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Anastasio, Daniel; McCutcheon, Jeffrey – Chemical Engineering Education, 2012
A crossflow reverse osmosis (RO) system was built for a senior-level chemical engineering unit operations laboratory course. Intended to teach students mass transfer fundamentals related to membrane separations, students tested several commercial desalination membranes, measuring water flux and salt rejections at various pressures, flow rates, and…
Descriptors: Chemical Engineering, Scientific Concepts, Undergraduate Study, Science Laboratories
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Balsara, Nitash P.; Newman, John – Journal of Chemical Education, 2013
A methodology for calculating the theoretical and practical specific energies of rechargeable batteries, fuels, and materials is presented. The methodology enables comparison of the energy content of diverse systems such as the lithium-ion battery, hydrocarbons, and ammonia. The methodology is relevant for evaluating the possibility of using…
Descriptors: Science Instruction, Chemistry, College Science, Undergraduate Study
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Foley, Greg – Chemical Engineering Education, 2014
A problem that illustrates two ways of computing the break-even radius of insulation is outlined. The problem is suitable for students who are taking an introductory module in heat transfer or transport phenomena and who have some previous knowledge of the numerical solution of non- linear algebraic equations. The potential for computer algebra,…
Descriptors: Chemical Engineering, College Science, Computation, Scientific Concepts
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Nijdam, Justin J. – Chemical Engineering Education, 2013
A homework assignment is outlined in which students learn Computational Fluid Dynamics (CFD) concepts of discretization, numerical stability and accuracy, and verification in a hands-on manner by solving physically realistic problems of practical interest to engineers. The students solve a transient-diffusion problem numerically using the common…
Descriptors: Homework, Assignments, Computation, Concept Teaching
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McIver, Keith; Whitaker, Kathryn; De Delva, Vladimir; Farrell, Stephanie; Savelski, Mariano J.; Slater, C. Stewart – Advances in Engineering Education, 2012
Textbook style problems including detailed solutions introducing pharmaceutical topics at the level of an introductory chemical engineering course have been created. The problems illustrate and teach subjects which students would learn if they were to pursue a career in pharmaceutical engineering, including the unique terminology of the field,…
Descriptors: Engineering Education, Scientific Concepts, Introductory Courses, Pharmacology
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Norman, James J.; Andrews, Samantha N.; Prausnitz, Mark R. – Chemical Engineering Education, 2011
To introduce students to an application of chemical engineering directly related to human health, we developed an experiment for the unit operations laboratory at Georgia Tech examining diffusion across cadaver skin in the context of transdermal drug delivery. In this laboratory module, students prepare mouse skin samples, set up diffusion cells…
Descriptors: Science Laboratories, Chemical Engineering, Science Instruction, Undergraduate Study
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Elliott, J. Richard – Chemical Engineering Education, 2010
The topics of solution thermodynamics, activity coefficients, and complex formation are introduced through computational exercises and sample applications. The presentation is designed to be accessible to freshmen in a chemical engineering computations course. The MOSCED model is simplified to explain complex formation in terms of hydrogen…
Descriptors: Thermodynamics, Chemistry, Chemical Engineering, Scientific Concepts
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Nasri, Zakia; Binous, Housam – Chemical Engineering Education, 2009
A single equation of state (EOS) such as the Peng-Robinson (PR) EOS can accurately describe both the liquid and vapor phase. We present several applications of this equation of state, including estimation of pure component properties and computation of the vapor-liquid equilibrium (VLE) diagram for binary mixtures. We perform high-pressure…
Descriptors: Thermodynamics, Chemical Engineering, Chemistry, Equations (Mathematics)
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Monroe, Charles W.; Newman, John – Chemical Engineering Education, 2007
The Onsager reciprocal relations are essential to multicomponent transport theory. A discussion of the principles that should be used to derive flux laws for coupled diffusion is presented here. Fluctuation theory is employed to determine the reciprocal relation for transport coefficients that characterize coupled mass and heat transfer in binary…
Descriptors: Heat, Graduate Students, Chemical Engineering, Computation
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Metzger, Matthew J.; Glasser, Benjamin J.; Glasser, David; Hausberger, Brendon; Hildebrandt, Diane – Chemical Engineering Education, 2007
Ask a graduating chemical engineering student the following question: What makes one reactor different from the next? The answers received will often be unsatisfactory and will vary widely in scope. Some may cite the difference between the basic design equations, others may point out a PFR is "longer," and still others may state that it…
Descriptors: Graduate Students, Chemical Engineering, Equations (Mathematics), Teaching Methods
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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
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Wilcox, Jennifer – Chemical Engineering Education, 2006
A graduate-level computational chemistry course was designed and developed and carried out in the Department of Chemical Engineering at Worcester Polytechnic Institute in the Fall of 2005. The thrust of the course was a reaction assignment that led students through a series of steps, beginning with energetic predictions based upon fundamental…
Descriptors: Chemical Engineering, Computation, Science Curriculum, Curriculum Design