2006-1330: A COMPREHENSIVE MODEL FOR INTEGRATINGENTREPRENEURSHIP EDUCATION AND CAPSTONE PROJECTS WHILEEXCEEDING ABET REQUIREMENTSJohn Ochs, Lehigh University John B Ochs is Professor of Mechanical Engineering at Lehigh and Director of the Integrated Product Development Program (IPD), which he co-founded with Dr. Watkins in 1994. He is the past chairman the Entrepreneurship division of the American Society for Engineering Education. From 1985-95 Dr. Ochs did extensive industry consulting and was involved in the start up of three companies. In 1996 the pilot courses IPD won the American Society of Mechanical Engineers’ curriculum innovation award and in 1997 IPD won the Newcomen Society award for
Mechanical Engineering 5 david.akopian@utsa.edu, Department of Electrical and Computer EngineeringAbstractEducational robotics provides many opportunities to enhance science, technology, engineering,and mathematics (STEM) education for students and teachers by using engineering and computerprogramming techniques integrated into the curriculum. In addition to in-class activities, thereare many programs targeting use of educational robotics in after-school activities. In this paper,we present our experience at the Interactive Technology Experience Center (iTEC) in design,development, and implementation of robotics activities for K-12 students and teachers. iTEC isa K-12 STEM center at the University of Texas at San
theyaffirm models of engineering/technology that embrace the philosophical and social(economic) factors underpinning design and manufacture as well as the organisationalstructure that brings about manufacture and production. In recent years they have sometimesbeen illustrated by a stool (exhibit 1) [3].This paper is grounded in the view that the process of innovation and its product(s) can onlybe understood from this broad perspective which is supported by the case studies referenced.In particular they show the importance of the human factor not only in the organisationresponsible for an innovation, but in its use. While there is nothing particularly new in thesepropositions those responsible for engineering education have consistently undervalued
degreecompletion curriculum designed for students who have been awarded a qualified Associate inApplied Science (AAS) degree in Industrial Technology or closely related field. The coursescompleted in the qualified technical AAS degree provide the foundation and half of the Page 14.519.3 2courses required in the major for the Industrial Technology degree. This BS degree programhas the flexibility to allow students to tailor a curriculum to their specific career goals. Concentrations Bioprocess Manufacturing Industrial Supervision Information & Computer Technology Industrial
integration alongfunctional areas of engineering, marketing, sales, finance, manufacturing, purchasing, etc.IntroductionProspective engineering students and their parents visit colleges and universities trying todetermine the best place for the student to attend and how to prepare that student for a career. Itis common to hear questions such as: Will my child receive a good education here? What is thejob market like? Will there be jobs available when they graduate? How will engineering careersbe impacted by international outsourcing?As students graduate they often add additional questions: Will I enjoy my job? Will I do well inmy job? What kind of career progression should I expect? Will I always be an engineer orshould I consider moving into
University. Dr. Talley teaches courses in the Construction Science and Management Program, and her research focus is in student en- gagement and retention in engineering and engineering technology education. Contact: kgt5@txstate.eduDr. Araceli Martinez Ortiz, Texas State University, San Marcos Araceli Martinez Ortiz, PhD., is Research Associate Professor of Engineering Education in the College of Education at Texas State University. She leads a comprehensive research agenda related to issues of curriculum and instruction in engineering education, motivation and preparation of under served pop- ulations of students and teachers and in assessing the impact of operationalizing culturally responsive teaching in the STEM
, construction, contractadministration, inspecting, safety, etc., will not change. But, profound changes will occur in thenature of the work done within the context of each of the above undertakings, paralleling thechanging nature of construction work, construction technologies, the nature of the labor force,impact on the environment, advances in computer technologies, monetary size of theconstruction undertakings, and security issues. This paper focuses on detailing what changes areto be expected in the nature and technologies of future construction work and what theappropriate response will need to be in design of construction education curriculum, coursework,and lab undertakings to ensure proper preparation of graduates for the construction works of
Exposition.19. Aidoo, J., Sexton, S., Hanson, J., Sutterer, K., and Houghtalen, R. 2008. International design project experiences: assessing the short-term impact on students. Proceedings of ASEE 2008 Annual Conference and Exposition.20. Doerry, E., Bero, B., and Doerry, K. 2003. The Global Engineering College: exploring a new model for engineering education in a global economy. Proceedings of 2003 ASEE Annual Conference and Exposition.21. Esparragoza, I. and Petrie, M. 2008. Global engineering education in the Americas: challenges and opportunities. Proceedings of ASEE 2008 Annual Conference and Exposition.22. Jayaraman, P., Lohani, V., Bradley, G., Griffin, O., and Dooley, J. 2008. Enhancement of an engineering curriculum
. Page 25.67.1 c American Society for Engineering Education, 2012 A Mobile Laboratory as a Venue for Education and Outreach Emphasizing Sustainable TransportationAbstractEducators at Michigan Tech have developed a versatile mobile laboratory that will travel theNorth American continent serving as a venue for a wide range of educational opportunitiesincluding support of curriculum based courses, targeted short courses, community education andoutreach. The lab was built as part of a US Department of Energy funded program to develop aninterdisciplinary curriculum in Hybrid Electric Vehicle Engineering that includes certificates atboth the undergraduate and graduate levels.The authors have
M’s Collegiate Midnight Golf Program. I also enjoy playing soccer and hanging out with family and friends.Dr. Joi-lynn Mondisa, University of Michigan Joi Mondisa, PhD, is an Assistant Professor in the Industrial & Operations Engineering Department and an Engineering Education Faculty Member at the University of Michigan. She earned her Ph.D. in En- gineering Education and an M.S. degree in Industrial Engineering from Purdue University; an M.B.A. degree from Governors State University; and a B.S. degree in General Engineering from the University of Illinois at Urbana-Champaign. Prior to her graduate studies, she worked as a professional in the areas of manufacturing, operations, technical sales, and publishing
learning attracted a broad range of students and a conscious decision was madeto structure the organization such that a multidisciplinary approach was nurtured andencouraged. The faculty quickly recognized the value in this unique approach to engineeringeducation and integrated this pedagogical evolution into the curriculum as an alternative Page 11.818.2component of the senior design project. Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright © 2006, American Society for Engineering Education Students from several departments in the School of
AC 2012-4972: GLOBAL TECHNOLOGY INITIATIVE AT SAN JOSE STATEUNIVERSITY: RESULTS OF SEVEN YEARS OF AN INTERNATIONALEXPERIENCE FOR STUDENTSDr. Belle W. Y. Wei, San Jos State University Since her 2002 appointment as Don Beall Dean of SJSU’s Charles W. Davidson College of Engineering, Belle Wei has led a college dedicated to educating engineers who can take on today’s problems and produce tomorrow’s solutions. Under Wei’s leadership, the college has launched programs to enhance students’ global awareness and enrich their professional networks. A signature program is the College’s Global Technology Initiative (GTI), a two-week study-tour to Asia. Since its inception, GTI has sent student-teams to China, Taiwan, or India
Paper ID #45733Flipped Classroom and Collaborative Learning in Tool Design Education forMechanical Engineering TechnologyDr. Zhou Zhang, SUNY Farmingdale State College I am an Assistant Professor at SUNY Farmingdale State College. My teaching and research interests include robotics and virtual reality in engineering education. I have a Ph.D. and a bachelor’s degree in Mechanical Engineering, and my master’s degree is in Electrical Engineering. I have over seven years of industrial experience as an electrical and mechanical engineer. I also have extensive teaching and research experience with respect to various
45.5 52.4 28.6 Guided Inquires & POGIL Textbook I Materials Science 100 40.0 54.5 63.6 Guided Inquires & POGIL Textbook II Instrumentation & 41.6 50.0 77.8 62.5 Guided Inquiries, Design Your Own Lab Statistics Fluid Dynamics 75.0 25.0 71.4 62.5 Guided Inquiries, Traditional Textbook Thermodynamics 50.0 16.7 54.3 57.1 Guided Inquiries, Traditional Textbook Manufacturing & N/A N/A 95.9 75.0 Wiki Page, Plant Tours, Traditional Design
real- world problem solving within undergraduate curricula. His research interests lie in advanced manufacturing methods. © American Society for Engineering Education, 2022 Powered by www.slayte.com Co-Designing Design Activities with Undergraduate Students1 IntroductionThe literature on expertise and expert performance describes the process of “deliberate practice”as an important mechanism for learning complex cognitive skills [1]. Deliberate practice isdescribed as being an effortful process where individual skills are isolated and practiced withexpert feedback to correct errors in performance. In the realm of engineering, design is one ofthe most
showed clearimprovement in their written and verbal communications skills, based on comparison withstudents in other classes taught conventionally. Third, classroom and laboratory presentationswere integrated, based on both our own evaluation and student feedback.VI. Future PlansBased on our experience with this course, we will teach it again at least once a year in the future.We hope to make it a permanent part of the Manufacturing Engineering Technology andMechanical Engineering Technology curriculum, but we are still negotiating with other facultymembers over how to implement the change.Our institution is currently exploring a major restructuring of general education requirements. Wealso hope that courses similar to ours will be integrated
Engineering & Computing at Grand Valley State University. Page 22.555.1 c American Society for Engineering Education, 2011 Embedding Lifelong Learning Skills into a First-Year Engineering Course through Introduction of an Independent Research Project and Information Literacy Skills1. IntroductionThe ABET, Inc. (ABET) criteria for accrediting engineering programs requires that a programhave documented evidence that engineering graduates demonstrate a recognition of the need for,and the ability to engage in lifelong learning, identified as program outcome „i‟.[1] As
meet criteria outlined by the code body.Standards must be developed through a consensus process and be written in mandatory languageto insure that the application and intent of a standard is clear. The resulting referenced standardsare considered part of the requirements of the code. Page 15.1087.4Best Practices for Integration of Standards Education in CurriculaABET, Inc., formerly known as The Accreditation Board for Engineering and Technology, setsengineering accreditation requirements for the incorporation of standards in engineeringcurricula: “Students must be prepared for engineering practice through a curriculum culminatingin a major
thespecification of this product? Perhaps we should focus on the initial delivery, which for most Page 9.198.1graduates is to an entry-level engineering position and for a smaller number, it is to graduate Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationschool. Indeed, the requirements of employers and graduates schools should significantlyinfluence our curriculum and pedagogy. However, our product must last much longer! Anundergraduate engineering education must prepare the student for her entire career, which
standards and realistic constraints that include most of the following considerations: economic; environmental; sustainability; manufacturability; ethical; health and safety; social; and political. The professional component must include (a) one year of a combination of college level mathematics and basic sciences (some with experimental experience) appropriate to the discipline (b) one and one-half years of engineering topics, to include engineering sciences and engineering design appropriate to the student’s field of study (c) a general education component that complements the technical content of the curriculum and is consistent with the program and institution objectives
how people learn,and strategies for integrating STEM throughout the curriculum. In addition, the participantsreceived STEM curriculum in materials science and a resource kit composed of STEMmaterials and equipment, valued at about $300, to support the implementation of curriculumand content learned at the institute with their students.The i-STEM summer institute participants were pre/post tested on their comfort with STEM,perceptions of STEM education, pedagogical discontentment, implementations of inquiry, Page 22.1019.2attitudes toward student learning of STEM, and content knowledge associated with the specificcourse they took during the
Management Education Among Engineering Students Changwon Son1, Mihwa Park2, and Wesley Wehde3 1 Department of Industrial, Manufacturing, & Systems Engineering, Texas Tech University, Lubbock, TX 2 Department of Curriculum and Instruction, Texas Tech University, Lubbock, TX 3 Department of Political Science, Texas Tech University, Lubbock, TXAbstractThe risks of emergencies, disasters, and crises are continuously increasing and makingdetrimental impacts on communities, especially engineering companies. Thus, engineers areexpected to possess necessary skills and knowledge for emergency, disaster, and crisismanagement (EDCM). However, educational efforts for engineering students, many of whombecome engineers, have
Session Interdisciplinary ECE and ME Education in the Electro-Thermal Performance of CMOS SOC Devices Z. Joan Delalic, Jim J-S Chen, Richard Cohen, Dennis Silage Electrical and Computer Engineering and Mechanical Engineering College of Engineering, Temple UniversityECE and ME: Together AgainThis interdisciplinary educational initiative presents curriculum and research, which is leading toa change in the traditional presentational of microelectronics, digital logic design, and heattransfer in engineering education. In the traditional and prevalent model
.[27] "ABET accreditation," Abet.org, 2019.[28] P. Wankat and K. Haghighi, "Multidisciplinary Engineering– Flexibility and ABET Accreditation," ASEE Annual Conference, pp. 1761-1770, 2009.[29] "Building America’s Skilled Technical Workforce," National Academies of Sciences, Engineering, and Medicine (NASEM), Washington, D.C.: The National Academies Press, 2017.[30] I. Verner, D. Cuperman, T. Romm, M. Reitman, S. K. Chong and Z. Gong, "Intelligent Robotics in High School: An Educational Paradigm for the Industry 4.0 Era," The Challenges of the Digital Transformation in Education,, vol. 916, pp. 824-832, 2019.[31] P. Maloney, W. Cong, M. Zhang and B. Li, "The Broader Impacts of an Additive Manufacturing Course at Three
Wisconsin.Kevin CooperBenjamin Reid Ben Reid is the founder and executive director of Impact Allies, which advances STEM education and careers through research, development, management, and evaluation. Federal-grant supported projects that Ben has been involved with through Impact Allies and colleges/universities over the past ten years include the categories of energy, electric vehicles, water, food, manufacturing, cybersecurity, control and data systems, land management, student/career pathways, scholarship programs, and grant ecosystems.Christopher Baechle Dr. Baechle holds a Ph.D. in computer science and has published over a dozen journal, book, and conference articles in the field of data mining and machine learning. Dr
include engineering innovation, entrepreneurial engineering, Digital transformation, lean manufacturing, engineering economy, renewable energy, clean air engineering, simulation and optimization methodology, reliability engineering, and application of operations research. Dr.Omar has several Journal publications and articles in conference proceedings. His professional affiliations include ASEE, IEEE, IISE, Alpha Pi Mu, ORSA, and SMEAli Alhawiti, Western Michigan University ©American Society for Engineering Education, 2024 Integrating Innovation: A Transdisciplinary Approach to Engineering Education with AI and Lean Six SigmaOmar H AlbalawiIndustrial Engineering
Experiments and Blended Learning in Engineering Education: A Framework for AssessmentAbstractThis paper presents a comprehensive framework for refining desk-scale experiments andimplementing an impactful blended learning curriculum within the realm of chemical engineeringeducation. The primary focus is on evaluating the influence of these enhancements on studentlearning outcomes and the overall success of educational transformation initiatives. The studyaddresses two central research questions. The first question centers on improving the studentunderstanding of topics related to graphical flow characterization by using a desk-scaleexperimental module. We consider critical factors such as ease of installation, safe to operate, andability to
mainland China.IntroductionAs a major city and financial center in Greater China and Asia Pacific, Hong Kong (HK) bordersindustrializing and post-industrial cultures. The economy is at a time of increased need fortechnically- and university-trained engineers. HK has a history of innovatory engineering skillsextending from traditional manufacturing and construction to a large service and financialindustry. However, it does not help to overcome reducing take-up of engineering-orientedcourses at secondary school and university that characterize post-industrial cultures. Similar tothe situation in North America, contextually, studies of higher education in HK show a decline intake-up of engineering by local students. This decline in engineering study
AC 2011-2094: INTEGRATION OF HYDROGEN FUEL CELL TECHNOL-OGY TO UNDERGRADUATE EDUCATION IN EET PROGRAMSAbed El Hameed El Madwar, University of Northern Iowa Hameed Madwar is currently a doctorate student in the Industrial Technology Program at the University of Northern Iowa expecting to graduate on May 2011. He has a B.S in Electrical and Computer Engi- neering and a Master degree in Industrial Management. His research interests are in the area of industrial Wireless Sensor Networks (WSN) and Virtual Manufacturing applications. He has more than three years of industrial experience in Manufacturing Technology and four years as a teaching assistant in the areas of Circuits Designs, Renewable Energy, Electrical Power
and setting up a new undergraduate research lab.BACKGROUNDState University of New York at Oswego is developing a new undergraduate program inelectrical and computer engineering (ECE) to better serve its communities and to meet theworkforce needs of the area. The development of a new program presents an opportunity tocreate a modern and innovative curriculum that challenges several aspects of traditionalengineering education and responds to the needs of the knowledge-based society we live in. Anew faculty member was hired (Fall 2008), temporarily based in the Physics department.Although more money will be available for equipment and laboratory at the actual start of theECE program (a few years later), there was little startup money ($12,000