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Mendez, Sergio; AungYong, Lisa – Chemical Engineering Education, 2014
To help students make the connection between the concepts of heat conduction and convection to real-world phenomenon, we developed a combined experimental and computational module that can be incorporated into lecture or lab courses. The experimental system we present requires materials and apparatus that are readily accessible, and the procedure…
Descriptors: Heat, Thermodynamics, Scientific Concepts, Science Education
Rosen, Edward M. – Chemical Engineering Education, 2008
Energy use in Iceland (population 283,000) is higher per capita than in any other country in the world. Some 53.2% of the energy is geothermal, which supplies electricity as well as heated water to swimming pools, fish farms, snow melting, greenhouses, and space heating. The Nesjavellir Power Plant is a major geothermal facility, supplying both…
Descriptors: Energy Management, Science Education, Foreign Countries, Energy
Shacham, Mordechai; Cutlip, Michael B.; Brauner, Neima – Chemical Engineering Education, 2009
A continuing challenge to the undergraduate chemical engineering curriculum is the time-effective incorporation and use of computer-based tools throughout the educational program. Computing skills in academia and industry require some proficiency in programming and effective use of software packages for solving 1) single-model, single-algorithm…
Descriptors: Computer Software, Computer Literacy, Problem Solving, Chemical Engineering
Madihally, Sundararajan V.; Lewis, Randy S. – Chemical Engineering Education, 2007
To enhance bioengineering in the chemical engineering curriculum, a Unit Operations experiment simulating the hemodialysis of creatinine was implemented. The blood toxin creatinine was used for developing a more realistic dialysis experiment. A dialysis model is presented that allows students to assess the validity of model assumptions. This work…
Descriptors: Feedback (Response), Chemical Engineering, Science Curriculum, Simulation

Schultheisz, Daniel; Sommerfeld, Jude T. – Chemical Engineering Education, 1988
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)
Descriptors: Chemical Engineering, College Science, Computer Simulation, Computer Uses in Education

Bonin, Hugues W.; Weir, Ronald D. – Chemical Engineering Education, 1984
Describes a course designed to assist students in writing differential equations to represent chemical processes and to solve these problems on digital computers. Course outline and discussion of computer projects and the simulation and optimization of a continuously stirred tank reactor process are included. (JN)
Descriptors: Chemical Engineering, Computer Simulation, Course Descriptions, Engineering Education

Seider, Warren D. – Chemical Engineering Education, 1984
Describes the use and impact of process design simulators in process design courses. Discusses topics covered, texts used, computer design simulations, and how they are integrated into the process survey course as well as in plant design projects. (JM)
Descriptors: Chemical Engineering, Computer Programs, Computer Simulation, Cost Estimates

Russell, T. W. F.; And Others – Chemical Engineering Education, 1982
Describes an advanced simulation illustrating how basic engineering skills can be combined with economic considerations and risk-taking judgments to effectively design and operate a chemical processing unit in a competitive environment. The simulation is used as one of five projects in a technical management course. (SK)
Descriptors: Chemical Industry, Chemistry, College Science, Computer Oriented Programs

Mendoza-Bustos, S. A.; And Others – Chemical Engineering Education, 1991
Described is a project where students gain experience in handling large volumes of hazardous materials, process start up and shut down, equipment failures, operational variations, scaling up, equipment cleaning, and run-time scheduling while working in a modern pilot plant. Included are the system design, experimental procedures, and results. (KR)
Descriptors: Chemical Engineering, Chemistry, College Science, Experiential Learning

Foss, Alan S; Goodeve, Peter J. – Chemical Engineering Education, 1991
The development of a computer program, called UC SIGNAL, that permits a student to develop a diagram of a control system configuration using an IBM AT or a PS/2 computer is described. The features of UC SIGNAL and its contribution to process control instruction are discussed. (KR)
Descriptors: Chemistry, College Science, Computer Assisted Instruction, Computer Graphics

Frey, Douglas D. – Chemical Engineering Education, 1990
Illustrated is the use of spreadsheet programs for implementing finite difference numerical simulations of chromatography as an instructional tool in a separations course. Discussed are differential equations, discretization and integration, spreadsheet development, computer requirements, and typical simulation results. (CW)
Descriptors: Chemical Engineering, Chemistry, College Science, Computer Simulation

Bungay, H. R. – Chemical Engineering Education, 1986
Describes a course in biochemical engineering fundamentals which relies heavily on the use of personal computers. The computers are used with interactive tutorials, problems that require computer simulations of differential equations, and homework assignments. A list of computer assignments and student term projects is included. (TW)
Descriptors: Biochemistry, College Science, Computer Assisted Instruction, Computer Simulation