Publication Date
In 2025 | 0 |
Since 2024 | 0 |
Since 2021 (last 5 years) | 1 |
Since 2016 (last 10 years) | 2 |
Since 2006 (last 20 years) | 4 |
Descriptor
Engineering Education | 6 |
Lecture Method | 6 |
Chemical Engineering | 4 |
Chemistry | 3 |
Higher Education | 2 |
Problem Solving | 2 |
Teaching Methods | 2 |
Thermodynamics | 2 |
Undergraduate Students | 2 |
Activities | 1 |
Biology | 1 |
More ▼ |
Source
Chemical Engineering Education | 6 |
Author
Butrus, Salwan | 1 |
Carta, Jungbauer | 1 |
Dray, Kate E. | 1 |
Dreyer, Kathleen S. | 1 |
Felder, Richard M. | 1 |
Finlayson, Bruce A. | 1 |
Greenman, Kevin | 1 |
Khera, Eshita | 1 |
Kopyeva, Irina | 1 |
Leonard, Joshua N. | 1 |
Lucks, Julius B. | 1 |
More ▼ |
Publication Type
Journal Articles | 6 |
Guides - Classroom - Teacher | 2 |
Reports - Descriptive | 2 |
Reports - Evaluative | 1 |
Reports - Research | 1 |
Education Level
Higher Education | 4 |
Postsecondary Education | 3 |
Adult Education | 1 |
Audience
Practitioners | 2 |
Teachers | 1 |
Location
Michigan | 1 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Dray, Kate E.; Dreyer, Kathleen S.; Lucks, Julius B.; Leonard, Joshua N. – Chemical Engineering Education, 2023
We present an educational unit to teach computational modeling, a vital part of chemical engineering curricula, through the lens of synthetic biology. Lectures, code, and homework questions provide conceptual and practical introductions to each computational method involved in the model development process, along with perspectives on how methods…
Descriptors: Engineering Education, Chemical Engineering, Teaching Methods, Units of Study
Butrus, Salwan; Greenman, Kevin; Khera, Eshita; Kopyeva, Irina; Nishii, Akira – Chemical Engineering Education, 2020
The interdisciplinary roots of chemical engineering have shaped its history and fostered its rapidly evolving nature. Through ongoing research, graduate students in chemical engineering departments remain abreast of the field's evolution. Yet core undergraduate curricula often fall short of introducing students to the breadth of current research…
Descriptors: Chemical Engineering, Student Research, Research Skills, Lecture Method
Carta, Jungbauer – Chemical Engineering Education, 2011
We describe an intensive course that integrates graduate and continuing education focused on the development and scale-up of chromatography processes used for the recovery and purification of proteins with special emphasis on biotherapeutics. The course includes lectures, laboratories, teamwork, and a design exercise and offers a complete view of…
Descriptors: Chemistry, Chemical Engineering, Engineering Education, Graduate Study
Woods, Donald R. – Chemical Engineering Education, 2012
Many different versions of Problem-based Learning (PBL) are used today. To be consistent in evaluating the effectiveness of PBL, the focus in this paper is on what Howard Barrows called authentic PBL (aPBL). In aPBL students are empowered with the learning process; key distinguishing features are that the students teach each other the new…
Descriptors: Evidence, Graduation Rate, Dropouts, Problem Based Learning

Finlayson, Bruce A. – Chemical Engineering Education, 1981
Describes the uses of finite element methods in solving problems of heat transfer, fluid flow, etc. Suggests that engineers should know the general concepts and be able to apply the principles of finite element methods. (Author/WB)
Descriptors: Chemistry, Engineering, Engineering Education, Fluid Mechanics

Felder, Richard M. – Chemical Engineering Education, 1991
A way in which to shift the focus away from lecture and the professor during class time to student-centered discussion groups is presented. An exercise used in a course on chemical process analysis that uses the group discussion method is included. (KR)
Descriptors: Calculus, Chemistry, College Science, Cooperative Learning