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Hohn, Keith L. – Chemical Engineering Education, 2007
A hands-on project was developed to educate new chemical engineering students about the types of problems chemical engineers solve and to improve student enthusiasm for studying chemical engineering. In this project, students studied the phenomenon of carbonated beverages going flat. The project was implemented in 2003 and 2004 at Kansas State…
Descriptors: Student Surveys, Chemical Engineering, Science Experiments, Science Instruction
Binous, Housam – Chemical Engineering Education, 2006
We show a new approach, based on the utilization of Mathematica, to solve gas permeation problems using membranes. We start with the design of a membrane unit for the separation of a multicomponent mixture. The built-in Mathematica function, FindRoot, allows one to solve seven simultaneous equations instead of using the iterative approach of…
Descriptors: Chemical Engineering, Mathematics, Computation, Problem Solving
Case, Jennifer; Marshall, Delia – Studies in Higher Education, 2004
This article describes two approaches to learning (in addition to the classic deep and surface approaches) identified in studies of student learning in engineering contexts. The first study identified the 'procedural deep' approach in a group of engineering foundation programme students in the UK, while the second study identified the 'procedural…
Descriptors: Problem Solving, Learning Strategies, Higher Education, Engineering Education
Peer reviewedReeves, Deborah E.; Schork, F. Joseph – Chemical Engineering Education, 1988
Presents six problems from an alternative approach to homework traditionally given to follow-up lectures. Stresses the advantage of longer term exercises which allow for creativity and independence on the part of the student. Problems include: "System Model,""Open-Loop Simulation,""PID Control,""Dahlin…
Descriptors: Chemical Engineering, College Science, Engineering Education, Higher Education
Peer reviewedBunge, Annette L.; Miller, Ronald L. – Chemical Engineering Education (CEE), 1997
Undergraduate and graduate students are often confused about several aspects of modeling physical systems. Describes an approach to address these issues using a single physical transport problem that can be analyzed with multiple mathematical models. (DKM)
Descriptors: Chemical Engineering, Engineering Education, Higher Education, Mathematical Concepts
Peer reviewedGrinbaum, Baruch; Semiat, Raphael – Journal of Chemical Education, 1998
Cites the shortcomings of the traditional educational experiences of chemists. Focuses on their training in engineering and concludes that training is lacking in the areas of mass balances in flow processes, heat balances, reactors, separation processes, and scaleup. (DDR)
Descriptors: Chemical Engineering, Chemistry, College Curriculum, Curriculum Development
Peer reviewedSoares, Joao B. P.; Penlidis, Alexander; Hamielec, Archie E. – Chemical Engineering Education (CEE), 1998
Describes how interaction with several polymer manufacturing companies through industrial short courses and research projects has led to the development of dynamic and up-to-date undergraduate and graduate curriculums in polymer science and engineering technology. (DDR)
Descriptors: Chemical Engineering, Competition, Course Content, Design
Subramanian, Venkat R. – Chemical Engineering Education, 2006
High-performance computers coupled with highly efficient numerical schemes and user-friendly software packages have helped instructors to teach numerical solutions and analysis of various nonlinear models more efficiently in the classroom. One of the main objectives of a model is to provide insight about the system of interest. Analytical…
Descriptors: Chemical Engineering, College Students, Computer Uses in Education, Computer Software
Peer reviewedMackenzie, J. G.; Allen, R. M.; Earl, W. B.; Gilmour, I. A. – Chemical Engineering Education (CEE), 1999
Discusses strategies for teaching problem-solving techniques during an engineering design course in the third year of a four-year degree program. Describes the content of six problem-solving curricular modules, course organization, evaluation and assessment, and results. (Contains 28 references.) (WRM)
Descriptors: Chemical Engineering, Course Descriptions, Creative Thinking, Design
Peer reviewedPrausnitz, Mark R. – Chemical Engineering Education (CEE), 1998
Describes Controlled-Operation Mechanical Energy Transducers (COMETs), which are part of a project to introduce sophomore chemical engineering students to a number of important engineering concepts that are usually addressed later in the academic program. (DDR)
Descriptors: Chemical Engineering, Competition, Course Content, Design
Peer reviewedWilley, Ronald J.; Price, John M. – Chemical Engineering Education (CEE), 1998
Describes the incorporation of health and safety issues into the engineering curriculum and focuses on an approach that introduces students to open-ended problems early in the curriculum. Reports that students are able to provide fresh solutions to mundane problems. (DDR)
Descriptors: Chemical Engineering, Course Content, Design, Environmental Education
Peer reviewedBeveridge, G. S. C.; Mathews, T. – Assessment and Evaluation in Higher Education, 1986
The use of case studies for training in problem solving in a Scottish chemical engineering program is outlined, and problems in assessing both changes in student behavior and the quality of the learning experience are examined. (MSE)
Descriptors: Case Studies, Chemical Engineering, Classroom Techniques, Engineering Education
Peer reviewedWoods, Donald R. – Chemical Engineering Education, 1983
Describes a graduate or senior elective course combining fundamentals of surface phenomena with practical problem-solving structured around a series of case problems. Discusses topics covered and their development through acquiring new knowledge applied to the case problem, practical calculations of solutions, and applications to additional…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Engineering Education
Peer reviewedSandler, Stanley I. – Chemical Engineering Education (CEE), 1997
Responds to the suggestion that computational tools be used in undergraduate thermodynamics courses. Argues that instead of using spreadsheets or specially prepared programs, students can quickly develop their own worksheets and solve problems using an equation-solving software program such as MATHCAD. Emphasis is on understanding the fundamentals…
Descriptors: Chemical Engineering, Computer Software, Computer Uses in Education, Educational Technology
Peer reviewedSlaughter, Joseph M.; And Others – Chemical Engineering Education, 1991
Three mathematics software packages, MathCAD, Point Five, and TK Solver Plus, are described and compared. The packages were rated on the accompanying documentation, ease of learning, ease of use, matrix operations, equation solving capability, versatility, use of units, generation of graphs and tables, readability of output, and overall…
Descriptors: Chemical Engineering, Chemistry, College Science, Computation

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