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Developing Problem Solvers in Mathematics

In this article you will learn more about developing problem-solving skills in your students.
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Developing Problem Solvers in Mathematics

The National Council of Teachers of Mathematics' Principles and Standards for School Mathematics recommends the following problem-solving standards for all students:

Instructional programs from pre-kindergarten 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

Almost all state standards contain student expectancies in the problem-solving strand. The expectation that all students should be competent problem solvers is widespread and well established. What may not be quite as clear is how to help develop students into confident and skilled problem solvers.

Hopefully, many of the beneficial attitudes and problem solving competencies have been developed in students long before they reach the middle and secondary grades. Problem-solving skills can be fostered in pre-kindergarten and even earlier by instilling in children a sense of exploration and a spirit of perseverance. It is never too late to help students improve these skills.

Problem Solving Requires Increased Cognitive Skills
Instruction in problem solving differs from traditional mathematics instruction. Many more factors are involved in learning problem-solving skills than in other strands. Problem solving calls on all of a student's mental capacities, including logical thinking, reasoning, and creativity.

Problem-solving activities require students to go beyond strictly using algorithms or other routine processes. Instead, students must recall previously learned mathematical skills and knowledge and think about how to apply them to successfully solve the problem.

Understanding Student Attitudes
To be a successful problem solver, students need both the right attitudes and the necessary skills. Problem solving is a complex process and is often met with a variety of affective responses. These beliefs, attitudes, and emotions are significant because they influence how a student will approach the solution.

It has been found that students approach problem solving differently, and these differences cannot always be explained by academic variables. Belief systems and motivation both factor into individual approaches.

Students respond in a variety of ways to the frustration that accompanies the problem-solving process. Whereas successful problem solvers persist Teachers need to be especially aware of their students' attitudes and how they can affect their problem-solving skills. at this point, unsuccessful ones may quit instead.


Teachers need to be especially aware of their students' attitudes and how they can impact their problem-solving skills. These teachers should also be aware of their own attitudes and model a positive approach to problem solving.

  • Teaching Problem-Solving Skills
    In additional to affective issues, students' problem-solving abilities are affected by their technical skills. There are multiple strategies students can apply to solve problems, many of which can be specifically taught, practiced, and applied.
  • Teach a variety of strategies. Students need many, varied experiences throughout their schooling to learn, practice, and apply various problem-solving strategies. These strategies should be thought of as critical tools that all students should have available when needed.
  • Re-teach the basics. Guess and Test, Look for a Pattern, Try a Simpler Problem, Act Out the Problem, Draw a Picture or Diagram, Use a Graph or Table, Work Backwards . . . the names of many common problem-solving strategies are well known. Even middle and secondary students can benefit from review and practice in using these basic strategies.
  • Extend skills for secondary students. Students in the upper grades should be especially skilled in using data and graphs to solve problems, as well as creating diagrams and constructions to help illustrate and clarify problems.
  • Provide multiple opportunities for practice. Problem solving, like many skills, can be strengthened through extensive practice. Make sure that problem solving is a priority in your instruction and provide ample opportunities for your students to apply their skills and knowledge to interesting problem-solving situations.

 

Try This
Once or twice a week, present a problem to your students in which you have removed all the numbers. Ask your students to explain the steps they would follow to reach a solution.


Keep These in Mind

  • Be aware of your own attitudes toward mathematics and model a positive approach to problem solving.
  • Develop a supportive classroom environment where students feel comfortable taking risks.
  • Encourage students to share alternative approaches to problems.
  • Emphasize the process, not the solution.
  • Use student pairs and small groups to encourage interaction and communication in a non-threatening environment.

 

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