16_Rapp_CH16.indd
Teaching Everyone
Engagement Strategies
Scales and recipes is one idea. A quilting station, where students measure fabric and patch together patterns of cloth, is another idea.
Choice
The third category of engagement strategies is choice. Any time that a student can make his or her own choice about learning, engagement is increased. The homework menus presented in Chapter 7 are a great example. Figure 16.2 shows a menu for math. In addition to menus, tiered math problems provide choices with just the right amount of challenge for individual students. For any math problem, provide options of increasing difficulty from an introductory level to a more sophisticated level. Wormeli (2007) provided an example for finding the surface area of three-dimensional solids.
From least to most sophisticated, the tiers could be:
- Determine the surface area of a cube;
- Determine the surface area of a rectangular prism;
- Determine the amount of wrapping paper needed to cover a rectangular box;
- Determine how many cans of paint you’ll need to buy to paint a house with given dimensions, if one can of paint covers 46 square feet (p. 84).
Once students choose a starting point, the teacher can guide them through increasing levels of mastery. Another way to offer choice to students is to allow them to work in different group sizes. Activities can be done by the whole class or half the class, in small groups or teams of various sizes, partners, triads, or by individual study (Wormeli, 2007).
Fitzell (2005) offered some examples of ways to collaborate on math problems:
• Solve problems with a partner; one solves while one explains
• Solve complex story problems in a small group; make sure everyone contributes
Math Strategies for All Students
| Choose and complete three activities in a row. | ||
|---|---|---|
| There are 25 students in the class. To complete a craft project, each student needs 3 pipe cleaners. Write an equation to show how many pipe cleaners are needed in all. Draw a picture model to go with it. | ||
| Create a “caterpillar” that has seven body parts: | ||
| Place prime numbers in each body part so that the sum of the numbers equals 58. | ||
| Make a collage of items that can be divided into equal parts or fractions. | ||
| Interview a classmate about ways that multiplication and division are used in daily life. | ||
| You are bringing a birthday treat to school. There are 24 people including yourself and the teacher. You buy a bag of 72 candies. Write an equation to show how each person received equal amounts and how many are left over. |
Figure 16.2. Math menu. (Adapted from Westphal, L.E. [2007]. Differentiating with menus: Math.)
Self-Regulation Strategies
The last category of engagement strategies is ways to help students regulate and monitor their own understanding and work. The first part of this is to make sure that students are working in a setting that is free of as many distractions and threats as possible. By threats, we mean anything that might make the student feel uncomfortable—physically or emotionally—frustrated, or insecure.
The quiet area where students can choose between various seating options or use a clipboard under softer lighting is just one example. Allowing students the opportunity to share their thinking can be engaging, but demanding that they present orally to the class unexpectedly can be threatening. Gargiulo & Metcalf (2010) shared examples of strategies that increase engagement: graphic organizers because they help students regulate their own learning. Teachers can provide graphic organizers to fill out, mnemonics to rehearse, and strategy posters to review. Silverman (2002) also encouraged the use of mnemonics.
There are many different ways that you can represent math concepts to students to increase their understanding. This section covers multiple representations of math concepts in three categories: visual, auditory, and tactile input; teaching math language; and anchoring activities.
Visual, Auditory, and Tactile Input
The first category of representation or input strategies includes ways that make math visual, auditory, and tactile so that different students can learn through multiple means.
$$ 32 \times 5 $$
$$ 3 \times 89 = $$
Excerpted from Teaching Everyone: An Introduction to Inclusive Education by Whitney H. Rapp, Ph.D., & Katrina L. Arndt.