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Felse, P. Arthur – Chemical Engineering Education, 2018
Cross-disciplinary fields such as biotechnology require chemical engineers and non-engineers to routinely work together, thus creating a need for non-engineers to learn chemical engineering. But limited knowledge on non-engineers' learning preferences and the lack of pedagogical methods to teach non-engineers restricts the opportunities available…
Descriptors: Biotechnology, Mechanics (Physics), Teaching Methods, Engineering Education
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Han, Duanduan; Ugaz, Victor – Chemical Engineering Education, 2017
Three self-contained mini-labs were integrated into a core undergraduate fluid mechanics course, with the goal of delivering hands-on content in a manner scalable to large class sizes. These mini-labs supported learning objectives involving friction loss in pipes, flow measurement, and centrifugal pump analysis. The hands-on experiments were…
Descriptors: Mechanics (Physics), Data Analysis, Pilot Projects, Undergraduate Study
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Pansare, Vikram J.; Tien, Daniel; Prud'homme, Robert K. – Chemical Engineering Education, 2015
Biology is playing an increasingly important role in the chemical engineering curriculum. We describe a set of experiments we have implemented in our Undergraduate Laboratory course giving students practical insights into membrane separation processes for protein processing. The goal of the lab is to optimize the purification and concentration of…
Descriptors: Undergraduate Students, Science Laboratories, Laboratory Experiments, Biology
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Mandavgane, Sachin A. – Chemical Engineering Education, 2016
Fluid mechanics (FM) is a core course of the chemical, mechanical, civil, and aerospace engineering programs. Students have both theory and practical classes in FM. The general expectation is that students should be able to demonstrate the fundamentals learnt in theory and get hands-on experience during the lab course. In this regard, students…
Descriptors: Chemistry, Science Instruction, Mechanics (Physics), Social Media
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Schultz, Kelly M.; Snyder, Mark A. – Chemical Engineering Education, 2019
A hands-on educational module was created to illustrate the scope of chemical engineering. Students are taught fundamental concepts that they integrate in a laboratory experience designing and fabricating a 'plant-on-a-chip' microfluidic device capable of continuous processing of reactive flows. Students gain insight into chemical engineering…
Descriptors: Chemical Engineering, STEM Education, Outreach Programs, Student Recruitment
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Quin, Thomas M. – Chemical Engineering Education, 2013
Fluency with poroelastic theory is prerequisite to advanced study of material and mass transport properties in a wide range of contexts. Often the greatest challenge in introducing students to the subject is to help them visualize the fluid flows and deformations that accompany phenomena such as creep and stress relaxation. We have developed a…
Descriptors: Science Instruction, Chemical Engineering, College Science, Demonstrations (Educational)
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Hart, Peter W.; Rudie, Alan W. – Chemical Engineering Education, 2011
Within the past 15 years, three North American pulp mills experienced catastrophic equipment failures while using 50 wt% hydrogen peroxide. In two cases, explosions occurred when normal pulp flow was interrupted due to other process problems. To understand the accidents, a kinetic model of alkali-catalyzed decomposition of peroxide was developed.…
Descriptors: Accidents, Mechanics (Physics), Chemistry, Chemical Engineering
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Hrenya, Christine M. – Chemical Engineering Education, 2011
Active-learning exercises appropriate for a course in undergraduate fluid mechanics are presented. The first exercise involves an experiment in gravity-driven tube flow, with small groups of students partaking in a contest to predict the experimental flow rates using the mechanical energy balance. The second exercise takes the form of an…
Descriptors: Mechanics (Physics), Active Learning, College Science, Science Instruction
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Miller, Ronald L.; Streveler, Ruth A.; Yang, Dazhi; Roman, Aidsa I. Santiago – Chemical Engineering Education, 2011
This paper summarizes progress on two related lines of chemical engineering education research: 1) identifying persistent student misconceptions in thermal and transport science (fluid mechanics, heat transfer, and thermodynamics); and, 2) developing a method to help students repair these misconceptions. Progress on developing the Thermal and…
Descriptors: Chemical Engineering, Engineering Education, Educational Research, Misconceptions
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Jablonski, Erin L.; Vogel, Brandon M.; Cavanagh, Daniel P.; Beers, Kathryn L. – Chemical Engineering Education, 2010
A method to fabricate microfluidic devices and an experimental protocol to model intravascular gas embolism for undergraduate laboratories are presented. The fabrication process details how to produce masters on glass slides; these masters serve as molds to pattern channels in an elastomeric polymer that can be adhered to a substrate, resulting in…
Descriptors: Chemical Engineering, Science Equipment, Undergraduate Study, Engineering Education
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Luyben, William L.; Tuzla, Kemal – Chemical Engineering Education, 2010
Most chemical engineering undergraduate laboratories have fluid mechanics experiments in which pressure drops through pipes are measured over a range of Reynolds numbers. The standard fluid is liquid water, which is essentially incompressible. Since density is constant, pressure drop does not depend on the pressure in the pipe. In addition, flow…
Descriptors: Chemistry, Measurement Equipment, Science Laboratories, Scientific Concepts
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Whitaker, Stephen – Chemical Engineering Education, 2009
Chemical engineering students begin their studies of mechanics in a department of physics where they are introduced to the mechanics of Newton. The approach presented by physicists differs in both perspective and substance from that encountered in chemical engineering courses where Euler's laws provide the foundation for studies of fluid and solid…
Descriptors: Mechanics (Physics), Chemical Engineering, Scientific Principles, Science Education
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Holles, Joseph H. – Chemical Engineering Education, 2009
The people and history of chemical engineering surround us: Gibbs free energy, Arrhenius Equation, and Reynolds number. Since these seminal figures appear in almost every classroom lecture, they provide an opportunity for a historically focused activity break. Each activity break provides the students with an image of the historical figure along…
Descriptors: Chemical Engineering, History Instruction, Engineering Education, Classroom Techniques
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Smart, Jimmy L. – Chemical Engineering Education, 2007
In this article, the author presents five problems that are representative of some of the "movie problems" that he has used on tests in various courses, including reactor design, heat transfer, mass transfer, engineering economics, and fluid mechanics. These problems tend to be open-ended. They can be challenging and can often be worked a variety…
Descriptors: Problem Based Learning, Discovery Learning, Cognitive Processes, Undergraduate Students
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Binous, Housam – Chemical Engineering Education, 2007
We study four non-Newtonian fluid mechanics problems using Mathematica[R]. Constitutive equations describing the behavior of power-law, Bingham and Carreau models are recalled. The velocity profile is obtained for the horizontal flow of power-law fluids in pipes and annuli. For the vertical laminar film flow of a Bingham fluid we determine the…
Descriptors: Undergraduate Study, Mechanics (Physics), Motion, Profiles
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