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What Works Clearinghouse Rating
Peer reviewedFurter, William F.; And Others – Chemical Engineering Education, 1989
Presents a problem related to mass balances for checking the consistency of measured data from a process. Provides the solution to the problem with diagrams and calculation tables. (YP)
Descriptors: Chemical Engineering, College Science, Engineering Education, Higher Education
Peer reviewedCrittenden, Barry D. – Chemical Engineering Education, 1991
A simple liquid-liquid equilibrium (LLE) system involving a constant partition coefficient based on solute ratios is used to develop an algebraic understanding of multistage contacting in a first-year separation processes course. This algebraic approach to the LLE system is shown to be operable for the introduction of graphical techniques…
Descriptors: Algebra, Chemical Engineering, Chemical Equilibrium, Engineering Education
Peer reviewedKodas, Toivo; And Others – Chemical Engineering Education, 1991
Describes some of the research opportunities in ceramics science and engineering at the University of New Mexico and the interdisciplinary nature of the projects that involve investigators from chemical engineering and other departments, both at the university and outside agencies. (32 references) (Author/JJK)
Descriptors: Ceramics, Chemical Engineering, Engineering Education, Higher Education
Peer reviewedCussler, E. L. – Chemical Engineering Education (CEE), 1999
Speculates about the future responsiveness of chemical engineering curricula to changes in the chemical industry. Focuses on changes in the chemical industry, the status of academia, and possible curricular changes. (DDR)
Descriptors: Chemical Engineering, Chemical Industry, College Curriculum, Educational Change
Peer reviewedGomes, Vincent G.; Langrish, Timothy A. G. – Chemical Engineering Education (CEE), 1999
Argues against excessive content fragmentation in engineering courses, particularly in the early stages of engineering education. Discusses attempts to encourage cooperative learning and integrative reconciliation between courses. (WRM)
Descriptors: Chemical Engineering, Cooperation, Cooperative Learning, Course Content
Peer reviewedDavidowitz, Bette; Lubben, Fred; Rollnick, Marissa – Journal of Chemical Education, 2001
Investigates students' conceptions on reliability and the ways of dealing with different sets of experimental data. Tests students' understanding of how to handle experimental data from three aspects; doing replicates, handling data, and judging the quality of data with respect to spread. Includes 12 references. (YDS)
Descriptors: Chemical Engineering, Chemistry, Data, Foreign Countries
Peer reviewedDorathy, Brian D.; Mooers, Jamisue A.; Warren, Matthew M.; Mich, Jennifer L.; Murhammer, David W. – Chemical Engineering Education, 2001
Points out the need to educate undergraduate chemical engineering students on chemical process safety and introduces the content of a chemical process safety course offered at the University of Iowa. Presents laboratory experiments demonstrating flammability limits, flash points, electrostatic, runaway reactions, explosions, and relief design.…
Descriptors: Chemical Engineering, Chemistry, Course Content, Engineering Education
Peer reviewedEdgar, Thomas F. – Chemical Engineering Education, 2000
Presents examples of how universities will undergo technological change during the next 10-20 years and how that will affect faculty and student processes. New students will expect the ubiquitous availability of information technology in higher education. To maintain their core values, universities must adapt to the explosion in technological…
Descriptors: Chemical Engineering, Distance Education, Educational Change, Futures (of Society)
Gopal, Hemant; Kleinsmidt, Jacques; Case, Jennifer; Musonge, Paul – International Journal of Science Education, 2004
Based on a purposive sample of 15 second-year chemical engineering students, this study investigates students' conceptions of evaporation, condensation and vapour pressure. During individual interviews the students were questioned on three tasks that had been designed around these topics. Qualitative analysis of student responses showed a range of…
Descriptors: Misconceptions, Chemical Engineering, Chemistry, Undergraduate Students
Wankat, Phillip C. – Chemical Engineering Education, 2006
The commercial simulator Aspen Chromatography was used in the computer laboratory of a dual-level course. The lab assignments used a cookbook approach to teach basic simulator operation and open-ended exploration to understand adsorption. The students learned theory better than in previous years despite having less lecture time. Students agreed…
Descriptors: Chemical Engineering, Computer Simulation, Science Laboratories, Scientific Concepts
Peer reviewedCarraher, Charles, E., Jr.; And Others – Journal of Chemical Education, 1987
Discusses the diversity of names used for various types of polymeric materials. Concentrates on the naming of linear organic polymers. Delineates these polymers by discussing common names, source-based names, characteristic group names, and structure-based names. Introduces the specifications of tacticity and geometric isomerism. (TW)
Descriptors: Chemical Bonding, Chemical Engineering, Chemical Nomenclature, Chemical Reactions
Peer reviewedChemical and Engineering News, 1987
Presents data on the number of bachelor's, master's, and Ph.D. degrees in chemistry from institutions whose programs are approved by the American Chemical Society (ACS). Reviews the programs and activities endorsed by the ACS Board of Directors in April, 1986. (ML)
Descriptors: Chemical Engineering, Chemistry, College Programs, College Science
Peer reviewedChemical and Engineering News, 1986
Presents the American Chemical Society (ACS) Committee on Professional Training's 1985 report on bachelor, master, and doctoral graduates of ACS-approved schools. This information is provided in an alphabetical list by institution (with separate columns devoted to chemistry and to chemical engineering). (JN)
Descriptors: Bachelors Degrees, Chemical Engineering, Chemistry, Doctoral Degrees
Peer reviewedChemical and Engineering News, 1985
Reports the top 25 schools having the most chemistry graduates for 1983-84, providing separate lists of total bachelor graduates, certified bachelor graduates, masters graduates, and doctoral graduates. The University of Ilinois, Urbana-Champaign heads the list of total bachelor graduates (N=139) and certified bachelor graduates (N=69). (DH)
Descriptors: Bachelors Degrees, Chemical Engineering, Chemistry, College Science
Peer reviewedEdie, Dan D. – Chemical Engineering Education, 1984
Describes a graduate "residence" program at Clemson University which is sponsored by the university and local industries. Advantages for graduate students (including increased levels of financial support and opportunities to gain significant industrial research experience), faculty, and sponsoring companies are outlined. Examples of these topics…
Descriptors: Chemical Engineering, Engineering Education, Graduate Study, Higher Education

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