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Math Intervention for Special Education Students

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Title: Math Intervention for Special Education Students


1
Math Intervention for Special Education Students
  • Pamela Higgins
  • Fall 2008

2
Domains of Skills in Math
3
Factors that Influence Math Ability
  • Cognitive ability
  • Attention
  • Organization
  • Persistence
  • Self-esteem
  • Attitudes toward Math
  • Quality/Amount of Instruction
  • Perceptual Skills
  • Perseveration
  • Language
  • Reasoning
  • Memory
  • Symbolism

4
  • Impact in Math
  • Perceptual Skills
  • Measurement
  • Estimation
  • Problem Solving
  • Geometry
  • Spatial relationships
  • Distances
  • Size relationships
  • Sequencing
  • Instructional Need
  • Practice estimating size and distance
  • Verify estimates

Bos and Vaughn p 334
5
Perseveration
Bos and Vaughn p 334
6
Language
Bos and Vaughn p 334
7
Reasoning
  • Strategies
  • Use concrete materials and real-life a
  • applications until a concept is understood.
  • Use Think Alouds to illustrate mental processes
  • Allow students to explain their thinking
  • Recognize and correct errors in thinking

Bos and Vaughn p 334
8
Memory
  • Teaching Strategies
  • Reduce the amount of new information
  • Increasing the number of exposures to the new
    material.
  • Allow students to verbalize and demonstrate new
    material.
  • Bos and
    Vaughn p 334-335

9
Symbolism Difficulty
10
NCTM Standards www.nctm.org/standards
  • Number and Operations
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to--
  • understand numbers, ways of representing numbers,
    relationships among numbers, and number systems
  • understand meanings of operations and how they
    relate to one another
  • compute fluently and make reasonable estimates.

11
  • Algebra
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to--
  • understand patterns, relations, and functions
  • represent and analyze mathematical situations and
    structures using algebraic symbols
  • use mathematical models to represent and
    understand quantitative relationships
  • analyze change in various contexts.

12
  • Geometry
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to--
  • analyze characteristics and properties of two-
    and three-dimensional geometric shapes and
    develop mathematical arguments about geometric
    relationships
  • specify locations and describe spatial
    relationships using coordinate geometry and other
    representational systems
  • apply transformations and use symmetry to analyze
    mathematical situations
  • use visualization, spatial reasoning, and
    geometric modeling to solve problems.

13
  • Measurement
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • understand measurable attributes of objects and
    the units, systems, and processes of measurement
  • apply appropriate techniques, tools, and formulas
    to determine measurements.

14
  • Data Analysis and Probability
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • formulate questions that can be addressed with
    data and collect, organize, and display relevant
    data to answer them
  • select and use appropriate statistical methods to
    analyze data
  • develop and evaluate inferences and predictions
    that are based on data
  • understand and apply basic concepts of
    probability

15
  • Problem Solving
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • build new mathematical knowledge through problem
    solving
  • solve problems that arise in mathematics and in
    other contexts
  • apply and adapt a variety of appropriate
    strategies to solve problems
  • monitor and reflect on the process of
    mathematical problem solving.

16
  • Reasoning and Proof
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • recognize reasoning and proof as fundamental
    aspects of mathematics
  • make and investigate mathematical conjectures
  • develop and evaluate mathematical arguments and
    proofs
  • select and use various types of reasoning and
    methods of proof.

17
  • Communication
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • organize and consolidate their mathematical
    thinking through communication
  • communicate their mathematical thinking
    coherently and clearly to peers, teachers, and
    others
  • analyze and evaluate the mathematical thinking
    and strategies of others
  • use the language of mathematics to express
    mathematical ideas precisely.

18
  • Connections
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • recognize and use connections among mathematical
    ideas
  • understand how mathematical ideas interconnect
    and build on one another to produce a coherent
    whole
  • recognize and apply mathematics in contexts
    outside of mathematics.

19
  • Representation
  • Instructional programs from prekindergarten
    through grade 12 should enable all students to
  • create and use representations to organize,
    record, and communicate mathematical ideas
  • select, apply, and translate among mathematical
    representations to solve problems
  • use representations to model and interpret
    physical, social, and mathematical phenomena.

20
Use Data to Drive Instruction
  • Data available
  • ARMT/SAT 10 Data
  • Quarterly Assessments
  • Eligibility Information
  • Informal Curriculum Based Assessments
  • Present Level of Performance on IEP Goal Pages

21
Communication with Regular Education Teacher
  • Be aware of Data available to the Regular
    Education Teacher
  • Participate in data meetings for students if
    possible
  • Collaborate with regular education teacher to be
    aware of students strengths and weaknesses

22
Who needs intervention?
  • Students scoring Levels 1, 2, and 3 on ARMT/SAT
    10
  • Look at actual scores. For example, a 3 may
    really be almost a 2. That student needs to be
    watched closely to determine his/her needs.
  • Does the student have a Math Goal on the IEP?

23
Who needs intervention (cont.)?
  • Students demonstrating specific needs on the
    Quarterly Assessments.
  • Students who demonstrate specific needs on
    Chapter Tests.

24
What do I need to know?
  • ARMT/SAT 10 Data
  • Quarterly Assessment with item analysis
  • COS and Pacing Guide
  • Item specs

25
  • Understanding the complexity and components of
    the learning task
  • AND
  • Understanding the students strengths and needs
  • WILL
  • Inform instructional design, accommodations and
    strategies in the regular and special education
    environments.

26
Use Data to Drive Instruction
27
Design Specific Intervention
  • Intervention should include
  • Building on basic skills
  • Modeling and scaffolding new skills I do, we do,
    you do
  • Practice to build fluency and automaticity with
    number facts
  • Specific remediation of concerns identified in
    classroom assessments and work
  • Consistent review

28
What does intervention look like?
  • Daily Intervention
  • Global math concerns
  • Math goals identified
  • May need resource time
  • Content of intervention should parallel COS
  • Periodic Intervention
  • Target specific skills
  • May not have Math goals in IEP
  • May not need pull out
  • May be done by General Education Teacher

29
What Math instruction include?
  • Assess students needs and choose appropriate
    goals.
  • Set goals with the student.
  • Review before a lesson, review within the
    lesson, review homework, review within the lesson
    and across lessons

30
  • Model Explicit Strategies
  • Explicit/Direct instruction is a primary
    component of instruction for students with
    disabilities.
  • Model problem solving strategies
  • Think Aloud of thought processes as the teacher
    solves problems
  • Allow the student to practice strategies
  • Provide corrective feedback
  • Student Teacher Interaction is dynamic and
    fluid, adjusting to the needs of the student.

31
  • Use Concrete Semi-concrete Abstract Sequence
  • Use of manipulative objects and pictures to
    represent math facts, word problems, fractions,
    and concepts.
  • Objects, pictures, drawings accompanied by
    explanations

32
  • Teach Concepts and Rules
  • Explicitly teach relationships
  • 8614 and 6814 14-86 and 14-68
  • 0 x n n
  • Monitor Progress and Provide Feedback
  • See growth and adjust instruction
  • Teach Mastery - Automaticity

33
  • Teach Problem Solving A complex process
  • Recognize problem
  • Plan a strategy
  • Examine the mathematical relationships in the
    problem
  • Determine knowledge needed to solve
  • Represent information graphically
  • Generate equation
  • Estimate an answer
  • Sequence computation
  • Compute the answer
  • Check if reasonable

34
Information Available through the Text
  • An Intervention System
  • Diagnostic tests by grade level
  • Readiness Activities and Suggested Follow-Up
  • Forms to track results
  • Vocabulary
  • Guidelines and suggested activities/problems
    throughout the chapter
  • Leveled practice suggestions throughout each
    section.
  • Error intervention
  • Professional Development Note in Chapters

35
  • Supplemental Materials by Grade Level
  • Reaching All Learners
  • Reteaching Masters
  • Practice Masters

36
References
  • Foundations for Success The National
    Mathematics Advisory Panel. Final Report. 2008.
    US Department of Education.
  • Strategies for Accessing Algebraic Concepts
    (K-8). Access Center. September 20, 2006.
  • The Access Center. Improving Outcomes for All
    Students K-8. Learner Accommodations and
    Instructional Modifications in Mathematics
    Classroom for Students with Learning
    Disabilities.
  • Bos, Candace S. and Sharon Vaughn, Strategies for
    Teaching Studnets with Learning and Behavior
    Problems, Sixth Edition, Merrill. 2006.
    p.333-377.
  • Lyndia Eich and Karrin Lewis. K-12 Mathematics
    Diagnostic-Intervention Program Review.
    Preliminary Report. 2007
  • Gersten, Russell and Chard, David, Number Sense
    Rethinking Arithmetic Instruction for Students
    with Mathematical Disabilities. LD Online, 2001.
    http//www.ldonline.org/article/5838 .

37
References (continued)
  • Hardy, Shannon. Research Based Math
    Interventions for Middle School Students with
    Disabilities. Access Center. 2005
  • Kroesbergen, E. H. and Van Luitt, J.E.H.
    Mathematics Interventions for Children with
    Special Needs. Remedial and Special Eduction
    24(2), 97-114
  • Mercer, Cecil D. and Mercer Ann R., Teaching
    Studnets with Learning Problems, Seventh Edition,
    Merrill, 2005. pp.427-483.
  • What is a Math Disability. https//www.msu.edu/c
    ourse/cep/886/Math

38
  • Strategy Sources on line
  • http//www.uic.edu/depts/counselctr/ace/math.htm
  • http//homepates.wmich.edu/whitten/champaign_proj
    ect/math.html
  • www.pbs.org/wgbh/misunderstoodminds/math.html
  • https//www.msu.edu
  • www.nctm.org Go to standards
  • http//illuminations.nctm.org - interactive
    activities.
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