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What Works Clearinghouse Rating
Peer reviewedStubington, John F. – Chemical Engineering Education (CEE), 1995
Describes a Japanese process-oriented approach called KAIZEN for improving the quality of existing teaching laboratories. It provides relevant quality measurements and indicates how quality can be improved. Use of process criteria sidesteps the difficulty of defining quality for laboratory experiments and allows separation of student assessment…
Descriptors: Chemical Engineering, Educational Assessment, Higher Education, Program Evaluation
Peer reviewedAbbas, Abderrahim; Al-Bastaki, Nader – Chemical Engineering Education, 2002
Describes three computer software programs implemented in the chemical engineering curriculum at the University of Bahrain and explains students' evaluations of the usefulness and effectiveness of the software packages. Programs include Control Station (CS), HYSYS, and MATHCAD. (YDS)
Descriptors: Chemical Engineering, Computer Software, Computer Software Evaluation, Computer Uses in Education
Peer reviewedSaliba, Tony E.; Snide, James A. – Chemical Engineering Education, 1990
Described is the need to incorporate the concepts and applications of advanced composite materials into existing chemical engineering programs. Discussed are the justification for, and implementation of topics including transport phenomena, kinetics and reactor design, unit operations, and product and process design. (CW)
Descriptors: Chemical Engineering, Chemistry, College Science, Higher Education
Peer reviewedBienkowski, Paul R.; And Others – Chemical Engineering Education, 1989
Outlines a graduate course, "Microbial Systems Analysis," for students in chemical and environmental engineering or engineering mechanics, as well as microbiology, ecology and biotechnology. Describes the objectives, structure and laboratory experiments for the course. (YP)
Descriptors: Chemical Engineering, College Science, Course Descriptions, Course Objectives
Peer reviewedBaum, Rudy – Chemical and Engineering News, 1988
Discusses a biochemical engineering program for undergraduate and graduate students. Describes three university programs including the goals, courses, and problems involved. (YP)
Descriptors: Biochemistry, Chemical Engineering, College Science, Courses
Peer reviewedRawls, Rebecca L. – Chemical and Engineering News, 1989
Illustrates statistical data on spending money for research and development in chemistry and chemical engineering. The data is presented by overview, federal government, industry, universities and colleges, and international. Provides many tables and graphs. (YP)
Descriptors: Chemical Engineering, Chemistry, Colleges, Expenditures
Peer reviewedGupta, J. P. – Chemical Engineering Education, 1989
Describes a course for teaching chemical engineering students about safety and hazards. Summarizes the course content including topics for term papers and disciplines related to this course. Lists 18 references. (YP)
Descriptors: Chemical Engineering, College Science, Course Content, Course Descriptions
Peer reviewedFleischman, Marvin – Chemical Engineering Education, 1991
Explores the inclusion of risk reduction, as it relates to the handling of hazardous materials, within the chemical engineering curriculum and current teaching efforts on this topic at the University of Louisville. Includes common course outlines, selected textbooks and other required materials, guest lecture list by topic, and examples of…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Course Objectives
Peer reviewedTolman, Chadwick A.; Parshall, George W. – Journal of Chemical Education, 1999
Describes major changes that have occurred in the chemical industry over the last 50 years including trends in the development of products and processes, changes in chemical manufacturing, the globalization of business, and modifications of research laboratory practices. Discusses implications for chemistry education and predictions for future…
Descriptors: Chemical Engineering, Chemical Industry, Chemical Technicians, Chemistry
Peer reviewedMackenzie, J. G.; Allen, R. M.; Earl, W. B.; Gilmour, I. A. – Chemical Engineering Education (CEE), 1999
Discusses strategies for teaching problem-solving techniques during an engineering design course in the third year of a four-year degree program. Describes the content of six problem-solving curricular modules, course organization, evaluation and assessment, and results. (Contains 28 references.) (WRM)
Descriptors: Chemical Engineering, Course Descriptions, Creative Thinking, Design
Peer reviewedPrausnitz, Mark R. – Chemical Engineering Education (CEE), 1998
Describes Controlled-Operation Mechanical Energy Transducers (COMETs), which are part of a project to introduce sophomore chemical engineering students to a number of important engineering concepts that are usually addressed later in the academic program. (DDR)
Descriptors: Chemical Engineering, Competition, Course Content, Design
Peer reviewedWilley, Ronald J.; Price, John M. – Chemical Engineering Education (CEE), 1998
Describes the incorporation of health and safety issues into the engineering curriculum and focuses on an approach that introduces students to open-ended problems early in the curriculum. Reports that students are able to provide fresh solutions to mundane problems. (DDR)
Descriptors: Chemical Engineering, Course Content, Design, Environmental Education
Peer reviewedPitt, Martin – British Journal of Educational Technology, 1996
Describes an introductory computing course in which first-year students registered their presence and submitted assignments by electronic mail. Returning assignments by e-mail was found to be an effective method of giving individual help to those needing it most; individual student misconceptions could be more easily detected; and class discipline…
Descriptors: Assignments, Chemical Engineering, Classroom Techniques, College Freshmen
Peer reviewedMiddelberg, Anton P. J. – Chemical Engineering Education (CEE), 1995
Describes changes initiated in the Level-Three laboratory course of the chemical engineering curriculum at the University of Adelaide that were useful in fostering higher-level skills and reducing the reliance on reports handed down from previous years. Highlights report writing and data analysis workshops and the laboratory project design…
Descriptors: Chemical Engineering, Data Analysis, Evaluation, Foreign Countries
Peer reviewedDiBiasio, David; Comparini, Lisa; Dixon, Anthony G.; Clark, William M. – Chemical Engineering Education, 2001
Presents the third part of a series on the development and implementation of project-based spiral curriculum in chemical engineering. Focuses on the details of the assessment design, describes the results of the assessment, and draws conclusions about the success of the program. (Contains 18 references.) (ASK)
Descriptors: Chemical Engineering, Curriculum Development, Higher Education, Problem Based Learning


