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Showing 1 to 15 of 35 results Save | Export
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Gunckel, Kristin L.; Tolbert, Sara – Journal of Research in Science Teaching, 2018
The push for STEM has raised the visibility of engineering as a discipline that all students should learn. With the release of the "Framework for K-12 Science Education" and the Next Generation Science Standards (NGSS), engineering now has an official place in the science curriculum. In both the "Framework" and the NGSS,…
Descriptors: Engineering Education, Science Instruction, Standards, Elementary Secondary Education
Halfond, Jay A. – New England Journal of Higher Education, 2010
The author notes that the sciences are now something one must latch onto early and successfully as a teenager, and endure against all odds. This pivotal point requires maturity and even myopia--delayed gratification and voluntary dorkiness--traits not common in the young. As a nation, Americans are losing their hegemony in the sciences. In just…
Descriptors: Federal Programs, Sciences, Science Education, Science Instruction
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Garrett, Joyce Lynn – Kappa Delta Pi Record, 2008
The author of this article argues that, just as Americans were shocked into action, when the Soviet Union launched Sputnik in 1957, by strengthening STEM (science, technology, engineering, and mathematics) in the educational curriculum, Americans must be shocked again. The nation must address the failure of its leaders to provide adequate funding…
Descriptors: Educational Policy, Federal Legislation, Academic Achievement, Elementary Secondary Education
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Klymkowsky, M. W. – CBE - Life Sciences Education, 2007
Are textbooks useful, or are they an unnecessary expense or even an obstacle to robust conceptual understanding? Clearly, the answer depends upon course context--what are the goals of the course, how could the textbook be used to achieve these goals, does this use justify the cost of the textbook, and are there more educationally effective or…
Descriptors: Fundamental Concepts, Textbooks, Chemistry, Science Instruction
Heggen, Richard J. – Engineering Education, 1988
Reports on a survey of the undergraduate programs of 50 engineering schools which was designed to investigate the engineering curriculum with regard to core courses in statics and dynamics. Indicates that only about one-third of the schools require these courses. Argues for their return to the programs. (TW)
Descriptors: College Science, Engineering Education, Higher Education, National Surveys
Irey, Richard K. – Engineering Education, 1981
Describes four principles to help engineering faculty facilitate high rates of learning: (1) Objective Based Instruction; (2) Absolute Criterion-Referenced Grading Standard; (3) Varied Learning Strategies; and (4) Flexible Time Frames. Illustrates several teaching/learning systems that facilitate the effective applications of these principles. (SK)
Descriptors: Engineering Education, Higher Education, Instructional Design, Instructional Improvement
Keedy, Hugh F. – Educational Research and Methods, 1979
Contains ten basic teaching principles formulated from the author's past experiences. Each of the principles is illustrated by relevant observations in order to increase understanding and aid application. The author states that use of these principles will increase teaching success. (SMB)
Descriptors: College Science, Engineering Education, Higher Education, Learning
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Abbott, David S.; Saul, Jeffery M.; Parker, George W.; Beichner, Robert J. – American Journal of Physics, 2000
Investigates whether replacing a single traditional laboratory activity with a widely-used, non-microcomputer-based laboratory, research-based activity could produce improved conceptual understanding of a topic in electricity. Shows that a single instructional experience utilizing the research-based tutorial materials is superior to a traditional…
Descriptors: Concept Formation, Electricity, Engineering Education, Higher Education
Luegenbiehl, Heinz C.; Dekker, Don L. – Engineering Education, 1987
Addresses concerns related to the significance of values in teaching engineering design. Provides perspectives on the nature of values, values and engineering, and the teacher's role in values education. Includes listings and categories of values. (ML)
Descriptors: College Science, Engineering Education, Higher Education, Science Education
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Rutherford, R. J. D.; Rowe, G. W. – European Journal of Engineering Education, 1987
Addresses the development of innovative skills in future engineers and the factors that promote and inhibit change. Describes two theoretical perspectives which deal with some of the factors affecting individuals and groups when confronted with the possibility of radical change. (TW)
Descriptors: Change Agents, Change Strategies, College Science, Engineering Education
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Shacham, Mordechai; Cutlip, Michael B. – Chemical Engineering Education, 1981
Provides a summary of essential characteristics of the Personalized System of Instruction (PSI) and Programmed Logic for Automated Teaching Operations (PLATO) educational computer system. Considers future of the computer based education which effectively combines PSI with computer assisted instruction. Discusses current status and future use of…
Descriptors: Chemistry, College Science, Computer Assisted Instruction, Computer Oriented Programs
Frankel, Mark S., Ed. – 1988
The field of ethics and values studies in science and technology has experienced an expansion since the 1970s including increased numbers of organizations, publications, research studies, workshops, and conferences. As a consequence, scholarly and public attention focus more frequently on ethics and values issues. In an effort to pause and reflect…
Descriptors: Educational Principles, Engineering Education, Ethical Instruction, Ethics
Van Valkenburg, Mac E. – Engineering Education, 1988
Discusses how engineers will be educated in the twenty-first century, including workstation, teaching methods, teaching materials, and the college system. Describes some of the obstacles, such as small numbers of applicants, aging professors, poor preparation at high school level, and costs. (YP)
Descriptors: College Science, Engineering, Engineering Education, Engineering Technicians
Koen, Billy Vaughn – Engineering Education, 1987
Proposes that there is a universal method for all realms of knowledge. Reviews Descartes's definition of the universal method, the engineering definition, and the philosophical basis for the universal method. Contends that the engineering method best represents the universal method. (ML)
Descriptors: Cognitive Structures, College Science, Engineering, Engineering Education
Mager, Robert F. – Engineering Education, 1981
Summarizes key differences between academic and industrial settings and offers illustrations of what modern instructional craft has accomplished in industry. Describes a typical developmental sequence related to criterion-referenced instruction, including techniques for instructional analysis, design, development, and implementation. Includes…
Descriptors: Competency Based Education, Continuing Education, Engineering Education, Higher Education
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