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Jessica E. Torres; Julie C. Liu – Chemical Engineering Education, 2024
To increase interest in chemical engineering and introduce non-traditional chemical engineering fields to high school women, an outreach activity focused on the biomedical applications of polymers was developed. Surveys given to students before and after the activity demonstrated greater agreement with the statements "I am interested in…
Descriptors: Engineering Education, Females, High School Students, Public Schools
Panebianco, Christopher J.; Iatridis, James C.; Weiser, Jennifer R. – Chemical Engineering Education, 2022
Due to the COVID-19 pandemic, many universities have switched to online learning platforms, which inhibits engineering students from completing formative hands-on experiments. To address this, we developed at-home experiments for an undergraduate biomaterials course. These inquiry-based learning experiments were well received by students and…
Descriptors: COVID-19, Pandemics, Inquiry, Laboratory Experiments
Filipovic, Nicholas; Scott, Alison J.; Penlidis, Alexander – Chemical Engineering Education, 2021
As future chemical engineers, it is important that students be able to identify and quantify sources of error. A statistical analysis technique that is often overlooked is hierarchical design methodology, which allows for the separation of overall variance into several related components. While hierarchical methodology is relevant to many fields,…
Descriptors: Chemical Engineering, Engineering Education, Statistical Analysis, Plastics
Pety, Stephen J.; Lu, Hang; Thio, Yonathan S. – Chemical Engineering Education, 2011
This paper describes a student laboratory experiment to determine the molecular weight of a polymer sample by measuring the viscosity of dilute polymer solutions in a PDMS microfluidic viscometer. Sample data are given for aqueous solutions of poly(ethylene oxide) (PEO). A demonstration of shear thinning behavior using the microviscometer is…
Descriptors: Plastics, Undergraduate Students, Chemistry, Laboratory Experiments
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
Chirdon, William M. – Chemical Engineering Education, 2010
This work describes how molecular simulation of polymerization reactions can be used to enrich introductory polymer or material science courses to give students a deeper understanding of free-radical chain and stepwise growth polymerization reactions. These simulations have proven to be effective media for instruction that do not require material…
Descriptors: Plastics, Computer Simulation, Internet, Educational Technology
Pedrosa, Cristiana; Mendes, Joaquim; Magalhaes, Fernao D. – Chemical Engineering Education, 2006
A low-cost tensile testing machine was built for testing polymeric films. This apparatus also allows for tear-strength and flexural tests. The experimental results, obtained from common-use materials, selected by the students, such as plastic bags, illustrate important aspects of the mechanical behavior of polymeric materials. Some of the tests…
Descriptors: Science Instruction, Plastics, Chemical Engineering, Laboratory Equipment

Bird, R. Byron – Chemical Engineering Education, 1980
Problems in polymer fluid dynamics are described, including development of constitutive equations, rheometry, kinetic theory, flow visualization, heat transfer studies, flows with phase change, two-phase flow, polymer unit operations, and drag reduction. (JN)
Descriptors: Chemistry, Engineering Education, Engineers, Fluid Mechanics

Peppas, Nicholas A. – Chemical Engineering Education, 1980
Presents a description, course outline, review articles and rationale for a course on Polymerization Reaction Engineering at Purdue University, Indiana. (JN)
Descriptors: Chemical Industry, Chemical Reactions, Chemistry, Course Content

Frank, Curtis W. – Chemical Engineering Education, 1979
Described is a series of four graduate level courses in polymer science, offered or currently in preparation, at Stanford University. Course descriptions and a list of required and recommended texts are included. Detailed course outlines for two of the courses are presented. (BT)
Descriptors: College Science, Curriculum Development, Engineering, Engineering Education