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Silverstein, David L.; Vigeant, Margot A. S. – Chemical Engineering Education, 2012
A survey of faculty teaching the chemical reaction engineering course or sequence during the 2009-2010 academic year at chemical engineering programs in the United States and Canada reveals change in terms of content, timing, and approaches to teaching. The report consists of two parts: first, a statistical and demographic characterization of the…
Descriptors: Chemistry, Chemical Engineering, Foreign Countries, Teaching Methods
Carta, Jungbauer – Chemical Engineering Education, 2011
We describe an intensive course that integrates graduate and continuing education focused on the development and scale-up of chromatography processes used for the recovery and purification of proteins with special emphasis on biotherapeutics. The course includes lectures, laboratories, teamwork, and a design exercise and offers a complete view of…
Descriptors: Chemistry, Chemical Engineering, Engineering Education, Graduate Study
Evans, Steven T.; Huang, Xinqun; Cramer, Steven M. – Chemical Engineering Education, 2010
The commercial simulator Aspen Chromatography was employed to study and optimize an important new industrial separation process, weak partitioning chromatography. This case study on antibody purification was implemented in a chromatographic separations course. Parametric simulations were performed to investigate the effect of operating parameters…
Descriptors: Computer Simulation, Biotechnology, Problem Based Learning, Courses
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

Liu, Y. A. – Chemical Engineering Education, 1980
Presents a detailed outline of topics and lectures and references for a survey course on process synthesis at Auburn University, Alabama. (JN)
Descriptors: Chemistry, Course Content, Course Descriptions, Energy

Tock, Richard W.; Brewer, Charles Bill – Chemical Engineering Education, 1979
Reports on a technical writing course which is conducted in conjunction with the senior-level unit operations course required of chemical engineering students. (BB)
Descriptors: Chemistry, Course Content, Engineering Education, Higher Education

Kabel, Robert L. – Chemical Engineering Education, 1978
Describes the genesis, development, implementation, and evaluation of a graduate level kinetics course based on selected influential papers in chemical reaction engineering. (BB)
Descriptors: Chemistry, College Science, Course Content, Curriculum

Sawin, Herbert H.; Reif, Rafael – Chemical Engineering Education, 1983
Describes a course, taught jointly by electrical/chemical engineering departments at the Massachusetts Institute of Technology, designed to teach the fundamental science of plasma processing as well as to give an overview of the present state of industrial processes. Provides rationale for course development, texts used, class composition, and…
Descriptors: Chemical Engineering, Chemistry, Course Content, Course Descriptions

Dorathy, 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

Soong, David S. – Chemical Engineering Education, 1981
Following a brief introduction to the origin and nature of a course in polymer rheology and melt processing, discusses course objectives, detailed content, teaching strategies, and observations/experiences from its first offering. (SK)
Descriptors: Chemistry, College Science, Course Content, Course Descriptions

Blanks, Robert F. – Chemical Engineering Education, 1979
A humanistic approach to teaching fluid mechanics is described which minimizes lecturing, increases professor-student interaction, uses group and individual problem solving sessions, and allows for student response. (BB)
Descriptors: Chemistry, Course Content, Engineering Education, Higher Education

Rajagopalan, Raj – Chemical Engineering Education, 1978
This course is based on the premise that a sound base in the mechanics and electrokinetics of the dispersed phase is essential for an understanding of the macroscopically apparent behavior of such disperse systems. (Author/BB)
Descriptors: Chemistry, College Science, Course Content, Curriculum

Theodore, Louis – Chemical Engineering Education, 1978
The opinion is presented that chemical engineering education seems to emphasize the professor's research and/or professional interests with little regard for the real needs of the student who intends to become a practicing engineer. (BB)
Descriptors: Chemistry, Course Content, Curriculum Evaluation, Educational Philosophy

Baasel, William D. – Chemical Engineering Education, 1982
Students complete a project at Ohio University to understand the process of plant design. This and other goals of a plant design course are discussed, including student/instructor presentations and typical problems confronted by the instructors of the course. (JN)
Descriptors: Chemistry, College Science, Course Content, Course Descriptions

Rosner, Daniel E. – Chemical Engineering Education, 1980
Describes a course in combustion science and technology at Yale University. Presents scope of subject, course outline, and important combustion problems. (JN)
Descriptors: Chemical Reactions, Chemistry, Course Content, Course Descriptions
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