, ourapproach uses small reflective exercises distributed throughout the coop/internship period thatfocus on a set of professional competencies. Students complete Kolb’s cycle using the keyprocess steps of project management as a laboratory of generalization and experimentation withprofessional skills. It was concluded that students accelerated their professional developmentwith periodic reflection and experimentation along with timely assessment and feedback fromthe instructor.IntroductionAn online course was designed to promote professional development for chemical engineeringstudents during cooperative education and internships with industry. The mutual benefits ofindustrial cooperative education and internships for both engineering students and
chemical engineering programand completed their junior level courses in Transport Phenomena I (Fluids) and II (Heat and MassTransfer). As part of their Transport Phenomena II class, the students were given their originalfreshman engineering design reports and were required to provide an analysis of their design. Theanalysis assignment was two-fold: the students were required to submit a group report re-analyzingthe technical merits of their heart-lung design project and the students were required to submit anindividual reflection paper. The group report analysis included: significance of design criteria,engineering design process and theoretical analysis of data collected. The idea behind the reflectionassignment was to help the students clarify
AC 2009-2123: UNDERGRADUATE VALIDATION OF CUTTING-EDGECALORIMETRY OF AN INDUSTRIAL AFFILIATE’S NOVEL ENERGY SOURCEPeter Mark Jansson, Rowan UniversityUlrich Schwabe, Rowan UniversityNathaniel Downes, Rowan UniversityPatrick Hoffman, Rowan UniversityMatthew Abdallah, Rowan University Page 14.1291.1© American Society for Engineering Education, 2009 Undergraduate Validation of Calorimetry of an Industrial Affiliate’s Novel Energy SourceAbstractA major component of the Rowan University (RU) engineering program is the clinic course,which gives students the opportunity to work with industrial partners on real projects, while stillmaintaining a classroom environment. The
laboratory, training the students about process safety in aninherently low-risk environment. The approach is based on more than ten years of industrialprocess hazards analysis experience, which includes assessing for process-related hazards andreducing process-related risks. Before the students began the experimental phase of theirlaboratory project, they documented that they understood the potential hazardous events relatedto their project. The students completed a series of Project Risk Analysis (PRA) check sheetswhich listed both the hazards addressed in the OSHA Process Safety Management standard (i.e.,fire, explosion, and toxic release) as well as other area and personnel safety-related hazards (e.g.,noise, utilities, etc.). Then the students
AC 2007-1423: ACTIVE PROBLEM-SOLVING IN A GRADUATE COURSE ONMODELING AND NUMERICAL METHODSKaren High, Oklahoma State University KAREN HIGH earned her B.S. from the University of Michigan in 1985 and her M.S. in 1988 and Ph.D. in 1991 from the Pennsylvania State University. Dr. High is an Associate Professor in the School of Chemical Engineering at Oklahoma State University where she has been since 1991. Her main research interests are Sustainable Process Design, Industrial Catalysis, and Multicriteria Decision Making. Other scholarly activities include enhancing creativity in engineering practice and teaching science to education professionals. Dr. High is a trainer for Project Lead the Way
University of Applied Sciences in Groningen, where he taught both in Dutch and in English. During this time his primary teaching and course develop- ment responsibilities were wide-ranging, but included running the Unit Operations laboratory, introducing Aspen Plus software to the curriculum, and developing a course for a new M.S. program on Renewable Energy (EUREC). In conjunction with his teaching appointment, he supervised dozens of internships (a part of the curriculum at the Hanze), and a number of undergraduate research projects with the Energy Knowledge Center (EKC) as well as a master’s thesis. In 2016, Dr. Barankin returned to the US to teach at the Colorado School of Mines. His primary teaching and course
Paper ID #23158Supporting Diversity in Teams Through Asset MappingDr. Jamie Gomez R, University of New Mexico Jamie Gomez, Ph.D., is a Lecturer Title III in the department of Chemical & Biological Engineering (CBE) at the University of New Mexico. She is a co- Principal Investigator for the National Science Foundation (NSF) funded Professional Formation of Engineers: Research Initiation in Engineering For- mation (PFE: RIEF) for the project- Using Digital Badging and Design Challenge Modules to Develop Professional Identity. She is a member of the department’s ABET and Undergraduate Curriculum Com- mittee, as
Engineering laboratory. Themodule includes topics of colloids, complex fluids and biotechnology, while also giving moreemphasis to molecular interactions. The final objective of the long-term project is the extractionof lysozyme from egg white using Aqueous Bi-Phasic Systems. The project is divided betweenengineering teams in three phases: bench-scale experiments, the unit operation and the finalextraction and scale-up calculations. Our focus is to implement a module that mimics thecontinuity of real engineering projects through the use of a sequence of sub-projects that areassigned to different groups in the class. The design of the long-term project forces students todeal with the various degrees of uncertainty that are associated with realistic
Engineering and Informatics. Between 2004 and 2013 he was one of the 19 German Bologna experts. He received the ars legendi award 2013 of the Stifterverband and the German Rectors Conference. c American Society for Engineering Education, 2017 Nontraditional, interdisciplinary immersive approach to Chemical Engineering design: A case study assessment and analysisAbstractIn our increasingly globalized world and project based, interdisciplinary industrial teams, there isa need for concurrent teaching and learning of design skills and professional skills, e.g., teamwork,global competence (awareness), etc. This paper describes, assesses, and analyzes a non-traditional,immersive approach to teaching a
field of expertise.The class is divided into four main sections: 1) drug distribution and delivery in the body anddrug interactions with the body: challenges and specific aspects of biotherapeutics; 2) drugdelivery systems and nanocarriers; 3) targeted and smart DDS; cellular delivery; and 4)translational aspects of DDS. The main project for the class is a group assignment for a proposalon a new drug delivery system. The students read current journal articles on drug deliverysystems and discuss their ideas with classmates and faculty. The groups submit several versionsof their proposal, and the second draft is read by several groups in a peer review process similarto an NIH or NSF grant review process. The peer review process is very beneficial
Process Design IIand Design III course sequence at our minority-serving institution (MSI), Texas A&MUniversity-Kingsville (TAMUK). In this two-semester course sequence, students are introducedto sustainability concepts during instruction in chemical process formulation and processsimulation (Design II). Subsequently, students are further instructed on this topic during theirsemester-long senior design project (Design III) course. For the senior design experience,students are required to form into groups of four and complete a senior design project thatinvolves process simulation, using Aspen Plus software, and cost estimation of a chosenchemical process. The author has been the primary course instructor for this two-coursesequence for only
are reported to be valuable in their daily life, emphasizing life-longlearning.1. IntroductionChemical engineering curriculum ensures students focus on learning the technical details of theprofession. However, problems in industry always involve much more than just finding technicalsolutions.1 Professional careers require skills such as proposing ideas, developing practicalsolutions, working in teams, meeting deadlines, establishing communication between technicalsupport and suppliers, overseeing financial issues and finally reporting and presentation skills.Very few chemical engineering programs incorporate project management courses that meetrequirements of professional life. Therefore, alterations and additions into the existingcurriculum
AC 2011-2506: GIZMO FESTIVAL: K-8 OUTREACH AS A DESIGN/BUILDFOR ENGINEERING STUDENTSMargot A Vigeant, Bucknell University Margot is an associate professor of chemical engineering and associate dean of engineering at Bucknell University.Lori Smolleck, Bucknell University Page 22.746.1 c American Society for Engineering Education, 2011 Gizmo Festival: K-8 Outreach as a Design/ Build for Engineering StudentsAbstractThe Gizmo Project is completed by first-year engineering students as the final exercise intheir introductory course: ENGR 100 – Exploring Engineering. The project also servesas a
Coppens’s experience in transforming the capstone Chemical ProcessDesign course at his former US university, and a project-based course on fractals in chemicalengineering taught in the USA and the Netherlands. Working together, this new elective courseprovided students with an introduction to the emerging research area of Nature InspiredChemical Engineering, leveraged new technologies to help improve the learning process, andprepared them for applications in the future workplace.Centre for Nature-Inspired EngineeringThe overarching vision of the Centre for Nature-Inspired Engineering is to use nature as aguiding platform to seek potentially transformative solutions to engineering grand challenges,such as sustainable energy, clean water, and
methods of attaining compliance with this criteria. This work shows 2 differentmethods of complying with the criteria within large public universities with undergraduatestudent populations in excess of 700 each. One method places emphasis on integrating safetythroughout the entire core curriculum within mini design projects mainly through student self-learning. The topics are then reinforced within the capstone courses during senior year. Thesecond method places emphasis on distributing safety topics among the unit operations andsenior design courses supplemented by an elective course in Chemical Process Safety. Repeatedemphasis of safety alongside technical content results in a relatively strong connection to thecontext of chemical process
methodologies that willbenefit them as they encounter open-ended problems that can be conveniently answered using afew equations. A course developed at the University of Michigan exposed upperclassmenundergraduates in a wide range of engineering majors to a vast array of ideas to develop theircreativity, to enhance their problem solving abilities and to make them aware of issues they willmost likely confront in the workplace. The use of real-world examples, guest lectures fromindustry and a course project allowed students to directly apply the problem solving heuristicdiscussed in lecture and recognize that these concepts are not solely academic and can be used intheir daily lives. Initial feedback from the students has indicated that the students have
Paper ID #9271Integrating Freshmen into Exploring the Multi-faceted World of Engineeringand Sustainability through Biofuels Synthesis from Waste Cooking OilMs. Laura-Ann Shaa Ling Chin, Villanova University A Malaysian native, Laura-Ann Chin attended the University of Arizona where she completed her B.Sc. in Chemical Engineering. Throughout her undergraduate career, Laura has worked with numerous cut- ting edge projects including studying endocrine disrupting compounds in wastewater, researching genetic stability of E.Coli in a novel COSBIOS reactor (RWTH, Aachen Germany) and designing an automated zebrafish tracking
at Michigan Technological UniversityAbstractIn this paper we describe curriculum development in hydrogen and fuel cells at MichiganTechnological University. The cornerstone of the curriculum is the Alternative FuelsGroup Enterprise, in which students can enroll in project-based courses as electives ortowards the Enterprise Minor. In addition, we are developing additional materials toenhance the educational experience for chemical, mechanical, and electrical engineeringstudents. Features of this curriculum include: ≠ Development of courses specifically related to hydrogen technology for undergraduate and graduate students o Hydrogen as an Energy Carrier: This is an introductory course that overviews
sus- tainability assessment of renewable and non-renewable energy resources with emphasis on analysis and optimization of transportation processes in multiproduct pipeline systems. She also serves as a teaching assistant at Rowan University Chemical Engineering Department courses in Thermodynamics, Separation Processes, and Process Dynamics and Controls. She is the graduate student mentor of the junior/senior engineering clinic for the industrial project funded by the EPA (Environmental Protection Agency) and the ExxonMobil Lubricant Oil Blending Facility Paulsboro NJ. Swapna is an active member of the American Institute of Chemical Engineers (AIChE) as well as a member of the American Chemical Society (ACS
awarded the 2001 William Corcoran Award from Chemical Engineering Education. He served as 2004 chair of the ASEE ChE Division, has served as an ABET program evaluator and on the AIChE/ABET Education & Accreditation Committee. He has also served as Assessment Coordinator in WPI’s Interdis- ciplinary and Global Studies Division and as Director of WPI’s Washington DC Project Center. He was secretary/treasurer of the new Education Division of AIChE. In 2009 he was awarded the rank of Fellow in the ASEE, and in 2013 was awarded the rank of Fellow in AIChE.Dr. Kristin Boudreau, Worcester Polytechnic Institute Kristin Boudreau is Paris Fletcher Distinguished Professor of Humanities at Worcester Polytechnic In- stitute
, graphic, and audio-visual manner to an expert audience for its evaluation.According to the Cognitive Flexibility Theory4, 5, multiple representations of knowledge promotethe transfer of abstract knowledge to different contexts while cognitive flexibility is one of thefour base elements of creativity6. For the design of the learning environments of the module, wefollowed Jonassen7. Final projects were presented to experts in the field that assessed studentcreative thinking by means of a rubric adapted from the Investment Theory of Creativitydeveloped by Sternberg and Lubart6, 8, 9, which provided a multidimensional assessment ofcreativity. Additionally a Fluency Rubric was developed, which was divided into four modulesthat correspond to each
, Colombia). He received a BS in Chemical Engineering from Uni- versidad America (Bogot´a, Colombia), a M.Sc. from Universidad de los Andes (Bogot´a, Colombia) and a Ph.D. from Institut National Polytechnique de Lorraine, (Nancy, France). Currently, he lectures on thermodynamic and mid-program project. His research interests include design of colloid systems for application in cosmetic, food, personal care and oil & gas topics. He is member of the American Institute of Chemical Engineers.Prof. Jorge Mario Gomez, Universidad de los Andes. Bogot´a - Colombia Jorge Mario Gomez is a Associate Professor and former head of the Chemical Engineering Department at the Universidad de los Andes in Bogot´a - Colombia. He received
evaluation of work product. Numerous authorshave outlined the assessment strategy of constructing rubrics for measuring studentachievement of learning outcomes and applying them to portfolios of student work.Other authors have outlined use of rubrics for evaluation and grading of individualassignments and projects. This paper will describe the use of a consolidated rubric forevaluating final reports in the capstone Chemical Plant Design course. Instead of gradingeach report and then having some or all of the reports evaluated through a separateprocess for programmatic assessment purposes, the instructor evaluates the report onceusing the rubric, and the same raw data is used both for grading and for programmaticassessment.BackgroundSince 2000, ABET1
2006-1119: DESIGNING A PROCESS FOR DEPARTMENT CURRICULARREFORMJefferey Froyd, Texas A&M University Jeff Froyd is a Research Professor in the Center for Teaching Excellence and Director of Academic Development at Texas A&M University. He was Project Director for the Foundation Coalition, one of the NSF Engineering Education Coalitions and now serves as Project Director for “Changing Faculty through Learning Communities,” a project sponsored by the NSF Research on Gender in Science and Engineering Program.Jean Layne, Texas A&M University Jean Layne works as a Program Coordinator and Instructional Consultant in the Center for Teaching Excellence and the Division of
, studentsare required to satisfy requirements in four areas, which are: Participation in multiple semesters of the Alternative Fuels Group Enterprise, where students work on hands-on integration, design, and/or research projects in hydrogen and fuel cells Taking a fuel cell course Taking a lecture or laboratory course on hydrogen energy Taking discipline-specific elective coursesIn addition to describing the minor, the paper will also describe the content of the AlternativeFuels Group Enterprise as well as the fuel cell and hydrogen energy courses.IntroductionThe search for alternative energy sources is an area that has received great attention in the lastfew years, beginning with the January 2003 State of the
application of thetheory learned in multiple lecture-based chemical engineering courses. These labs buildpractical knowledge of equipment and design, encourage good engineering practices such astraceability and reproducibility of data, and help develop skills such as interpersonal andtechnical communication skills.Our senior UO laboratory is comprised of interconnected experiments in a “pilot-plant” scale aswell as interconnected rotational objectives for the experiments. As a result, dissemination ofinformation amongst current project group members, amongst group members of the nextrotation, and amongst lab personnel is extremely important. In previous years, students havebeen asked to use pen-and-paper lab notebooks and/or binders to record their
analysis time, muchlower sample and reagent consumption (in the nanoliter range or less), and enhanced systemperformance and functionality by integrating different components onto microfluidic devices1-2.These applications are usually called micro total analysis systems (!TAS) or lab on a chip (LOC)3-4 . Since its debut in the 90s5-7, microfluidics technology has made significant progress andgradually moved from pure research projects to commercialized products, such as AgilentTechnologies’ 2100 Bioanalyzer for biomolecule analysis8, Caliper Life Sciences’ LabChipsystems for biomolecule analysis and drug discovery9, and Fluidigm Corporation’s BioMarksystem for real-time PCR10.We notice that from the microfluidics technology industry (especially
of the school of engineering at Nazarbayev University. 36 studentsparticipated in this elective in a semester that was otherwise uniform for all second yearengineering students. The course was then offered as an elective for first year students in theirsecond semester starting in the 2012-13 academic year. 100 students enrolled in the course in itssecond offering. The aim of this course is to act as an introduction to engineering ethics whilealso exploring the societal impact of engineering projects and developing written and verbalcommunications skills. At the successful completion of this course, students are expected to beable to: evaluate and explain the position and responsibilities of the engineer in relation to industry
pedagogical changes in a fluid mechanics and heat transfer course. It has been difficult tofind statistically meaningful results because of small sizes of the classes, a once per year course offering,and in maintaining experimental controls at partner institutions with variant implementations. Alongwith our problems, there is a poor history regarding random control testing in educational research.This has convinced us to move toward a different class model centered around a project-basedapproach with design discussions reviewed for critical reasoning by students and faculty within theexperimental site institution and industrial representatives outside the institution. We are also shiftingaway from traditional quantitative definitions of experimental
is appreciated by many that these skills can and should be taught if we are reallygoing to be able to develop the next generation of innovators. Recently, the American Societyfor Engineering Education and the National Science Foundation assembled thirty four invitedrepresentatives from industry that had an important stake in engineering education along withseven academics to discuss what modifications to the current educational system would benecessary to meet the needs of employers. Pre-workshop survey results indicated that engineerswho are graduating from colleges and universities today are lacking skills in areas of increasingimportance such as project management, decision making, leadership and communication.7Chemical Engineers and