andservice but shy away from doing so in teaching:Cynthia—a White woman, full professor in electrical, computer, and systems engineering said, “I tryto get [students] involved in a research project that's tangible, that’s something that can be published,that’s something that they can present a poster on. And I think that gives them some confidence . . .but in classes, that's tough . . . I think everybody needs to find their own journey, so I don't want topush anything.”And Kelly—an Asian woman, assistant professor in electrical, computer, and systems engineeringshared, “[Students] get to do their outreach activities to elementary school kids and middle schoolkids. And so, they get that feedback too when a little kid comes in and gets really amazed
seemed genuinely interested in ways to foster the STEM identity of theirstudents generally. 10 THEME #3: FACULTY INTENTIONALLY PROMOTE STUDENT STEM IDENTITY THROUGH RESEARCH AND SERVICE “I try to get [students] involved in a research project that's tangible, something that can be published, something that they can present a poster on . . . that gives them some confidence . . . but in classes, that's tough . . . I think everybody needs to find their own journey.” ~Cynthia (White woman, full professor in electrical, computer, and systems engineering) “[Students] get to do their outreach activities to elementary school
campus as well as in some engineering departments. The course revitalization iscentered on enabling more direct student participation in design projects. It begins with two-persondesign teams that design, build and test weekly projects involving LEGO® parts, sensors, and theRobotic Command eXplorer (RCX). The course progresses in the semester to finally encompasslarger design teams of fourteen students, with each team designing a complex, autonomous, robotic-styled system. This revision was to enable a more flexible mix of engineering student majors(Mechanical, Electrical, Civil and Environmental), as some departments had different enrollmentsfor each semester. Furthermore, the philosophy shifted from a primarily project management to amore
facilitates active learning (Princeand Felder, 2006), problem solving (Jonassen, 2002) and project-based learning (Hadim andEsche, 2002), which are encouraged as ways of exciting students. Also, besides facilitating understanding ET literature, this framework facilitatescomprehending ET datasets that involve diverse data formats (or modes) including drawings,spreadsheets, documents, graph sheets, pie charts, and various graphic as well as video formats.This study aims at demonstrating a novel tool of multi-dimensional multi-modal visual analyticframework to visualize the inter-related aspects of ET literature. This is accomplished by Page
Paper ID #38851Literature Exploration of Graduate Student Well-Being as Related toAdvisingDr. Liesl Klein, Villanova University Liesl Krause-Klein is a assistant teaching professor at Villanova University in their electrical and computer engineering department. She graduated from Purdue University’s Polytechnic institute in 2022. Her research focused on student well-being. She is currently in charge of curriculum for capstone projects within her department.Dr. Greg J. Strimel, Purdue University at West Lafayette (PPI) Greg J. Strimel, Ph.D., is an associate professor of Technology Leadership and Innovation and program
Engineer in Ontario and in Qu´ebec. He began his professional career as a project engineer for the consulting engi- neering firm Urgel Delisle et Associ´es. From 1989 to 1999 he held a faculty position at Universit´e Laval, where his teaching and research activities focused on agricultural machinery engineering. While at Uni- versit´e Laval, Dr. Lagu¨e also served as Vice-Dean (Research) of the Facult´e des sciences de l’agriculture et de l’alimentation and he was the founding chair of the D´epartement des sols et de g´enie agroalimen- taire. In January 2000, Dr. Lagu¨e was appointed to the Sask Pork Chair in Environmental Engineering for the Pork Industry industrial chair at the University of Saskatchewan’s College of
curriculum and its development inRefs. [2] & [3]. The key elements of the new curriculum include 1. Vertically integrated designproject courses (VIDP) and 2. Integrated Electrical Engineering and Data Acquisition (DAQ)courses.1. Vertically integrated design project courses (VIDP). Our ME program traditionally has astrong senior design course sequence where seniors work for an entire academic year in teams onreal projects sponsored and mentored by industry. Real industry design experience, however,was missing in the first three years of the program. Hence, a separate design course sequence,where first-, second-, and third-year students come together each spring to work on designprojects mentored by practicing engineers, was added to the
education in informal, traditional, distance, and professional environments. Dr. Goodridge currently teaches courses in ”Teaching, Learning, and Assessment in Engineering Education” and ”Engi- neering Mechanics: Statics.” Dr. Goodridge is an engineering councilor for the Council on Undergraduate Research (CUR) and serves on ASEE’s project board. Dr. Goodridge actively consults for projects includ- ing the development of an online curriculum style guide for Siemens software instruction, development of engineering activities for blind and visually impaired youth, and the implementation and investigation of a framework of engineering content to incorporate into P-12 engineering education. c American
Opinion in Organ Transplantation, 2023. 28(3): p. 192-196.5. Setiawan, A.W., et al. Multidisciplinary Capstone Design Project: Biomedical Engineering, Mechanical Engineering, Engineering Management and Product Design. in 2023 32nd Annual Conference of the European Association for Education in Electrical and Information Engineering (EAEEIE). 2023. IEEE.6. Ghommem, M. and C. Gunn, Toward better learning opportunities for undergraduate mechanical engineering students: a case study. International Journal of Mechanical Engineering Education, 2021. 49(3): p. 195-213.7. Dong, Y., et al., Is the Student-Centered Learning Style More Effective Than the Teacher- Student Double-Centered Learning Style in Improving
technology and electric propulsion is extremely relevant to the U.S. Coast Guard, and theglobal community. This project gave the students an opportunity to work collaboratively as ateam to accomplish a complex engineering task and to present their results to a mixed audienceof students, academics, and stakeholders. This project provided multiple excellent opportunities for the team to enhance theirknowledge of battery and power systems and to implement the knowledge gained throughouttheir undergraduate study. The development of a battery management system also involvedresearching and acquiring new knowledge on battery technologies which was not included inprior curriculum. The team was required to design experiments to test their theories
, 11, and as a dynamic textbook 12. Recently, interactive multimedia have beenintegrated with expert system technology producing intelligent tutoring systems for engineeringstudents 13-16 . These intelligent tutoring systems "learn" about the individual student and cantailor the material to meet the needs and the learning styles appropriate to the individual student.The goal of the Interactive Multimedia Intelligent Tutoring System (IMITS) is to develop anintelligent tutor for an introductory sequence in electrical circuits and systems. The frameworkdeveloped for this system is to be transferable to and used by any discipline, not onlyengineering. The project has as its major goals to:1) Develop and integrate the components necessary to form
at Washington State University, Pullman. His research is at the intersection of educational psychology, learning sciences, and instructiJacqueline Gartner Ph.D., Campbell University Jacqueline Gartner is an Associate Professor and Founding Faculty at Campbell University in the School of Engineering, which offers a broad BS in engineering with concentrations in chemical, mechanical and electrical engineering.David B. Thiessen, Washington State University David B.Thiessen received his Ph.D. in Chemical Engineering from the University of Colorado in 1992 and has been at Washington State University since 1994. His research interests include fluid physics, acoustics, and engineering education.MD SHARIFUL ISLAM
two reasons: 1)Industry needs employees with competencies in electrical, mechanical, automation, and control, Page 22.864.3and 2) No institutions in the region were addressing this specific need. However, any academic curriculum change requires faculty involvement and must gothrough the curriculum approval process within the institution. Therefore, selling the idea to thefaculty members from both Electrical Engineering Technology (EET) and MechanicalEngineering Technology (MET) programs were essential. Therefore, the President of thecompany in cooperation with the Packaging Machinery Manufacturer Institute (PMMI) made itpossible for
. Constans et al, "The Benchtop Hybrid-Using a Long-Term Design Project to Integrate the Mechanical Engineering Curriculum," Advances in Engineering Education, 2019.[5] *J. R. Haughery et al, "Toward Understanding the Impacts, Whys, and Whats Behind Mechatronic-based Projects and Student Motivation," 2017.[6] R. M. Reck, "No title," Experiential Learning in Control Systems Laboratories and Engineering Project Management, 2016.[7] A. G. Abdullah et al, "Preliminary design of industrial automation training kit based real mobile plant," in 2014 International Conference on Advances in Education Technology (ICAET-14), 2015, .[8] M. Matijevic and M. S. Nedeljkovic, "Design and use of digitally controlled electric motors for purpose of
robotics and BME education. Dr. Krishnan has co-edited the text ”Advances in Cardiac Signal Processing”, and published numer- ous papers in conference proceedings, journal papers and book chapters. He has been developing novel models in BME curriculum design, labs, interdisciplinary project-based learning, co-ops, internships and undergraduate research. Recently he served on the NSF Advisory Committee on Virtual Communities of Practice. He keeps active memberships in AAMI, ASEE, ASME, BMES, IEEE, BMES, IFMBE, and ASME. He was selected to join Phi Kappa Phi, Sigma Xi, and the American Romanian Academy of Arts and Sciences. He was elected as a Fellow of American Institute of Medical and Biological Engineering and he
-2025 academic year. Efforts are underwayto develop assessment tools to collect data on students’ skill development, sense of belonging,and persistence in engineering and computer science majors.IntroductionIn this work-in-progress paper, we describe a backward design, faculty-led effort to redesign thefirst-year experience for engineering and computer science students at the University of thePacific. The aims of this initiative are to incorporate design throughout the curriculum, promotestudents’ sense of belonging, and increase retention.Numerous studies have identified aspects that contribute to attrition in STEM education [1]. Forinstance, Tseng et al. studied differences between persisting and non-persisting engineeringstudents at a
. Bristow et al. proposed a Control Systems ConceptInventory (CSCI) for improving the teaching and learning in introductory control systemscourses5. They used classical test theory and item response theory to analyze the aggregated testresults for assessing internal consistency and measurement error, respectively. Padgett et al.attempted to extend the usefulness of the Signals and Systems Concept Inventory (SSCI) byapplying it in a variety of situations other than that for which it was originally developed6.More relevant to NCI are concept inventories which have been developed for electric circuits andelectronics. Vanderwalle has discussed a number of critical concepts for the Mathematics ofCircuits and Systems which should be included in a concept
Analysiscourse. The course uses aspects of both project-based and problem-based learning. Project-basedlearning involves assignments that call for students to produce something, such as a process orproduct design. The culmination of the project is normally a written or oral report summarizingwhat was done and what the outcome was. Dym, et al. say that project-based learning hasproduced many innovations in design pedagogy in engineering education.11 Research suggeststhat these kinds of courses appear to improve retention, student satisfaction, diversity, andstudent learning. In problem-based learning, students, usually working in teams, are confrontedwith an ill-structured open ended real-world problem to solve, and take the lead in defining theproblem
. Figure 1: Common tasks comprising the lifecycle of a productPLM initiatives have applications in many different industries. An essential aspect of using PLMsoftware in the aviation industry is the optimization benefits for servicing and repairing aircraft toensure airline and passenger safety [2]. In the energy sector, Failla et al. [3] researched how oiland gas businesses use PLM solutions to manage manufacturing bills of materials forturbomachinery. In the production of electric vehicles, digital twins of lithium-ion battery packsare used to simulate extreme conditions and “improve the safety and service life of the batterypacks” [4]. Pollard et al. [5] describe how the electrical and electronic (E&E) sector was subjectedto research on how
contractors from newly industrialized countries (NICs)such as Korea and Turkey is remarkable. The paper investigates on the factors impacting construction projects delivery in both domesticand international markets and explores the appropriate leadership skills required to managedynamically transforming construction project delivery process. Consequently, the paperdiscusses the methods of incorporating the appropriate leadership skills’ development addressingtoday’s construction industry needs into construction curriculum. The author includes his ownmethods, the way he brings the development of leadership skills into the classroom. The methodsinclude having collaborative projects with design students, incorporation of financial/engineeringeconomics
-433. Collura, M.A. et al. “Development of a Multidisciplinary Engineering Foundation Spiral” Proc. 2004 ASEEConference and Exposition4. Curriculum available from http://www.collegeboard.com5. Curriculum available from http://www.ibo.org6. Curriculum available from http://www.cie.org.uk Page 11.167.7
the creation of unique coursecombinations where faculty from engineering, math, science, humanities, and social scienceworked together to define student learning outcomes for project-based curricula. Engineering andnon-engineering courses were clustered into integrated First-Year Interest Groups (FIGs).Engineering and interdisciplinary courses were paired in the sophomore and junior year, byemphasizing collaborative projects involving engineering and non-engineering students. Theintegrated learning blocks created for four years of curriculum are shown in Figure 1.Curriculum Restructuring – Design Integration:The integration of applied research and contextualized design throughout the engineeringcurriculum, started from a design-based
accrediting body, ABET, hasencouraged and supported interdisciplinary projects in the curriculum. Much support was givento the project at Penn State Hazleton that involved the coupling of business and engineering, sinceit was in line with some new goals set forth by ABET which included the encouragement ofmultidisciplinary courses.Curricular Issues:Penn State Hazleton offers traditional mechanical technology and electrical technology programs.These programs are ABET accredited and are offered in Hazleton at the associate degree level.The graduates of these programs can either seek employment or continue their education at thebaccalaureate level. A majority (approximately 80%) of the students continue their education inthe baccalaureate degree
subject. Therefore, a student who lacks this prior knowledge will struggle tocomprehend the material. Another disadvantage to printed materials is that they may be used ina passive method without understanding the message since printed material is not interactive.Perhaps the biggest disadvantage to printed materials such as textbooks is that they may dictatethe curriculum rather than be used to support the curriculum (Heinich et al. 1999) 2.When trying to explain HVAC and plumbing systems, the author recommends that the blueprintsof an actually construction project are obtained. Most project owners, architects, and engineers,are very willing in letting their construction drawings being used in an educational setting. Areal life project is better
EducationEngineering Clinic features a mixture of projects funded by industry and faculty researchinterests. Clearly, projects such as these are central to developing the design and problem solvingskills that are lacking in the typical engineering curriculum. However, these real-world projectsstill fall short of expectations for the student who enters engineering with desire to invent.One way to promote the entrepreneurial spirit is to provide students with the opportunity topropose their own original enterprises. Accordingly, we have created the Undergraduate VentureCapital Fund (UVCF), specifically ear-marked for the development of original products bymulti-disciplinary student teams within the Junior and Senior Engineering Clinics6. The UVCFhas been
editing of details in AutoCAD, 3D building modeling, and an introduction to the concept of utilizing REVIT Building to produce estimates.”This is an excellent example of an introductory BIM course. After the introductory BIM course,upper-level BIM course modules, focusing on the entire BIM process related to the topicknowledge areas required of comprehensive BIM education, should be incorporated into severaljunior and senior level courses such as mechanical, electrical, and plumbing (MEP) systems,project management, and planning and scheduling. Lee et al.15 in 2013 proposed the mostpractical approach to comprehensive BIM education is the integration of BIM course modulesinto mainstream CM courses. Therefore, to meet industry needs, BIM course
their research as a base. This research shows that K-12 teachers included computing-related content in their curriculum and instruction (Basu et al. 2013; Blikstein 2013; Donnelly et al. 2014;Grover and Pea 2013; Sengupta et al. 2015; Shen et al. 2014; Wilensky et al. 2014).Situated within the literature, the two projects described below expect educators to start where they are,explore computing topics, and teach and provide resources for topics that they traditionally teach andsupport.ProjectsNSF CS For All RPP: WySLICEWyoming’s Schools and Libraries Integrating Computer Science in Education (WySLICE; NSF DRL Grant#1923542 “CS For All:RPP - Booting Up Computer Science in Wyoming”) was a unique professional de-velopment that brought together
were studied. From this study, it can be seen that universities are usingnine models to integrate nanotechnology concepts into their curriculum: 1. Offering undergraduate courses on Nanotechnology. 2. Offering Baccalaureate degree in Nanotechnology. 3. Offering an undergraduate track in Nanotechnology. 4. Offering a Minor in nanotechnology. 5. Offering a Master degree in Nanotechnology. 6. Offering Graduate courses in Nanotechnology. 7. Offering a Multidisciplinary Senior Design Project on Nanotechnology. 8. Integrating Nanotechnology concepts into their traditional courses. 9. Undergraduate Research in Nanotechnology.Model 1 is used by eight universities such as the Wentworth Institute of
, multidisciplinaryprojects can be challenging for many reasons. Design education is often relegated to the end ofan undergraduate program, which does not allow students to learn from their mistakes becausethey are given tight deadlines and linear deliverables. In response, Fazelpour et al. argue for aholistic approach to design education throughout an undergraduate curriculum [6]. Students withdesign experiences throughout their undergraduate program will learn to work in teams earlier,better preparing them for peer collaboration and meaningful engagement with industry sponsors.That said, those who have implemented multidisciplinary capstone programs warn of potentialissues. Behdinan et al. note the potential for exacerbation of student performance issues such as
motivation: Connections between first‐yearstudents' engineering role identities and future‐time perspectives," J Eng Educ, vol. 109, (3), pp.362-383, 2020.[13] D. Rae and D. E. Melton, "Developing an entrepreneurial mindset in US engineeringeducation: an international view of the KEEN project," The Journal of EngineeringEntrepreneurship, vol. 7, (3), 2017.[14] J. Blake Hylton et al, "Working to instill the entrepreneurial mindset across the curriculum,"Entrepreneurship Education and Pedagogy, vol. 3, (1), pp. 86-106, 2020.[15] R. S. Harichandran et al, "Developing an Entrepreneurial Mindset in Engineering StudentsUsing Integrated E-Learning Modules." Advances in Engineering Education, vol. 7, (1), pp. n1,2018.[16] D. R. Riley et al, "First-year