Abstract

Introductory physics students experience difficulties when solving problems: selecting and adapting predictive frameworks to fit the problem at hand and deciding upon a detailed solution plan.

Highlights

  • It is widely accepted that it is essential for students to develop problem solving skills during an undergraduate education in science, technology, engineering, and mathematics (STEM) [1,2,3]

  • The predictive framework is sufficiently detailed that it allows experts to conduct mental simulations of experiments by manipulating various problem parameters. Based on this empirical cognitive task analysis of expert decision making, we developed a solution template for students to use as they solved problems in some of the introductory physics courses offered at Stanford (Fig. 1)

  • The research question addressed by the first study is, “Does the template, which is a simplified adaptation of the problem solving framework used by scientists in solving authentic problems, accurately reflect the problem solving processes used by successful introductory physics students when solving introductory physics course problems?”

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Summary

INTRODUCTION

It is widely accepted that it is essential for students to develop problem solving skills during an undergraduate education in science, technology, engineering, and mathematics (STEM) [1,2,3]. The predictive framework is sufficiently detailed that it allows experts to conduct mental simulations of experiments by manipulating various problem parameters Based on this empirical cognitive task analysis of expert decision making, we developed a solution template for students to use as they solved problems in some of the introductory physics courses offered at Stanford (Fig. 1). This approach is well aligned with the cognitive apprenticeship model, in which the expert cognitive process of problem solving is made visible to students through modeling, scaffolding, and coaching [19,24]. We hypothesized that the template could be used to better measure students’ problem solving practices as they solved introductory physics problems by providing more detail as to their process than offered by the typical student solution

BACKGROUND
STUDY 1
Methods
Results
Discussion
STUDY 2
Findings
GENERAL DISCUSSION AND CONCLUSIONS
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