project using Sentaurus Process simulation software from Synopsiswas assigned. It was confirmed that the user-friendly environment of the software allowed thestudent to obtain a hands-on exposure to the integrated-circuit fabrication process developmentwithout any of the complex logistics and safety issues that would be involved in offering ahands-on experimental experience with real hardware. Seventeen students including 16undergraduates and 1 graduate took this course during the fall 2014 semester. Page 26.71.4A new computational project and new computational labs were developed for the ECE 4293-01/6293-01, Nano-electronics course. The Medici
vision that, bybroadening the base of participants, we can all work together in trying to answer the questionposed by Felder and Hadgraft: “How can we do that (to put into practice all we know abouteffective teaching and learning)?”The NSF Workshops This project will also build upon what the Center for Mobile Hands-On Learning STEMhas accomplished with HBCU’s during the past few years [10] and extend it to all the Hispanicengineering schools in Puerto Rico. It is yet to be determined if mobile hands-on learning isuniversally accepted [10]. This project will provide initial data to test the hypothesis that mobilehands-on learning can be successfully diffused within the Hispanic undergraduate student andfaculty community of Puerto Rico
development projects in the area of X-ray CT for medical and industrial imaging. She is a named inventor on 9 patents. She has been active in the recruitment and retention of women and minorities in engineering and currently PI for an NSF-STEM grant to improve diversity at Rose-Hulman.Dr. Yacob Astatke, Morgan State University Page 26.360.1 c American Society for Engineering Education, 2015 Collaborative Research: Center for Mobile Hands-on STEMRemarkable progress has been made in the development and implementation of hands-onlearning in STEM education. The mantra of See One, Do One, Teach One overly simplifies theidea but does
Director of the Center for Building Energy Efficiency. She has previously taught courses such as Thermodynamics, Thermal Fluids Laboratory, and Guided Missiles Systems, as well as serving as a Senior Design Project Advisor for Mechanical Engineering Students. Her research interests include energy and thermodynamic related topics. Since 2007 she has been actively involved in recruiting and outreach for the Statler College, as part of this involvement Dr. Morris frequently makes presentations to groups of K-12 students, as well as perspective WVU students and their families. Dr. Morris was selected as a Statler College Outstanding Teacher for 2012, the WVU Honors College John R. Williams Outstanding Teacher for 2012, and
Paper ID #26881Board 111: Gateways-ND: Building the Institutional Infrastructure towardsViable Postsecondary STEM Education ReformDr. Jill Marie Daigh Motschenbacher, North Dakota State University Motschenbacher focuses on educational program development and support, instructional improvement projects, assessment program implementation, science, technology, engineering, and math (STEM) educa- tional reform, and university-wide administrative initiatives at North Dakota State University. Motschen- bacher works to provide opportunities for faculty, instructional staff, and graduate students to advance individual and
mainly include ultrasonic vibration-assisted additive manufacturing process of high performance metallic materials and laser additive manufacturing of ceramic and composite materials. Dr. Cong has taught two undergraduate manufacturing classes and two graduate advanced manufacturing classes at TTU.Dr. Meng Zhang, Kansas State University Dr. Meng Zhang is specifically interested in preprocessing (pelleting and size reduction) for advanced biofuel manufacturing, additive manufacturing, and engineering education innovation. He teaches man- ufacturing processes and renewable energy. Dr. Zhang is actively involving undergraduate engineering students in his research projects with a tradition in providing research
subordinate positions in officially-sanctioned networks of scientific knowledge),a phenomenon that has received less scholarly attention.38Recent efforts to “connect” engineers and scientists to society have given rise to an Page 23.860.2increasing number of interdisciplinary educational initiatives that bring humanities, socialsciences, and even art into technical curricula. Often embodied in project-based servicelearning (PBSL) components, projects, and programs and facilitated by academic andnon-academic institutions alike, these initiatives aim to cultivate what some have termed“humanistic” scientists and engineers.39-40 They are designed to foster in
- ing Tool, and the AIChE Concept Warehouse. His dissertation is focused on technology-mediated, active learning techniques and the mechanisms through which they impact student performance.Ms. Christina Smith, Oregon State University Page 23.298.1 c American Society for Engineering Education, 2013 Collaborative Research: Integration of Conceptual Learning throughout the Core Chemical Engineering Curriculum – Year 2Overview and ObjectivesWe report on the progress of the second year of a CCLI Type 2 project. The goal of this projectis to create a community of learning within the
(FREE, formerly RIFE) group, whose diverse projects and group members are described at the website http://feministengineering.org/. She can be contacted by email at apawley@purdue.edu.Dr. Stephen R Hoffmann, Purdue University, West Lafayette Dr. Stephen Hoffmann is Assistant Head for First-Year Engineering in the School of Engineering Edu- cation at Purdue University-West Lafayette. His background is in chemistry, environmental science, and environmental engineering, and he has done work to bring sustainability concepts into a wide variety of courses in several disciplines.Dr. Monica E Cardella, Purdue University, West Lafayette Monica Cardella is an Associate Professor of Engineering Education and an Affiliate in
c American Society for Engineering Education, 2014 Increasing Retention in Engineering and Computer Science with a Focus on Academically At-Risk First Year and Sophomore Students1. IntroductionThe program described in this paper seeks to increase retention rates for engineering andcomputer science students and to evaluate the effectiveness of best practices for retention ofacademically at-risk students. The main hypothesis is that students who fall behind their cohortearly in their college career are less likely to be retained in engineering and computer science.As such, we focus this project on the academically “at-risk” student group defined as first-yearcollege students who are not
Northwestern University.Linlin Li, WestEd Dr. Linlin Li, Research Director at WestEd, has more than 20 years of experience in research, evaluation, and consulting, including key roles on cross-site, multi-year federally funded projects. Her research work focuses on the areas of developmental psychology, math, science, and social-emotional interventions, and family engagement. Her recent work involves using interactive games to design and evaluate interventions for students living in poverty and at risk for academic difficulties. She received her PhD in Human Development and Family Studies from the University of North Carolina at Greensboro.Nagarajan Akshay, University of California San Diego Akshay Nagarajan is a cognitive
issue, our project, funded by the NSF Improving Undergraduate STEMEducation (IUSE) program, aims to cultivate an early interest in hardware engineering tomotivate students to view it as a promising career option. We are developing a hands-on andgamified curriculum to simplify fundamental hardware concepts such as binary numbers, logicgates, and combinational and sequential circuits. These concepts serve as a stepping stone fordelving into the complexities of AI hardware and edge computing. We utilize hardwareplatforms such as low-cost Field Programmable Gate Arrays (FPGAs) and microcontroller andsensor-based IoT boards to facilitate this learning journey by introducing an additionalabstraction layer. This approach is particularly beneficial for
by determining what sorts of technology is present inchildren’s home, and how such technological experiences impact children’s familiarization withand use of technology in preschool classrooms for children ages three-five. The presented studyis part of a larger, National Science Foundation (NSF) funded project in which preschoolers,their teachers and their families experience an intervention to improve children’s access totechnology and experience in pre-engineering and early computer science education with theirearly childhood teachers.The referenced “umbrella” study’s research questions include: (1) In what ways does theproject’s infusing of play-based early computer science and pre-engineering into childdevelopment programs impact young
the past two years, this site has hosted a diversecohort of undergraduate researchers. They worked on interdisciplinary research projects inelectric and autonomous vehicles, green construction materials and structures, and resilientinfrastructure. In addition to the individual research experiences, all SRTS-REU participantsengaged in cohort experiences including workshops and seminars that addressed sustainabilitytopics and supported the development of students’ research, communication, and collaborationskills. In this short paper, we summarize findings on perceptions of sustainability amongparticipants of the latest cohort of the SRTS-REU program, which can be used to inform similarfuture programs that aim to engage undergraduate students in
Paper ID #7337Meeting the NAE Grand Challenge: Personalized Learning for EngineeringStudents through Instruction on Metacognition and Motivation StrategiesDr. Michele Miller, Michigan Technological University Dr. Michele Miller is an associate professor of Mechanical Engineering at Michigan Technological Uni- versity. She teaches classes on manufacturing and does research in engineering education with particular interest in hands-on ability, lifelong learning, and project-based learning.Dr. James P. De Clerck, Michigan Technological University After an eighteen year career in the automotive industry, Dr. De Clerck joined the
Page 23.896.1 c American Society for Engineering Education, 2013 Mental Models of Students and Practitioners in the Development of an Authentic Assessment Instrument for Traffic Signal EngineeringAbstractConducting fundamental engineering education research on student and practitioner ways ofknowing is a critical and often overlooked first step in curriculum and assessment design. Thisresearch project determined the core concepts related to and synthesized student and practitionerconceptual understanding of isolated and coordinated signal systems. A modified version of theDelphi Method was used to develop consensus among 16 transportation engineering faculty
, Abington Janice M. Margle is an associate professor of engineering at Penn State-Abington. She received her M.Sc. and B.Sc. degrees in Mechanical Engineering from Pennsylvania State University. She is co- PI and project manager of the NSF-Sponsored Toys’n MORE grant and currently teaches introductory thermodynamics and introductory engineering design courses. She is active in promoting activities to increase the number of women and minorities in engineering. She is a licensed professional engineer and has worked for IBM, the Navy, NASA, PPL, and private industry.Dr. Jill L Lane, Clayton State University Dr. Jill Lane has more than fifteen years experience working with faculty and teaching assistants on methods to
Coast University. ©American Society for Engineering Education, 2025 Empowering Student Success in Emerging Technologies through S-STEM Scholarships, Mentorship, and Workforce DevelopmentAbstractThe Rebooting through EmTech Programs (REP) project addresses the critical shortage ofskilled professionals in emerging technology (EmTech) fields by focusing on increasing STEMdegree completion among low-income and underrepresented students, particularly in high-demand areas like data analytics, cybersecurity, and information systems technology. MiamiDade College, a large, diverse, Hispanic-Serving Institution, is well-positioned to lead thisinitiative, particularly as EmTech job opportunities in Miami-Dade County
Dourado1 , Christian Zuniga-Navarrete2 , Alvin Tran3 , Luis Javier Segura2 , Xiaomei Wang2 , and Campbell Bego4 1 Mechanical Engineering, University of Louisville 2 Industrial Engineering, University of Louisville 3 Computer Science and Engineering, University of Louisville 4 Engineering Fundamentals, University of LouisvilleAbstractThis work-in-progress focuses on the completed Phase 1 of a funded NSF-IUSE project employ-ing explainable machine learning (ML) models to predict engineering attrition while identifyingmalleable factors for individualized targeted
remainingflexible and relevant in many contexts and classes [13], [14]. Unfortunately, numerous criticismsand questions have been raised by practitioners and academics alike about case-based pedagogy[17], [18], [19], [20], [21]. Several key critiques conclude that discipline-specific topics can failto teach relevant ethical knowledge [17], [20], successful implementation depends heavily on theskills of the instructor [18], [19], [21], and that cases can deflect complexity in engineeringpractice [14], [17]. Despite the long history of case-based engineering ethics training, we are stillstruggling to develop undergraduate engineers who can identify real ethical challenges inengineering [1], [2], [9].Moving beyond traditional case-based pedagogy, this project
Affairs at California Polytechnic State University, San Luis Obispo. He is Lead Principal Investigator for the NSF-funded California State University Alliance for GraduateProf. Dominic J Dal Bello, Allan Hancock College Dom Dal Bello is Professor of Engineering at Allan Hancock College (AHC), a California community college between UC Santa Barbara and Cal Poly San Luis Obispo. At AHC, he is Department Chair of Mathematical Sciences, Faculty Advisor of MESA (the Mathematics, Engineering, Science Achievement Program), has served as Principal/Co-Principal Investigator of several National Science Foundation projects (S-STEM, LSAMP, IUSE). In ASEE, he is chair of the Two-Year College Division, and Vice-Chair/Community
complexity and high-throughputmeasurement approaches lead to massive “big data” sets, often with thousands of heterogeneous values[6]. This complexity requires data science tools such as data-driven modeling [7-8] and machinelearning [9-10] to appropriately integrate heterogeneous data [11]. It is imperative to train a diverse newgeneration of scientists in the concepts and practice of multi-scale systems bioengineering andbiomedical data sciences (BDS) research. Within the biotechnology sector and academia, demand forgraduates who possess expertise in the analysis of high-throughput data, as well as the modeling skillsneeded to analyze pathological states and identify viable therapies, has increased dramatically [5].NSF Project and MethodologyTo
presentation in person.All developed content materials are reviewed by the Curriculum Committee, which consists ofone faculty member and one graduate student from each university partner and chaired by theEducation Director. Once materials have been vetted by the committee and updated, they areshared among all partners and more broadly disseminated through various national outlets andthe CBBG curricula website.Cross-Partner Educational Opportunities - CBBG fosters educational opportunities throughcollaborations across partner institutions, non-CBBG universities, industry, and primarilyundergraduate and foreign institutions on publications, outreach, and curricula. Students andfaculty collaborate on joint projects, share expertise through virtual
the other hand, in theworkplace, engineering involves solving complex problems using practices oftenunderemphasized in the university setting such as collaborating in teams, learning from failure,and making trade-offs [1], [2], [3], [4]. In this project, we developed an industrially situatedphysical and virtual laboratory which engages students in practices more representative of theengineering workplace.We take a sociocultural orientation that positions student learning as participation in valueddisciplinary practices as opposed to the more traditional stance which positions learning as theacquisition of discrete knowledge and skills [5], [6], [7], [8]. This framing follows the ‘practiceturn’ in the learning sciences which calls for students
PD to both teach and encourage students to appreciate, understand, and perhaps,identify with engineering.To empower elementary school teachers for a strong and diverse future energy engineeringworkforce in Montana, we aimed to recruit pre- and in-service elementary teachers (grades K-5)from Montana’s rural and reservation communities to participate in an NSF RET Site housedwithin the Montana Engineering Education Research Center (MEERC) at Montana StateUniversity (MSU) in Bozeman, MT. The MEERC RET Site leveraged both existing and newpartnerships formed throughout the three-year project to provide teachers with researchexperiences in the wide array of energy-related research at MSU. Through this experience,teachers created culturally
importance ofGD to future industry practices is not yet reflected in the curricula being taught to the nextgeneration of engineers. Thus, the motivation of our multi-institutional project is to define anddisseminate Generative Design Thinking in three research gaps: design thinking and designcognition to explore high/low-level cognitive behavior during GD, design education to createand test materials to teach GD, and developing GD tools and methods.Design Thinking and Design CognitionThe first areas that our research addresses are to explore design thinking and design cognitionrelevant to GD. First, we devise and present the Paradigmatic Design Thinking Model whichnovelly defines design thinking as being situated within three factors, each with a
mutual agreements acrosscolleges may then vanish, continued disputes over academic territory, and challenges over resourceallotments. Essentially, there may be little to no incentives for academic departments to engage intransdisciplinary programming within the existing structures of higher education. However, some insightsand practices have emerged from this research project that can be useful in moving towardtransdisciplinary learning around topics of convergence. Accordingly, the paper will highlight features ofan educational model that spans disciplines along with the workarounds to current institutional barriers.This paper will also provide lessons learned related to 1) the potential pitfalls with educationalprogramming becoming “un
,Signals and Systems, and Microcomputers I, through which students gain solid foundation beforestudents take on senior design projects. Lab modules with open-ended design learning experience through using a lab-in-a-boxapproach were developed to allow students to solve lab problems with multiple approaches thatallow problem solving independently and collaboratively. Because this innovative lab designallows problem solving at various cognitive levels, it is better suited for concept exploration andcollaborative lab learning environments as opposed to the traditional lab works with a“cookbook” approach that tend to lead students to follow certain procedures for expectedsolutions with the absence of problem exploration stage. In addition to
. During this time, Christina discovered a love for research, prompting her to pursue a Ph.D. She is a recipient of both a Graduate School Recruitment Fellowship and a Texas New Scholar’s Fellowship. She is a member of the National Science Teachers As- sociation, and currently serves as the STEM Education representative to the Graduate Student Assembly at UT.Dr. Todd L. Hutner, University of Texas, AustinDr. Richard H. Crawford P.E., University of Texas, Austin Dr. Richard H. Crawford is a Professor of Mechanical Engineering at The University of Texas at Austin and is the Temple Foundation Endowed Faculty Fellow No. 3. He is also Director of the Design Projects program in Mechanical Engineering. He received his BSME
1997 with a Hesburgh Award Certificate of Excellence. He served as Project Director a National Science Foun- dation (NSF) Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized innovative undergraduate engineering curricula. He has authored over 70 papers and offered over 30 workshops on faculty development, curricular change processes, curriculum redesign, and assessment. He has served as a program co-chair for three Frontiers in Education Conferences and the general chair for the 2009 conference. Prof. Froyd is a Fellow of the IEEE, a Fellow of the American So- ciety for Engineering Education (ASEE), an ABET Program Evaluator, the Editor-in-Chief for the