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Engaging Minds to Gauge
Student Learning
NCTM Annual Meeting New Orleans, Louisiana
Thursday, April 10, 2014
Diana L. Kasbaum
ASSM Immediate Past-President
WI Department of Public Instruction
Michelle Butturini
Fifth Grade Teacher, District Math Leader
Reedsville Elementary/Middle School
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Goals for Today’s Session
Identify characteristics of rich and
informative tasks
Discuss rigor
Experience tasks that engage
students
Look at student work and identify
resources for rich tasks
Let’s Do a Little Math…..
Five friends ordered 3 large sandwiches.
James at 3/4 of a sandwich
Katya ate 1/4 of a sandwich
Ramon ate 3/4 of a sandwich
Sienna ate 2/4 of a sandwich
How much sandwich is left for Oscar?
Smarter Balanced Released Item 43051
How did you solve the problem?
Could you approach the problem
another way?
How could you scaffold the problem?
How could you extend the problem?
Vision for school mathematics
Imagine a world where students …..
Are actively engaged with worthwhile tasks
Become mathematical problem solvers
Learn to reason mathematically
Are confident in their ability to learn and use
mathematics
Principles to Actions Draft, NCTM 2014
Short tasks are rich in mathematics learning opportunities provide valuable information so that teachers can meet the needs of their students.
Tasks provide opportunity to influence classroom discourse around the task and make the task accessible to all kids.
Tasks provide an invisible formative assessment opportunity for teachers to gauge learning while students are involved in rich mathematics.
NCTM ‘10 Minute Tasks’ Strand
What the difference between what
we traditionally refer to as math
‘problems’ and rich math tasks?
Problems are generally non-contextual and procedural in nature.
Problems may require little or no justification.
Rich tasks engage students in problem solving and have multiple entry points.
Rich tasks naturally evoke persistence.
Rich tasks are deepened through discourse and collaboration.
Rich tasks provide much more information about student understanding.
Effective teaching of mathematics
engages students in solving and
discussing tasks that promote
mathematical reasoning and problem
solving and allow multiple entry points
and varied solution strategies.
Principles to Actions, p. 17, NCTM 2014
Effective teaching of mathematics
engages students in solving and
discussing tasks that promote
mathematical reasoning and problem
solving and allow multiple entry
points and varied solution strategies.
AND provides information to inform
instruction. (Kasbaum, 2014)
What do we know from research?
1. Not all tasks provide the same
opportunities for student thinking and
learning.
Hiebert et al, 1997; Stein et al, 2009
Principles to Actions, p. 17, NCTM 2014
What do we know from research?
2. Student learning is greatest in
classrooms where the tasks consistently
encourage high-level student thinking
and reasoning and least in classrooms
where the tasks are routinely procedural
in nature.
Boaler and Staples, 2008; Hiebert and Wearne, 1993;
Stein and Lane, 1996
Principles to Actions, p. 17, NCTM 2014
What do we know from research?
3. Tasks with high cognitive demands are
the most difficult to implement well and
are often transformed into less
demanding tasks during instruction.
Stein, Grover and Henningsen, 1996;
Stigler and Hiebert, 2004
Principles to Actions, p. 17, NCTM 2014
This matrix from the Smarter Balanced Content Specifications for Mathematics draws from both Bloom’s (rev.)
Taxonomy of Educational Objectives and Webb’s Depth-of-Knowledge Levels below., Based on Cognitive Rigor Matrix
from Karen Hess, 2009, [email protected].
Co
gnit
ive
Rig
or
Mat
rix
Higher Level Demands (doing mathematics)
Require complex, non-algorithmic thinking.
Demand self-monitoring or self-regulation.
Require students to analyze the task.
Require considerable cognitive effort.
Higher level Demands (procedures with connections)
Focus on use of procedures to develop deeper levels of understanding of concepts and ideas.
Usually represented in multiple ways.
Require cognitive effort
Lower Level Demands (memorization)
Reproduces facts
No connection to concepts or
meaning.
Lower Level Demands (procedures w/o connections)
Algorithmic.
Focused on producing correct
answers.
Require no explanations or
explanations that focus on
describing a procdure.
Leve
ls o
f D
eman
d
Smith and Stein, 1989
• Reason abstractly and quantitatively. (MP 2)
• Construct viable arguments and critique the reasoning of others. (MP 3)
Reasoning and Explaining
• Model with mathematics. (MP 4)
• Use appropriate tools strategically. (MP5)
Modeling and Using Tools
• Look for and make use of structure. (MP 7)
• Look for and express regularity in repeated reasoning. (MP 8)
Seeing Structure and Generalizing
• Make sense of problems and persevere in solving them. (MP 1)
• Attend to precision. (MP 6)
S
ta
nd
ard
s fo
r M
ath
em
atic
al P
ra
ctic
e • Make sense of problems and persevere in
solving them. (MP 1)
• Attend to precision. (MP 6)
Snow Day Chores
I have to shovel ½ of the driveway. Before lunch I shoveled 3/8 of the whole driveway. What fractional part of my share of the driveway did I shovel before lunch?
Draw and label a picture representing the fractional parts of the shoveled driveway.
Milwaukee Mathematics Partnership Constructed Response Item
http://www4.uwm.edu/Org/mmp/CR2_2012-13/GR6CR2Anch.pdf
Student Work Sample A
http://www4.uwm.edu/Org/mmp/CR2_2012-13/GR6CR2Anch.pdf
Student Work Sample B
http://www4.uwm.edu/Org/mmp/CR2_2012-13/GR6CR2Anch.pdf
Student Work Sample C
http://www4.uwm.edu/Org/mmp/CR2_2012-13/GR6CR2Anch.pdf
Student Work Sample D
http://www4.uwm.edu/Org/mmp/CR2_2012-13/GR6CR2Anch.pdf
http://www4.uwm.edu/Org/mmp/_resources/CR_Items.htm
What are teachers doing?
Providing opportunities for exploration and
problem solving that build on and extend
current understanding.
Select tasks that provide multiple entry points.
Pose tasks that require high level of cognitive
demand.
Support students in exploring tasks without
taking over student thinking.
Encourage a variety of approaches and
strategies to make sense of and solve tasks.
Imp
lem
enti
ng
Task
s
Principles to Actions, p. 24, NCTM 2014
Persevering in exploring and reasoning through
tasks.
Taking responsibility for making sense of tasks by
drawing on and making connections with prior
understanding.
Using tools and representations to support thinking
and problem solving.
Using a variety of solution approaches and
discussing and justifying their strategies.
Imp
lem
enti
ng
Task
s What are students doing?
Principles to Actions, p. 24, NCTM 2014
For each figure, estimate the shaded portion
as a fraction of the whole figure. Explain how
you got each of your estimates.
Uncovering Student Thinking About Mathematics in the Common Core: 25 Formative
Assessment Probes, Cheryl Rose Tobey and Emily R. Fagan
Uncovering Student Thinking About Mathematics in the Common Core: 25 Formative
Assessment Probes, Cheryl Rose Tobey and Emily R. Fagan
Finally, we know that with
good tasks students will demonstrate
mathematical understanding through
the use of:
concrete illustrations
mathematical representations
example applications.
Phil Daro, 2011
Go
od
Tas
ks
Co
nte
nt
Sta
nd
ard
s
“Understanding” standards are the points of
intersection between the Standards for
Mathematical Content and the Standards for
Mathematical Practice”
Teaching Student-Centered Mathematics, Grades 3-5 Volume
3, John A. Van de Walle and LouAnn H. Lovin
Uncovering Student Thinking About Mathematics in the
Common Core: 25 Formative Assessment Probes, Cheryl
Rose Tobey and Emily R. Fagan
Cognition-Based Assessment and Teaching of Fractions,
Michael T. Battista
Learning Mathematics in the Intermediate Grades, Madison
Metropolitan School District
https://mathweb.madison.k12.wi.us/files/math/LMIGcomplete.pdf
Math Reasoning Inventory, Marilyn Burns
www.mathreasoninginventory.com
NCTM Illuminations: http://illuminations.nctm.org/
Figure This: http://www.figurethis.org/index.html
Re
sou
rce
s
Educational Development Center: http://mathpractices.edc.org/
Illustrative Mathematics Project:
http://www.illustrativemathematics.org/
Mathematics Assessment Project:
http://map.mathshell.org/materials/index.php
Georgia Department of Education - CCGPS Frameworks
https://www.georgiastandards.org/Common-Core/Pages/Math-K-
5.aspx and https://www.georgiastandards.org/Common-
Core/Pages/Math-6-8.aspx
Engage NY Modules - Sprints from each lesson
http://www.engageny.org/resource/grade-5-mathematics
CGI Problem Solving and Reasoning Assessment Questions
Re
sou
rce
s
SBAC Sample Performance Tasks:
http://sampleitems.smarterbalanced.org/itemprevie
w/sbac/index.htm
PARCC Sample Items:
http://www.parcconline.org/samples/math
Milwaukee Mathematics Partnership:
http://www4.uwm.edu/Org/mmp/_resources/CR_Ite
ms.htm
Re
sou
rce
s
Implementing the CCSSM Through Problem Solving, Grades 3-5 By Mary Foote, Darrell Earnest, Shiuli Mukhopadhyay, Frances Curcio
http://www.nctm.org/catalog/product.aspx?id=14446
Even an engaging and approachable mathematical
task is not sufficient to support student achievement, if
it is not also accompanied by a classroom atmosphere
that values all students, their contributions, and the
knowledge they bring.
Along with providing interesting and appropriately
challenging tasks, it is critical to engage learners in the
examination and discussion of mathematical ideas
and processes. Students who do not participate are
unlikely to learn (Lave and Wenger, 1991).
Thank you
Diana L. Kasbaum Association of State Supervisors of Mathematics,
Immediate Past-President
Mathematics Education Consultant
WI Department of Public Instruction
Michelle Butturini Fifth Grade Teacher, District Math Leader
Reedsville Elementary/Middle School