
11.2.2 How can I show my understanding?

Inspiring Connections
Course 3

Prelude

0.1.1 What can I learn from my classmates?
0.1.2 How can shapes move?
0.1.3 What does respect mean to me?
0.1.4 What story might this represent?
0.1.5 Do all cities value parks the same?
0.1.6 How can I contribute to my team?

Chapter 1

1.1 Data and Graphs
1.1.1 How can I represent data?
1.1.2 How can I use data to solve a problem?
1.1.3 Is the roller coaster safe?
1.1.4 Is there a relationship?
1.1.5 What is the relationship?

1.2 Introduction to Transformations
1.2.1 How can I move a figure on the coordinate plane?
1.2.2 How can I describe the steps precisely?
1.2.3 Is there another way?
1.3 Linear Relationships
1.3.1 How can I graph a proportional relationship?
1.3.2 How do they compare?
1.3.3 Can I graph myself?
1.3.4 How can I represent this with a graph?
1.3.5 How can I graph a linear relationship?

Chapter 2

2.1 Rigid Transformations
2.1.1 How can I describe it?
2.1.2 How does reflection affect coordinates?
2.1.3 What can I create?
2.2 Similarity
2.2.1 What if I multiply?
2.2.2 How do shapes change?
2.2.3 What can I say about dilated shapes?
2.2.4 Are they similar?
2.2.5 How can I move a shape on a coordinate plane?
2.3 Graphing Systems of Equations
2.3.1 Where do the lines cross?
2.3.2 Will different tile patterns ever have the same number of tiles?

Chapter 3

3.1 Trend Lines
3.1.1 Are these variables related?
3.1.2 Which line fits the data well?
3.1.3 How can this association be explained?
3.2 Solving Equations with Algebra Tiles
3.2.1 How can I represent an expression?
3.2.2 How can I rewrite an expression?
3.2.3 How can I compare two expressions?
3.2.4 How can I solve the equation?
3.3 Graphing Linear Equations
3.3.1 What is the rule?
3.3.2 How can I make a prediction?
3.3.3 What is a graph and how is it useful?
3.3.4 How should I graph?
3.3.5 What observations can I make about a graph?

Chapter 4

4.1 Exponents, Part 1
4.1.1 What is exponential growth?
4.1.2 How can you (re)write it?
4.1.3 How can notation help you make sense of exponential expressions?
4.1.4 Are there other exponent properties?
4.1.5 How can I prevent common exponential expression errors?
4.2 Solving Equations
4.2.1 How can I check my answer?
4.2.2 Is there always a solution?
4.2.3 How many solutions are there?
4.2.4 How can I solve complicated equations?
4.2.5 How can I write an equation to meet the criteria?
4.3 Exponents, Part 2
4.3.1 What if the exponent is not positive?
4.3.2 How do you know which exponent properties to use?

Chapter 5

5.1 Representations of a Line
5.1.1 What is the connection?
5.1.2 How can you show it?
5.1.3 How does it grow?
5.1.4 How is the growth represented?
5.1.5 How can I write the rule?
5.1.6 How can you make connections?
5.1.7 How can you use growth?
5.1.8 What are the connections?
5.2 Graphs & Equations of Systems
5.2.1 How can I change it to y = mx + b form?
5.2.2 How can I eliminate fractions and decimals in equations?
5.2.3 How do I change the line?
5.2.4 Is the intersection significant?
5.2.5 What is the equation?

Chapter 6

6.1 Solving Systems Algebraically
6.1.1 Where do the lines intersect?
6.1.2 When are they the same?
6.1.3 What if the equations are not in y = mx + b form?
6.1.4 How many solutions are there?
6.2 Slope & Rate of Change
6.2.1 What is the equation of the line?
6.2.2 How does y change with respect to x?
6.2.3 When is it the same?
6.2.4 What’s the point?
6.2.5 Can I connect rates to slopes?
6.3 Associations
6.3.1 What is the equation for a trend line?
6.3.2 How can I use an equation?
6.3.3 What if the data is not numerical?
6.3.4 Is there an association?

Chapter 7

7.1 Angles
7.1.1 How are the angles related?
7.1.2 Are there other congruent angles?
7.1.3 What about the angles in a triangle?
7.1.4 What if the angle is on the outside?
7.1.5 Can angles show similarity?
7.2 Right Triangle Theorem
7.2.1 Can I make a right triangle?
7.2.2 What is special about a right triangle?
7.2.3 How can I calculate the side length?
7.2.4 What kind of number is it?
7.2.5 How can I use the Right Triangle Theorem to Solve Problems?
7.2.6 How can I determine lengths in three dimensions?
7.2.7 How can I prove it?

Chapter 8

8.1Introduction to Functions

 

8.1.1

How can you (de)code the message?

 

8.1.2

How can a graph tell a story?

 

8.1.3

What can you predict?

 

8.1.4

Which prediction is best?

 

8.1.5

How does the output change based on the input?

 

8.1.6

How do you see the relationship?

8.2

 Characteristics of Functions

 

8.2.1

What is a function?

 

8.2.2

How can you describe the relationship?

 

8.2.3

How do I sketch it?

 

8.2.4

How many relationships are there?

8.3

Linear and Nonlinear Functions

 

8.3.1

Is it linear or nonlinear?

 

8.3.2

What clues do ordered pairs reveal about a relationship?

 

8.3.3

What other functions might you encounter?

Chapter 9

9.1Volume

 

9.1.1

Given the volume of a cube, how long is the side?

 

9.1.2

What if the base is not a polygon?

 

9.1.3

What if the layers are not the same?

 

9.1.4

What if it is oblique?

 

9.1.5

What if it is a three-dimensional circle?

9.2

Scientific Notation

 

9.2.1

How can I write very large or very small numbers?

 

9.2.2

How do I compare very large numbers?

 

9.2.3

How do I multiply and divide numbers written in scientific notation?

 

9.2.4

How do I add and subtract numbers written in scientific notation?

 

9.2.5

How do I compute it?

9.3

Applications of Volume

 

9.3.1

What does a volume function look like?

 

9.3.2

What is the biggest cone?

 

9.3.3

How do all the items fit together?

Chapter 10

10.1Explorations and Investigations

 

10.1.1

How close can I get?

 

10.1.2

Can you make them all?

 

10.1.3

How many triangles will there be?

 

10.1.4

What’s my angle?

 

10.1.5

Function-function, what’s your function?

 

10.1.6

Is it always true?

 

10.1.7

What’s right?

 

10.1.8

What’s your story?

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Algebra Tiles Blue Icon

Algebra Tiles Session

  • Used throughout CPM middle and high school courses
  • Concrete, geometric representation of algebraic concepts.
  • Two-hour virtual session,
  •  Learn how students build their conceptual understanding of simplifying algebraic expressions
  • Solving equations using these tools.  
  • Determining perimeter,
  • Combining like terms,
  • Comparing expressions,
  • Solving equations
  • Use an area model to multiply polynomials,
  • Factor quadratics and other polynomials, and
  • Complete the square.
  • Support the transition from a concrete (manipulative) representation to an abstract model of mathematics..

Foundations for Implementation

This professional learning is designed for teachers as they begin their implementation of CPM. This series contains multiple components and is grounded in multiple active experiences delivered over the first year. This learning experience will encourage teachers to adjust their instructional practices, expand their content knowledge, and challenge their beliefs about teaching and learning. Teachers and leaders will gain first-hand experience with CPM with emphasis on what they will be teaching. Throughout this series educators will experience the mathematics, consider instructional practices, and learn about the classroom environment necessary for a successful implementation of CPM curriculum resources.

Page 2 of the Professional Learning Progression (PDF) describes all of the components of this learning event and the additional support available. Teachers new to a course, but have previously attended Foundations for Implementation, can choose to engage in the course Content Modules in the Professional Learning Portal rather than attending the entire series of learning events again.

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Building on Instructional Practice Series

The Building on Instructional Practice Series consists of three different events – Building on Discourse, Building on Assessment, Building on Equity – that are designed for teachers with a minimum of one year of experience teaching with CPM instructional materials and who have completed the Foundations for Implementation Series.

Building on Equity

In Building on Equity, participants will learn how to include equitable practices in their classroom and support traditionally underserved students in becoming leaders of their own learning. Essential questions include: How do I shift dependent learners into independent learners? How does my own math identity and cultural background impact my classroom? The focus of day one is equitable classroom culture. Participants will reflect on how their math identity and mindsets impact student learning. They will begin working on a plan for Chapter 1 that creates an equitable classroom culture. The focus of day two and three is implementing equitable tasks. Participants will develop their use of the 5 Practices for Orchestrating Meaningful Mathematical Discussions and curate strategies for supporting all students in becoming leaders of their own learning. Participants will use an equity lens to reflect on and revise their Chapter 1 lesson plans.

Building on Assessment

In Building on Assessment, participants will apply assessment research and develop methods to provide feedback to students and inform equitable assessment decisions. On day one, participants will align assessment practices with learning progressions and the principle of mastery over time as well as write assessment items. During day two, participants will develop rubrics, explore alternate types of assessment, and plan for implementation that supports student ownership. On the third day, participants will develop strategies to monitor progress and provide evidence of proficiency with identified mathematics content and practices. Participants will develop assessment action plans that will encourage continued collaboration within their learning community.

Building on Discourse

In Building on Discourse, participants will improve their ability to facilitate meaningful mathematical discourse. This learning experience will encourage participants to adjust their instructional practices in the areas of sharing math authority, developing independent learners, and the creation of equitable classroom environments. Participants will plan for student learning by using teaching practices such as posing purposeful questioning, supporting productive struggle, and facilitating meaningful mathematical discourse. In doing so, participants learn to support students collaboratively engaged with rich tasks with all elements of the Effective Mathematics Teaching Practices incorporated through intentional and reflective planning.