AIM - TRU �PLT Orientation
Building a Teacher Knowledge Base �for the Implementation of High-quality
Instructional Resources Through the �Collaborative Investigation of Video Cases
An NSF Collaborative Research project partnering
SUNY Buffalo State, MƒA, Montclair State University, and DePaul University
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Thank you for your interest in participating!
You are participating in a professional learning community that includes �Chicago, Buffalo and New York City Public School teachers.
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Agenda
Part 1: Community Introductions
Part 2: Developing a Big Mathematical Picture
Part 3: Framework for Effective Mathematics Teaching
Part 4: Introduction to AIM-TRU Model
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Part 1:
Community Introductions
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Community Builder
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Community Agreements
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Goals for AIM-TRU PLT
In order to better understand this high quality resource and how we can use them to best effect in our classrooms, our PLT will:
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Part 2:
Big Mathematical Picture
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Goals Text Rendering
Goal 1
Develop common definitions for ideas to be used throughout PLT
Goal 2
Answer the question: Why are big mathematical ideas and understandings important?
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Text Rendering Protocol
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Facilitating Whole Group Discussion
Goal 1: Develop common definitions for ideas to be used throughout PLT
Goal 2: Answer the question: Why are big mathematical ideas and understandings important?
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Applying Ideas to Practice
Think about the math task you completed for homework.
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Part 3:
Framework and Tools for
Effective Mathematics Teaching
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Teaching for Robust Understanding
What makes a mathematically powerful classroom?
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Copyright © 2017 University of California, Berkeley
May be reproduced for non-commercial purposes under the Creative Commons BY-NC-SA license detailed at https://creativecommons.org/licenses/by-nc-sa/4.0/ - All other rights reserves
Part 1:
What really matters in classrooms?
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Establishing a Focus
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1. A Lesson on Finding Angles
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NORMS for Watching Video
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“If I could rewind the tape and ask students a question, I would ask…”
“I wonder what might happen if,” instead of “the teachers should have…”
“I think that the student understands...because in the video she…”
A Lesson on Finding Angles
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Think, Pair, Share
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Fractions, Decimals, Percents
Take turns to:
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Fractions, Decimals, Percents
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The gray cards are the ones that students had to create for themselves.
Fractions, Decimals, Percents
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3. Fractions, decimals percents
Think, Pair, Share
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Comment Headings
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The Mathematics
Cognitive Demand
Access and Equity
Agency, Ownership
Formative Assessment
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TRU:
Our Claim
Research suggests that:
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Tools for supporting powerful classroom instruction
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On Target Reflection Tools
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Exploring On Targets
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I notice... | I wonder... |
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Part 4:
Introduction to the AIM-TRU Model
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Model Overview
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Reflect on students' experiences in the classroom to understand how to implement FALs more closely aligned to the TRU dimensions
University of Michigan
Teaching and Learning Exploratory
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Preview of Our Next Sessions
Session 1 - Building Norms
Session 2 - Understanding the components of a FAL
Session 3 - Collegiality in or PLT
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Homework
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Next session:
PLT Session 1
Building Norms
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Hopes and Fears
If this is the worst PD you’ve experienced, what will or will not have happened?
If this is the best PD you’ve experienced, what will or will not have happened?
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Our Group’s Norms
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NORMS
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Norms for Virtual Sessions
We want to engage in a professional learning experience built on mutual respect, trust and support
Norms for Leading / Learning
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Norms for Focusing
Intro to PLT Session 2
Formative Assessment Lessons
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Components of a
Formative Assessment Lesson
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Diagnostic Task Before the Lesson
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Every morning Jane walks along a straight road to a bus stop 160 meters from her home, where she catches a bus to college. The graph shows her journey on one particular day.
Describe what may have happened. Is the graph realistic? Why?
Distance from home in meters
Time in seconds
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Common Issue | Possible questions and prompts |
Student interprets the graph as a picture E.g. as the graph goes up and down, Tom’s path goes up and down. |
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Student interprets graph as speed–time E.g. The student has interpreted a positive slope as speeding up and a negative slope as slowing down. |
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Student fails to mention distance or time E.g. The student has not worked out the speed of some/all sections of the journey. |
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Student fails to calculate and represent speed |
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Student adds little explanation as to why the graph is or is not realistic |
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Lesson Beginning: Which Story Best Fits?
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A. Tom took his dog for a walk to the park. He set off slowly and then increased his pace. At the park Tom turned around and walked slowly back home.
C. Tom went for a jog. At the end of his road he bumped into a friend and his pace slowed. When Tom left his friend he walked quickly back home.
B. Tom rode his bike east from his home up a steep hill. After a while the slope eased off. At the top he raced down the other side.
Students Annotate and Explain
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Matching Graphs and Stories
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Students Convert Graphs to Tables
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Tables are Added to the Card Sort
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...And the class compares solutions together
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End of Lesson Task
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Sylvia bikes along a straight road from her friend’s house home, a distance of 7 miles. The graph shows her journey.
Describe what may have happened. Include details like how fast she bikes.
Distance from home in miles
Time in minutes
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The Mathematics |
How rich – connected, conceptual – is the mathematical content? |
The lesson focuses on developing deep understandings of concepts like slope, and its use to describe real world phenomena; it provides opportunities to make connections across different representations (graphs, tables, stories). |
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Cognitive Demand |
To what extent are students supported in grappling with and making sense of mathematical concepts? |
The card sort and poster activities provide plenty of room for sense making – if the students are gently supported when they need it. �(Remember the list of support questions.) |
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Access to Mathematical Content |
To what extent does the teacher support access to the content of the lesson for all students? |
The classroom structures – which include whole group conversations, small group work, and student poster presentations – provide opportunities for teachers to support every student in engaging meaningfully with the mathematics. But . . . this takes hard work, even with the opportunities. |
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Agency, Ownership, and Identity |
To what extent are students the source of ideas and discussion of them? How are student contributions framed? |
The classroom structures – which include whole group conversations, small group work, and student poster presentations – provide opportunities for teachers to support every student in building powerful mathematical identities. But . . . this takes hard work, even with the opportunities. |
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Formative Assessment |
To what extent is students’ mathematical thinking surfaced; to what extent does instruction build on student ideas when potentially valuable or address misunderstandings when they arise? |
They’re known as Formative Assessment Lessons for a reason… ☺ |
Intro to PLT Session 3
Collegiality
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Three Levels of Text Protocol
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