Exactness: A Concept Important for Engineering Applications or a Source of Potential Difficulties?

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-01-19 DOI:10.1109/TE.2023.3335874
Svitlana Rogovchenko;Yuriy Rogovchenko
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Abstract

Contribution: This article identifies possible ruptures between the ways fundamental notions of exact differential and exact differential equations (EDEs) are employed in mathematics courses and professional engineering disciplines. Background: Engineering students often experience difficulties with mathematics courses which may even lead to dropout from engineering programs. Students also face problems applying acquired mathematics knowledge in professional courses. Research is needed to understand how fundamental mathematics concepts are used in advanced engineering courses. Research Questions: How are the notions of exact differential and EDEs used in mathematics and engineering courses? What potential learning difficulties originate from different institutional practices and how can they be addressed? Methodology: The anthropological theory of the didactic is employed to analyze how six different STEM disciplines approach fundamental concepts of exact differential and EDEs. Distinctions in praxeologies associated with different institutions reveal possible learning difficulties students face relating new knowledge in engineering disciplines to that acquired in mathematics courses. Findings: Student learning can be facilitated by bridging the way exact differentials are introduced in Calculus and Differential Equations. Student conceptual understanding can be facilitated through the cross-disciplinary collaboration between mathematicians and engineers in the development of new courses and study programs.
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精确性:对工程应用很重要的概念还是潜在困难的根源?
贡献:本文指出了在数学课程和专业工程学科中使用精确微分和精确微分方程(EDEs)基本概念的方式之间可能存在的断裂。背景:工科学生在学习数学课程时经常遇到困难,甚至可能导致从工科专业辍学。学生在专业课程中应用所学数学知识时也会遇到困难。需要开展研究,以了解在高级工程学课程中如何使用基本数学概念。研究问题:在数学和工程学课程中如何使用精确微分和电动力学的概念?不同机构的做法会造成哪些潜在的学习困难?研究方法:运用人类学的说教理论,分析六个不同的 STEM 学科如何处理精确微分和等效几何的基本概念。与不同院校相关的教学法的差异揭示了学生在将工程学科的新知识与数学课程中获得的知识联系起来时可能面临的学习困难。研究结果:通过衔接微积分和微分方程中介绍精确微分的方式,可以促进学生的学习。通过数学家和工程师在开发新课程和学习计划中的跨学科合作,可以促进学生对概念的理解。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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