Children’s Literature + DI + UDL + Mathematics = Success for Students with Disabilities

Dr. Mari Caballero
Dr. Marj Bock
Dr. Catherine Ayantoye

Emporia State University

This issue of NASET’s Practical Teacher series was written by Drs. Mari Caballero, Marj Bock, and Catherine Ayantoye from Emporia State University. Their article describes the development and implementation of a mathematics lesson for an inclusive 3rd grade classroom. The 3rd grade teacher and the special education teacher collaborated to create this lesson. The lesson used a children’s literature book, direct instruction (DI) and Universal Design for Learning (UDL) to meet the needs of all students in the 3rd grade classroom, including three students with special needs whose IEPs contained mathematics goals and objectives. The article includes a discussion of what went well when this lesson was implemented. It concludes with a set of helpful tips for teachers who wish to create similar mathematics lessons.

Abstract

This article describes the development and implementation of a mathematics lesson for an inclusive 3rd grade classroom. The 3rd grade teacher and the special education teacher collaborated to create this lesson. The lesson used a children’s literature book, direct instruction (DI) and Universal Design for Learning (UDL) to meet the needs of all students in the 3rd grade classroom, including three students with special needs whose IEPs contained mathematics goals and objectives. The article includes a discussion of what went well when this lesson was implemented. It concludes with a set of helpful tips for teachers who wish to create similar mathematics lessons.

Keywords: mathematics, inclusion, children’s literature, DI, UDL

CHILDREN’S LITERATURE + DI + UDL + MATHEMATICS = SUCCESS

FOR STUDENTS WITH DISABILITIES

Joseph is a 3rd grade teacher. This year Joseph has 27 3rd grade students in his class. Three of his students receive special education services. Their Individualized Education Plans (IEPs) contain mathematics goals and objectives. Two of these students are identified as having specific learning disabilities in mathematics as well as reading and writing. In mathematics both students are able to rote count to 1000. Both know their addition and subtraction math facts to 20. Overall, they are approximately 1.5 years behind grade level; although, they present many peaks and valleys in their mathematics skills. Joseph’s other student who receives special education services has autism. This student speaks in single words and phrases. He has developmental delays and functions at a kindergarten grade level.

Joseph provides mathematics instruction for all of his students including those with special needs. In addition, he receives support from a special educator. He also has a paraeducator who works with his students with special needs during mathematics instruction. Nevertheless, Joseph often finds that as he teaches a mathematics lesson his students with special needs seem lost and confused. Joseph struggles to create mathematics lessons with learning activities that will benefit all of his students. He wonders if this is even possible. Similarly, Joseph wonders what teaching strategies work best for students with specific learning disabilities or autism. Are these teaching strategies appropriate for use with all of his students?

These challenges are not unique to Joseph. Many classroom teachers experience these same issues. Frequently students of all abilities are integrated in the general education classroom (Friend, 2018). Therefore, teachers have to make decisions regarding how to effectively teach mathematics to the wide range of learners in their classrooms (Maccini & Gagnon, 2006). Students with disabilities can have difficulty building conceptual and procedural understanding due to the abstract nature of mathematics (Mercer, Mercer, & Pullen, 2011).

The Standards created by the National Council for Teachers of Mathematics (NCTM) (NCTM, 2000) and the Common Core State Standards Initiative (corestandards.org, 2018) both help students with disabilities transition from concrete to abstract understanding (Mercer et al., 2011). Teaching students who struggle in mathematics by having them use manipulatives, problem solve, and make connections to real-life scenarios (Mercer et al., 2011) as well as to other subject content areas (e.g., science, social studies, and English language arts) (Allsopp et al., 2007) can be very beneficial in building mathematics understanding for students with special needs.

Table 1 (see below) shows the NCTM Principles, Content Standards, and Process Standards. The Process Standards help teachers understand how to teach the five Content Standards (NCTM, 2000).  Students with disabilities are being included in the the general education classroom and are being taught using the same curriculum as their general education peers. “In the area of mathematics, teachers are expected to provide effective instruction on curriculum that address higher level math skills and encompasses open-ended problem-solving tasks as set forth by the National Council of Teachers of Mathematics Standards” (Maccini & Gagnon, 2006, p. 218). Therefore, students with disabilities are also being expected to learn these Standards, which makes it important for teachers to use effective instructional procedures and strategies to help all students learn the Standards (Maccini & Gagnon, 2006).

Table 1

NCTM Mathematical Teaching Principles and Standards

Principles

Content Standards

Process Standards

Equity

Numbers and Operations

Problem Solving

Curriculum

Algebra

Reasoning and Proof

Teaching

Geometry

Communication

Learning

Measurement

Connections

Assessment

Data Analysis

Representation

Technology

 

 

Adapted from “Principles and Standards for School Mathematics.” National Council of Teachers of Mathematics (NCTM). Copyright 2000. Reston, VA:  NCTM.

The standards-based mathematics curriculum recommended by NCTM and the Common Core State Standards Initiative promotes problem solving and reasoning in mathematics education. This should support conceptual and procedural mathematics understanding. This understanding can be achieved through problem solving, active learning with manipulatives, application to the real world, cooperative learning among peers, and teacher facilitation (i.e., teachers scaffolding student learning) (Maccini & Gagnon, 2006).

Children’s literature helps teachers create mathematical problems that promote authentic connections for students, i.e., connections to their daily lives, connections to their families, and connections to their neighborhoods (Larson & Rumsey, 2017). In addition, experts recommend that teachers provide mathematical manipulatives to accompany the children’s literature books (Larson & Rumsey, 2017) to further support the conceptual understanding of students including those with disabilities. Consequently, teaching students who struggle in mathematics by having them use manipulatives, problem solve, and make connections to real-life scenarios (Mercer et al., 2011), through children’s literature (Larson & Rumsey, 2017) can be very beneficial in building mathematics understanding.

Clearly, developing mathematics lessons derived from children’s literature books may be highly effective for all of Joseph’s students including those with disabilities. But what instructional strategy (or strategies) should Joseph use when to teach these mathematics lessons? Joseph’s students’ special education teacher suggests that Joseph use Direct Instruction (DI) (Stephan & Smith, 2012) and Universal Design for Learning (UDL) (Salend & Whittaker, 2017) to teach his mathematics lessons.

As the special education teacher noted, Direct Instruction (DI) (Stephan & Smith, 2012) is an instructional strategy that teachers like Joseph often use. It is an extremely effective instructional strategy used to teach all students including those with disabilities (Stephan & Smith, 2012). DI is a teacher-lead, whole-class instructional approach. Teachers start the lesson by activating the prior knowledge of their students. They then introduce new content for the lesson. They show their students how to do the new activity. This is often called the I do section of the lesson. After the teachers have modeled the new skill several times, they invite the students to do the skill with them. This guided practice section of the lesson is often called the We do section of the lesson. Following sufficient guided practice, students move to the independent practice, or You do, section of the lesson.  This highly structured, whole-class instructional approach incorporates clear, concise language and a consistent learning routine. These, together with the modeling and guided practice sections of the lesson, lead to high levels of student success for all students including those with disabilities. DI assures that students do not practice errors. Rather, students practice correct, effective thinking and problem solving (Stephan & Smith, 2012).

Since no two students are alike, the special education teacher explained that effective teachers differentiate their teaching to accommodate their students’ learning differences. Universal Design for Learning (UDL) (Salend & Whittaker, 2017) is a framework developed to help teachers do this. UDL is derived from the architectural concept of universal design, i.e., the design of buildings, products, and services so that all persons can use them. For instance, a ramp is a universal design that provides access for many persons, e.g., those who use wheelchairs, those pushing strollers, and those making deliveries. Teachers who implement UDL are essentially educational “architects” who create learning structures that support all students’ success (Salend & Whittaker, 2017). UDL is based on brain research that applies universal design to teaching and learning (CAST, 2011). Consequently, to differentiate instruction for learners with a range of learning differences, UDL provides multiple means of:

  • Representation – presenting content in a variety of ways;
  • Action and Expression – varying the ways students are encouraged to respond and show their learning; and
  • Engagement – using a variety of practices to heighten student motivation.

Just as architects create blueprints to design buildings that everyone can use, teachers use UDL lesson plans to develop learning activities for all students, including those with disabilities.

After visiting with the special education teacher, Joseph realized that he needed to create a lesson plan that uses children’s literature to teach mathematics. The lesson needed to draw upon the NCTM Principles, Content Standards, and Process Standards, as well as the Common Core Mathematical Teaching Practices. The lesson plan would also need to incorporate IEP objectives for each of his students with special needs. In addition, the lesson plan would need to conform to the DI format. And finally, it would need to integrate UDL strategies. Joseph asked the special education teacher to work with him to develop this lesson. Together they created the DI/UDL lesson plan (see Figure 1).

Joseph’s DI/UDL MATHEMATICS LESSON PLAN

Figure 1. Lesson Plan Subject & Topic: Early Division with Equal Shares

Developed by:  Joseph                                            Grade: 3rd

Date:  October 20, 2018                                           Unit: Numbers and Operations/Division    

NCTM Process Standards embedded in lesson
Representation
Connections
Communication
Reasoning & Proof
Problem Solving
 
Common Core Mathematics Standard
CCSS.Math.Content.3.OA.A.2: Interpret whole-number quotients of whole numbers, e.g., interpret 56 ÷ 8 as the number of objects in each share when 56 objects are partitioned equally into 8 shares, or as a number of shares when 56 objects are partitioned into equal shares of 8 objects each. For example, describe a context in which a number of shares or a number of groups can be expressed as 56 ÷ 8.
IEP Objectives for John and Susan: By the end of the 2nd 9 weeks of the 2018-2019 academic year, John and Bill will divide one and two digit numbers (0-50) without remainders with 100% accuracy on 4 out of 5 consecutive trials as measured by curriculum based assessment.
IEP Objectives for Brian: By the end of the 2nd 9 weeks of the 2018-2019 academic year, Brian will divide single digit numbers (0-9) without remainders with 100% accuracy on 4 out of 5 consecutive trials as measured by curriculum based assessment.
Common Core Mathematical Teaching Practices embedded in lesson
  1. Make sense of problems and persevere in solving them
  2. Reason abstractly and quantitatively
  3. Construct viable arguments and critique the reasoning of others
  4. Model with mathematics
  5. Use appropriate tools strategically
  6. Attend to precision
  7. Look for and make sure of structure
  8. Look for and express regularity in repeated reasoning
Materials
The Doorbell Rang by Pat Hutchins (big books)
Small paper plates (12 per student)
Circular cut outs (12 per student)
White board for each student OR iPad with the whiteboard application (Educreations Interactive Whiteboard (this is free) or another whiteboard application)
 
Examples of other children’s literature books with a focus on division
One Hundred Hungry Ants by Elinor J. Pinczes
One Hungry Cat by Joanne Rocklin
Divide and Ride by Stuart Murphy
The Great Divide by Dayle Ann Dodds
 
Technology
Bold all that apply
o    Teacher laptop
o    SMART Board
o    LCD projector
o    SMART    Senteos     
o    Computers
o    iPad or tablet
o    iPod or mp3 player(s)
 
 
 
o    Webcam
o    Digital camera
o    Document camera
o    Digital microscope
o    Video camera
o    Scanner
o    Color printer
o    Calculators
o    FM system

Direct Instruction Procedure

Introduction

I Do
“Have you ever invited a friend to your house when your mother is baking cookies?”
(You will have your plate with 4 cookies on it ready under a napkin.)
“These circles are the cookies. How many cookies do I have on my plate?”
“You and your friend will each get the same number of cookies. How can you share these cookies fairly with your friend?” (Solicit student responses for different strategies to figure this out.)
(Model fair share with the cut outs for the students. Set out two plates. Using one of the student-generated strategies, divide the cut outs evenly between the plates.)
(Write on the board, 4 ÷ 2 = 2 and read the number sentence)

We Do
“How many cookies will each child get?” (You will count the cookies on each child’s plate.)
“Now take your plates. Put 6 cookies on your plates.” (Each student will count out six cookies and put them on his or her plate.)
“You and your friend will each get the same number of cookies. How can you share these cookies fairly with your friend?”
“Choose a strategy and divide the cookies evenly.”
“How many cookies will your friend get?”
“How many cookies will you get?” (Write on the board 6 ÷ 2 = 3)
 
“Today we’re going to read a book where the characters experience a similar problem. The book is The Doorbell Rang. It is written by Pat Hutchins.”

Lesson

I Do
Begin reading the story
Have 12 cookies on one plate
After reading page 1, ask the students “I need to figure out what to do to make sure that Victoria and Sam each have the same number of cookies? Well, I think I am going to get 2 plates, so that I have 1 for Victoria and 1 for Sam. Now I am going to put 1 cookie on Victoria’s plate, 1 on Sam’s, another on Victoria’s, another on Sam’s. I will keep taking turns putting 1 cookie on each plate. Ok I got it! Sam has 6 cookies and Victoria has 6 cookies!” Model taking turns putting 1 cookie on each plate, back and forth, until there are 6 cookies on 2 plates.
Write on the board 12 ÷ 2 = 6.
Continue reading pages 2, 3, and 4.

After the doorbell rings and Tom and Hannah come in, bring out 2 more plates.
Ask the students, “What do we do to make sure that Victoria, Sam, Tom, and Hannah have the same number of cookies? Watch me as I use a different strategy to figure out how many cookies each person should get. Well, Victoria has 6 cookies and Sam has 6 cookies. I am going to take 1 of Victoria’s cookies and give it to Tom and then I will take 1 of Sam’s cookies and give it to Hannah. Ok, so Hannah and Tom each have 1 cookie and Victoria and Sam each have 5. So, I will take another cookie from Victoria and give it to Tom and I’ll take 1 from Sam and give it to Hannah. Now, I’ll count and see how many Victoria has…1, 2, 3, 4 cookies. Sam has 4 cookies too and Hannah and Tom each have 2 cookies. Ok, so that’s not equal, so I’ll have Victoria and Sam each share another cookie. Well, now Victoria has 3 cookies, Sam has 3 cookies, Hannah has 3 cookies, and Tom has 3 cookies. They all have 3 cookies!”
Model taking 1 cookie at a time off of Victoria’s and Sam’s plate and giving to Tom and Hannah, until there are 3 cookies on the 4 plates.
Write on the board 12 ÷ 4 = 3.
Continue reading pages 5, 6, 7, and 8.
 
We Do
After reading page 8, have students work with a small group and figure out what should be done to make sure that Victoria, Sam, Tom, Hannah, Peter and his brother each get the same number of cookies.  Allow students time to figure out the answer.
“How many cookies did each child get?”
“What strategy did you use to figure out how many cookies should go on each plate?
What would be the new division problem?
Write on the board 12 ÷ 6 = 2.
Continue reading pages 9, 10, 11, 12 and 13.
After reading page 13, have students work with a small group and figure out what should be done to make sure that Victoria, Sam, Tom, Hannah, Peter, his brother, Joy, Simon and the 4 cousins each get the same number of cookies. Allow students time to figure out the answer.
“How many cookies did each child get?”
“What strategy did you use to figure out how many cookies should go on each plate?
What would be the new division problem?
Write on the board 12 ÷ 12 = 1.
Finish reading the story
 
Have students work in groups of 4.
The students should have 48 cookies and 48 plates to use to solve the problems.
“Someone remind me how many kids are at the house?” (12 kids). Let’s pretend Grandma brought 12 more cookies, so now we have 24 cookies. Figure out with your group, by using your cookies and plates how many cookies each child gets.” 
Allow students time to work.
“How many cookies did each child get?”
“What strategy did you use to figure out how many cookies should go on each plate?
What would be the new division problem?
Write on the board 24 ÷ 12 = 2.
 
“This time Grandma brought 24 more cookies, so now there are 36 cookies! How many cookies would each child get now? Please show the problem with your cookies and plates and on your iPad whiteboard application. Try to use 2 different strategies! You could do one strategy with your cookies and plates and one strategy on your whiteboard app!”
Allow students time to work.
“How many cookies did each child get?”
“What strategies did you use to figure out how many cookies should go on each plate?
What would be the new division problem?
Write on the board 36 ÷ 12 = 3.
 
 
You Do
Provide each student with a white board or iPad (using the whiteboard application).
Students will be working independently on their whiteboard or iPad, while answering the questions you provide verbally, but also have them written on the Smartboard. They can also use the cut outs and plates or draw pictures to help them.
“Let’s pretend there are 6 cookies on a plate and you, Alex and Carson all want to have the same number of cookies. How many cookies does each person get? What is the division problem that represents the cookies each person gets?”
Students should show a representation of 6 cookies split between 3 people and write the problem 6 ÷ 3 = 2.
 
“What if there are 20 cookies and 5 friends. How many cookies does each friend get? What is the division problem that represents the cookies each person gets?
Students should show a representation of 20 cookies split between 5 friends and write the problem 20 ÷ 5 = 4.
 
“What if there are 35 cookies and 7 friends. How many cookies does each friend get? What is the division problem that represents the cookies each person gets?
Students should show a representation of 35 cookies split between 7 friends and write the problem 35 ÷ 7 = 5.

UDL Procedures
Bold all that apply

 
Multiple Means of Representing

*Think aloud strategy
*Use multiple modalities for instruction (auditory, visual & kinesthetic)
*Sequence instruction from concrete to representational to abstract (CRA)
*Use tangible/concrete materials/manipulatives to illustrate & teach abstract concepts (base-ten blocks, fraction strips, Cuisenaire rods, geoboards)

*Explicitly teach math vocabulary
*Use math word walls with visuals
*Pre-teach concepts and vocabulary before the lesson
*Use visual representations (concept maps, pictures & other visual aids)

*Use virtual manipulatives (digital objects that resemble physical objects)
*Use color-coding/different fonts for operation symbols to encourage operation sense & reduce confusion
*Record lessons for review; provide access to students
*Highlight essential components in texts, worksheets, problems
*Use story maps or graphic organizers for sequencing, retelling or summarizing
 
Multiple Means of Action & Expression
 
*Repeat directions
*Simplify directions
*Read aloud text/problems, repeat, review
*Use practical/familiar items to improve focus
*Use hands on activities

*Provide multiple strategies for skill instruction
*Provide guided notes
*Provide frequent opportunities for cumulative & distributed review of rules, facts, formulas, strategies, etc.
*Teach math strategies, mnemonics, stories, rhythm or music & use visual cues to teach rules or facts
*Encourage use of note taking; allow use of notes during assignments
*Teach & use the two-column notes strategies to assist with a review of concepts/test-taking
*Provide desk & pocket size tools (multiplication & measurement tables, number lines, addition tables, bar models, fraction & decimal conversions, etc.)
*Encourage use of calculator to check work
*Use technology, computer algebra systems, online tools, digital manipulatives
*Use tablets & apps for note-taking, procedural/conceptual review, frequent practice, etc.
*Use computer assisted instruction for highly structured systematic tutorials, and independent practice with immediate feedback
*Allow for class presentations to be given as a group
*Explicitly teach purpose & application of mathematical models and tools; teach use of knowns & unknowns for strategy selections

Multiple Means of Engagement
 
*Reduce math anxiety-don’t use timed math facts tests
*Allow choice in problem solving strategy
*Encourage positive self-talk
*Set purpose for learning
*Create a safe learning environment
*Reduce emphasis on peer competition & perfection
*Make learning relevant/connect examples to student’s daily life
*Make connections between math and the real world
*Use flexible grouping (heterogeneous grouping to minimize the barriers of disability)

*Provide environmental accommodations (quiet space with minimal distractions for independent work, headphones or earplugs, study carrels)
*Create consistent classroom routines & procedures to help focus attention on mathematics
*Connect to prior learning & background knowledge
*Use culturally relevant & developmentally appropriate examples
*Provide immediate corrective feedback
*Use small group instruction

*Teach self-monitoring (self-questioning, self-evaluation and self-regulation strategies)
*Monitor progress frequently to ensure appropriate application & encourage student to set goals based on data

Summative Assessment

Students can independently answer the following question using a whiteboard app on their individual iPad. The Educreations App allows students to write and draw their answers. When they are done answering the questions, they can email their answers to you or you can review them directly on their iPad.
 
1.    What if there are 49 cookies and 7 friends? How many cookies does each friend get? What is the division problem that represents the number of cookies each person gets? Show and explain 2 different strategies or representations for how you solved this problem.

***If students are successful with this first question, you may choose not to use the additional question. While waiting for other students to finish, students could work individually or in small groups with the other children’s literature books with a division theme that are located in the materials list. 
***For students who struggled with the first question, provide support and feedback before having them move onto the second question. 

This time there are 64 cookies and 8 friends. How many cookies does each friend get? What is the division problem that represents the number of cookies each person gets? Show and explain 2 different strategies or representations for how you solved this problem.

Review

“Today we learned how to solve problems by creating equal groups of cookies. We were doing division! Division is breaking a number into equal groups, so that everyone has a fair share. If I had the division problem 56 ÷ 8 (write this on the board), what could be a situation that would describe this problem? How could we figure out the answer? (Solicit student responses). We will continue to learn different strategies for how to divide a number and we will also learn how we can use our understanding of multiplication to become better dividers!”

Joseph’s Lesson Plan Description

Joseph and the special education teacher created a lesson that integrates children’s literature and mathematics, specifically within the Numbers and Operations Content Standard. For all of Joseph’s lessons, he must include the Common Core Standard that aligns with the content he is teaching. Joseph’s lesson is based on CCSS.Math.Content.3.OA.A.2 which states,

“Interpret whole-number quotients of whole numbers, e.g., interpret 56 ÷ 8 as the number of objects in each share when 56 objects are partitioned equally into 8 shares, or as a number of shares when 56 objects are partitioned into equal shares of 8 objects each. For example, describe a context in which a number of shares or a number of groups can be expressed as 56 ÷ 8.” (core standards.org, 2018).

In Joseph’s lesson plan, he utilizes DI and UDL to help all students experience success while learning early division. See Joseph’s lesson plan “Early Division with Equal Shares”.

Joseph’s mathematics lesson incorporates all the Common Core Mathematical Teaching Practices and NCTM Process Standards. Joseph’s lesson plan shows that all of these Practices and Standards are included in order to help meet the range of student needs represented in his class and help his students learn division conceptually, rather than memorizing a procedure.

Below is a short example of how each NCTM Process Standard is embedded in the lesson.

  • Representation: Joseph has student’s using cookie cut-outs to determine the correct equal shares. He also has student’s drawing pictures or using other forms of representation (e.g., counters) to figure out the equal share.
  • Connections: Joseph connects English Language Arts and division throughout the lesson.
  • Communication: Joseph has students working in small groups to figure out the solutions to the problems posed in the children’s literature book. He also has students communicate with him and share how they solved the problems.
  • Reasoning and Proof: Joseph encourages students to share their strategies for solving the problems and prove that their strategy works.
  • Problem Solving: Throughout the lesson, Joseph utilizes the problems posed in the children’s literature book, as well as poses additional real-life problems in the guided and independent portions of the lesson.

The Common Core Mathematical Teaching Practices are also embedded in Joseph’s lesson. The Common Core State Standards Initiative developed mathematical teaching practices to help educators teach mathematics in a more proficient manner (http://www.corestandards.org). Below is a short example how each of the 8 Common Core Standards for Mathematical Practice are embedded in the lesson.

  • Make sense of problems and persevere in solving them: Joseph’s students experience errorless learning throughout the direct instruction lesson. They have a variety of opportunities to practice and be successful learning the objective.
  • Reason abstractly and quantitatively: Joseph’s students learn to reason through the various problems posed in the children’s literature book. The students are encouraged to use manipulatives and gradually move to a semi-concrete and abstract representation of the division problems.
  • Construct viable arguments and critique the reasoning of others: Joseph’s students work together to determine multiple strategies for solving the problems.
  • Model with mathematics: Joseph’s students model the division problems with concrete objects (i.e., cookie cut-outs). They also have to express the division problems using technology (i.e., they are using their white board app for this).
  • Use appropriate tools strategically: Joseph’s student’s use technology and concrete objects to solve the problems and represent their understanding. They have the opportunity to choose which tools they want to use while solving problems in the guided and independent practice portion of the lesson.
  • Attend to precision: Throughout Joseph’s lesson, Joseph is checking for student understanding. He has options for students to continually practice if needed. Students are also encouraged to express their understanding verbally and using representations. 
  • Look for and make use of structure: Throughout Joseph’s lesson, students learn to find patterns and use repeated reasoning to solve the more difficult problems.  
  • Look for and express regularity in repeated reasoning: Student’s learn throughout the lesson to start generalizing their understanding to other problems and situations.

Joseph’s lesson plan contains numerous UDL modifications. Below are a few of the ways that Joseph provides UDL modifications.

  • Multiple Means of Representation
    • Using the think-aloud strategy
    • Using of visual representations
    • Pre-teaching mathematics concepts
  • Multiple Means of Action and Expression
    • Using practical, familiar items to improve focus
    • Using tablets and apps for notetaking, procedural/conceptual review, frequent practice, etc.
    • Providing frequent opportunities for cumulative and distributive review of rules, formulas, strategies, etc.
  • Multiple Means of Engagement
    • Making learning relevant/connect examples to student’s daily life
    • Making connections between math and the real world
    • Using flexible grouping (heterogeneous grouping to minimize the barriers of disability.

To see the full list of UDL modifications that Joseph has embedded into his lesson, refer to the bolded UDL modifications Joseph has on his lesson plan. These lists of UDL modifications come directly from https://sites.google.com/site/703gse/udl-for-math-calucation-and-problem-solving.

Joseph embedded DI in his lesson plan. He uses DI with his whole class in order to facilitate errorless learning. Joseph’s lesson utilizes clear, concise, structured language in order to help students understand his expectations, how to solve the problems, and to develop mathematics vocabulary. Although as the lesson moves on, Joseph allows students to reason through the problems and use their own invented strategies. Initially he models how his students can solve the problems successfully. This is particularly important for students receiving special education services in mathematics. Many of these students are either unable to generate their own problem solving strategies or generate only one very simplistic problem solving strategy. Thus they benefit from seeing Joseph as well as their peers generate and use multiple problem solving strategies.

Lesson Implementation

Joseph tried the lesson with his students. The lesson worked! All his students understood the lesson. John and Susan, his students with specific learning disabilities, understood equal share. They understood when and why they would use equal share. They learned how to represent equal shares as whole number quotients. Brian, Joseph’s student with autism, learned how to divide “real-life” manipulates into equal shares. Thus all three students completed a lesson that addressed one of their IEP mathematics objectives. In addition, Joseph’s other students achieved the objectives he identified for the lesson. Joseph differentiated the lesson to meet each of his student’s unique learning needs. He found that using DI did not “hold his more capable students back.” In short, those students moved to the independent work, or You do phase of DI, very quickly while his other students worked with him longer in the We do phase of DI. The paraeducator was able to provide additional DI for John, Susan, and Brian as needed during the You do phase of DI. She did this while working with these students at a small table in the corner of the room. Joseph provided additional We do instruction for a few of his other students as needed while the majority of his class completed the You do phase of the lesson.

Lesson Outcomes

Overall, Joseph’s lesson was very structured and thorough. Joseph modeled for his students, provided them opportunities to use their own invented strategies with cooperative learning groups, and experience multiple situations to practice the objective. He built this lesson to take advantage of his students’ strong reading and writing understanding. He utilized DI. He incorporated UDL strategies, as well as made sure the NCTM Process Standards and Common Core Mathematical Teaching Practices were embedded in his lesson. Further, Joseph developed a lesson that addressed IEP objectives from his students’ IEPs. In fact, this lesson helped his students with disabilities understand why they needed to learn to divide numbers and how they can use this skill on a daily basis in their real lives at school, at home, and throughout their neighborhoods. Therefore, this lesson benefitted all of Joseph’s students, including those with disabilities. He was able to implement it with all students in his class participating in the initial instruction.

Helpful Tips for Creating Mathematics Lessons Utilizing Children’s Literature Book’s

  • It is important, specifically for students with disabilities, to provide them with a lot of repetition and practice on the content that is being taught. For this particular lesson on equal shares, the iPad apps and websites below could be useful for students who need additional practice and repetition:
  • When choosing a children’s literature book:
    • Ensure it correctly portrays the mathematics content that you are teaching (Uscianowski & Ginsburg, 2017)
    • Ensure it is grade level appropriate (Burns, 2015)
    • Confirm that the book will help all students reason about mathematics and build a conceptual mathematics understanding (Burns, 2015)
    • Ensure that the book illustrations support the mathematics content and are not confusing (Uscianowski & Ginsburg, 2017)
    • Verify that mathematics is embedded in the content of the book (Uscianowski & Ginsburg, 2017)
    • Ensure that the book has an interesting plot with relatable characters so that the students are engaged and able to make connections (Uscianowski & Ginsburg, 2017)
  • Allow the students an opportunity to enjoy the book by having it available to them to reread or look more closely at illustrations (Burns, 2015)
  • Remember that the most important thing about choosing a book is that it is engaging for the students and fun to read (Burns, 2015)

References

Allsopp, D. H., Kyger, M.M., & Lovin, H. L. (2007). Teaching Mathematics

     meaningfully. Baltimore, MD: Paul H. Brookes Publishing Co.

Burns, M. (2015, September 9). Using children’s literature to teach Math.

     [Blog post]. Retrieved from http://www.marilynburnsmathblog.com/using-childrens-   

     literature-to-teach-math/

CAST (2018). Universal Design for Learning Guidelines version 2.2. Retrieved from

       udlguidelines.cast.org

Common Core Standard: Mathematics. (2018). Retrieved from www.corestandards.org 

Council of Chief State School Officers & National Governors Association Center for Best Practices. (2010). Common core state standards for mathematics.

Friend, M. (2018).  Special education: Contemporary perspectives for school professionals

      (5th ed.). New York: Pearson.

Hutchins, P.  (1986). The doorbell rang. New York: Greenwillow Books.

Larson, L. C., & Rumsey. C. (2017). Bringing stories to life: Integrating literature

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About the Authors

Dr. Mari Caballero is an assistant professor at Emporia State University. She earned her doctorate in mathematics education with a minor in special education from the University of Kansas. She is a member of Council for Exceptional Children and the National Council of Teachers of Mathematics. Her research interests include collaboration of professionals in schools in order to facilitate inclusion and utilizing effective instructional strategies for students with disabilities specifically in the area of mathematics.

Dr. Marj Bock is a full professor of special education at Emporia State University. She received a doctorate in special education from the University of Kansas. She is a member of the Autism Society of America, Council for Exceptional Children, Council for Children with Behavior Disorders, and Teacher Educator Division. Her research interests include metacognitive strategies for students with autism, inclusion, and co-teaching.

Dr. Catherine Ayantoye is an assistant professor at Emporia State University. She earned a Ph.D in special education from the University of Northern Colorado. She is a member of Council for Exceptional Children, and Teacher Education. Her research interest includes collaboration of professionals in inclusive settings, and students with disabilities in inclusive settings.

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