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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
Hirshfield, Laura J.; Mayes, Heather B. – Chemical Engineering Education, 2019
With the advance of engineering education research and scholarship, there has been an increased focus on amending chemical engineering courses to increase student learning, engagement and enjoyment. These approaches are often incorporated in project-based courses such as capstone design courses and laboratory courses, providing opportunities to…
Descriptors: Undergraduate Students, Chemical Engineering, Engineering Education, Inclusion
Falconer, John; deGrazia, Janet; Medlin, J. Will; McDanel, Katherine – Chemical Engineering Education, 2018
The LearnChemE site (www.LearnChemE.com), which provides teaching/learning resources for chemical engineering courses for both faculty and students, is described. The site provides resources to help faculty implement active learning and flipped classrooms. The site also helps students supplement their textbooks and classroom materials. The…
Descriptors: Chemical Engineering, Educational Resources, Instructional Materials, Active Learning
Gannon, Paul; Anderson, Ryan; Plumb, Carolyn; Hacker, Douglas J. – Chemical Engineering Education, 2018
"Frack Attack" is a transferable classroom activity that combines active learning and teamwork to critically evaluate sustainability topics in contemporary engineering contexts. The activity was recently explored in three chemical engineering courses at Montana State University: two elective courses on sustainable energy (one…
Descriptors: Chemical Engineering, Class Activities, Sustainability, Active Learning
Amos, Delaina A.; Pittard, Caroline M.; Snyder, Kate E. – Chemical Engineering Education, 2018
Typically the material and energy balance (MEB) course is taught at a freshman or sophomore level. Success in this early course is generally believed to be a metric for future success within the chemical engineering curriculum. However, the complexities and dynamics of the course stem from not only the difficulty of the subject matter, but also…
Descriptors: Energy, Chemical Engineering, College Students, Teaching Methods
Koretsky, Milo – Chemical Engineering Education, 2018
This profile describes the AIChE Concept Warehouse (CW) website, a community developed, web-based tool to decrease instructional barriers and to help faculty implement concept-based active learning in class. The CW provides three distinct but complementary functions: (a) a content repository, (b) an audience response system and learning management…
Descriptors: Active Learning, Web Sites, Concept Formation, Audience Response Systems
Utgikar, Vivek P. – Chemical Engineering Education, 2015
An experiment based on the sublimation of a solid was introduced in the undergraduate Transport Phenomena course. The experiment required the students to devise their own apparatus and measurement techniques. The theoretical basis, assignment of the experiment, experimental results, and student/instructor observations are described in this paper.…
Descriptors: Undergraduate Students, Laboratory Experiments, Active Learning, Scientific Concepts
Ramírez, Darinka; Ramírez, María Soledad; Marrero, Thomas R. – Chemical Engineering Education, 2016
This study aims to describe a novel teaching mode that allows for direct instructor-student and student-student discussions of material balance concepts by means of active learning. The instructor explains the concepts during class time while using a remotely controlled laboratory system that is projected on a screen with real-time access to the…
Descriptors: Active Learning, Science Experiments, Virtual Classrooms, Online Systems
Wen, Fei; Khera, Eshita – Chemical Engineering Education, 2016
Despite the instinctive perception of mass and heat transfer principles in daily life, productive learning in this course continues to be one of the greatest challenges for undergraduate students in chemical engineering. In an effort to enhance student learning in classroom, we initiated an innovative active-learning method titled…
Descriptors: Active Learning, Heat, Thermodynamics, Student Developed Materials
Kubilius, Matthew B.; Tu, Raymond S.; Anderson, Ryan – Chemical Engineering Education, 2014
A recurring framework has been integrated throughout the curriculum via a Continuously Stirred Tank Reactor (CSTR) platform. This laboratory is introduced during the material and energy balance course, and subsequent courses can use these results when explaining more advanced concepts. Further, this laboratory gives students practical experience…
Descriptors: Chemical Engineering, Science Education, Science Laboratories, Energy
Falconer, John L.; Nicodemus, Garret D.; Medlin, J. Will; deGrazia, Janet; McDanel, Katherine P. – Chemical Engineering Education, 2014
A ready-to-use package of active-learning materials for a semester-long chemical engineering thermodynamics course was prepared for instructors, and similar materials are being prepared for a material and energy balance course. The course package includes ConcepTests, explanations of the ConcepTests for instructors, links to screencasts, chapter…
Descriptors: Science Instruction, Chemical Engineering, Thermodynamics, Energy
Brooks, Bill J.; Gilbuena, Debra M.; Krause, Stephen J.; Koretsky, Milo D. – Chemical Engineering Education, 2014
Active learning in class helps students develop deeper understanding of chemical engineering principles. While the use of multiple-choice ConcepTests is clearly effective, we advocate for including student writing in learning activities as well. In this article, we demonstrate that word clouds can provide a quick analytical technique to assess…
Descriptors: Active Learning, Chemical Engineering, Engineering Education, Science Education
Heath, Daniel E.; Hoy, Mary; Rathman, James F.; Rohdieck, Stephanie – Chemical Engineering Education, 2013
The Chemical and Biomolecular Engineering Department at The Ohio State University in collaboration with the University Center for the Advancement of Teaching developed the Chemical Engineering Mentored Teaching Experience. The Mentored Teaching Experience is an elective for Ph.D. students interested in pursuing faculty careers. Participants are…
Descriptors: Chemical Engineering, Technical Occupations, Teaching Experience, Mentors
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
Prausnitz, Mark R.; Bommarius, Andreas S. – Chemical Engineering Education, 2011
We developed a new interdisciplinary course on pharmaceuticals to address needs of undergraduate and graduate students in chemical engineering and other departments. This course introduces drug design, development, and delivery in an integrated fashion that provides scientific depth in context with broader impacts in business, policy, and ethics.…
Descriptors: Graduate Students, Student Projects, Active Learning, Chemical Engineering
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