Technology Education to Engineering: A Good Move?.

P. Williams
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引用次数: 6

Abstract

Recent curriculum changes in the educational system of Australia have resulted in allowing optional Engineering course work to count for university entrance for students choosing to apply to a university. In other educational systems, Engineering is playing an increasingly important role, either as a stand-alone subject or as part of an integrated approach to Science, Mathematics, and Technology. These developments raise questions about the relationship between Engineering and Technology education, some of which are explored in this article. Introduction Curriculum agendas that include a proposed link between Technology and other curriculum areas rarely seem to favor Technology. When Science and Technology are offered in primary schools, science is prioritized, and consequently technology is not delivered well (Williams, 2001). This is a function of both primary school facilities and primary teacher training. Science and Technology offerings in secondary schools tend to be quite academic rather than practical (Williams, 1996). Numerous Science, Technology, and Mathematics (STM, SMT, or TSM) projects that have been developed around the world produce interestingly integrated curriculum ideas and projects, but these have rarely translated into embedded state or national curriculum approaches. This is partly because the school and curriculum emphasis on Science, Technology, and Mathematics is not equivalent across these areas. Even the earliest integrated approaches involving these subjects promoted reform in Science and Mathematics (LaPorte & Sanders, 1993) rather than the goals of Technology. Recently, Engineering, has been brought into the mix as a number of Science, Technology, Engineering and Math (STEM) projects have been developed, most significantly, in terms of numbers and influence, both in the United Kingdom and the United States. Again, the agenda for this type of amalgamation is not being driven by a desire to progress the goals of technology education; rather, it is being driven by a desire to improve Science and Mathematics education in order to increase the flow of STEM people into the workforce and to improve STEM literacy in the population (Barlex, 2008). Despite the idea that Mathematics and Science education can be improved by combining them with Engineering and Technology this has not been proved, and the concept of STEM literacy is a bit befuddling and ill defined. Much has been written about the synergistic relationships among Science, Mathematics, and Technology, particularly between Science and Technology. A succinct summary of these relationships has been provided by Kimbell and Perry (1991): Science provides explanations of how the world works, mathematics gives us numbers and procedures through which to explore it, and languages enable us to communicate within it. But uniquely, design & technology empowers us to change the made world. (p. 3) Allied with the STEM approach is a Technology education revisionary movement toward adding Engineering in schools, particularly in U.S. schools. Technology educators who promote this approach do so out of the frustration that has come from the absence of general recognition of Technology education after many years of advocacy, and they propose it as an adjustment to the focus of Technology education (Gattie & Wicklein, 2007). The fact that William Wulf, the President of the National Academy of Engineering wrote the foreword for the “Standards for Technological Literacy” (International Technology Education Association, 2000) is heralded as a significant benediction (Lewis, 2005) to the shift from Technology education to Engineering (Rogers, 2006). The rationales are various and dubious, but they are similar to those presented for the STEM agenda: • Increase interest, improve competence, and demonstrate the usefulness of mathematics and science (Gattie & Wicklein, 2007). • Improve technological literacy (Rogers, 2005), which promotes economic advancement (Douglas, Iversen, & Kalyandurg, 2004). T h e J o u rn a l o f Te c h n o lo g y S tu d ie s Technology Education to Engineering: A Good Move?
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技术教育到工程:一个好的举动?
最近澳大利亚教育系统的课程改革导致选择申请大学的学生允许选修工程课程的工作计入大学入学。在其他教育体系中,工程学正扮演着越来越重要的角色,无论是作为一门独立的学科,还是作为科学、数学和技术综合方法的一部分。这些发展提出了有关工程与技术教育之间关系的问题,本文将探讨其中的一些问题。包括技术和其他课程领域之间拟议联系的课程议程似乎很少倾向于技术。当科学和技术在小学提供时,科学是优先考虑的,因此技术不能很好地传递(Williams, 2001)。这既是小学设施的功能,也是小学教师培训的功能。中学的科学和技术课程往往是学术性的,而不是实践性的(Williams, 1996)。世界各地开发的众多科学、技术和数学(STM、SMT或TSM)项目产生了有趣的整合课程理念和项目,但这些很少转化为嵌入的州或国家课程方法。部分原因是学校和课程对科学、技术和数学的重视程度在这些领域并不相同。即使是最早涉及这些学科的综合方法也促进了科学和数学的改革(LaPorte & Sanders, 1993),而不是技术的目标。最近,随着一些科学、技术、工程和数学(STEM)项目的发展,工程学也被纳入其中,最显著的是,在数量和影响力方面,无论是在英国还是在美国。同样,这种合并的议程并不是由技术教育目标的进步所驱动的;相反,它是由一种改善科学和数学教育的愿望驱动的,以增加STEM人员进入劳动力市场的流量,并提高人口中的STEM素养(Barlex, 2008)。尽管人们认为数学和科学教育可以通过与工程和技术相结合来改善,但这一点尚未得到证实,而且STEM素养的概念有点令人困惑和不明确。关于科学、数学和技术之间的协同关系,特别是科学和技术之间的协同关系,已经写了很多。金贝尔和佩里(1991)对这些关系做了一个简洁的总结:科学解释了世界是如何运行的,数学为我们提供了探索世界的数字和程序,语言使我们能够在其中进行交流。但独特的是,设计和技术赋予我们改变世界的能力。(第3页)与STEM方法相结合的是一项技术教育修订运动,旨在在学校,特别是在美国学校中增加工程学。推广这种方法的技术教育者之所以这样做,是因为经过多年的倡导,技术教育没有得到普遍认可,他们提出这是对技术教育重点的调整(Gattie & Wicklein, 2007)。美国国家工程院院长威廉·伍尔夫为《技术素养标准》(国际技术教育协会,2000年)撰写了前言,这一事实被誉为从技术教育向工程教育转变的重大祝福(刘易斯,2005年)。理由是各种各样的和可疑的,但他们是类似的那些提出了STEM议程:•增加兴趣,提高能力,并证明数学和科学的有用性(Gattie & Wicklein, 2007)。•提高技术素养(罗杰斯,2005),这促进了经济进步(道格拉斯,艾弗森,& Kalyandurg, 2004)。《技术教育向工程的转变:一个好的举措?》
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