professional development, recognition/awards,networking, leadership development, and career advancement. In the past, SWE has been viewedas a non-technical professional society. However, SWE is uniquely positioned to provide acommunity that transcends the organizational boundaries by encompassing technical, service,and professional development areas for women in academia that is inclusive, collaborative, andsupportive as well as connected to industry, government and academia on multiple levels.Introduction/MotivationMany women enter careers in engineering and other STEM fields and find that they lack acommunity where they feel they belong. Professional societies can help fill that need and providea variety of networking and career building resources
engineering path selection in colleges and universities wasobtained, and content analysis technology was applied to analyze the data in a bid to verifythe theoretical model extract key factors in the construction of new engineering in collegesand universities eventually.Results Research shows that the path of discipline integration, the path of disciplinederivative, the path of Exogenously industry-led, and the path of Endogenouslydiscipline-driven have become the main paths for the construction of "new engineering" incolleges and universities. Moreover, the path of engineering innovation has also been fullyaffirmed by some universities. The nature of disciplines along with the types andcharacteristics of colleges and universities exerts an influence
context of problem solving, and researcher identity.Dr. Walter C. Lee, Virginia Polytechnic Institute and State University Dr. Walter Lee is an assistant professor in the Department of Engineering Education and the assistant director for research in the Center for the Enhancement of Engineering Diversity (CEED), both at Virginia Tech. His research interests include co-curricular support, student success and retention, and diversity. Lee received his Ph.D in engineering education from Virginia Tech, his M.S. in industrial & systems engineering from Virginia Tech, and his B.S. in industrial engineering from Clemson University.Dr. Alexandra Coso Strong, Florida International University As an assistant professor of
established with the Chicago Museum of Science and Industry promises anothersource of outreach. Future goal include further module implementation throughout ChicagoPublic Schools, especially through collaboration with the Center for International Rehabilitation. Working from a Partnerships in Education and Research (PER) supplemental grant at theUniversity of Texas in Austin, two bioengineering professors and an education professorinvolved secondary teachers, preservice and inservice education students, SLC graduate students,and bioengineering undergraduates in collaborative design teams to develop three standards-based modules: the first on the biomechanics of jumping, the second on optics, and the third onethics. An objective of this project
modeling, and vector quantization.Three specific doctoral level projects involving optimization methods in signal/image processing leadingto machine learning have been chosen for this paper since these projects included additional students atMaster’s and senior undergraduate levels in Electrical and Computer Engineering demonstrating asuccessful pyramid learning structure using a top down approach. Significant collaboration with federallaboratories, industries, and other universities were developed during the design and development of theprojects described in the paper.IntroductionThe design and development of three specific projects, on optimization in signal/image processing andproviding significant contribution to machine learning through a
., Nguyen, H. D., Paulen, R., Gleason, N. W., & Duong, T. H. (2019). Trends in preparing cyber-physical systems engineers. Cyber-Physical Systems, 5(2), 65-91. [7] Mäkiö-Marusik, E., Ahmad, B., Harrison, R., Mäkiö, J., & Colombo, A. W. (2018). Competences of cyber physical systems engineers—Survey results. In 2018 IEEE Industrial Cyber-Physical Systems (ICPS) (pp. 491-496). IEEE. [8] National Academies of Sciences, Engineering, and Medicine. (2017). A 21st century cyber-physical systems education. National Academies Press. [9] Pellicone, A., Lyons, L., Kumar, V., Zhang, E., & Berland, M. (2019). Rainbow Agents: A collaborative game for computational literacy. In Extended Abstracts of the Annual Symposium on
Industrial and Academic EnvironmentsPractice Industrial Environment Behavior Academic Environment BehaviorJob goal Management defined to support group Individual voluntary alignment toalignment goals departmental effortsCreative work Balanced between management assigned Self defined, with possible voluntary tasks and self defined tasks collaborations on large projects.Work hours Coordinated to optimize group Self scheduled to meet personal goals performance and institutional assignmentsWork location All work at common location to support
actual industry situations. Theteaching approach used in the one credit-hour digital electronics laboratory course (EET 120)was based on student centered engineering design teams.The case-based teaching approach used in the EET 117 course was very helpful to students ingaining an insight into the industrial applications of digital systems technology. Learningthrough case studies helped engineering technology students work creatively in teams to solveengineering problems. Providing students with case study experiences can be viewed asequipping future engineers/engineering technologists with the tools they will need to effectivelyperform in industry.The traditional approach to teaching the digital electronics laboratory (EET 120) included
efficiencies, and expanded economic development for the state” (5). Thelegislature appropriated funding for research at six of the universities as well as support foreducation, outreach, and technology commercialization. The Consortium reports to and supportsthe Florida Energy and Climate Commission in developing and implementing the State’s energyand climate agenda (1). The Consortium’s energy research strategy is a systems approach for a systemic solution toidentify innovation opportunities, prepare an energy workforce, and guide economicdevelopment. Through collaborative research and development across the State UniversitySystem and the industry as well as partnership with FLATE as the conduit to the state collegeand community college system, the
Educational Model namely Tec21 is a competence-based model and it is a studentcentered model [1-5]. These competences can be disciplinary competences or transversecompetencies, e.g. soft competences such as collaborative work. In every coursestudents have to solve challenges or real life scenarios that are related to the situationsthey will face in industry once they have graduated. For this reason, every challenge isassociated with scenarios that provided by industry, society through non-governmentorganizations, local governments or research centers. All these entities are calledStrategic Forming Partners (SFP).The structure of the educational model is distributed basically in four basic elements:Subjects (courses), Blocks (challenge-based courses
considered.The scheme of advanced professional training for industrial employees wasproposed. It includes three levels of education process the efficiency of which isdefined by the collaboration of university (as a basis of higher education),Russian and foreign educational research and engineering centers, andenterprises - participants of a specific cluster. It will also allow the integration of Page 26.390.3Russian and foreign educational, research and engineering centers to besignificantly intensified, as well as a unique scientific and educationalenvironment needed for developing the innovative economics of the region andRussia in whole to be created
student outcomes.The outcomes we expect students to achieve include improved sense of self, increasedknowledge of industry and engineering workforce expectations, a stronger sense of engineeringidentity, and confidence in their ability to achieve their goals.As this novel program is a collaboration between the Career Center in Student Affairs and theCollege of Engineering & Applied Sciences in Academic Affairs, the recruitment plan reflectedeach partners’ strengths. The Career Center publicized the program widely through its extensivemass marketing tools and social media platforms, distribution lists of student organizations, andthe Graduate Student Organization, the formal university-wide governance body of and forgraduate students. The
. The paper outlines our curriculum decisions and development, associated instructional activities, and assessment and evaluation methods. The curriculum we have developed, has been culled from several resources: our personal research in creativity, collaboration with the Stanford d.School and IDEO, and several other educational and industry institutions. Our findings thus far according to the Torrance Creativity Test, and our own innovation student assessment survey suggests students who participate in collaborative cross-discipline innovation focused training, will increase in innovative understanding, aptitude and skill set. We believe the
andlignocellulose plant compounds that are more difficult to breakdown than simple starches.Ethanol production from these plant wastes is called second-generation bioethanol production[6].Like all future problems that this earth faces technology will play a central role in solving theproblems. However, the scientists and engineers will need to work collaboratively to figure outwhich technologies to pursue and to monitor which are really making a difference. Although thisneed for collaboration is well-acknowledged in both industry and public agencies, structuralcomponents of academia make collaborations of programs or departments difficult[7]. Pressureto graduate students in programs with less hours means less electives and less flexibility forstudents to
Botswana Learning Experience (ABLE) is an international collaborationbetween two STEM institutions that engages engineering students in solving real-worldproblems using a problem-based learning approach and service-based learning pedagogy. TheABLE project aims to create a collaborative learning environment for engineering students inBotswana and the US by utilizing augmented reality and Onshape technologies to develop theirvisualization and 3D modeling skills. The project provides an eight-week co-curricular programfocusing on problem-based learning approaches to address authentic real-world problems,particularly in Botswana. To accomplish the ABLE project's goals, six high-performing studentsfrom an introductory engineering graphics course in the
Biosystems Engineering at Clemson University in 2021, during which she was an NRT Resilient Infrastructure and Environmental Systems Fellow. Libby is currently a Lecturer in the General Engineering program at Clemson.Kassidy Y. Maron, Clemson University Kassidy Maron is a second year student at Clemson University, majoring in Genetics.Angelina Cotto, Clemson University Angelina Cotto is a fourth year Psychology student at Clemson University. She is passionate about pro- moting collaboration and empathy within groups. She wants to combine her two passions: psychology and marketing. She strives to seek knowledge from her experiences and community while elevating brand voices through creative means.Ms. Isha Vishal Raj
electromigration in metal interconnects. Individual projects were assigned to model andproject the end-of-life wear-out from a specified degradation mechanism. The prior course didnot engage direct collaboration between the electrical and mechanical engineering students.Since interdisciplinary collaboration and apt technical communication are necessities in thesemiconductor industry, an effective delivery of this course engenders the development of ateam-based project in which students in different disciplines can exercise their respectiveacademic knowledge bases to jointly make reliability assessments. We propose a final teamproject which studies the overall circuit-level reliability, with each group comprising a mix oftwo to three mechanical, electrical
. Page 8.52.6 “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education”3. Rahman, S.M., Sarker, R., and Bignall, B., 1999, “Application of Multimedia Technology in Manufacturing: A Review”, Computers in Industry, Vol.38, pp.43-52.4. Shu, L. and Flowers, W., 1994, “Teledesign: Groupware User Experiments in 3-D CAD”, Collaborative Computing, Vol.1., pp.1-14.5. Tang, J.C. and Minneman, S.L., 1991, “VideoDraw: Video Interface for Collaborative Drawing”, ACM Trans. Information Systems, Vol.9, No.2, pp.170-184.6. Leevers, D., Condon, C., Lutz-Kunisch, B. and Ahlers, R., 1992, "The DUMIN Project - Experience with
windenergy program with Germany and pending collaboration with the University ofMaryland. Although an industrial internship program is in place, the program is not as strong asdesired with most internships being just a few weeks of job shadowing industry people andobserving.Xi’an Polytechnic University (XPU) – Xi’an [ www.xpu.edu.cn ] XPU’s President Gao Yong described XPU as an engineering university that nurturesChinese engineers needed to support the rapid development of the Chinese economy, especiallyin its role as the "Factory of the World." XPU and other Chinese universities promoteglobalization through cooperation with several international universities such as KetteringUniversity, Oklahoma Christian University, Minnesota State
preparestudents for a diverse, collaborative workplace in industry and help them to balance theirtechnical and subjective design decisions [7]. The integration of HCD into an engineeringcurriculum should be done in a way that supports and complements existing learning objectivesas well as the varied goals of established programs. However, doing so is challenging given thatall engineering courses have unique opportunity areas and needs. Thus, there is a significant needfor tested tools and methods that support this integration.For this integration, it is important to consider engineering education at both the course andprogram level. In our ongoing collaboration with an accredited, four-year aerospace engineeringprogram, we are working both to implement
themselves out when two will do? This attitude becomes particularly commonafter tenure and promotion to Professor unless other tangible rewards such as merit raises, releasetime, and influence motivate continuing hard effort. One may suddenly be shocked to find that hehas lost competitiveness when a supposedly good proposal or paper is ripped apart by reviewers.There is also a hesitancy of funding agencies, industry, and larger universities to fund or participatein collaborative projects with smaller institutions with no graduate programs, a limited record ofresearch, and minimal laboratory capabilities. These entities may have had bad experiences intrying to do so in the past and also consider it not worth the effort in regards to payoff
-departmental collaborative skills are consequentlyvery crucial in an integrative environment. No company can sit on its laurels. Change musthappen and change is good even though there is constant resistance to change. These youngengineers need to think out-of-the-box to be innovative, and become effective change agents.To address these needs, Kettering University is initiating an effort to establish aninterdisciplinary, enterprise-type integrated capstone course that encapsulates students from allavailable engineering degrees – mechanical, electrical, computer, and industrial with or without amanufacturing option, plus business students. As in industry, students concentrate on taskscorresponding to their own disciplines while multitasking with a
serve the community, it was proposed to offer the program in the areas ofhigher manufacturing needs and hence the regional campuses were chosen to offer this program.Faculty members, administrative staff, industry advisors and students collaborated on severalfronts to develop a unique program. University resources such as the Manufacturing Institute,Course Design Institute, Office of Technology and Digital Innovation and Center for Design andManufacturing Excellence, and Teaching and Learning Resource Center were utilized to developthe curriculum for this new program. Students and parents were excited about the four-year degreeprogram being offered at the regional campuses. Since the cost of tuition, living and other expensesis low on regional
incidents investigated by the Chemical Safety and Hazard InvestigationBoard (CSB) [1]. The CSB is an independent federal agency that analyzes the root causes ofincidents that occur at industrial facilities and gives feedback to the regulation and enforcementagencies. These investigations are not a comprehensive list of incidents, but they do identify theroot causes that need to be addressed and indicate the need for process safety education.The ABET (the program accrediting organization) chemical engineering program criteria requiresafety hazards to be addressed in the chemical engineering curriculum. Incorporating chemicalprocess safety into the curriculum can been approached using two methods. The first is to createa new course. This approach
is Assistant Professor of Engineering at Metropolitan State University of Denver. He was formerly on the faculty at the University of Wisconsin-Platteville. He has a B.S in mechanical engineering from Tribhuvan University, Nepal, a M.S. in Mechatronics from Gwangju Institute of Science and Technology, South Korea, and a Ph.D. in industrial engineering from Western Michigan University. c American Society for Engineering Education, 2019Page 1 of 9 ©2019 American Society for Engineering Education. ASEE Annual Conference Proceedings, June 15-19, 2019, Tampa, FloridaInnovative Baccalaureate Degree Program in Advanced Manufacturing SciencesRobert Park 1 and Ananda Paudel 21 Lockheed
included afreshman-level BIM class with a focus on BIM basic modeling skills and BIM teaching modulesfor upper level courses and had a promising initial feedback. Clevenger and Carey [15] examinedthe collaboration of industry and academia to develop a curriculum for application of BIM inMechanical, Electrical, Plumbing and Fire Protection (MEPF) coordination. Azhar et al. [16]highlighted the role of BIM features such as 3D visualization and clash detection to create abetter understanding of construction divisions among students. Barison and Santos [17] studiedthe current state of BIM integration into academic curricula by universities around the world.Peterson et al. [18] studied the benefits of using BIM models in teaching constructionengineering
and science content; such as theinnovation and entrepreneurship skills in addition to the system level thinking. Similarly, thespread of dual engineering-business degrees can be considered part of this trend. Moreover, more and more engineering firms and industries are recognizing cultural-awarenessas an important attribute of successful engineer. Such companies even try to train theirengineering workforce to be more globally ready so that they yield a flexible workforce that canbe deployed in and collaborate with the company’s different locations and teams. Such in-housetraining is typically offered through foreign language courses and overseas deployment. Thistrend is most evident in the automotive industry. Thusly, the current manuscript
reports, and patents. Erin’s research interests include the role of librarians in engineering education, entrepreneurship, and the role of technical industry standards in academic libraries. She holds the Master of Library Science from the University at Buffalo and a B.A. degree in Communication from SUNY Geneseo.Dr. Lauren Kuryloski, University at Buffalo Lauren Kuryloski is an Assistant Professor of Teaching in the Engineering Education Department, where she teaches technical communication at the undergraduate and graduate level.Dr. Kristen Moore, University at Buffalo Kristen R. Moore is an Associate Professor in the Department of Engineering Education at University at Buffalo. Her research focuses primarily on
that skill while in school. In industry, professionals mustcommunicate with people with different backgrounds and multidisciplinary collaboration canhelp develop those communication and working skills.There are several published studies that examine multidisciplinary capstone experiences forundergraduate students for improving professional skills. The authors of this paper are studentswho participated in a multidisciplinary project. This paper offers a unique perspective and thefirst-hand experiences of these students engaging in a multidisciplinary capstone project. Thispaper aims to give insight into multidisciplinary projects that is different from the researchcurrently presented. The authors describe the actual project and how it offered
University of Nebraska-LincolnIntroductionWe are now entering a period called the fourth industrial revolution, where the world’s growingpopulation is resulting in the need for the agricultural industry to grow and adapt [1]. Thisrevolution is calling for changes and advancement in precision agriculture and smart farming [2].These needs have helped create the agricultural technology (Ag Tech) industry which eithercreates or repurposes technology to increase the benefit of agriculture.As the ag tech industry grows, so do entrepreneurship opportunities. There is room to start newbusiness ventures, build partnerships, and there is a market for innovative products. It is also aplace for new business ventures, called start-ups, that are focused on