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Burkhardt, Hugh; Schoenfeld, Alan – ZDM: Mathematics Education, 2021
This paper builds on a range of traditions in educational research and design to argue, with empirical evidence, that constructing powerful instructional materials and approaches that work at scale requires a grounding in theory and a commitment to engineering practice, including rapid prototyping and multiple development cycles. Specifically, we…
Descriptors: Research and Development, Theory Practice Relationship, Design, Engineering Education
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Millet, Charlyne; Oget, David; Cavallucci, Denis – European Journal of Engineering Education, 2017
Innovation is a key component to the success and longevity of companies. Our research opens the "black box" of creativity and innovation in R&D teams. We argue that understanding the nature of R&D projects in terms of creativity/innovation, efficiency/inefficiency, is important for designing education policies and improving…
Descriptors: Engineering Education, Creativity, Innovation, Research and Development
Phillips, Michelle; St. John, Mark – Inverness Research, 2013
In 2009, the National Science Foundation funded the "Dynabook: A Digital Resource and Preservice Model for Developing TPCK" project through its Discovery Research K-12 program. Dynabook project leaders and the National Science Foundation (NSF) recognized that digital textbooks would soon be a primary instructional resource, and seized…
Descriptors: Educational Innovation, Engineering, Research and Development, Pedagogical Content Knowledge
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Benenson, Gary; Stewart-Dawkins, Shawndel; White, Gwynn – Advances in Engineering Education, 2012
In spite of numerous calls for action, e.g., Executive Office of the President (2010), there have been few efforts nationally to promote engineering education in the elementary grades. Of these, hardly any have targeted underrepresented populations (National Academy of Engineering, 2009, p. 74). The collaboration described in this paper is a…
Descriptors: Engineering Education, Elementary Education, STEM Education, Design
Foster, Patrick N. – 2001
This technology studies curriculum for grades 6-8 is a plan for each middle school student to experience technology education for approximately 60 days (1 trimester of a 180-day school year) in each grade. Section A provides definitions; structure or content for grade-level programs with science and technology unifiers (unifying curricular…
Descriptors: Communications, Course Content, Course Descriptions, Curriculum Guides