AC 2009-269: HYDROGEN CURRICULUM AT MICHIGAN TECHNOLOGICALUNIVERSITYJason Keith, Michigan Technological University Jason Keith is an Associate Professor in the Department of Chemical Engineering at Michigan Technological University.Daniel Crowl, Michigan Technological University Dan Crowl is the Herbert H. Dow Professor of Chemical Process Safety in the Department of Chemical Engineering at Michigan Technological University.David Caspary, Michigan Technological University Dave Caspary is the Manager of Laboratory Facilities in the Department of Chemical Engineering at Michigan Technological University.Jeffrey Allen, Michigan Technological University Jeff Allen is an Assistant Professor
AC 2009-29: IDEAS TO CONSIDER FOR NEW CHEMICAL ENGINEERINGEDUCATORS: PART 2 (COURSES OFFERED LATER IN THE CURRICULUM)Jason Keith, Michigan Technological University Jason Keith is an Associate Professor of Chemical Engineering at Michigan Technological University. He received his B.S.ChE from the University of Akron in 1995, and his Ph.D from the University of Notre Dame in 2001. His current research interests include reactor stability, alternative energy, and engineering education. He is the 2008 recipient of the Raymond W. Fahien Award for Outstanding Teaching Effectiveness and Educational Scholarship.David Silverstein, University of Kentucky David L. Silverstein is currently the PJC
4 4Once again, the Spring 2008 Chemical Plant Design class out-performed the Spring 2007 PlantDesign class in all respects. This was true despite the fact that the class of 2007 earned slightlybetter grades in the curriculum as a whole. While the Chemical Plant Design results wereobtained from small sample sizes of 4 teams per cohort, and therefore not statistically significant,they provide an additional indication of a lasting impact from the Fall 2005 improvements toSophomore Clinic I. Anecdotally, the Spring 2008 class projects was observed to show moreevidence of divergent thinking than the Spring 2007 class. For example: ≠ The 2007 Plant Design project was on production of Methyl Methacrylate and the 2008
partners with the faculty in both research andteaching. Integration of these activities could lead to Ph.D. graduates naturally having anunderstanding and appreciation for engineering education research.Professors who did not have an educational background can obtain the background to understandeducational theories and research methods through workshops, books10-13, 24 and journals.Chemical Engineering Education (CEE) and the new applications-based ASEE electronic journalAdvances in Engineering Education26 can help provide this understanding.CEE is a journal for all chemical engineering faculty. Thus, CEE publishes rigorous researchpapers, and expository and application papers about curriculum and course improvements,hands-on activities, and
drawsheavily from the degree of freedom analysis taught in the introductory material and energybalances course.IntroductionMultiple effect evaporation is an industrially important unit operation. It is the foundation ofseveral industries, including, for example, the production of sugar, which had over $6.9 billion inrevenues in the United States alone in 20081. Teaching multiple effect evaporation in the junioryear of the chemical engineering curriculum reinforces and integrates key topics from thesophomore year such as mass and energy balances, structured problem solving, and steam tablecalculations. As a side benefit, teaching multiple effect evaporation allows the opportunity todiscuss the work of Norbert Rillieux2, and his role as an inventor
valued by engineering departments that have embraced this form of instruction.[5-7] This teaching approach has been found to reinforce creative thinking,[8] to improve designquality[9] and to develop confidence and innovation skills.[10] Students are also more passionatewhen they are provided with challenging problems that do not have an obvious linear solution or [10-12]a tightly constrained parameter space. Offering project-based learning experiences enablethe students to integrate technical design with real world constrains resulting in an increased and [6, 13-16]deeper understanding of their field. There is vast evidence in the arena
2 2004 3 2005 4 2006 5their core ChE courses with five to six targetedcourses in a particular area; thus, each Figure 1. Percentage of students selecting eachemphasis acts as a “mini-minor”. emphasis in Chemical Engineering. The second approach uses laboratory research experiences as an integral part of theundergraduate education process. We have recently begun modernizing our curriculum byincluding emphasis-specific laboratory experiments associated with
Polymeric and Multicomponent Materials courses. Her funding includes NSF and DOE and she received the Ralph E. Powe Junior Faculty Enhancement Award in 2006. Central to her research in polymer and surface engineering is the design and synthesis of molecules with well-defined chemical functionality and molecular architecture with current projects on stimuli-responsive and biomass-based polymeric materials.Bill Elmore, Mississippi State University Bill Elmore, Ph.D., P.E., is Associate Professor and Hunter Henry Chair, Mississippi State University. His teaching areas include the integrated freshman engineering and courses throughout the chemical engineering curriculum including unit operations
was used as the primary component for theBRIDGE program, which offers an opportunity to ease the transition of incoming freshmen intocollege life. In addition to this role, online social networking tools have other potential uses for aChemical Engineering department. First, they can be used as a mechanism to disseminateinformation quickly. Creating a central communications location allows easy announcement ofdepartment events or collection of feedback surveys. Another possibility is to use it as adiscussion forum for their Chemical Engineering courses. Since classes can be gathered togetherinto one group, exchanges on concepts or assigned problems can occur among the members (i.e.students and faculty of the course). Finally, online
surveys of the students who developed the problems, surveys of thestudents who solved the problems in the chemical engineering course, as well as the peer reviewof the problems by biochemical engineering faculty will be presented. This strategy for studentlearning could effectively be utilized with other application areas as a way to incorporate moreinterdisciplinary learning in the undergraduate curriculum.IntroductionSince the late 1990's there has been a drive to integrate more biological applications into theundergraduate chemical engineering (ChE) curriculum. The availability of employmentopportunities in the life sciences has grown steadily for ChE graduates, spurred by the expansionof bioprocessing to include both high margin fine