Revitalizing Undergraduate Electric Energy Conversion Education Roy A. McCann Department of Electrical Engineering University of Arkansas–FayettevilleAbstractThe content of the core curriculum course in energy conversion for electrical engineers has beenincrementally updated over the last 50 years. However, recent advances in micro and nano-science have created many new devices and analysis methods. Consequently, there is an increas-ing gap between the classical topics covered in existing textbooks and course plans on energyconversion compared to the emerging needs for government and industry in areas such as fuelcells, artificial muscles
ourselves, or even begin to consider the concept from a new angle.4. Student D (Senior) The Truth is once a graduate I will never be in a room of 50 engineers of the same disciplineagain. In the real world, I will be at a work place working with engineers form all and anydisciplines and people of none technical backgrounds. In addition, the world’s technology isadvancing so fast that eventually all new inventions and innovations will be multi-disciplinary.To me this could mean that the engineering curriculum should change to adapt to the demands ofthe future. Multidisciplinary projects are the small steps that the engineering education is takingto adapt to that demand. Lastly, these multidisciplinary projects also have all the benefits of
Engineering Education from an Industry Perspective Chitralekha Potnis, Ajit Potnis The Learning Institute / T I AutomotiveAbstractDevelopment of a country to a large extent depends on the progress made in science andtechnology. It has been widely accepted that industrialization is one of the major tools whichshapes national destiny. The qualitative and quantitative improvement in the industrial status of anation is strongly based on the quality of engineering education.Technical education must be suited to the development in economy, science and technology, andculture of the country and it plays a vital role in promoting their development. Due todevelopment of higher
robotics certificate will help withrecruitment efforts3. In addition, faculty and students enrolled in the certificate program willparticipate in K-12 outreach such as mentoring middle school and high school robotics programs.Students in the program will also demonstrate their robotics projects to tour groups, increasingvisibility and attracting students to our institution. In fact, the final project robotics competitionfor one of the early courses in the robotics curriculum has already been featured on the campusweb site and in the local newspaper. Additionally, faculty with an expertise in robotics will beattracted to a school with a visible, established robotics education program and research.Multidisciplinary TeamworkRobots are mechanical
was to learn physics principles behind electric propulsion, todevelop computational modeling skills, and to apply the theoretical physics from this study(supplemented by material from the standard engineering curriculum) to real thruster designdecisions; we did not originally plan to actually build such a thruster. As the project progressed,however, we developed skills in many fields beyond those we initially set out for, including CADmodeling, design for manufacturing, fabrication techniques, and interaction with externalmanufacturing facilities. We also gained experience with performing a literature search, as, out ofnecessity, we sought out and compiled sources of information on electric propulsion, and weeventually interfaced directly
© 2001, American Society for Engineering Education” Session 1526productive; they should be able to apply the tools and problem-solving skills theyacquired in their degree programs to solve complex, multidisciplinary problems.Change can range from adjustments to how courses are configured and delivered, to morefundamental changes in the engineering curriculum. We have used the macroelectronicsapproach primarily as a tool for re-engineering traditional courses. Project-basedcomponents have been introduced with a goal of enhancing students’ teamwork skills.Cooperative learning is not a new concept, but it is an effective teaching strategy. Forexample, Johnson, et al
structures, K-12 education, earthquake hazard mitigation and many more. This program isexpected to serve as a national model for integrating structural dynamics into the undergraduatecivil engineering curriculum. The UCIST program is described in detail in Ref. 2.6. SummaryAn educational program has been developed at Washington University in St. Louis to familiarizeundergraduates with concepts in structural dynamics and with new approaches in structural con-trol. The students gain an understanding of structural dynamics and control through “hands-on”experiments. The experiments are designed to be performed using a bench-scale shake table. Thisequipment allows one to simulate an earthquake and study dynamic behavior of structures. Addi-tionally
approach to workforce developmentstrategies and education in general.A broader issue - Implications of globalization for education in generalAlan Blinder19 in his article entitled Offshoring:The next industrial revolution in Foreign Affairs Page 12.787.7magazine says that the world is experiencing the third industrial revolution. According Blinder 7the first industrial revolution shifted the focus of business from agriculture to manufacturing. Thesecond industrial revolution moved the focus from manufacturing to
Manufacturing Engineers' "Four Pillars of Manufacturing Knowledge" [7], [8].Difficult Curriculum DecisionsThe biggest challenge in developing the curriculum was reaching consensus on which set ofcourses to include in the program such that university general education requirements were met,all SLOs were satisfied, and yet the number of credit hours did not exceed the maximum allowedby the state Board of Regents. As one faculty person expressed it, "I feel like a kid in a candystore. I want them all. But all of them, plus the computer courses, is too many."The multi-disciplinary Engineering Technology faculty team mapped key courses to the SLOs inorder to insure appropriate coverage and to inform prioritization during the difficult process
, the peer-mentoring organization and delivery, and the social gathering of the BEES scholars and their faculty mentors (both in-person and virtual). © American Society for Engineering Education, 2022 Powered by www.slayte.comChallenges and Benefits of Industrial Sponsored Engineering Senior Projects in the Time of COVIDIntroductionThe capstone project experience is a major component of the senior year of all engineeringprograms. The ability to conduct this during the time of COVID presents unique challenges thatdiffered significantly from those encountered in other courses in the curriculum. Theseundoubtedly vary depending on the strategies
design and conduct experiments to validate the performance of their design.6- The project aims to improve the students’ written and oral communication skills.The educational goals of the project correlate closely with most of the ABET student outcomes(a-k), which are widely accepted in engineering education community. These outcomes haveintroduced and mandated by ABET for engineering programs to ensure the quality ofengineering graduates. Projects similar to this project would help engineering educators to covermany student outcomes in senior design classes, which improve the quality of engineeringeducation. Two senior level students worked on this project over the course of two semestersunder senior design project I and II classes. The
/ tools for the different audiences. Some of the tools used are presented inthe next section.Table 1. Sample from the Curriculum Development Matrix Question 1: Was a new interdisciplinary, practice-based curriculum, which emphasizes the interdependency of manufacturing and design, in a business environment developed? Subquestions Data Respondents: Schedule Collection students (S), Approach faculty (F) industry (I
Material Assessment Form Page 3.501.7Some Assessment Tools for Evaluating Curricular Innovations Outcomes 7ASEE ConferenceJune 1998Manufacturing Engineering Education PartnershipMEEPINDUSTRY SURVEYThe Learning Factory is a new practice based curriculum and physical facilities for product realization that hasbeen developed at three institutions: Penn State, the University of Washington, the University of Puerto Rico atMayagüez in collaboration with Sandia National Labs. Its goal is to provide an improved educational experiencethat emphasizes the interdependency of manufacturing and design in a business environment. The key element inthis approach is active learning - the
degrees,devotes only 12% of its curriculum to the humanities and social sciences.The question of percentage can also be approached from the perspective of hours allowed byEAC-ABET. A common perception is that accreditation severely limits the choices that schoolsallow its students. In the past EAC-ABET required a minimum of 12.5% of a program’scurriculum to be devoted to general education. In the current EAC-ABET self-studyquestionnaire,48 Table I-1 (Basic-Level Curriculum) indicates that a minimum of 32 hours shouldbe devoted to math and basic sciences, while a minimum of 48 hours should be devoted toengineering topics. For a 134-hour curriculum, this leaves a maximum of 52 hours for generaleducation and other topics (about 39% of the curriculum
Page 11.978.9 2. Student 3. Industrial Advisory Committee 4. Alumni 5. Employers 6. ABET – as the professional accreditation body 7. IEEE – as the lead professional societyThe above constituencies play a direct role as depicted in Figure 1, in defining the ECETProgram’s Educational Objectives. The constituencies play a defining role in the ECETProgram’s Outcome Based Education and its Outcomes. The ECET Program Outcomesare distributed throughout the ECET curriculum and are documented under Criterion 2,Table I-a, I-b, Table II, and Appendix IV.The ECET Program’s PEO and PO assessment process is elaborated in Figure 2. Entering Students Course
Paper ID #18041Innovations in Environmental Engineering Education ProgramsDr. Inez Hua, Purdue University Dr. Inez Hua is Professor in the Lyles School of Civil Engineering and the Division of Environmental and Ecological Engineering. Her research and teaching areas include aquatic chemistry, water pollution control, environmental sustainability in engineering education, and sustainable electronics. Dr. Hua has a Ph.D and an MS in Environmental Engineering and Science from the California Institute of Technology (Caltech), and a BA in Biochemistry from the University of California, Berkeley.Dr. Loring Nies, Purdue
AC 2012-3372: SOFTWARE ENGINEERING EDUCATION NEEDS MOREENGINEERINGProf. A. Frank Ackerman, Montana Tech of the University of Montana A. Frank Ackerman has 50 years of experience in all phases of software development. In 1985, he founded the Institute For Zero Defect Software to do applied research, consulting, and training for software de- velopment organizations seeking to improve the reliability of their software. His personal experience has lead him to the conviction that today’s development organizations can achieve significant improvement in software reliability for a small increase in effort. Some of his current research and educational activities are focused on improving current specification, coding, test
further her knowledge in Energy Engineering to focus on methods to effectively increase efficiency and to use energy in cleaner ways. For her Senior Design Project, Ms. Stinnett Designed a Dome Test Setup for Sheet Metal Formability Characterization. During the summer of 2014, Ms. Stinnett had a Maryland Space Grant Consortium Summer Exchange Student Internship. She developed lab experiments that aid the learning of multiple manufacturing concepts through hands- on completion of the lab exercise. Integrating learning-based assessment tools into the designs of the experiments. c American Society for Engineering Education, 2017 Learning Experience in Designing a Dome Test Setup for Sheet
-based educational strategies across the engineering curriculum. As part of a"Sounding Board" of potential adopters, faculty will provide guidance, review componentsof redesigned courses, and participate in a series of workshops highlighting a variety ofproblem- and project-based instructional strategies1, 2.A “Test Bed” will act as a venue for the visible redesign of existing courses in ways thatemploy authentic learning and assessment activities--where students do real-worldengineering in the classroom. The redesigned courses will also help students inbound intotheir community of professional practice 3, 4. Project mentors drawn from a localprofessional engineering organization will help students to complete projects, and onlinewebinars/live
Integrating Practice into Engineering Education Lieutenant Colonel Robert A. Powell, Ph.D. Department of Systems Engineering United States Military AcademyAbstract – Academicians have noted a deficiency in engineering education offered by collegesand universities. The deficiency is that a majority of engineering graduates are taught byengineering faculty with little or no industry experience. Faculty far removed from advances inindustrial practice will miss important opportunities to tailor the curriculum to crucial industrialneeds. This will be to the disadvantage of their students. Regardless, employers yet expectcolleges and universities to provide
., & Segalàs, J. (2008). Embedding sustainability in higher education through interaction with lecturers: Case studies from three European technical universities. European Journal of Engineering Education, 33(3), 271–282. http://doi.org/10.1080/03043790802088491Jawahir, I. S., Rouch, K. E., Dillon, O. W., Holloway, L., & Hall, a. (2007). Design for Sustainability ( DFS ): New Challenges in Developing and Implementing a Curriculum for Next Generation Design and Manufacturing Engineers. International Journal of Engineering Education, 23(6), 1053–1064.Lozano, R., Ceulemans, K., Alonso-Almeida, M., Huisingh, D., Lozano, F. J., Waas, T., … Hugé, J. (2015). A review of commitment and implementation of sustainable
ASEE 2014 Zone I Conference, April 3-5, 2014, University of Bridgeport, Bridgpeort, CT, USA. Factors Affecting Education Technology Success James Accuosti Dept. of Technology Management, School of Engineering University of Bridgeport Bridgeport, CT, USA jaccuost@my.bridgeport.edu Abstract— The purpose of this paper is to examine particular music [1], biology [12], to literacy [13], to college-leveland relevant factors that affect the outcome or implementation of economics
more than one national and ethnic background, providing some insights that are ofinterest and benefit to engineering educators and students, towards proper modificationsto the ethics component in the curriculum. Two major issues that have emerged and arediscussed in particular are consensus and interaction. The resulting modifications andtheir effects will be surveyed and discussed in a following publication.Globalizing Engineering Ethics Education “Consensus”Global engineering teams produce more and better products everyday. Many factorshave contributed to the elimination of geographical barriers, like information technologyhighways, manufacturing and services outsourcing, and international industrialpartnerships, to name a few. Consequently
Chemical Company. manufacturing with advanced materials.In 1992 he returned to Allentown where he was Motivated to improve manufacturing processnamed manager of systems and equipment for or products, she has modeled liquid injectionthe Electronics Division and in 1994 he became processes, polymer cure kinetics, metal powdermarketing manager for the division. In 1997 compaction and powder compact strengtheningMasetti became vice president for the company’s via high temperatures.joint venture Daido Air Products Electronics, For her individual and collaborativeInc. in Osaka, Japan. He returned to Allentown contributions to engineering education,in 2000 as director
2001, American Society for Engineering Educationterm milestone events leading to full program startup for the academic year 2001-2002.I. IntroductionThe Physics Department at the University of Arkansas took the broad themes identified as beingneeded in future graduate students and translated them into a set of four specific goals for theFIPSE program implementation. They were: a) Integrating traditional physics education with a business framework b) Integrating traditional physics education with creativity training c) Integrating global perspectives into local technology decisions d) Integrating soft skill set development with traditional physics educationThe University of Arkansas was awarded its Department of
organizations such as the Institute of Industrial Engineers (IIE), Society for Engineering Management (SEM), Project Management Institute (PMI), Society for Health Systems (SHS) and Association of Technology Man- agement and Applied Engineering (ATMAE). He is also a member of Alpha Pi Mu and Phi Kappa Phi Honors society.Dr. Coray Davis, Virginia State University Chair and Associate Professor for Engineering TechnologyDr. Ben U. Nwoke, Virginia State University Dr. Ben U. Nwoke is a certified manufacturing engineer and a certified project manager. He is a professor at Virginia State University in the Department of Technology, Petersburg, Virginia. c American Society for Engineering Education
Engineering Education: An Integrative Experience Lieutenant Colonel Robert A. Powell, Ph.D. Department of Systems Engineering United States Military AcademyAbstract – Academicians have noted a deficiency in engineering education offered by collegesand universities. The deficiency is that a majority of engineering graduates are taught byengineering faculty with little or no industry experience. Faculty far removed from advances inindustrial practice will miss important opportunities to tailor the curriculum to crucial industrialneeds. Regardless, employers yet expect colleges and universities to provide specifically trainedgraduates or graduates that
Chemical Company. manufacturing with advanced materials.In 1992 he returned to Allentown where he was Motivated to improve manufacturing processnamed manager of systems and equipment for or products, she has modeled liquid injectionthe Electronics Division and in 1994 he became processes, polymer cure kinetics, metal powdermarketing manager for the division. In 1997 compaction and powder compact strengtheningMasetti became vice president for the company’s via high temperatures.joint venture Daido Air Products Electronics, For her individual and collaborativeInc. in Osaka, Japan. He returned to Allentown contributions to engineering education,in 2000 as director
experience of teaching it for the first time during the 2017-2018 academic year, and plans for the future.IntroductionIn 1997, ABET rolled out the Engineering Criteria 2000 (EC2000), which introduced for the firsttime an understanding of social context as a requirement for engineering education. This is anacknowledgement that engineering practice does not occur in a vacuum, but must be responsiveto the various economic, political, and cultural forces around it. In the years since EC2000,many engineering programs have struggled to meet this criteria in a meaningful way [1]. Thereasons are primarily two-fold. First, the addition of so-called “soft skills” into the curriculum inno way reduces the amount of technical content that is also necessary to
Educational LaboratoryABSTRACTDrexel University’s remote Internet-based nondestructive testing (NDT) laboratory forengineering technology students is described in this paper. Drexel’s Goodwin College ofProfessional Studies submitted a proposal entitled “Implementation of the Internet-BasedNondestructive Evaluation Laboratory for Applied Engineering Technology Curriculum” as areply to NSF solicitation under the program Course, Curriculum, Laboratory Implementation(CCLI) in May 2006. According to the proposal, Drexel would adapt Iowa State University’sinstructional material to its own ultrasound imaging laboratory course by placing emphasis onNDT techniques and applications. Once fully developed, the NDT laboratory would serve as atraining center for