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Nicolas Dietrich; Gaëlle Lebrun; Kalyani Kentheswaran; Mathias Monnot; Patrick Loulergue; Carine Franklin; Florence Teddé-Zambelli; Chafiaa Djouadi; Sébastien Leveneur; Mallorie Tourbin; Yolaine Bessie`re; Carole Coufort-Saudejaud; Annabelle Couvert; Eric Schaer – Journal of Chemical Education, 2022
Women are increasingly present in the field of engineering, but despite a significant female presence, it has been found that the programs continue to make no reference to women scientists. In chemical engineering, for example, all the names of scientists mentioned in the programs belong to men only. To test this hypothesis of over-representation…
Descriptors: Females, Disproportionate Representation, Engineering, Engineering Education
He, Q. Peter; Wang, Jin; Zhang, Rong; Johnson, Donald; Knight, Andrew; Polala, Ravali – Chemical Engineering Education, 2016
In view of potential demand for skilled engineers and competent researchers in the biofuels field, we have identified a significant gap between advanced biofuels research and undergraduate biofuels education in chemical engineering. To help bridge this gap, we created educational materials that systematically integrate biofuels technologies into…
Descriptors: Fuels, Teaching Methods, Researchers, Chemical Engineering
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
Gray, Jeffrey J. – Chemical Engineering Education, 2006
I present modifications to the traditional course entitled, "Process dynamics and control," which I renamed "Modeling, dynamics, and control of chemical and biological processes." Additions include the central dogma of biology, pharmacokinetic systems, population balances, control of gene transcription, and large-scale…
Descriptors: Molecular Biology, Engineering Education, Mathematical Models, Chemical Engineering
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 reviewedUtomo, Tjipto; Ruijter, Kees – Chemical Engineering Education, 1984
Describes the evaluation and reconstruction of a transport phenomena course given at the Bandung Institute of Technology which had a 70 percent failure rate. Discusses the teacher-paced modular instruction technique designed to replace the original course material and its results in terms of student performance over a three-year period. (JM)
Descriptors: Chemical Engineering, Course Content, Curriculum Development, Curriculum Evaluation
Peer reviewedLee, William E., III – Chemical Engineering Education, 1991
Describes an undergraduate course in chemical engineering that details the technology of immobilized enzymes and cells. Includes the course rationale and purpose; the course outline when offered as an engineering elective in the biotechnology area; and discussion of appropriate text, selected real-world applications, and laboratory presentations.…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Curriculum Development
Peer reviewedMcCready, Mark J. – Chemical Engineering Education, 1989
A course where students were required to choose projects and provide studies of the feasibility, consumer need, and process design is discussed. Other projects such as advertising campaigns used to encourage student creativity are discussed. The need to keep second semester seniors interested is stressed. (MVL)
Descriptors: Chemical Engineering, Chemical Industry, Chemical Reactions, College Science
Peer reviewedWatters, James C.; Zoeller, Dominic A. – Chemical Engineering Education, 1991
Discusses several options for the incorporation of minimal coursework involving engineering ethics into an already tightly packed curriculum. Topics include integration versus the stand-alone approach; timeliness of course addition; outline of course content and instructional format; students' reflections and instructor's musings; and an annotated…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Curriculum Development
Peer reviewedFahidy, Thomas Z. – Chemical Engineering Education, 1991
Presents the framework for a chemical engineering course using ordinary differential equations to solve problems with the underlying strategy of concisely discussing the theory behind each solution technique without extensions to formal proofs. Includes typical class illustrations, student responses to this strategy, and reaction of the…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Curriculum Development
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 reviewedMiranda, R. – Chemical Engineering Education, 1989
Described is a heterogeneous catalysis course which has elements of materials processing embedded in the classical format of catalytic mechanisms and surface chemistry. A course outline and list of examples of recent review papers written by students are provided. (MVL)
Descriptors: Chemical Analysis, Chemical Engineering, Chemical Industry, Chemical Reactions
Peer reviewedLane, Alan M. – Chemical Engineering Education, 1989
Reported are the results of a 1987 survey of U.S. chemical engineering departments on health and safety. Some details of what is being done at the University of Alabama are provided. A syllabus and reading resources for a survey course on safety, health, environmental, and ethical issues are included. (MVL)
Descriptors: Chemical Engineering, College Science, Course Content, Curriculum Development
Peer reviewedMiller, William M.; Petrich, Mark A. – Chemical Engineering Education, 1991
A class in which students learn about the roles that chemical engineers play in a variety of industries is described. Outlines from the first two class offerings and discussions of the use of guest speakers, videos, plant visits, student projects, and grading are included. (KR)
Descriptors: Career Awareness, Chemical Engineering, Chemistry, College Science

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