首页> 外文会议>American Society For Engineering Education Annual Conference and Exposition >REVERSE ENGINEERING MODERN ENGINEERING EDUCATION AND ITS SCIENTIFIC APPROACH: WHAT WOULD STEPHEN TIMOSHENKO SAY ABOUT THE CURRENT ENGINEERING EDUCATION?
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REVERSE ENGINEERING MODERN ENGINEERING EDUCATION AND ITS SCIENTIFIC APPROACH: WHAT WOULD STEPHEN TIMOSHENKO SAY ABOUT THE CURRENT ENGINEERING EDUCATION?

机译:逆向工程现代工程教育及其科学途径:斯蒂芬·蒂姆·彭诺科关于当前的工程教育?

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One of the most profound transformations in engineering education may have occurred after World War II, especially in the U.S. According to Jorgensen, in the post war period, engineering education shifted from "encyclopedia stages," focused on national and industrial infrastructure development, to "scientific stages" characterized by achievements such as semiconductor, electronics, and computing. Hence, where instructors were once mainly practitioners, since the 1970s the majority of faculty are academic scientists. Along with this shift, the first concerns about the lack of professional skills of the new graduates appeared in public opinion, concerns that have strongly increased during the 1990s. Sciences, in particular physical sciences and engineering sciences, have become the essential component of the engineering curriculum, giving a higher status to analytical courses than intuitive and practical-oriented courses. This predominance of sciences in engineering seems to be a barrier to developing the new set of skills that new engineers need, now that industry has become the main employer and an important supporter of engineering schools, more so than federal funds. A further challenge resulting from this shifts is that globalization has generated a global and open market of engineers, resulting the creation of multicultural engineering workplaces around the world and requiring a new set of professional competencies. In the current era, the design of new products and systems for new markets has become the context of engineers, requiring skills such as teamwork, creativity, social context understanding environmental awareness, and competence in foreign languages. Therefore, the scientific and technical approach to engineering education now conflicts with the current predominance of the "market world" and the new skills required for many professions. Thus, nowadays, when the scientific approach seems to be in question, a closer historical analysis of the transformations prompted by Stephen P. Timoshenko, an engineer who was called "the father of engineering mechanics in the United State", might illuminate the current discussion and lead to better appreciation of modern engineering education.
机译:在第二次世界大战后,工程教育中最深刻的改造之一,特别是在美国纪念jorgensen,在战后时期,工程教育从“百科全书”转向“百科全书”,专注于国家和工业基础设施的发展,“科学阶段“以半导体,电子设备和计算等成就为特征。因此,教师曾经主要是从业者,自20世纪70年代以来,大多数教师都是学术科学家。随着这一转变,对新毕业生缺乏专业技能的第一个问题出现在舆论中,在20世纪90年代强烈增加的担忧。科学,特别是物理科学和工程科学,已成为工程课程的基本组成部分,为分析课程提供更高的地位,而不是直观和实际的课程。在工程中的这种科学职称似乎是开发新工程师需要的新技能的障碍,现在该行业已成为主要雇主和工程学院的重要支持者,比联邦资金更多。这种转变产生的进一步挑战是,全球化已经产生了一个全球和开放的工程师市场,从而产生了世界各地的多元文化工程工作场所,并需要一套新的专业能力。在目前的时代,新市场的新产品和系统的设计已成为工程师的背景,需要技能,如团队合作,创造力,社会背景,了解环境意识,以及外语的能力。因此,工程教育的科技方式现在与当前的“市场世界”的主要职称以及许多职业所需的新技能相冲突。因此,当科学方法似乎有问题时,对斯蒂芬P. Timoshenko提示的改变历史分析,该工程师被称为“美国工程力学父亲”的工程师,可能会阐明当前的讨论并导致更好地欣赏现代工程教育。

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