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Timothy M. Shenk; Nian Liu – Chemical Engineering Education, 2024
While innovation commonly stems from the Entrepreneurial Mindset (EM), its integration within chemical engineering curricula has been notably limited. However, a shift is occurring as both private and public initiatives are now directing resources and attention toward equipping students for prosperous careers. This paper delineates the successful…
Descriptors: Chemical Engineering, Entrepreneurship, Science Instruction, Science Curriculum
Lo, Roger C.; Bhatia, Hina; Venkatraman, Rahul; Jang, Larry K. – Chemical Engineering Education, 2015
Microfluidics involves the study of the behavior of fluids at microscale, fluid manipulations, and the design of the devices that can effectively perform such manipulations. We are developing two new elective courses to include microfluidics in our curriculum at CSULB. Herein, we present the results of the first course, Microfabrication and…
Descriptors: Chemical Engineering, Science Instruction, College Science, Science Curriculum
Dahm, Kevin – Journal of STEM Education: Innovations and Research, 2014
ABET requires that engineering programs demonstrate continuous assessment and continuous improvement in order to be accredited. Central to the process is establishing and assessing measurable "student outcomes" that reflect whether the goals and objectives of the program are being met. This paper examines effective strategies for…
Descriptors: STEM Education, Scoring Rubrics, Grading, Assignments
Gupta, Anju – Journal of STEM Education: Innovations and Research, 2015
This one-day workshop for pre-service teachers was aimed at implementing a uniquely designed and ready-to-implement chemical engineering curriculum in high school coursework. This educational and professional development opportunity introduced: 1) chemical engineering curriculum and career opportunities, 2) basic industrial processes and flow…
Descriptors: Chemical Engineering, Science Instruction, High Schools, Secondary School Teachers
Engaging Undergraduates in an Interdisciplinary Program: Developing a Biomaterial Technology Program
Liang, Jia-chi; Kung, Shieh-shiuh; Sun, Yi-ming – Chemical Engineering Education, 2009
Yuan Ze University targeted Biomaterials Science and developed a curriculum related to Biotechnology, Biochemical Engineering, and Biomaterials for engineering students to cultivate talents for both engineering and biotechnology. After several years of operation, recruiting students has succeeded, and students are satisfied with the course design…
Descriptors: Engineering Education, Biotechnology, Chemical Engineering, Interdisciplinary Approach
Smith, Tamara Floyd; Baah, David; Bradley, James; Sidler, Michelle; Hall, Rosine; Daughtrey, Terrell; Curtis, Christine – Chemical Engineering Education, 2010
A Synchronous Distance Education (SDE) course, jointly offered by Auburn University, Tuskegee University and Auburn University at Montgomery, introduced non-science majors to the concepts of nanoscience. Lectures originated from each of the three campuses during the semester, and video conferencing equipment allowed students at all three campuses…
Descriptors: Distance Education, Synchronous Communication, Course Descriptions, Lecture Method
Harris, Andrew T. – Chemical Engineering Education, 2009
The University of Sydney has offered an undergraduate course in particle technology using a contemporary problem based learning (PBL) methodology since 2005. Student learning is developed through the solution of complex, open-ended problems drawn from modern chemical engineering practice. Two examples are presented; i) zero emission electricity…
Descriptors: Feedback (Response), Problem Based Learning, Course Evaluation, Foreign Countries
Bolton, Kim; Saalman, Elisabeth; Christie, Michael; Ingerman, Ake; Linder, Cedric – Chemistry Education Research and Practice, 2008
The publicly available free computer program, "SimChemistry," was used as an active learning tool in the chemical engineering curriculum at the University College of Boras, Sweden. The activity involved students writing their own simulation programs on topics in the area of molecular structure and interactions. Evaluation of the learning…
Descriptors: Foreign Countries, Learning Experience, Chemical Engineering, Science Curriculum
Madihally, Sundararajan V.; Lewis, Randy S. – Chemical Engineering Education, 2007
To enhance bioengineering in the chemical engineering curriculum, a Unit Operations experiment simulating the hemodialysis of creatinine was implemented. The blood toxin creatinine was used for developing a more realistic dialysis experiment. A dialysis model is presented that allows students to assess the validity of model assumptions. This work…
Descriptors: Feedback (Response), Chemical Engineering, Science Curriculum, Simulation
O'Connor, Kim C. – Chemical Engineering Education, 2007
Advances in the biological sciences necessitate the training of chemical engineers to translate these fundamental discoveries into applications that will benefit society. Accordingly, Tulane University revised its core chemical engineering curriculum in 2005 to include a new introductory course in bioengineering and biotechnology for sophomores.…
Descriptors: Introductory Courses, Biotechnology, Chemical Engineering, Science Instruction
Parker, Robert S.; Doyle, Francis J.; Henson, Michael A. – Chemical Engineering Education, 2006
The evolution of the chemical engineering discipline motivates a re-evaluation of the process dynamics and control curriculum. A key requirement of future courses will be the introduction of theoretical concepts and application examples relevant to emerging areas, notably complex biological systems. We outline the critical concepts required to…
Descriptors: Chemical Engineering, Biology, Science Curriculum, Scientific Concepts

Occhiogrosso, Ronald N.; Rana, Banita – Chemical Engineering Education (CEE), 1996
Presents survey data of (n=63) chemical engineering curricula. (MKR)
Descriptors: Chemical Engineering, Higher Education, Science Curriculum, Surveys
Mosto, Patricia; Savelski, Mariano; Farrell, Stephanie H.; Hecht, Gregory B. – Chemical Engineering Education, 2007
Integrating biology in the chemical engineering curriculum seems to be the future for chemical engineering programs nation and worldwide. Rowan University's efforts to address this need include a unique chemical engineering curriculum with an intensive biology component integrated throughout from freshman to senior years. Freshman and Sophomore…
Descriptors: Elective Courses, Biotechnology, Biology, Chemical Engineering
Reingold, I. David – Cell Biology Education, 2005
In this essay, the author describes to biologists the advantages of organic-first curriculum, on the assumption that few biologists are regular readers of "Journal of Chemistry Education" and therefore are probably unaware of the method for integrating chemistry and biology curricula. The author begins with the assumption that the majority of…
Descriptors: Chemistry, Biology, Chemical Engineering, Science Instruction
Wilcox, Jennifer – Chemical Engineering Education, 2006
A graduate-level computational chemistry course was designed and developed and carried out in the Department of Chemical Engineering at Worcester Polytechnic Institute in the Fall of 2005. The thrust of the course was a reaction assignment that led students through a series of steps, beginning with energetic predictions based upon fundamental…
Descriptors: Chemical Engineering, Computation, Science Curriculum, Curriculum Design