A student who has difficulty understanding the problem, planning and executing a solution, self-monitoring progress toward a goal, and evaluating a solution will benefit from intervention around the problem-solving process. The following interventions support students in internalizing this process from start to finish. This page includes intervention strategies that you can use to support your students in this area. Remember, if you're teaching a full process from start to finish, you probably want to use the Self-Regulated Strategy Development approach, which spreads explicit instruction of a full process across a series of intervention lessons. As you read, consider which of these interventions best aligns with your student's strengths and needs in the whole-learner domains.
Self-Regulated Strategy Development
Self-Regulated Strategy Development (or SRSD) is one way to teach the problem-solving process. The SRSD model "requires teachers to explicitly teach students the use of the strategy, to model the strategy, to cue students to use the strategy, and to scaffold instruction to gradually allow the student to become an independent strategy user." (Reid, Leinemann, & Hagaman, 2013). The steps of teaching SRSD are slightly different from the steps of explicit instruction because, in SRSD, each step must be mastered before the next one is started. For example, you might spend an entire lesson on Developing Background Knowledge before moving on to Discuss It (see below). The longterm goal of SRSD is for students to be able carry out the strategy independently, and so time is dedicated to teaching each step of the strategy in such a manner as enables students to internalize the material.
Teaching SRSD model requires six steps:
SRSD Explicit Instruction Six-Step Model:
To support your students' ability to apply SRSD, you should start by explicitly teaching the six-step model. Keep in mind that this type of explicit instruction may take place over a number of days.
Step 1: Set the Context for Student Learning and Develop Background Knowledge.
Step 2: Discuss It.
Step 3: Model It.
Step 4: Memorize It.
Step 5: Support It.
Step 6: Independent Practice
Activity A: Word Problem Mnemonics
One way to support your student's problem-solving ability is to teach her a mnemonic for a series of steps to take whenever she encounters a story problem. The following brief, developed by the Evidence Based Intervention Network at the University of Missouri, describes this strategy. As you read, consider how each mnemonic breaks down the problem-solving process.
Click here to read the brief.
Word Problem Mnemonics in Action
In the video below, Emily Art explicitly models how to use the word mnemonic, CUBES, to teach the problem solving process.
As you watch, consider: How do mnemonics support a student's ability to independently carry out the problem solving process?
Another strategy to use to teach your student the problem-solving process is called Self-Organizing Questions. Gifford (2005) advocates for teaching students a series of questions to ask themselves that will guide them through the problem-solving process. Read through each prompt below and consider its purpose.
Self-Organizing Questions in Action
Give the student a problem. Then, go through the six self-organizing questions to guide the student through the problem-solving process.
This example refers to the problem below.
Lamont had 14 pumpkin seeds.
He also had 32 apple seeds.
He planted 41 of the seeds.
How many seeds did Lamont have left?
Teacher: We are going to use the self-organizing questions to solve this problem. Frank, what are we trying to do?
Frank: We are trying to figure out how many seeds Lamont has left, after he plants the pumpkin and apple seeds.
Teacher: Let's think about similar problems we've had in the past. Have we done anything like this before?
Frank: Yes, yesterday, we solved a problem about how many baseball and soccer balls Jamie had.
Teacher: So, what do we need to do to plan to solve this problem?
Frank: We need to add up the total number of seeds, and then subtract how many he planted.
Teacher: Is there another way to solve this problem?
Frank: We could probably draw it, or use manipulatives to help us.
Teacher: Okay, go ahead and execute it! How does it look so far?
Frank: It's working for me. I added the types of seeds together, which gave me 46. Then, I subtracted the 41 seeds he planted. That gave me 5 seeds leftover, which seems about right.
Teacher: How can we check our answer?
Frank: I'll see if I can add it back up. My solution was 5, so I'll add that to 41, which gives me 46. Then, I'll add the number of seeds he had total, which gives me 46! So, it matches!
Activity C: Solve It
If your student has particular struggles with understanding the problem, use Solve It, which is an explicit approach to teaching the problem-solving process, with an emphasis on understanding what the problem is about. The following brief, developed by the Evidence Based Intervention Network at the University of Missouri, describes this strategy. As you read, consider how this approach supports student understanding of problems.
Click here to read the brief.
Solve It in Action
Read the sample lesson plan (Montague, 2006) below to see what Solve It looks like in action. For your reference, click here to access a self-regulation script for students.
Gifford, S. (2005). Teaching mathematics 3-5: Developing learning in the foundation stage. Berkshire: McGraw-Hill Education.
Graham, S., & Harris, K.R. (2005). Writing better: Effective strategies for teaching students with learning difficulties. Baltimore, Maryland: Paul H. Brookes Publishing Co.
Hughes, E.M. (2011). Intervention Name: Solve It! Columbia, Mo: The Evidence Based Intervention Network, The University of Missouri. Retrieved from https://education.missouri.edu/ebi/math-acquisition/
Hughes, E.M. & Powell, S. (2011). Intervention Name: Word-Problem Mnemonics. Columbia, Mo: The Evidence Based Intervention Network, The University of Missouri. Retrieved from https://education.missouri.edu/ebi/math-acquisition/
Montague, Marjorie. (2006). Self-regulation strategies for better math performance in middle school. In M. Montague and A. Jistendra (Eds.), Teaching mathematics to middle school students with learning disabilities. New York: The Guilford Press.
Reid, R., Lienemann, T. O., & Hagaman, J. L. (2013). Strategy instruction for students with learning disabilities. New York: The Guilford Press.
Think about the following scenario, which takes place after a teacher has explicitly taught a student to use the problem-solving process. The following example refers to the problem below.
Lamont had 14 pumpkin seeds.
He also had 32 apple seeds.
He planted 41 of the seeds.
How many seeds did Lamont have left?
Teacher: "Now that you understand the problem, what are you doing to do next?"
Student: "Solve it! 41-32 = 9. He had nine seeds left."
In such a case, what might you do?
When you are planning your lessons, you should anticipate that your student will make errors throughout. Here are a series of prompts that you can use to respond to errors. Keep in mind that all students are different, and that students might respond better to some types of feedback than to others.
Level of Support | Description of Scaffold | Script |
---|---|---|
Smallest Scaffold | Check your Resources. As you continue to use these interventions, your student should have the steps to the problem-solving process listed in his notebook. | "Look in your notebook: it seems like you skipped a step. Can you use the steps listed in your notebook to go through the problem-solving process?" |
Medium Scaffold | Back it Up. If a student is struggling, back up your process. Ask the student to identify the next step he should take. | "Look in your notebook: what are the steps we take after understanding the problem and before solving the problem?" |
Highest Scaffold | Model. If the student continues to struggle, model your own thinking. This will help a student understand how to use the problem solving process effectively. | "I can see that you are stuck. Let me show you how I go through each step of this problem-solving process." |
If your student struggles to meet your objective, there are various techniques that you might try in order to adjust the activity so as best to meet your student's needs.
Activity | Description of Strategy | Script |
---|---|---|
All Activities | Suggest Options. If your student rushes through a strategy by skipping the planning phase, encourage him to go back and select an attack strategy that matches the problem. | "Let's go back for a minute. It seems like you jumped to solving this problem using an equation. Let's read the problem again and consider whether an equation is the best strategy for solving this problem." |