Reviews the status of chemical engineering and the chemical industry in the United States. Identifies problem areas for engineers and proposes new directions for chemical engineering courses. Discusses the significance of these new directions for bachelor's degree programs. Proposes that the function of a bachelor's degree should be general…

Describes a course, including content, reading list, and presentation on chemical reactors at Cambridge University, England. A brief comparison of chemical engineering education between the United States and England is also given. (JN)

Describes activities of the Chemical Engineering Department at the Agriculture and Mechanical University (A&M) of Texas. Brief history of Texas (A&M) University's graduate and undergraduate programs, research efforts and the foreseeable future of the department are also included. (HM)

Describes an undergraduate chemical engineering course which was designed at North Carolina State University to introduce the experimental side of chemical process technology. The course lectures, experiments, objectives, evaluation and information sources are also discussed. (HM)

Reviews the current state of chemical engineering education in Nigeria and points out the distinctive features of its approach to undergraduate education. Discusses problems associated with funding, enrollment, and lack of supporting industries. Includes four recommendations for resolving problem areas. (ML)

Gives examples, descriptions, and uses for various types of simulation systems, including the Flowtran, Process, Aspen Plus, Design II, GPSS, Simula, and Simscript. Explains similarities in simulators, terminology, and a batch chemical process. Tables and diagrams are included. (RT)

Described is a graduate and senior level course utilizing the case study approach in chemical engineering at the University of Delaware that stresses the function and economics of the chemical processing industry. A history of the course development, course outline, and teaching methods used are included. (BT)

Offers perspectives on the future of chemical engineering. Addresses concerns related to changes in the engineering industry, the role of chemical engineers, and changes in the education of engineers. Includes recommendations for curricular change. (ML)

Describes an undergraduate chemical engineering course which has been taught by a self-paced instructional method at Howard University, Washington, D.C. The instructional method, course description, and students' grades are also discussed. (HM)

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)

Describes an undergraduate chemical engineering course which has been offered at the Georgia Institute of Technology. The objectives, structure, instructional materials and content of this course, which emphasizes the structure and usage of computer-aided design systems, are also included. (HM)

Described is a laboratory in which students are confronted with rigs built from full-sized industrial machinery and equipment. Students must draw a flow sheet, dismantle and draw key components, reassemble the parts, operate the rig, and interpret the run data. The laboratory and the course built around it are discussed. (KR)

Introduces some ideas on teaching scaleup in chemical engineering. Discusses the instructional modes and the general and specific topics. Provides two examples of an experiment with equipment and safety issues. Shows the list of actual individual and team projects in an appendix. (YP)

Describes a course designed to expose neophytes to methodology used in chemical process industries to evaluate commercial feasibility of proposed projects. Previously acquired disciplines are integrated to facilitate process synthesis, gain appreciation of nature of industrial projects and industrial viewpoint in managing them, and to become adept…

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)