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MacClintic, Scott D.; Nelson, Genevieve M. – 1996
Bacterial transformation is a commonly used technique in genetic engineering that involves transferring a gene of interest into a bacterial host so that the bacteria can be used to produce large quantities of the gene product. Although several kits are available for performing bacterial transformation in the classroom, students do not always…
Descriptors: Biology, Biotechnology, DNA, Genetic Engineering
Rocha dos Reis, Pedro – 2000
The GENET (gene + net) Forum was designed as a contribution to help teachers and pupils to develop critical thinking, creativity, and values capable of assuring to future citizens an active and responsible involvement in societal evolution. This project (which includes a chat and online discussion forum) explores the ethical, legal, and social…
Descriptors: Biotechnology, Current Events, General Education, Genetic Engineering
National Academies Press, 2004
To enhance the nation's economic productivity and improve the quality of life worldwide, engineering education in the United States must anticipate and adapt to the dramatic changes of engineering practice. The Engineer of 2020 urges the engineering profession to recognize what engineers can build for the future through a wide range of leadership…
Descriptors: Engineering, Engineering Education, Leadership Role, Industry
Peer reviewedKirkpatrick, Gretchen; Orvis, Kathryn; Pittendrigh, Barry – Journal of Biological Education, 2002
Presents the Genomic Analogy Model for Educators (GAME) strategy for making concepts in genomics easily understandable for both students and the general population by using familiar objects and concepts associated with daily life. Uses web-based tutorials accompanied by laboratory exercises that are intended to be used by students studying…
Descriptors: Biotechnology, DNA, Genetics, Higher Education
Peer reviewedAhmed, Maryam – American Biology Teacher, 1996
Describes a project that introduces students to the field of biotechnology and provides them with an understanding of the basic principles and techniques as well as an opportunity to participate in experimental methodology. Presents specific science projects that deal with polymorphism in the lipase gene and the genetic engineering of a lipase…
Descriptors: Biology, Biotechnology, DNA, Genetics
Peer reviewedWray, Francis P.; Fox, Mary C.; Huether, Carl A.; Schurdak, Eric R. – American Biology Teacher, 2001
Presents an inexpensive activity to stimulate student interest in biotechnology that was developed in partnership with a biotechnology company. Focuses on the use of DNA by a commercial laboratory; describing the analysis procedure; important uses of DNA technology in modern society; and ethical, social, and legal issues related to biotechnology.…
Descriptors: Active Learning, Biology, Biotechnology, DNA
Peer reviewedDoron, Rina; Marco, Shlomo – European Journal of Engineering Education, 1999
Demonstrates the job-analysis technique for evaluating and updating syllabi. Examines the correspondence between the training syllabus for the Bachelor of Technology in Engineering and practical engineers in the area of biotechnology. (Author/CCM)
Descriptors: Biotechnology, Course Descriptions, Engineering Education, Evaluation
Peer reviewedReed, Philip A. – Technology Teacher, 2004
This article introduces the subject of bioprospecting to students. It is a very old biotechnology that involves some very new techniques. Genetic engineering and other processes allow biologists, chemists, and biotechnologists to collect microorganisms and change them in ways that previously were not possible. Organisms that thrive under adverse…
Descriptors: Scientific Research, Molecular Biology, Genetics, Engineering
Nardi, Bonnie A. – Mind, Culture, and Activity, 2005
This article uses activity theory to analyze the conduct of collaborative scientific research, showing how the conceptualization of object is critical to understanding key aspects of scientific collaboration. I argue that the passions and desires behind objects of scientific research are missing in most accounts. I suggest refinements to the…
Descriptors: Scientific Research, Cooperation, Biotechnology, Learning Processes
Patton, Madeline – Community College Press (NJ1), 2008
How to strengthen technician education to meet the needs of the biotechnology industry was the question before the 50 people who participated in the "Educating Biotechnicians for Future Industry Needs" conference from April 28 to 30 in Scottsdale, Arizona. The participants were from higher education, secondary schools, industry, government, and…
Descriptors: Industry, Labor Force Development, Group Discussion, Community Colleges
Markowitz, Dina; DuPre, Michael J.; Holt, Susan; Chen, Shaw-Ree; Wischnowski, Michael – American Biology Teacher, 2008
A science education center at a university medical school had grant funding to develop a genetics curriculum unit, but needed a dissemination plan. A statewide science teacher organization that provided professional development training was facing decreased funding. These two groups combined their efforts, and created a unique partnership, called…
Descriptors: Medical Schools, Problem Based Learning, Genetics, Biotechnology
Bal, Senol; Samanci, Nilay Keskin; Bozkurt, Orçun – EURASIA Journal of Mathematics, Science & Technology Education, 2007
Genetic engineering and biotechnology made possible of gene transfer without discriminating microorganism, plant, animal or human. However, although these scientific techniques have benefits, they cause arguments because of their ethical and social impacts. The arguments about ethical ad social impacts of biotechnology made clear that not only…
Descriptors: Genetics, Student Attitudes, Knowledge Level, Scientific Attitudes
King, C. Judson – Center for Studies in Higher Education, 2007
California has achieved considerable economic success through technological innovation and the formation of businesses based upon those technologies. This paper addresses some of the roles of universities in that success story. It starts with some measures of the contributions of innovation and a robust university structure to the California…
Descriptors: Technological Advancement, Innovation, Institutional Role, State Universities
Ebbesen, Mette; Andersen, Svend; Besenbacher, Flemming – Bulletin of Science, Technology and Society, 2006
Research in nanotechnology has advanced rapidly in recent years. Several researchers, however, warn that there is a paucity of research on the ethical, legal, and social implications of nanotechnology, and they caution that ethical reflections on nanotechnology lag behind this fast developing science. In this article, the authors question this…
Descriptors: Biotechnology, Ethics, Engineering Technology, Biology
Sandler, Ronald; Kay, W. D. – Bulletin of Science, Technology and Society, 2006
The genetically-modified-organism (GMO) experience has been prominent in motivating science, industry, and regulatory communities to address the social and ethical dimensions of nanotechnology. However, there are some significant problems with the GMO-nanotech analogy. First, it overstates the likelihood of a GMO-like backlash against…
Descriptors: Biotechnology, Ethics, Science and Society, Technology

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