3. Presentation Overview
• Definitions: UDL and Differentiated Instruction,
multisensory learning
• Overview of math challenges
• Brief overview math intervention
• NCTM listserv comments = real world implementation
• Stages Math: Number Sense - features
• Stages Math Intervention Kit
• Stages Math: Number Sense – demo
• Hands-on Stations
4. Definition - UDL
• Multiple means of representation, to give learners various ways
of acquiring information and knowledge
• Multiple means of expression, to provide learners alternatives for
demonstrating what they know
• Multiple means of engagement, to tap into learners' interests, offer
appropriate challenges, and increase motivation
5. Definition - UDL
• Based on creating flexible goals, methods, materials, and
assessments that consider diversity.
• Centers the need for multiple approaches to meet the needs of
diverse learners
• Mirrors the universal design movement in architecture (curb
cuts, and close-captioned television—all universally designed
to accommodate a wide variety of users)
• Features that support challenges benefit everyone.
• Uses technology's power and flexibility to make education more
inclusive and effective for all
6. Definition
Differentiated Instruction
• Strategies that enable all students to participate and make
progress in the general curriculum
• Educators provide additional support to students who need
it during regular instruction
• Facilitates being able to individualize instruction for a
diverse group
7. Definition
Differentiated Instruction
• Can be enhanced with the use of technology scaffolds
• Technology scaffolds increase teacher capacity to
individualize instruction
• Especially useful in support of learners with math,
reading or writing difficulties
8. Definition
Multisensory Learning
• Use many sensory areas to activate brain
• grow student engagement
• build student interest (fun)
• activate prior knowledge while building new concepts
• create associations between new learning and memory
9. Definition
Multisensory Learning
• connect learning to language hearing own or the
teacher's/parent’s voice (auditory)
• facilitates development of new meaning through
multiple representations, associate new concepts
with memory (visual)
• build meaning and memory as hands manipulate
objects to build understanding in numeracy,
place value, basic operations, fractions (tactile)
10. Make Your Own Math for
Multisensory Learning
• Use cardboard, markers and scissors to make your own Cuisenaire rods
or pattern blocks
• Food for fractions (pizza, corn chips...)
• Egg cartons for sorting, counting and place value
Sources
“Math Toolbox in Every Home” http://mathcats.org/
Printable instructions for making and using manipulatives
“15 Homemade Math Manipulatives”
http://theendinmind.net/15-homemade-math-manipulatives-2/
11. Math Challenges
• Learning challenges in mathematics are complex.
• There is no single mathematics challenge.
12. Math Challenges
• Students may be strong in some areas of math
and weak in others.
• From 6–7% of all students exhibit challenges
in one or more areas of math.
13. Math Challenges
• Some mathematics challenges are independent
of reading disability and some are not.
• Research about math challenges has progressed
more slowly than research about reading challenges.
14. Signs of a Math Challenge
• Has difficulty keeping track of numerical information
while counting.
• Forgets arithmetic facts or doesn’t remember as many.
• May use immature problem solving procedures.
15. Signs of a Math Challenge
• Has difficulty with the abstract concepts of time
and direction.
• When writing, reading and recalling numbers: adds,
substitutes, transposes, omits, and reverses numbers.
• Demonstrates poor mental math ability.
16. Signs of a Math Challenge
• Has difficulty keeping score during games; loses track
of whose turn it is.
• Unable to grasp and remember math concepts, rules,
formulas, sequence (order of operations), and basic
math facts.
• Gets lost or disoriented easily; may have a poor
sense of direction.
17. Signs of a Math Challenge
• Children with a math challenge can have one or both
of two memory problems:
1. Getting basic facts into long term memory
and accessing memorized facts.
2. Sifting through all the recalled memorized
facts for the relevant information; e.g.,
2 + 3 might evoke answers of 4, 5, or 6
18. Despite the signs of a math
challenge, a learner may:
• Show normal or accelerated language acquisition:
verbal, reading, writing.
• Have good visual memory for the printed word.
• Excel in other areas.
• Catch up; it may be a developmental delay and
not a more fundamental deficit.
19. Assessing Math Abilities
• Conduct a one-to-one mathematics interview.
• Note how the child does mathematics.
• Search for strategies that work or don’t work,
strengths and weaknesses.
20. Assessing Math Abilities
• Assess the full range of areas: computation, pattern
prediction, sorting, measuring, organizing space
with flexibility.
• Observe and note any verbalization, drawings,
asking for repeat of directions/question.
• Ask child to estimate answer before computing.
21. From the NCTM listserv…
"Strategically" indicates that students will select an appropriate
tool based on the task. For example, given 10 x 5 x 2, a student
might pick up a pencil, calculator or calculate the product
mentally. Providing opportunities for students to reflect on their
choices in terms of efficiency and effectiveness deepens their
understanding of their strategic choices. As teachers, we can use
students' tool selection to provide diagnostic information and help
us prepare other learning opportunities.
22. How to help students
with math challenges:
• Work to define the student’s strengths.
• Encourage students to estimate their answers
before they begin to work out the problem.
• Have students work together in small groups
to solve problems.
• Allow the use of calculators and
manipulative materials.
23. Use of calculators
Research has shown that using calculators
does not:
• promote laziness
• impede development of basic math skills
• create a dependency on technology
Instead it does:
• promote achievement
• improve problem solving skills
• increase understanding of mathematical ideas
Students retain more information and gain a better
attitude toward math.
24. To be successful…
Students should work toward:
• number sense mastery
• good problem solving strategies
• automaticity (recall of facts) this
allows
more brainpower to go toward
problem
solving (not spent on computing)
25. Students with number sense can:
• Count rationally past 100.
• Understand that the sequence of counting doesn’t
change.
• Count objects in any order.
• Know that last number named is total number.
• Count past difficult numbers (19, 29, 100).
• Count backwards, starting with any number.
• Skip count by 2s, 5s, and 10s.
• Relate basic addition and subtraction facts.
• Explain operation of multiplication.
• Explain place values through the hundreds.
26. A Letter to My Math Teacher:
• “I need instant answers and a chance to do the problem over once if I
get it wrong the first time.”
• “Problems written too closely together on the page cause me mental
confusion and distress.”
• “Please allow me more than the standard time to complete problems
and please check to see that I am free of panic (tears in my eyes,
mind frozen).”
• “If possible, please allow me to take the exam on a one-to-one basis
in your presence.”
• “I am not lazy, and I feel really smart in everything but math. That is
what frustrates me the most! Everything is easy for me to learn, but
Math makes me feel stupid! Please, do be patient with me, and
please do not give up on me!”
(source at end)
27. 10 Tips for Software Selection
for Math Instruction
by Beatrice C. Babbitt
1. The less clutter on the screen, the better.
2. Procedures should match those being
taught in school.
3. Choose modifiable software. Software
should allow for customized speed, number
of problems and instructional levels.
4. Choose software with small increments
between levels.
28. 10 Tips for Software Selection
for Math Instruction
5. Choose software with helpful feedback. Provide clues
to the correct answer.
6. Choose software that limits the number of wrong answers for a
single problem. Limit the number of attempts, give clues to the
correct answer, provide the correct answer, reintroduce that
same item at a later time.
7. Choose software with good record keeping capabilities.
29. 10 Tips for Software Selection
for Math Instruction
8. Choose software with built in instructional aids; e.g.,
counters, number lines, base ten blocks, hundreds
charts, or fraction strips.
9. Select software that simulates real-life solutions; e.g.,
multiple roads to a problem solution.
10. Remember that software is a learning tool – not
the total solution!
30. Highlights of Stages Math: Number
Sense iPad app or computer software
28 main activities within 9 key content areas of number sense
35. Highlights of Stages Math:
Number Sense
• Universal and Accessible design for both iPad and computer
mouse, keyboard, switch, touch screen; auditory scanning, text-to-speech, pointer with
dwell on computer
• Feedback for incorrect answers that builds learner understanding
• Scaffolding to support learner success
turn on or off prompting, graphical support, help buttons, etc.; talk boards for
classroom inclusion
• Adjustable settings you can save for each learner
• Record keeping and certificates
36. Karen’s Case Study
Third grade Student
• Cognitive Disabilities
• Dependent on prompts and adults
• Significant fine motor challenges
Stages Math was recommended and
implemented following an AT
Assessment and school-based
team meeting
37. Karen’s Case Study
Danielle D. Special educator reflections:
• Preparation
• Implementation
• Observations
• Next Steps
38. “When I give Hannah (not
her real name) choices, she
chooses
to use Stages Math!”
”It has given me
data that guides my
instruction. I can see
she needs to better
understand Math symbols
and
Math language.”
“I need to use it for
all my students!”
Mia - "I love that app! It's
very fun! It's just the
right level for me! I think
I want to play this every
time I get to do math
games!"
39.
40. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit covers a wide range of concepts with a
120-lesson Instructor’s Guide, a heavily illustrated Student Book, and
a PDF for printouts.
41. From the NCTM listserv…
"I need help as it relates to the cognitive and physical tools being
used strategically."
This really got me thinking...
I did a little "Googling" and found this:
Three Ways to Use Appropriate Tools Strategically (Mathematical P
.
(Sandler mentions number bonds as a cognitive "tool.”)
42. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit covers a wide
range of concepts with a 120-lesson Instructor’s
Guide, a heavily illustrated Student Book, and
a PDF for printouts.
Place Value Packaging is a
hands-on activity, requiring students
to use number pegs to solve place
value and addition problems.
43. From the NCTM listserv…
I am trying to wrap my head around the word "Strategically". I
need help as it relates to the cognitive and physical tools being
used strategically. Please help!!
I use place value blocks and an assortment of tools to illustrate
fractions. Many times the students play with the materials, such
as building towers. However, as we begin to learn about the
numbers with the tools, the towers disappear and the tools are
being used strategically to illustrate the concept, such as division
of fractions, regrouping, etc.
44. Explore YouTube…
Lots of expert/teacher/parent made exploration activities.
Place Value Introduction
Number Rock Place Value Song
45. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit
covers a wide range of concepts with a
120-lesson Instructor’s Guide, a heavily
illustrated Student Book, and a PDF
for printouts.
Place Value Packaging is a hands-on
activity, requiring students to use
number pegs to solve place value and
addition problems.
Talking Calculator gives
students auditory feedback
when solving computations.
46. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit covers a wide
range of concepts with a 120-lesson Instructor’s
Guide, a heavily illustrated Student Book, and a
PDF for printouts.
Place Value Packaging is a hands-on activity,
requiring students to use number pegs to solve
place value and addition problems.
Talking Calculator gives students auditory
feedback when solving computations.
Six laminated Day Planner Books
simplify daytime schedules.
47. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit covers a wide range of concepts with
a 120-lesson Instructor’s Guide, a heavily illustrated Student Book,
and a PDF for printouts.
Place Value Packaging is a hands-on activity, requiring
students to use number pegs to solve place value and
addition problems.
Talking Calculator gives students auditory feedback
when solving computations.
Six laminated Day Planner Books simplify daytime schedules.
Hands-On Money provides an organized collection of realistic
bills and coins and 3 coin cubes.
48. From the NCTM listserv…
The problem with using manipulatives to teach numbers is that
the manipulatives do not have numbers on them. The teacher is
banking on the students understanding and remembering what is
said; but some students do not hear a lot of what is said. I made
a YouTube video that shows how to make and use
"manipulatives on paper" to effectively address this problem.
(Jeff Sandler, Mastery Learning Systems)
Learning to Count to 10 Using 10 Blocks Number Line
Learning to Count to 20 with Place Value Hands On Money
49. Highlights of Stages Math
Intervention Kit
Look at Math Introductory Kit covers a wide range of concepts with a 120-lesson
Instructor’s Guide, a heavily illustrated Student Book, and PDF for printouts.
Place Value Packaging is a hands-on activity, requiring students to use number
pegs to solve place value and addition problems.
Talking Calculator gives students auditory feedback when solving computations.
Six laminated Day Planner Books simplify daytime schedules.
Hands-On Money provides an organized collection of realistic bills, coins and
coin cubes.
TimeWheel™ a realistic clock
to help learn to tell time
50. Stages Math Intervention Kit =
multisensory access to math
• Universal Design – multiple means of representation, engagement
and expression
• Differentiate Instruction – variety of scaffolds
• Multisensory – manipulative materials
• Access –content accessible through digital interactions
51. Research References
“A Letter to My Math Teacher”, compiled by Renée M. Newman
http://www.dyscalculia.org/teacher.html
“Learning Disabilities in Mathematics”, by C. Christina Wright
http://www.ldonline.org/article/5947
“Mathematical Disabilities: What We Know and Don't Know”, by David C. Geary,
http://www.ldonline.org/article/5881
“Math Intervention: What Strategies Work for Struggling Learners” articles collected by Education Northwest
http://educationnorthwest.org/resources/mathematics-interventions-what-strategies-work-struggling-
learners-or-students-learning
“Number Sense: Rethinking Arithmetic Instruction for Students with Mathematical Disabilities”, by Russell Gersten
and David J. Chard
http://www.ldonline.org/article/5838
“Strategies for Teaching Math: What are the Facts?” by Carol H. Geller
http://www.ldworldwide.org/pdf/journal/2000/11-00_arithmetic.pdf
“Technology-Supported Math Instruction for Students with Disabilities”
by Hasselbring, Lott, and Zydney
http://209.61.229.180/library/resourcedocs/Tech-SupportedMathInstruction-FinalPaper_early.pdf
http://www.citeducation.org/mathmatrix/
“10 Tips for Software Selection for Math Instruction”, by Beatrice C. Babbitt http://www.ldonline.org/article/6243
52. URLs Demonstrated
Videos
“Three Ways to Use Appropriate Tools Strategically” blog by Jeff Sadlier
• https://www.sadlier.com/school/sadlier-math-blog/three-ways-to-use-appropriate-tools-strategically-math-
practice-5
“Place Value Introduction”
• https://www.youtube.com/watch?v=fshyCNqHIbw
“Number Rock Place Value Song”
• https://www.youtube.com/watch?v=a4FXl4zb3E4
“Learning to Count to 10 Using 10 Blocks Number Line”
• https://www.youtube.com/watch?v=ji-jsPbovv0&index=5&list=PLm4gYQg22haYidp4sISJMX_h4xC7gXKQ_
“Learning to Count to 20 with Place Value Hands On Money”
• https://www.youtube.com/watch?v=45yeM-
At9F4&index=4&list=PLm4gYQg22haYidp4sISJMX_h4xC7gXKQ_
Sources of Home Made Manipulatives
“Math Toolbox in Every Home”
• http://mathcats.org/
Printable instructions for making and using manipulatives
“15 Homemade Math Manipulatives”
• http://theendinmind.net/15-homemade-math-manipulatives-2/
53. Hands-On Stations
Station 1: iPads for Stages Math app – demo first
Station 2: Hands-on “Money”
Place Value Packaging
Talking Calculator
Hands-On Money with Coin Cubes
Station 3: Hands-on “Time”
TimeWheels
Day Planners
Look At Math (Teachers Guide
and Students Workbook)
Use this slide if your audience needs to have the slides as handouts. Post them to Slideshare so that they can be used but not copied.
NCTM identified 5 skill areas: Numbers and Operations; Algebra; Geometry; Measurement; Data Analysis and Probability. Our Stages Math addresses skills in the first area, Number and Operations.
Classic definition
Fine tuning ideas to incorporate
Teaching considerations are planned ahead placing a wide range of materials strategically within the environment. (Stages Math Intervention Kit)
Stages Math Intervention Kit
Give audience a “make your own” option right away to diffuse the tone of a “sales pitch”
refers to a child's fluidity and flexibility with numbers, the sense of what numbers mean and an ability to perform mental mathematics and to look at the world and make comparisons.
an increasingly heated controversy about how to teach mathematics but no disagreement that strategic instruction is key
concept of number sense is as important to mathematics learning as phonemic awareness has been to the reading research field
Needs to work on ability to represent the same number in multiple ways depending on the context and purpose of this representation.
Needs to understand that 1 + 12 = 12 + 1
Counting, 1 to 1 correspondence, quantifying
#2 means that if learners see the numbers 2 and 3, they may not pay attention or understand what they should do with those numbers, and so may come up with 4 (the next number in the sequence), 5 (their sum), or 6 (their product (multiplication)).
Reading the problem. Students are taught how to read mathematical problems, including using reading strategies to understand the problem (e.g., focusing on important information), developing mathematical vocabulary, and recognizing when they do not understand relationships among mathematical terms and quantitative concepts expressed in a problem.
Paraphrasing. Students are taught how to put the problem into their own words and convey meaning.
Visualizing. Students are taught to draw a representation or to make a mental image of the problem. Hypothesizing about problem solutions. Students are taught how to decide the number of operations that are needed to solve the problem, select and order the operations, and then to transform the information into correct equations and algorithms.
Estimating the answer. Students are taught how to stay focused on the type of outcome (e.g., number of yards rather than feet), and then how to predict the answer by using the information in the problem and their projected solution path.
Computing. Students are taught how to recall the correct procedures for working through the algorithms and the necessary math facts for accuracy.
Checking the problem. Students are taught how to check the mathematical problem solving process to ensure that they have understood the problem, accurately represented the problem, selected an appropriate solution path, and solved the problem correctly.
In the interview one focuses as intently on how the child does mathematics as on what or how correct they do it. It is essential to keep in mind that you are searching for what does work at the same time as you are probing to find out what doesn't work.
include the use of manipulatives, i.e. coins, base ten blocks, geoboards, cuisenaire rods, and tangrams. A calculator is an important tool and can be used to uncover the difference between comprehension and computation difficulties.
NCTM advocates and supports the integration of manipulative materials
Wouldn’t a multisensory calculator help lots of kids? Yes!
Researchers explored the devastating effects of the lack of automaticity in several ways. Essentially, they argued that the human mind has a limited capacity to process information, and if too much energy goes into figuring out what 9 plus 8 equals, little is left over to understand the concepts underlying multi-digit subtraction, long division, or complex multiplication.
http://www.dyscalculia.org/teacher.html
Stages Math, which you will see shortly, demonstrates all these key features.
Students who use appropriate technology persist longer, enjoy learning more, and make gains in math performance.
With software based on principles of Universal Design, students are able to access course materials in ways that are flexible and customizable. A central feature of UDL is its ability to adapt to students with different perceptual and cognitive needs.
Various forms of scaffolding is one of the primary ways software can be customized and aligned with a UDL approach
The student was a member of an substantially separate program for students with cognitive disabilities. She was included at the beginning of the school day and during specials. The student had a difficult time during periods of instruction and sometimes had meltdowns. She was dependent upon adults for most of her work. Stages math was recommended as part of an AT Assessment to promote independence during math work and the team agreed. She struggled with all aspects of Number Sense and other online resources were too visually distracting and could not be customized. Danielle, the special education teacher reported Hannahloved using Stages Math. She used it in the inclusion third grade classroom during math and Hannah was able to work on the iPad independently.
Danielle received Stages Math over the summer and was so excited to use it, she taught herself and then implemented it right at the start of the new school year. Two weeks later, I met with the entire team, including Hannah’s mom, and showed them how they could review the data. Danieele had discovered many of the features on her own. She observed that Hannah was engaged by Stages Math and was able to use it independently. Next steps – she was so excited with Stages Math, Danielle couldn’t wait to try it with other students. In addition, two other special education teachers wanted to get the app to use with their students! They saw the potential!
Mads, this is a note to you – the black ink shows a quote from a different student – the next steps were that two other teachers implemented it with their students (because of the gift codes). A different teacher, Shoshana, gave me the bottom quote that I just added. It came from Mia, a second grade student. (I tired to add another slide but the background doesn’’t copy for some reason).
This data shows one sitting. Data captured over time is pending.
Multiple means of engagement in the same skills aligned with a UDL approach
Key is to be strategic with how manipulative materials are used. There is lots of support for this online. Several examples are included in this presentation.
Multiple means of engagement in the same skills aligned with a UDL approach
Place Value tools start as toys but progress toward helping to formulate math concepts
Show a little bit of each to get the general idea
Multiple means of engagement in the same skills aligned with a UDL approach
Multiple means of engagement in the same skills aligned with a UDL approach
Multiple means of engagement in the same skills aligned with a UDL approach
Video: Learning to Count to 10 – Show 3:20 – 5:00 as an example of a way to incorporate tools in establishing 1 to 1 correspondence, numeral recognition and counting
Video: Learning to Count to 20 – Show 1:58 – up to 4:00 as am example of using play money
Multiple means of engagement in the same skills aligned with a UDL approach
Multiple means of engagement in the same skills aligned with definitions cited earlier in presentation