引导性问题解决与小组规划:一种技术强化的工程问题解决教学策略

Abhinav Anand, Aditi Kothiyal, Bipin Rajendran, S. Murthy
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引用次数: 3

摘要

本科工程教育的一个重要目标是培养学生解决复杂、现实问题的能力。这类问题涉及建立现实场景的物理和数学模型,确定模型的正确参数,设计数值求解方法,并优化解。在典型的工程课程中,解决方法是在解决问题的教程中演示的,而编程则是在作业或实验中进行的,学生在选择优化或解决方案评估时可能得不到充分的反馈。在本文中,我们提出了一个策略,引导问题解决和群体规划(GPGP)来克服这一差距。学生们在课堂上分组合作,建立并实现他们的数学模型和解决方案,然后编写程序进行优化和评估。我们在四年级的电气工程课程中实施了这一策略,该课程在一个学期内完成了四次GPGP。我们评估了学生在解决问题方面的表现,如表达问题、制定解决方案、为提出的解决方案提供理由、监控和评估问题空间和解决方案,并在整个学期中发现了统计学上显著的进步。更多的学生认为他们通过GPGP学会了解决工程问题,并报告说他们在课堂上很享受这种策略。
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Guided Problem Solving and Group Programming: A Technology-Enhanced Teaching-Learning Strategy for Engineering Problem Solving
An important goal of undergraduate engineering education is to develop students' ability to solve complex, real world problems. Such problems involve the building of physical and mathematical models of real-world scenarios, identifying correct parameters of the model, devising numerical solution methods, and optimizing the solution. In typical engineering courses, solution methods are demonstrated in problem-solving tutorials while programming is relegated to homework or lab, wherein students may not get ample feedback on their choices of optimization or solution evaluation. In this paper, we propose a strategy, Guided Problem Solving and Group Programming (GPGP) to overcome this gap. Students work in peer groups within class, to build and implement their mathematical models and solutions, then write programs to do optimization and evaluation. We implemented this strategy in a 4th year electrical engineering course in which GPGP was done four times over the semester. We assessed students' performance on dimensions of problem solving such as representing the problem, developing solution, making justification for proposed solution and monitoring and evaluating problem space and solutions across the semester and found a statistically significant improvement. Further students perceived that they had learned engineering problem solving via GPGP and reported enjoying the strategy in class.
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