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Showing 1 to 15 of 49 results
Davis, Richard A.; Klein, James A. – Chemical Engineering Education, 2012
This paper presents our pedagogy for chemical process safety (CPS) education across the curriculum. Building on a unifying theme of "Conservation of Life" (COL), we have four goals: 1) Make students aware of CPS/COL principles, 2) Promote a culture of safety, 3) Assess student learning, 4) Require minimal resources. We discuss our experience and…
Descriptors: Safety, Chemical Engineering, Curriculum Development, Curriculum Implementation
Wankat, Phillip C. – Chemical Engineering Education, 2009
The Massachusetts Institute of Technology started the first US chemical engineering program six score years ago. Since that time, the chemical engineering curriculum has evolved. The latest versions of the curriculum are attempts to broaden chemical engineering to add product engineering, biology and nanotechnology to the traditional process…
Descriptors: Chemical Engineering, Engineering Education, Curriculum Development, Interdisciplinary Approach
Mosto, Patricia; Savelski, Mariano; Farrell, Stephanie H.; Hecht, Gregory B. – Chemical Engineering Education, 2007
Integrating biology in the chemical engineering curriculum seems to be the future for chemical engineering programs nation and worldwide. Rowan University's efforts to address this need include a unique chemical engineering curriculum with an intensive biology component integrated throughout from freshman to senior years. Freshman and Sophomore…
Descriptors: Elective Courses, Biotechnology, Biology, Chemical Engineering
Peer reviewedWinter, H. Henning – Chemical Engineering Education, 2002
Introduces an evaluation method for the assessment of a single exam which also generates feedback for teachers. Provides a grade and identifies weaknesses in a student's knowledge and teaching. (YDS)
Descriptors: Academic Achievement, Chemical Engineering, Curriculum Development, Evaluation Methods
Peer reviewedDahm, Kevin D.; Hesketh, Robert P.; Savelski, Mariano J. – Chemical Engineering Education, 2002
Investigates the effectiveness of computer-assisted instruction in the chemical engineering curriculum. Explains how chemical process simulators can be successfully implemented into courses. (YDS)
Descriptors: Chemical Engineering, Computer Assisted Instruction, Computer Uses in Education, Curriculum Development
Peer reviewedOerther, Daniel B. – Chemical Engineering Education, 2002
Introduces a molecular biology course designed for environmental engineering majors using 16S ribosomal ribonucleic acid-targeted technology that allows students to identify and study microorganisms in bioreactor environments. (Contains 17 references.) (YDS)
Descriptors: Course Descriptions, Curriculum Development, Higher Education, Molecular Biology
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
Peer reviewedDixon, Anthony G.; Clark, William M.; DiBiasio, David – Chemical Engineering Education, 2000
Reports the development, delivery, and assessment of a project-based spiral curriculum for the first sequence chemical engineering courses. Technical proficiency of students under the spiral curriculum was equal to or better than that of students under a traditional curriculum. Attitudes toward chemical engineering and teamwork were better, and…
Descriptors: Chemical Engineering, Cognitive Style, Cooperative Learning, Curriculum Development
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 reviewedGiralt, Francesc; Herrero, Joan; Medir, Magda; Grau, Francesc X.; Alabart, Joan R. – Chemical Engineering Education (CEE), 1999
Analyzes key factors in achieving the involvement and active participation of engineering faculty in the conception and implementation of new and effective teaching strategies. Contains 19 references. (WRM)
Descriptors: Chemical Engineering, College Faculty, Cooperative Learning, Cooperative Planning
Peer reviewedAbu-Khalaf, Aziz M. – Chemical Engineering Education (CEE), 1998
Reviews the current goals of a laboratory course and describes experiences in using laboratory time to cover several important topics related to industry and academia. Discusses several subjects and presents related experiments. Contains 184 references. (DDR)
Descriptors: Chemical Engineering, College Curriculum, Course Content, Curriculum Development
Peer reviewedBuonopane, Ralph A. – Chemical Engineering Education (CEE), 1997
Presents a challenge statement from the Council for Chemical Research (CCR) Education Committee that substantiates the need for changes in the education of chemical engineering graduates. Recommendations are based on answers to survey questions. (DDR)
Descriptors: Chemical Engineering, College Curriculum, Curriculum Development, Educational Change
Peer reviewedHeenan, William A.; Henley, Ernest J. – Chemical Engineering Education, 1977
Describes a sophisticated computer technique that analyzes subject matter to determine what prerequisite knowledge is needed. Presents illustrations of flow charts that can be constructed for a particular subject, showing the organization of curriculum modules. (MLH)
Descriptors: Computer Programs, Computers, Curriculum, Curriculum Development
Peer reviewedMorari, M.; Ray, W. H. – Chemical Engineering Education, 1979
Described is a graduate course in the process control curriculum at the University of Wisconsin that integrates real-time computing into process control teaching. Lecture topics and recent graduate laboratory projects are presented. (BT)
Descriptors: College Science, Computers, Curriculum Development, Engineering
Peer reviewedVannice, M. A. – Chemical Engineering Education, 1979
Described is a graduate course in catalysis offered at Penn State University. A detailed course outline with 30 lecture topics is presented. A list of 42 references on catalysis used in place of a textbook is provided. (BT)
Descriptors: Chemical Reactions, College Science, Curriculum Development, Engineering

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