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Christopher V. H.-H. Chen; Scott Banta – Chemical Engineering Education, 2023
As more chemical engineering students enter careers beyond the field, students need more guidance in applying their problem solving skills to a challenges beyond the plant or refinery. Since Fall 2019, we have implemented case-based learning across our Material and Energy Balances course to help students practice chemical engineering thinking as a…
Descriptors: Teaching Methods, Chemical Engineering, Engineering Education, Problem Solving
Nagma Zerin – Chemical Engineering Education, 2024
Project-Enhanced learning is an excellent way to facilitate student-centered learning along with traditional lecture-based learning. In this Class and Home problem, an example of Project-Enhanced learning is provided that can be used in the Mass and Energy Balances (MEB) course. The students solve this problem as part of a group while receiving…
Descriptors: Student Projects, Active Learning, Student Centered Learning, Teaching Methods
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
Senra, Michael; Fogler, H. Scott – Chemical Engineering Education, 2014
In their collegiate studies, students are given a wide range of concepts, theories, and equations to assist them in their future endeavors. However, students have not been sufficiently exposed to practical critical thinking methodologies that will benefit them as they encounter open-ended problems. A course developed at the University of Michigan…
Descriptors: Science Instruction, College Science, Creative Thinking, Chemical Engineering
Hanyak, Michael E., Jr. – Advances in Engineering Education, 2015
In an introductory chemical engineering course, the conceptual framework of a holistic problem-solving methodology in conjunction with a problem-based learning approach has been shown to create a learning environment that nurtures deep learning rather than surface learning. Based on exam scores, student grades are either the same or better than…
Descriptors: Chemical Engineering, Problem Solving, Teaching Methods, Problem Based Learning

Soares, Joao B. P.; Penlidis, Alexander; Hamielec, Archie E. – Chemical Engineering Education (CEE), 1998
Describes how interaction with several polymer manufacturing companies through industrial short courses and research projects has led to the development of dynamic and up-to-date undergraduate and graduate curriculums in polymer science and engineering technology. (DDR)
Descriptors: Chemical Engineering, Competition, Course Content, Design

Prausnitz, Mark R. – Chemical Engineering Education (CEE), 1998
Describes Controlled-Operation Mechanical Energy Transducers (COMETs), which are part of a project to introduce sophomore chemical engineering students to a number of important engineering concepts that are usually addressed later in the academic program. (DDR)
Descriptors: Chemical Engineering, Competition, Course Content, Design

Willey, Ronald J.; Price, John M. – Chemical Engineering Education (CEE), 1998
Describes the incorporation of health and safety issues into the engineering curriculum and focuses on an approach that introduces students to open-ended problems early in the curriculum. Reports that students are able to provide fresh solutions to mundane problems. (DDR)
Descriptors: Chemical Engineering, Course Content, Design, Environmental Education

Harb, John N.; Solen, Kenneth A. – Chemical Engineering Education (CEE), 1998
Discusses the needs of freshmen chemical engineering students in terms of courses related to the field. Describes the nature and content of a course designed to involve freshmen in a chemical engineering curriculum. (DDR)
Descriptors: Chemical Engineering, Course Content, Hands on Science, Higher Education

Valle-Riestra, J. Frank – Chemical Engineering Education, 1983
Describes a course designed to expose neophytes to methodology used in chemical process industries to evaluate commercial feasibility of proposed projects. Previously acquired disciplines are integrated to facilitate process synthesis, gain appreciation of nature of industrial projects and industrial viewpoint in managing them, and to become adept…
Descriptors: Chemical Engineering, Chemical Industry, Course Content, Course Descriptions

Venkatasubramanian, V. – Chemical Engineering Education, 1986
Describes a course on artificial intelligence (AI) in process engineering taught at Columbia University to chemical engineering students, using an AI methodology known as Knowledge-Based Expert Systems (KBES). Provides a description of the course, the lecture topics, and a synopsis of some of the student projects. (TW)
Descriptors: Artificial Intelligence, Chemical Engineering, College Science, Computer Uses in Education