project was initiated with the goal of transforming the STEM learning environment to make itmore effective, exciting and experiential [1]. DLMs can be used to complement lecture-based coursesand clarify common misconceptions in the chemical engineering curriculum [3-4]. These hands-onmodules foster active, constructive, and interactive forms of engagement far more than lectures do [5]and allow students to see for themselves the real-world effects of the concepts and theories that theyare learning in class.The development of such novel, visual, hands-on learning tools has become increasingly popular [6-10]and data have shown that integration of these modules into the curriculum improves student learningoutcomes [11,12], however, a number of
negative emotional triggers. Personality traits have been shownto influence academic achievement. For instance, conscientiousness and openness haveconsistently emerged as a stable predictor of team performance, and openness predicts overallacademic performance and college performance [8]. In contrast, neuroticism is negativelyassociated with academic achievement. Schilpzand et al. [9] found that student teams diverse inopenness exhibited more creativity on their innovative class project; Horwitz & Horwitz [10] in astudy of personality diversity in team concluded that team performance is associated with teamsynergy.Sociogenic traitsSociogenic constitute one’s “second nature,” resultant from one’s social environment. To quoteLittle [6], “how you
-cultural environment. Professors from partner universities periodicallyvisit VIT to deliver lectures as part of the curriculum. DAAD (German Academic Exchange Programme) has identified VIT as the best PartnerUniversity in India in its task of internationalization of institutions across the world. DIES(Dialogue on Innovative Higher Education Strategies), under the auspices of DAAD, hasorganized training programmes for VIT and other university faculty on Intercultural Relations12in collaboration with LUH (Leibniz University, Hannover), Germany. The internationalizationprocess includes getting faculty and students from Germany and other western countries to workon projects and carryout research on topics of mutual interest.Semester Abroad
work; team processes and decision-making; ethical reasoning, constitution, and processes; engineering design; technology and its impacts on organizational and personal life; network analysis; as well as organizational identity, identification, and culture.Dr. Carla B. Zoltowski, Purdue University, West Lafayette (College of Engineering) Carla B. Zoltowski is an assistant professor of engineering practice in the Schools of Electrical and Com- puter Engineering and (by courtesy) Engineering Education at Purdue University. She holds a B.S.E.E., M.S.E.E., and Ph.D. in Engineering Education, all from Purdue. Prior to this she was Co-Director of the EPICS Program at Purdue where she was responsible for developing curriculum
instruction.” Science and Engineering Ethics. https://doi.org/10.1007/s11948-020-00261-x.[30] D.T. Ozar. 2001. “Learning outcomes for ethics across the curriculum programs.” Teaching Ethics. 2(1), 1-27. https://doi.org/10.5840/tej2001211[31] C. Mitcham and E.E. Englehardt. 2019. “Ethics across the curriculum: Prospects for broader (and deeper) teaching and learning in research and engineering ethics.” Sci Eng Ethics, 25: 1735-1762. DOI 10.1007/s11948-016-9797-7[32] R. Walton, J.S. Colton, R. Wheatley-Boxx, K. Gurko. 2016. “Social justice across the curriculum: research-based course design.” Programmatic Perspectives, 8(2), 119-141.[33] D.W. Parent and P. Backer. 2018. “Integration of an electrical engineering capstone course with
a Professor and Chair of the Department of Engineering Technology, Austin Peay State University, Clarksville, Tennessee. His education includes two Master of Science degrees in Electrical and Computer Engineering and Electronics and Control Engineering. He has been actively involved in higher education leadership in various capacities as a Dean, Department Chair, PI, Project Director, and a faculty member since 1997. He has served as the PI / Project Director for multiple agencies including NSF, DOL, DOD, and Perkin’s Grant. His research interests include Industrial Automation Systems, VLSI, ASIC, and FPGA. Other areas of interest are Active Learning, Innovative Pedagogy, Higher Education Leadership and
Policies and Infrastructurehigher-level analysis and decision-making that AI cannot (yet) On a larger scale, universities will need clear policiesdo. For example, an electrical engineering capstone project around Gen AI and potentially new infrastructure. Some aremight encourage students to use AI-based simulation tools to already crafting AI usage policies that delineate acceptableiterate their design quickly but then require a comprehensive academic use, similar to plagiarism
rapid technological change, onecan argue that a strong organizational foundation is key to assimilating and evolving with thediscipline. To this end we have incorporated concept maps as an assessment tool in our upper- Page 25.213.9division project-based Software Enterprise curriculum. Concept maps reify students’ organizingprinciples of the material learned in context. At present we employ this method to evaluate thestudent only as a resulting artifact of the pedagogy; future work may include creating formativeand perhaps self- assessment processes to assist students in organizing knowledge better.Concept maps may also one day form a basis for
. Aucoin has per- formed research and teaching in academia and has worked in large and small organizations, including General Electric. He served on a Mishap Investigation Board with the NASA Johnson Space Center, and projects he has led have received the Outstanding Engineering Achievement and R&D 100 Awards. He is a Registered Professional Engineer and has earned the Project Management Professional Certification.Brandon Bowen, Texas A&M University I am currently a Masters student in Engineering Technology, concurrently researching machine learning with applications in cyber security. I completed my Bachelors at Texas A&M in Electronic Systems Engineering Technology with a minor in Mathematics. Outside of
Paper ID #17853verilogTown - Improving Students Learning Hardware Description LanguageDesign - Verilog - with a Video GameDr. Peter Jamieson, Miami University Dr. Jamieson is an associate professor in the Electrical and Computer Engineering department at Miami University. His research focuses on Education, Games, and FPGAs. c American Society for Engineering Education, 2017 verilogTown - Improving Students Learning Hardware Description Language Design - Verilog - with a Video Game Abstract In this work, we present our game
retain engineering students the study points out thatstudent needs are not met by this shift. In fact, many researchers have investigated laboratory-based learning as a tool to mitigate retention and attrition issues [12-17]. Particularly, Lin et al.shows a link between a student’s ability to learn concepts of engineering and a student’spreference for a classroom and laboratory learning environment that is student‐centered, peer‐interactive, and teacher‐facilitated that provides a learning environment that encourages thestudent to develop concepts of engineering through hands on practical application [12].Early engagement to the engineering curriculum through experienced-based or lab-based courseshave also been studied by many researchers
15.978.4sophomore year, incorporating interactive multimedia, the Web, and instructional strategies thatpromote active learning and problem-solving skills of undergraduate engineering students.The following are the intended objectives related to project PETL implementation in thisintroductory electrical and computer engineering course: Improving learning in undergraduate electrical and computer engineering through increased emphasis on students’ active learning. Developing effective strategies for the integration of interactive multimedia and the Web in electrical and computer engineering instructional activities. Fostering changes in the teaching-learning environment during the lecture period. Creating a program in electrical and computer
economicallyengineering programs at four-year institutions that would otherwise not have the resources to doso. With modest costs and little risk, this flexible model can be replicated at many of the 83% ofU.S. colleges that do not now offer engineering degrees. Benedictine College (BC) is serving asthe proving ground for the model’s full implementation and evaluation. After implementing theBC Engineering Model in Fall 2009, the new BC Engineering Department has established five-year dual-degree programs in each of the four major engineering disciplines (chemical, civil,electrical, and mechanical engineering) through a partnership with the University of NorthDakota’s Distance Engineering Degree Program (UND DEDP). Over the past 1.5 years, the BCEngineering
IML layout. Fig. 2. New IML layout. (Left) Five IRBs with original workstation layout. (Right) Five CRBs with the redeveloped design.DiscussionThe current objectives of the undergraduate curriculum are to introduce students to basic robotoperations, working safely with robots, programming fundamentals, use of external I/O, andcreating applications predominately associated with material handling. The following describesongoing developmental considerations and observations from lessons learned during the pilotsemester.Laboratory Layout and SetupThe decision to maintain the overall aesthetics of the lab was a top priority for the faculty forvarious practical reasons. Five of the original IRB stations would remain in place, and fivestations
being accomplished using the data acquisition and controlpackage LabView, by National Instruments. This powerful tool has been implementedthroughout the curriculum, ranging from introduction as freshmen with simple mechanicalmeasurements and data storage, to culmination with a senior design project that typicallyinvolves control and automation, achieved using the LabView system. A primary focus of thepaper will be the philosophy of the introduction of computer software packages in a four yearengineering technology curriculum, and how they can be used to reinforce key concepts found inMET. The paper will also detail some of the introductory and advanced laboratories that havebeen developed, the specific hardware that was purchased, the results
Session 2186 Integration of Electronics, Math, & English and Its Impact on Retention Dr. Ramesh Gaonkar, Dr. Charles J. Abaté Electrical & Computer Engineering Technology Onondaga Community College, Syracuse, NY 13215Abstract:At present, three forces are converging: 1) industry must compete globally in a rapidly changingtechnology, 2) the nature of the workforce is changing; new employees will be older andethnically diverse, and will include more women, 3) the basic mathematical and communicationskills of incoming students
-ended industry projects with no definitive answers into a classroom setting [2]. Compounding this is a splitmindset within academia on educating theory vs. application. If this split is attempted to bring inapplications, then considerable effort and expertise to bridge that gap is needed [11]. If this is not executedcorrectly, the result could leave students struggling leading to unproductive learning environments [12,13]. One topic within structural knowledge ripe for additional development is PT. Why PT? This isbecause PT is infrequently covered in many curriculums [1] yet it is a popular structural gravity system inmany parts of the United States [14]. One possible way to balance theory and practice to achieve anengaging PT course is
: From the perspective of students and STEMleaders, what issues do students encounter when pursuing STEM education at a HBCU? Thelong-term goal is to increase persistence by exploring the extent of and to address the identifiedbarriers.Prior Work & Theoretical FrameworkPrevious research has found that student relations, such as with peers and faculty, along withfactors of race and gender influence a college student’s experiences.3 For example, researchersfound that Black students note more contact with faculty at HBCUs.4 According to Perna et al.(as referenced by Hurtado et. al.), HBCUs have been credited with Black students achievingapproximately 30% of bachelor’s degrees in the STEM fields.4 Incredibly, the number of AfricanAmerican
wherethey are responsible for developing an entire course. Engineering students more often haveresearch assistantships, and available teaching opportunities can be limited to facilitating alaboratory section without developing its content.1 As a consequence, engineering students canbe left without the curriculum development experience necessary to become the next generationof excellent instructors. Some disciplines have recognized the need for graduate student teachingdevelopment;2-4 however, these programs are not widespread.Undergraduate students in engineering are often required to learn specialized skills such asMATLAB, Mathematica, Excel, SolidWorks, and COMSOL Multiphysics. These skills areindispensible in many areas of engineering, yet
Leadership (AP- PEL). The Academy’s training curriculum enables NASA’s technical workforce to develop NASA-specific expertise and capability in program/project management, engineering, and systems engineering. It is in- tended to supplement an individual’s academic and professional work experience. Mr. Forsgren holds two Bachelors degrees, one in history from Georgetown University and one in engineering from Cleve- land State University. He also obtained a Masters Degree in Engineering from Cleveland State University. He lives in Virginia with his wife Florence; they have four sons. c American Society for Engineering Education, 2016 Seven Axioms of Good Engineering: Development of A
mechanism for undergraduate participation in research 1-7,being modeled on a graduate Special Problem format. These are taken for elective credit (hoursranging from 2 to 4 semester hours). As the curriculum constraints have changed over the years,so has the attractiveness and feasibility of these. AE490x projects are used to give credit torising juniors /seniors, generally in individual projects. These efforts have to be substantial inscope to get good grades. Generally, these are tailored to the student’s expressed interests.Examples are given in Table 3.Table 3: Examples of topics for senior Special Problem projects.Topic Where the student went later“Supersonic shear layers” Engine
AC 2011-1707: ENGINEERING IN EARLY EDUCATION: A MULTICUL-TURAL COMPARISON OF WEB RESOURCESAikaterini Bagiati, Purdue University, West Lafayette Having acquired a Diploma in Electrical Engineering and a Masters Degree in Advanced Digital Com- munication in the Aristotle University in Greece, and after having worked as an educator both in formal and informal settings for 10 years now, I have, since January 2008, started the PhD Program in the School of Engineering Education at Purdue University. My research interests are : Developmental Engineering; Engineering in PreK-3; Early Engineering Curriculum Development; Use of Art to enhance Engineering Design; Educational Software; Educational RoboticsSo Yoon Yoon, Purdue
quantitative measurement of ethical reasoning skills. There isgrowing attention paid to measurement of ethical sensitivity but there has been no methoddeveloped for the measurement of ethical commitment or engagement that has been tested anddisseminated for widespread use. For this project, the final paper written by students thatanswered the question, “What is it to be an ethical engineer?” was used for qualitativeassessment of ethical commitment/engagement. Essays were examined for the development ofthemes that would evidence such ethical commitment/engagement.Table 1 shows the DIT-2 pre-and post-test results (P score and N2 score[3]) for students in eachof the three terms during which the phenomenological curriculum was used. The scores ofstudents
, such as HVAC, energy, plumbing, fire protection and lighting. Also, he supervises many courses in the frame of interprofessional projects (IPRO) program. Areas of Interests: - Zonal modeling approach, - Integration zonal models/building energy simulation models, - Zero Net Energy (ZNE) building, - Airflow in Multizone Buildings & Smoke Control, - Thermal Comfort & Indoor Air Quality, - Predictive modeling and forecasting: Support Vector Machine (SVM) tools, - Energy, HVAC, Plumbing & Fire Protection Systems Design, - Computational Fluid Dynamic (CFD) Application in Building, - BIM & REVIT: application to Architecture and Electrical/Lighting Design systems
), Montreal, Quebec, Canada, in 2001, and the Master’s degree in electrical engineering from the École de Technologie Supérieure (ETS), Montreal, Quebec, Canada, in 2003, and the Ph.D. degree in Telecommunications from the National Institute of Scientific Research – Energy, Materials & Telecommunications (INRS-Telecom), Montreal, Quebec, Canada, in 2008. He served as a research assistant at the Telebec Underground Communications Research Laboratory (LRTCS) from 2005 to 2008, and then during 2009 as a Postdoctoral Fellow at Poly-Grames Research Center, of the École Polytechnique de Montréal, Montreal, Quebec, Canada. He is currently working as a permanent faculty member at the School of Science and Engineering (SSE) of Al
an Assistant Professor of psychology at the University of Tulsa. His research focuses on the effectiveness of simulations, roleplays, and other high-involvement training across a variety of organizational and educational contexts. His educational training projects have included engineering, computer science, and law, as well as responsible conduct of research.Dr. Jeremy S. Daily, University of TulsaDr. R. Alan Cheville, Oklahoma State University Alan Cheville in interested in engineering education and high speed optoelectronics. He is currently an Associate Professor of electrical and computer engineering at Oklahoma State University and is currently serving as a program officer at the National Science Foundation.Dr
current RED projects. Next it moved into two hypothetical cases, to allow for an in-depthdiscussion of revolutionary and not-so-revolutionary ideas. The session concluded with tips for arevolution.In this session, Villa began by explaining that a revolutionary curriculum is one that substantiallyshifts fundamental understandings of learning and the content, practices, and structures ofeducation. This includes a systems level approach that addresses social, contextual, andorganizational processes in addition to curriculum. The approach needs to address coreentrenched historical and cultural norms and core beliefs and values of faculty, students, andother stakeholders in the community.Next Koretsky and Salzman discussed traditional ways of thinking
provide recommendations for improving ethics in engineeringeducation, such as an integrative approach delivered at multiple points in the curriculum andincorporating discipline-specific context.IntroductionThe Accreditation Board for Engineering and Technology requires that engineering programsintroduce students to ethical issues that arise from the practice of engineering [1]. As a result,many engineering departments have recently worked to incorporate ethics into their alreadycrowded curriculum. In this paper, we compare two general approaches to teachingprofessional ethics to undergraduate students, with a particular focus on the effectiveness ofeach mode in improving moral judgment.The College of Engineering at the Georgia Institute of
-curricular experiences and their effects [3-5]. Most of the literature hasindicated that engineering students would benefit from co-curricular activities that includedprofessional skill development (e.g., leadership, critical thinking, communication) and broadenedstudents’ career choices [6, 7]. A research focus on engineering identity and its development asan important issue receives increasing attention in higher education [8-9]. Rodriguez et al. [10]point out that engineering students might choose to leave the field due to a lack of identificationof themselves as future engineers. Existing studies have shown that the experiences ofengineering students within co-curricular activities influence students’ engineering identityformation and
Administrative Committee of Education Society of the Institute of Electrical and Electronics Engineers, Inc (IEEE-EdSoc) in USA and Council Member of "International Council for Engineering and Technology Education" (INTERTECH). She was Vice-President of Brazilian Chapter of Education Society of the Institute of Electrical and Electronics Engineers, Inc (IEEE-EdSoc), State Councilor of SBPC - Brazilian Association for the Advancement of Science and Manager of International Relations of SENAC School of Engineering and Technology. She is Member of IGIP (International Society for Engineering Education), SEFI (European Society for Engineering Education), ASEE (American Society for Engineering Education