Paper ID #7518A Modular Approach of Integrating Biofuels Education into Chemical Engi-neering CurriculumDr. Qinghua He, Tuskegee University Dr. Q. Peter He is an associate professor in the Department of Chemical Engineering at Tuskegee Univer- sity. He obtained his B.S. in Chemical Engineering from Tsinghua University at Beijing, China in 1996 and his M.S. and Ph.D. degrees in Chemical Engineering in 2002 and 2005 from the University of Texas, Austin. His current research interests are in the general areas of process modeling, monitoring, optimiza- tion and control, with special interest in the application of data
institutions.Interactive exercises where workshop participants learn new concepts and are engaged to exploreways to improve the courses they teach were an essential component of the workshop. The team-based interactive approach practiced at X University was used to integrate concepts of newtechnologies into the traditional undergraduate chemical engineering curriculum throughlaboratories/demonstrations, in-class/homework problems, and case studies. This approach hasbeen shown to significantly enhance student learning and interest in technology. It is alsoessential for outreach efforts to increase interest in and preparation for engineering studiesamong K-12 students.6workshop modulesEach module in the workshop is self-contained and can be adapted for use in
-based polymers and fuels, applying microchannel technology to achieve process intensification, studying agglomerate dispersion, and processing polymers for packaging applications.Dr. Daina Briedis, Michigan State University Dr. Daina Briedis is a faculty member in the Department of Chemical Engineering and Materials Science at Michigan State University and Assistant Dean for Student Advancement and Program Assessment in the College of Engineering. Dr. Briedis has been involved in several areas of education research including student retention, curriculum redesign, and the use of technology in the classroom. She is a co-PI on two NSF grants in the areas of integration of computation in engineering curricula and in
simulators with graphical user interfaces were introduced: Aspen/SPwith its SPEXPERT system (JSD Simulations, Inc.), Aspen Plus (Aspen Technology), andProSim/ProVision (Simulation Sciences, Inc.). As these tools became available to those in theacademic community, the question arose as to how best to educate students in the use of thesevery powerful tools. Various approaches of incorporating the design experience across thecurriculum have been reported in the literature.1,2,3 Many of these articles address the need forintroducing design at earlier stages in the curriculum and describe how to best integrate theseexperiences across the curriculum. The use of process simulators in select courses todemonstrate concepts and reinforce fundamental
in either system can be seen in the other.Therefore, if an operator opens a valve in the ITS, the change in position of that valve is shownin the OTS. Alternatively, if the level in a suction drum that feeds a pump drops too low, thenthe operator in the field can go to that vessel and actually hear the pump cavitating. Similarly,leaks and spills can be simulated in the ITS and students experience the consequences ofemergency response techniques to mitigate these upsets without the danger involved inperforming similar drills in the real plant.As the integration of 3D-immersive training systems becomes more popular, the integration ofthese systems into the chemical engineering curriculum seems a natural move. Some of thefeatures of the ITS
what they have studied and learned, integrate newknowledge with previous knowledge, as well as to help them become an active and aware learnerso that they can better understand how they learn. Their reflection topics included: the engineeringdesign process, engineering/math/science connections and technical writing. This paper features a description of the design project challenge and solutions. Alsoincluded is the grading rubric, which was provided to the students to use as a guide for thereflection assignment. In addition, a summary of the group design analysis and the individualreflection assignments is provided. Page
engineering program and the computerscience program have been working on developing two software packages to aid studentsin developing their skills in the material and energy balance course in the chemicalengineering curriculum. The first of these (Chemical Process Visualizer – ChemProV) isa software package developed to assist students in converting written descriptions into agraphical format and then into a mathematical representation. It also provides a singleformat for the communication of the solutions to material/energy balance problemsbetween students . The second software package (On-Line Studio-Based LearningEnvironment – OSBLE) provides a means whereby the ChemProV solutions can beshared between students in an asynchronous online
Engineering at Nazarbayev University accepted its first cohort of students.The core building-blocks of the School of Engineering at Nazarbayev University are: problem-centered learning, the ‘upside-down’ curriculum, mathematics in context, design orientation, andcombining simulation with laboratory and workshop practices. These core building-blocks are allconnected through the central themes of safety and sustainability, transferable skillsdevelopment, and management and entrepreneurship.The School of Engineering’s teaching program has been developed in partnership withUniversity College London, considered one of the world’s best universities. Students are taughtin an “engineering systems” fashion, with all first year modules common with the
separation between the student and the instructional classroom. Reeves,Herrington, and Oliver suggest ten characteristics of authentic learning for use in the design ofonline learning experiences. Authentic activities should: have real-world relevance, be ill-defined to require students to define tasks, comprise complex tasks to be investigated over aperiod of time, provide an opportunity to examine tasks from different perspectives, provideopportunity to collaborate, provide opportunity to reflect, be integrated across learning domains,integrate seamlessly with assessment, create valuable products, and allow a diversity ofoutcomes or solutions. 11To engage engineering students in the process of learning communications skills, it is crucial tomake
the MAI was used as a measuring tool in aresearch that examined the effects of teaching metacognitive strategies to 60 students in aphotography class. The results of the MAI exhibited an increase in the total mean score, from 65to 68 out of 100. The MAI was answered before and after assignments with instructions andpractice in reflection, planning and evaluation15.MAI has also been used at the faculty of Odontology in Malmö University in Sweden, for aproject focusing on students’ proficiency to learn in a problem-based curriculum. Students tookpart in different workshops; they watched a tutorial that was followed by discussions and workedin small groups designing cases. After the workshops the MAI-data from students taking part inthe project
home to an oilrefinery and a chocolate factory. In addition to the outreach performed by the companies, thenumber of engineers in the area is likely to provide several engineering role models, which mayhelp to attract and retain students in the STEM pipeline. The second factor is the educationalopportunities for K-12 students. The Robinson school district provides some courses forpreparing for the challenging engineering curriculum, including calculus, physics, and twochemistry courses 28. Although less than 1% of students take AP classes, Robinson High Schoolstudents may take dual credit courses offered through Lincoln Trail College located in Robinson.Other schools in rural areas may not be able to follow Robinson’s example if they lack
fundamentals and applications to real world energy problems, such ashow a chemical engineer can impact both domestic energy independence and onworldwide energy availability. In addition, students become more aware of thestewardship of energy resources.IntroductionIndustrial and academic research and development in renewable energy sources hasbeen a recent focus during the past decade. In chemical engineering, it can bechallenging to integrate current research topics into the curriculum as textbook contentoften lags behind research advances. However, modules can be used to take topics fromemerging areas and allow an instructor to add them into the curriculum rather easily.A review of the literature shows that there are other listings of modules and
research interests lie in the areas of educational scholarship, including teaching and advising effectiveness, academic integrity, process design instruction, and the integration of writing, speaking, and computing within the curriculum.Dr. Warren D. Seider, University of Pennsylvania Dr. Warren D. Seider is a professor of Chemical and Biomolecular Engineering at the University of Penn- sylvania. He received a B.S. from the Polytechnic Institute of Brooklyn and M.S. and Ph.D. degrees from the University of Michigan. For many years, he has contributed to the fields of process analysis, simula- tion, design, and control. In process design, he co-authored FLOWTRAN Simulation—An Introduction and Product, and Process Design
form of use does not expose students to the site. Even at the basic level of using offline, instructors already using peer instruction or active learning with concept questions need only make minor changes to current practices and the AIChE Concept Warehouse may save them preparation time. 2. Online refers to using the website infrastructure and features. A major benefit of this mode of use is the ability to view results from assignments, which are presented aggregated, tabulated, and archived for later use and are available for download in Microsoft Excel format. If an instructor wants to use more of the features available online, instead of downloading questions they can integrate the use of