. ©American Society for Engineering Education, 2023Exploring Undergraduate Engineering Students’ Understanding of PowerDynamicsIntroductionEngineering education in the United States has grappled with the issue of representation from itsinception, but in the last few decades, there has been a grand effort to improve diversity, equity,and inclusion in the field of engineering [1], in particular for minoritized students, or studentsfrom racial minority backgrounds. The goal of representation has been to have the demographicsof students in our field be representative of the demographics of our nation. Yet, even though wehave seen numbers fluctuate for different minoritized groups, either decreasing or slightlyincreasing, participation rates remain the
University of Dayton (2003) and a Ph.D. in Engineering Edu- cation from Purdue University (2008). Her research focuses on strategies for design innovations through divergent and convergent thinking as well as through deep needs and community assessments using design ethnography, and translating those strategies to design tools and education. She teaches design and en- trepreneurship courses at the undergraduate and graduate levels, focusing on front-end design processes.Ms. Erika Mosyjowski, University of Michigan Erika Mosyjowski is a PhD student in the Center for the Study of Higher and Postsecondary Education at the University of Michigan. She also earned a Master’s in Higher Education at Michigan and a Bachelor’s in
State University Olga Stavridis is the Assistant Director of OSU Women in Engineering (WiE) Program. She spent six years as a Senior Lecturer for the College of Engineering’s Engineering Education Department at The Ohio State University. She has been teaching Fundamentals for Engineering I and II for the Freshmen Engineering Scholars Program; Engineering Graphics and Spatial Visualization Courses for the last five years. She was previously the Director of the Engineering Co-op and Internship Program at Ohio State. Olga received her Bachelor’s Degree in Industrial and Systems Engineering from Ohio State and Mas- ter’s Degree in Industrial Engineering from Arizona State University. She has twelve years of industry
EWBprojects, with their explicit social justice mission, has already been shown to have a positive effecton students, attitudes towards community service, and career expectations [2–7]. Other work hasdocumented the effects of service learning participation on meeting ABET learning outcomes [6]and providing global engineering competencies [8, 9]. While the benefits of service learning forstudent education are enticing, there is also some evidence that participation in projects with localcommunities, in contrast to internationally-based field work, can achieve the same studentoutcomes in terms of technical and professional skills [10, 11].Integration of service learning into the curriculum also necessitates the consideration of impactson the
environment andculture for the establishment of student driven companies, improvement of commercialization ofuniversity intellectual property, enhancement of the ability to attract technology-basedbusinesses and provision of a living laboratory for student to work within the entrepreneurialenvironment. Just as is the case for the traditional research universities, business incubators atregional universities provide the supporting infrastructure that permits the university faculty totake advantage of SBIR and STTR programs to launch businesses and move university IP towardcommercialization. In addition, the formation of a university-managed business incubatorprovides an excellent environment for non-university established technology businesses
that these do not yet offercybersecurity infrastructures unique to wireless networks. Lixin Wang, et al paper [2] describedfour course modules on critical cybersecurity topics that can be adopted in college-level cyber-security courses. One of the modules is on wireless networking security and includes an NDGNETLAB+ based lab [3]. The lab was created to enable the students to decrypt WPA/WPA2 trafficusing the airdecap-ng tool and then analyze the decrypted 802.11 wireless packets with Wireshark.The lab lacks the opportunity for the students to gain practice on configuring wireless hardwarecomponents such as Access Points and Wireless Clients. Also, it is limited to personal WPA/WPA2security mode.We found the following non-academia resources to
influence on“current campus climate and practices” [8]. The organizational dimension considers thosestructures and processes that exist within an institution that may have unforeseen effects onindividuals or groups, while the compositional dimension uses objective measures (e.g., size,selectivity) to characterize social and ethnic groups. The psychological dimension illustrates “anindividual’s perception of institutional responsiveness” to the issue being explored [7]. Finally,the behavioral dimension describes “the context, frequency, and quality of [social] interactions”across groups within an institution [8]. These five dimensions of climate were complemented byexisting explorations of African American and Black students’ perceptions of their
centers on effective faculty mentoring practices, broadening participation in higher education, and the educational attainment and schooling experiences of Mexican descent youth in the mid-20th century.Dr. Sarah Elizabeth Cooksey, University of Colorado Colorado Springs Sarah Cooksey is a Ph.D. graduate from the University of Colorado Colorado Springs. She currently works at UCCS as a Research Assistant and Lecturer in the department of Leadership, Research, and Foundations and on a grant with the National Science Foundation trying to understand the career decision making process of underrepresented minorities in STEM fields. Sarah is a special education teacher in the state of Colorado, whose specific research
for Engineering Education, 2018 A Size and Scale Laboratory Experiment for an Introductory Nanotechnology Course1 AbstractA size and scale laboratory experiment has been developed for an associate level course innanotechnology. This lab will assist students in conceptualizing the size of particles bycompleting three exercises: 1. Physically measuring an oleic acid molecule. 2. Comparingthe molecules length to other nano-sized objects by creating an enlarged scale which isthen compared to familiar objects at normal scale. 3. Examine the quantum effects ofquantum dots to introduce students to the unique properties of nanoparticles. This paperdetails these three exercies and evaluates their effectiveness in teaching
, whichwas also attributed to engineering negligence and a lack of proper inspection. This exercise isparticularly effective if students are convinced that we learn important lessons from history, asthey will discover that we do not. We tend to be historically myopic.ConclusionsDespite the loss of life and environmental degradation that resulted from these three cases, therewere some benefits: the Donora death fog provided the initial impetus for the first Clean Air Act,passed in 1955;12 fishing improved in Lake Peigneur, with the introduction of new salt waterspecies;25 and the Sampoong collapse exposed bribery and corruption in the constructionindustry, leading to more oversight.Integrating small, unusual cases in technical classes is an effective
, the experiences of underrepresented undergraduate engineering students and engineering educators. In addition to teaching undergraduate engineering courses and a graduate course on entrepreneurship, she also enjoys teaching qualitative research methods in engineering education in the Engineering Education Systems and Design PhD program at ASU. She is deputy editor of the Journal of Engineering Education.Dr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and associate professor at the University of New Mexico in the Organization, Information and Learning Sciences program and in the Chemical and Biological Engineer- ing Department. She served as Co-PI on an NSF RET Grant and a USDA
experience in the domain task and explicit instructions to becreative produce more creative outcomes when given more choice.3 Experience in architecture also contributes to factors such as designers being more efficient, solutions being lessrisky and more appropriate but not being more creative. Some have theorized that creativity is equivalent to anintelligent quotient (IQ) but no successful tests have been developed to prove it. Lack of experience also haspsychological effects on the individual i.e., feelings of incompetence at a creative task (Deci 2005). Page 14.236.3The objective of this paper is to show that we can assess
Engineering Edu- cation from Purdue University (2008). Her research focuses on strategies for design innovations through divergent and convergent thinking as well as through deep needs and community assessments using design ethnography, and translating those strategies to design tools and education. She teaches design and en- trepreneurship courses at the undergraduate and graduate levels, focusing on front-end design processes.Dr. Jaclyn Kuspiel Murray, University of Michigan Jaclyn K. Murray is a Research Fellow at the University of Michigan in the Department of Mechanical Engineering. Her interests include design, creativity, spatial skill development, and epistemic agency formation across STEM fields.Dr. Seda
institutions.The transcripts were analyzed using emergent thematic coding, as well as looking specifically forevidence related to the four criteria for effective learning from Dewey (generate interest,worthwhile intrinsically, awaken need to learn, and extended time span). When asked what theywere doing outside of class and school work, fifteen students shared their experiencesparticipating in activities with K-12 students. For example, one female student participated insignificant outreach activities for three years through various co-curricular and extracurriculargroups such as the Society of Women Engineers and the Earthquake Engineering ResearchInstitute. Two other women were paid to facilitate engineering activities in K-12 classroomsduring all four
one nanometer “a magical point on the dimensional scale.”3 Thisdimension holds its power because it exists as a maximum of one world and a minimum in theother. Nanoscale science and engineering exists in a transitional place where properties movefrom the dependence on bulk materials to isolated atoms.Nano in the Middle- and High-School Science CurriculaVarious recent literature called for the need of a science curricula revolution and suggested that Page 12.873.2integrated science courses, which allow students to explore cross-disciplinary concepts, are abetter approach to science education.4,5,6 Integrated science courses can address the
for the innovation Studio in the Engineering department.Luke G. Grzech, Wartburg College Luke is a Student in the Engineering Science Department at Wartburg College. He is getting his major in Engineering Science and Minors in Mathematics and Leadership. Research interests include recruitment into STEM and diversity in STEM.Prof. Kurt Henry Becker, Utah State University Kurt Becker is the current director for the Center for Engineering Education Research (CEER) which examines innovative and effective engineering education practices as well as classroom technologies that advance learning and teaching in engineering. He is also working on National Science Foundation (NSF) funded projects exploring engineering
students were interviewed at two largeCanadian graduate engineering schools to gather data on participants’ perceptions of admissionprocesses, institutional culture and support resources. Equal numbers of women and men wereinterviewed to determine if gendered experiences or perceptions of the culture were experiencedand all interview data was anonymized to protect the identity of participants.Findings indicate that informal practices, containing unspoken rules, ran parallel to formaladmission processes; certain experiences of institutional culture were gendered, particularlyaround notions of success; and support systems were often lacking or insensitive to the needs ofgraduate students. Participants offered a number of suggestions to improve
administration and human resources, giving classes to undergraduate, advanced, and postgraduate students. She is currently the Administrative Secretary of the School of Engineering of the Andrés Bello University.Maria Elena Truyol María Elena Truyol, Ph.D., is full professor and researcher of the Universidad Andrés Bello (UNAB). She graduated as physics teacher (for middle and high school), physics (M.Sc.) and Ph.D. in Physics at Universidad Nacional de Córdoba, Argentina. In 2013 she obtained a three-year postdoctoral position at the Universidade de Sao Paulo, Brazil. Her focus is set on educational research, physics education, problem-solving, design of instructional material and teacher training. She teaches undergraduate courses
increase and influx of domestic manufacturing talent into the national workforce dueto the necessity to manufacture wartime supplies [1] and the effects of the large manufacturingexpansion [2]. However, in more recent decades, experienced manufacturing engineers andtechnicians seem to be retiring faster than they can be replaced [3]. As in a number ofmanufacturing industries across the U.S., the metalcasting industry is experiencing difficult timesin hiring replacements for their skilled technicians, engineers, and managers. When these menand women leave the workforce, they take decades of knowledge and experience inmanufacturing with them [4]. In fact, it has become such an issue that the domesticmetalworking manufacturers qualified to produce
batteriesand energy storage devices have improved significantly. However, this progress has not beenable to keep up with the development of microprocessors, memory storage, and sensors ofelectronic applications. Battery weight, lifespan and reliability often limit the abilities and therange of such applications of battery powered devices. These conventional devices weredesigned to be powered with batteries as required, but did not allow scavenging of ambientenergy as a power source. In contrast, development in wireless technology and other electroniccomponents are constantly reducing the power and energy needed by many applications. Ifenergy requirements of electronic components decline reasonably, then ambient energyscavenging and conversion could
also teaches global business. As Principal Investigator for a Hewlett-Packard Technology for Teaching – Higher Education – Grant received from HP, he is conducting research into the effectiveness of advanced technology in teaching complex information structures. He is a member of the Steering Committee for Project Inkwell (www.projectinkwell.com). Prior to joining the National University faculty, he was President/CEO, SegWave, Inc., an educational technology systems company he founded in 2000. He was Vice President for Russia and Eastern Europe, Qualcomm Inc., 1995-99, with offices in San Diego and Moscow. He was with Northern Telecom, 1984-95 in multiple positions
, techniques, skills, and modern tools of their disciplines b. an ability to apply current knowledge and adapt to emerging applications of mathematics, science, engineering, and technology Page 13.918.3 c. an ability to conduct, analyze and interpret experiments, and apply experimental results to improve processes 2 d. an ability to apply creativity in the design of systems, components, or processes appropriate to program educational objectives e. an ability to function effectively on teams f. an ability to identify, analyze and solve technical
AC 2010-804: CAREERME: ENCOURAGING AN ADVANCEDMANUFACTURING WORKER PIPELINESandy Feola, Sinclair Community College Sandy Feola is the Customer Relations Manager for the NCME (National Center for Manufacturing Education) at Sinclair Community College and a part time instructor for the University of Dayton’s Engineering Technology Department (since 2007) and Sinclair Community College’s Operations Technology Department (since 1995), teaching industrial engineering and quality engineering curriculum. As an independent quality professional in Dayton, Ohio since 2004, She provides consultation and training to manufacturing and service organizations for performance improvement initiatives in the
beneficialbecause it provided the opportunity to expose soon to be juniors in high school to a diverse groupof transportation educators and professionals working in various modes of transport. Primarily, the 2001 PR-STI emphasized both the benefits associated with a career intransportation as well as the education required to enter this important field. The PR-STI wasdesigned to create an educational and training delivery system that: (1) attracted secondaryschool students to and enhance their interests in careers in transportation: (2) improved Page 7.1152.1mathematics, science, and technology skills; and (3) through creative
Paper ID #37542Board 168: Exploring K-12 S,T,E,M Teachers’ Views of Nature ofEngineering Knowledge (Work-in-Progress)Dr. Jeffrey D. Radloff, SUNY Cortland Dr. Jeffrey Radloff is an assistant professor in the Childhood/Early Childhood Education Department at SUNY Cortland, where he teaches elementary science methods, STEM foundations, and critical media literacy courses. He has a background in biology and pre-college engineering education, and he received his Ph.D. in Curriculum and Instruction from Purdue University. Dr. Radloff’s interests are in understand- ing how to best support pre- and in-service teachers
,design, and professionalism knowledge and skills during that preparatory semester in order tothrive in their upcoming work experiences. While students are in their full-time co-ops, they arealso full-time students, completing their courses in the evening. All learning activities arefacilitated to accommodate faculty, staff, and students who are scattered throughout the nation.The Iron Range Engineering team consists of both faculty and staff members. The facultymembers in the program are Ph.D.-holding, tenure-track professors. Within the staff group, thereis a unique role called a facilitator. Facilitators all hold bachelor’s and/or master’s degrees inengineering and have industry experience. In traditional academic spaces, the support
Paper ID #23389Teacher Implementation of Structured Engineering Notebooks in Engineer-ing Design-based STEM Integration Units (Fundamental)Hillary Elizabeth Merzdorf, Purdue University, West LafayetteAmanda C. Johnston, Purdue University, West LafayetteDr. Kerrie A. Douglas, Purdue University, West Lafayette Dr. Douglas is an Assistant Professor in the Purdue School of Engineering Education. Her research is focused on improving methods of assessment in large learning environments to foster high-quality learning opportunities. Additionally, she studies techniques to validate findings from machine-generated educational data.Prof
(SSI) have received increased attention from many science andengineering educators, as it provides a meaningful learning opportunity to improve students'argumentation skills [4] - [7]. In the SSI environment, students can formulate positions, negotiatediverse ideas, and make decisions about important issues directly related to their everyday life [8].The problems in SSI contexts are “more open-ended, debatable, complex, or ill-structured” [9,p.140] than the general scientific hypothesis in the laboratory. In this kind of environment, studentsare required to apply their epistemic understanding of argument (i.e., what counts as good evidence,what counts as a good claim) to debate, reach a consensus, or make decisions [10] - [12].Sadler [6
. He is also founder and co-developer of the Engineering Cultures course (ranked #2 of 190 multimedia contributions to www.globalhub.org)Masanori Wada, Tokyo Institute of Technology Page 22.273.1 c American Society for Engineering Education, 2011 1 Avoiding Inferiority
attitude was prevalentamong all academic levels but less so for freshmen. Despite their experience at the university priorto the pandemic, seniors also felt isolated and marginalized. A senior student stated, “Making friendsand meaningful relationships was impossible. Professors' lack of empathy for students during thisperiod was stressful.” (Senior, EE, SBCOMP=2.4).Isolation and Mental Health EffectsStudent responses alluded to a pre-existing problem of feeling isolated that the pandemic revealedand exacerbated. This was especially prevalent for Computer Science (CS) majors. For example, onesenior stated the pandemic had “no effect on [her] social life” (Senior, CS, SBCOMP=2.8). Whilesome students attempted to make light of this, they described