all jobs in the national science and engineeringworkforce [8]. These numbers not only expose the ineffectiveness of diversity, equity, andinclusion efforts within engineering, but also speak to a growing crisis confronting AmericanIndian reservation communities. Tribal lands have been and will continue to be the site of large-scale public works projects of national importance (e.g., natural resource extraction), and yet thenegative impacts of such projects continue to be borne disproportionately by local populations.Numerous examples exist within living memory, from the permanent inundation of Native townsand agricultural land following the construction of several dams along the Missouri River in the1950s [9], to the bulldozing of Arikara
property protection strategies, specifically tailored formedical device industry. In this module, students learn these knowledge and skills on intellectualproperties, and apply them in team projects to develop medical device inventions inspired bystudents themselves. Students will draft provisional patent application including basic drawing,descriptions, and claims, and can choose to submit their applications to USPTO.Teaching Goals and ActivitiesThe major teaching goals of this module are aligned with KEEN’s core concepts of 3Cs to fosterentrepreneurial mindset, which are summarized in the list below: • Curiosity - Demonstrate constant curiosity about our changing world: Students will develop innovative concepts in medical device design to
Dr. Md Fashiar Rahman is a Research Assistant Professor of industrial applied research at The University of Texas at El Paso Department of Industrial, Systems and Manufacturing. He holds a PhD degree in Computational Science Program. He has years of research experience in different projects in the field of image data mining, machine learning and deep learning for industrial and healthcare applications. In addition, Dr. Rahman has taught many different engineering courses in industrial and manufacturing engineering. His research area covers advanced quality technology, AI application in smart manufacturing, health care applications, and computational intelligence/data analytics.Tzu-liang Bill Tseng (Professor and Chair
a result, Mount Everest, in addition to being the tallest peak on theplanet, is also the world’s highest garbage heap. It is a far cry from the awe-inspiring vistasMallory, Irvine, and other climbers witnessed a century ago.This paper explores the complex issue of the environmental degradation of Mount Everest,focusing on ethical implications, such as environmental stewardship and waste management, andoffering suggestions for classroom implementation. Specifically, the paper examinesbackground, classroom suitability, problem definition, ethical considerations, and potentialengineering solutions, such as the Mount Everest Biogas Project and a variety ofretrieval/recycling efforts. Instructors in search of a unique and compelling ethics case
Graduate Research Fellowship, she earned Ph.D. and M.S.E. degrees in computer science and engineering from the University of Michigan. She has published dozens of peer-reviewed works related to her interests in engineering education and graduate student success, and has been recognized as a Master Facilitator by the National Research Mentor Network. She is also co-PI for two NSF-funded projects that enhance graduate student success: one is a professional development program offering training in communication, teamwork, leadership, and mentoring skills for interdisciplinary work; the other is a joint effort with Spelman College (a historically black institution serving women) to expand opportunities and increase
research projects in quantum computing,which is a high-impact educational practice.1. IntroductionAs current semiconductor-based integrated circuits reach the limits of scaling, researchers areturning their attention to novel device technologies and new computing architectures to obtaincontinued improvements in computing performance [1]. A promising emerging technology isquantum computing, which is theoretically predicted to provide exponential increases in speedover classical computers for certain problems, such as solving linear systems of equations [2]and factoring integers via Shor’s algorithm [3]. The potential to factor large integers inpolynomial time with quantum computers makes current encryption methods vulnerable – thisinitially fueled
Innovation Center,Army Corps of Engineers, Wells Fargo, Thermo Fisher Scientific, Aurubis, Rich Products,Packhouse Technology Solutions, CUBRC, M&T Bank, and Roswell Park Cancer Institute. Oneof the main features of the program is the experiential component with an emphasis ondeveloping project management and professional communication skills.The original DSA program currently comprises of ten courses (for a total of 30 credit hours)including the following: (1) four required courses: MAT 646 Introduction to Statistics for DataScience; MAT 616 Elements of Mathematics, Programming and Computer Science to DataScience; CIS 512 Introduction to Data Science and Analytics; CIS 600 Machine Learning forData Science; (2) five elective courses to be
interdisciplinary field of origami engineering.Graded components of the course included participation (20% of grade, measured throughparticipation via iClickers, bonus questions, surveys), five homeworks (20%), a midterm exam(30%), and a final project (30%, presented at the end-of-semester trade show). There was onerequired text, with additional readings assigned.Three sessions of the previous course were devoted to performance skills development. All threewere taught by a leadership faculty member (the same one as previously mentioned) andcentered on team development and elements of a venture pitch in preparation of students’ tradeshow presentations.Students were given the option of forming teams for their final project. At the beginning of thesemester
Paper ID #38115Exploring the Quality of Course Deployment in EngineeringEducation: A Quantitative Assessment using QualityFunction DeploymentTzu-liang Bill Tseng (Professor and Chair)Md Fashiar Rahman Dr. Md Fashiar Rahman is a Research Assistant Professor of industrial applied research at The University of Texas at El Paso Department of Industrial, Systems and Manufacturing. He holds a PhD degree in Computational Science Program. He has years of research experience in different projects in the field of image data mining, machine learning and deep learning for industrial and healthcare applications. In addition, Dr
Paper ID #38354Sustainable bridges from campus to campus: Summer bridgeprogram implementation across four campusesCatherine L. Cohan (Assistant Research Professor) Assistant Research Professor: My current responsibilities are managing National Science Foundation-funded engineering education projects. The focus is on graduating more underrepresented students and low-income students in Engineering.Lauren A Griggs (Director, Multicultural Engineering Program, AssistantTeaching Faculty) Dr. Lauren Griggs received her B.S. in Engineering Science from The University of Virginia. She received her Doctor of Philosophy in
systems can improve the performance and efficiency of heavy duty vehicles. He also researches techniques for the creation of flexible components with embedded sensors using additive manufacturing for robotics, rehabilitation and industrial applications. During his time at Purdue, he has been awarded several grants to develop technology for the improvement of fluid power systems. As the director of his research group at Purdue, he received funding for the development of contamination resistant valves for the throttle control of fighter jet engines. The resulting design of this project generated a modified poppet valve that improved its response time from 40ms to 10ms. He has developed with his students an IoT irrigation
expand the usage of AR/VR in the university setting. Potential challengesfor widespread adoption include faculty education, lack of educational infrastructure for XR, andlimited curriculum space to fit in this additional component. Therefore, a solid XR traininginfrastructure is desired to facilitate the adoption process.This paper is a work-in-progress and will emphasize the development of the VR infrastructurefor Civil Engineering courses. Three main tasks are involved in this project. The first task is tocompile a broad literature review of the use of XR technology in Civil Engineering education toprovide insight to the instructors. The second task is to develop a series of tutorials for hardwareusage and software usage. The third task is to
Powered by www.slayte.com TeachingEngineerstoFormandShareVision David Novick, Meagan Kendall, Melanie Anne Realyvasquez, Sebastian Palacios Department of Engineering Education and Leadership The University of Texas at El Paso AbstractThis paper reports a project teaching engineering students the leadership skills of forming andsharing vision. We describe the skills of forming and sharing vision, review related learningoutcomes, and describe six teaching modules delivered in a senior capstone course sequence inthe 2020-21 and 2021-22 academic years at the University of Texas at El Paso, a Hispanic-serving R1 university. To assess the
they might demonstrate to a potential employer or graduate school that theywere proficient or highly proficient in the course learning outcomes, their motivation throughout thecourse may be higher.Reframing the course learning outcomes as skills to be demonstrated by students in their e-portfolioencourages students to become engaged in a treasure hunt during the semester to find artifacts andinterpret them through narrative as a way to illustrate to employers or grad schools how their thinking hasevolved and grown. Suddenly the daily tasks become relevant to finding a job, gaining acceptance to gradschool, completion of a research project, or to other longer term goals a student may have.As an example, if the course learning outcomes were
analysis and modeling skillsthat would be needed for research projects that had to be conducted at a distance and so could notrely on experimental methods.Another important design change that was made to accommodate the online format was movingfrom mentoring triads to mentoring “pods.” Typically, we have formed mentoring triadsconsisting of an undergraduate research Scholar, a graduate student mentor, and a facultymentor. For the online offering, we first paired faculty where one typically uses experimentalresearch methods and the other typically uses computational research methods in order tofacilitate the planning of a rich set of Scholar projects that could be completed fully online. Eachfaculty member identified a graduate student mentor from
for aselection of successfully deployed tools are included in Appendix A.As other faculty became interested in these projects, it became clear that we would benefit fromstandardizing some of the grading tools. After determining a set of criteria and standards fordeveloping a more universal set of tools, which included guidelines for ease of use andadaptability, two GTAs were given the task of synthesizing the various existing grading toolswhile adding a few desired features. The result was grading tools in Google Sheets that allowgraders and instructors to review various grading statistics, rapidly modify rubrics, use and applystandard comments, and automatically generate, share, and upload complete rubrics for eachstudent or team to the LMS
Paper ID #37804Engagement in Practice: Reflections on Remote Community-Engaged Learning in the Context of a MultilateralInternational PartnershipPatrick Sours (Graduate Student)Howard L. Greene (Senior Project Manager) Howard Greene directs K-12 Education Outreach for the College of Engineering at The Ohio State University, bringing a rich array of university research and teaching intersections to the K-12 community. Specifically, Howard’s work seeks to improve awareness of engineering careers and academic preparation in K-12 and to build the skills of career ambassadorship in OSU undergraduate students. Howard
to Address Disasters Project funded by the Division of Graduate Education - NSF Research Traineeship (NRT)BackgroundDisasters continue to devastate communities across the globe, and recovery efforts require thecooperation and collaboration of experts and community members across disciplines [1-3]. TheDisaster Resilience and Risk Management (DRRM) program, funded through the NationalScience Foundation (NSF) Research Traineeship (NRT), is an interdisciplinary graduate programthat brings together faculty and graduate students from across one large, mid-Atlantic universityin order to develop novel transdisciplinary approaches to disaster-related issues. The projectseeks to improve understanding and support proactive decision-making relative to
], [9], [10]). Additionally,studies of wellness and coping related to graduate students are rare. While studies of specificstressors and populations all constitute valuable contributions to the study of doctoral studentretention, our team posits that there is a need for studies which explore multiple sources of stress.These stressors can then be compared to each other and to literature for existing coping strategiesto better understand which stressors are the most severely and frequently experienced bygraduate students. Such an effort can promote proactive interventions which improve upondoctoral students’ habits and the cultures they are situated in as an effort to avoid retentionissues.Our project proposes to situate and compare different
ensure a consistent levelof complexity and difficulty for the exams from one year to the next. Figure 2 displays examplesof the assemblies that students were tasked to create on the final exams from 2019 – 2021.Figure 2. Assemblies required to be modeled by students on the ENCP A102 Final Exam for SP19, SP20, and SP21 (from left to right).A final project was also consistently assigned in ENCP A102 from SP19 to SP21. For thisproject, students created a 3D model and a corresponding 2D drawing of an assembly of theirchoosing. Consistent with the assessment of homework and exams, the final project evaluatedstudents in their ability to accurately represent their ideas in Creo (3D model and 2D drawing).However, this
presented both an opportunityand a challenge, in that creating these questions would be beneficial to both the students learningfrom them as well as the instructors who are able to utilize them, but that creating questions of ahigh enough quality focusing on multiple conceptual perspectives is a significant timecommitment.In other courses, we had previously created course projects focused on curriculum development,in which students would develop learning tools that they themselves would have found helpful tolearn from in their coursework.10 In these projects, students found creative ways to communicateconcepts central to the course, including the writing and solving of exam-style problems. Studentsresponded extremely positively to these projects
Penn State. Dr. Hanagan has focused most of her research career on floor vibration serviceability, with a strong emphasis on steel structures. She has overseen dozens of research projects, participated in several committees, supervised many students, and written numerous papers that have contributed to the body of knowledge in vibration serviceability. While Dr. Hanagan’s primary research interest has been in the vibration serviceability of structures, one of her greatest passions is teaching. Her area of teaching specialization is structural engineering with a particular emphasis in the analysis and design of buildings. At Penn State she currently teaches a structural analysis course, the advanced steel design course
-changing, global,connected, competitive, and technology-driven world.To highlight how high the demand for cyber security professionals is, the US government agency,the Bureau of Labor Statistics [5], predicts that the number of cyber security jobs will increase 28percent by 2026. According to the U.S. Department of Labor Employment Occupational OutlookHandbook, cyber security related jobs are projected to grow 33 percent from 2020 to 2030 alone,much faster than the average for all other occupations. These jobs will include skilled analysts,managers, and administrators. The numbers don’t include closely related fields, shown in Table 1.for reference. The growth for the Information Security Analyst field (ISA) alone translates to about16,300
supporting non-dominant student populations. Her current research focuses on creating inclusive and equitable learning environments through the development and implementation of strategies geared towards increasing student sense of belonging.Joseph Arthur Brobst (Research Assistant Professor) Previously a high school science teacher, I am now an educational research and program evaluation specialist located in the The Center for Educational Partnerships at Old Dominion University. Though I have been involved in a wide variety of projects and initiatives, common threads throughout my work have included STEM teacher professional development and broadening participation in STEM among individuals ranging from elementary school
Civil Engineering from the University of South Carolina, Columbia, SC, in 2003, 2005, and 2008 respectively. He is currently with Computer Science, Physics, and Engineering Department, Benedict College, Columbia, SC. He is interested in exploring different approaches for engineering education and research to reach students more efficiently. He has collaborated with researchers and students in NSF HBCU UP targeted infusion, broadening participation and excellence in research projects. © American Society for Engineering Education, 2022 Powered by www.slayte.com Assessing Student Impacts from an Interdisciplinary Summer Research Program
Engineering and Architecture at Universidad San Francisco de Quito USFQ, in Ecuador. Miguel Andrés is a civil engineer from USFQ (2009), was awarded a MSc in Civil Engineering – Construction Engineering and Management at Iowa State University (Fulbright scholar, 2012)and his PhD in Civil Engineering at Virginia Tech (2019), as well as two Graduate Certificate in Engineering Education and Future Professoriate. (i) ENGINEERING EXPERIENCE: Miguel Andrés was Project Manager of PREINGESA where he has directed construction projects in the development of urban infrastructure for urbanizations such as earthworks, drinking water works, sewerage, underground electrical cables and fiber optics, roads, aqueducts, water reservoirs
innovations in engineering education, thisCAREER project sits at the intersection of both topics. This CAREER Award is a multi-casestudy exploring five institutions that serve as exemplars for recruiting, retaining, and graduatingthe most Black and Brown undergraduate engineers over a recent decade. This executivesummary presents insights about the first year of this study and is organized around four keytopics: the project design, two key outputs of year one, preliminary insights from year one’s pilotinterviews, and looking ahead to year two.MOTIVATION Despite continual efforts to broaden participation in engineering among groupshistorically characterized as underrepresented, the recruitment and retention of Black and Brownstudents remain
outlined related to cognitive development includethat culture is significant in learning, and that individuals learn and develop within their role in acommunity [3]. As educators, we facilitate learning by guiding exchanges and create engagingcommunities for cognitive development. The active learning activities incorporated in theclassroom are socially oriented and this group work provides social connection. Vygotskyrecognized that social settings and learning were closely entwined. Students gain knowledgewhen they collaborate with their peers or mentors on activities that involve problem-solvingskills and real-life tasks. The community activities in the examined courseware are project-basedlearning focused on systems approaches to sustainability
Paper ID #38299Surfacing Deeply Held Beliefs about Gender-and Race-BasedMinoritization in Engineering: Emerging Insights After TwoYears Focused on Data CollectionDira Melissa Delpech (PhD Student)Emily Dringenberg (Assistant Professor) © American Society for Engineering Education, 2022 Powered by www.slayte.comSurfacing Deeply-Held Beliefs about Gender- and Race-Based Minoritization in Engineering: Emerging Insights After Two Years Focused on Data CollectionBackground and Project OverviewThe mission of broadening participation in engineering is well-known and commonly accepted[1, 2
three different types of cognitive exercises, all ofwhich have different levels of difficulty, which can help maintain cognitive function. The exercisesalso display scores and changes in performance. Furthermore, the results could be compared toexisting tests to gather data on the exercises’ effectiveness. While there is room for improvementin terms of cost and durability, the Brain Trainer met our goal of providing an effective brain-training game for Alzheimer's patients. In addition, this project teaches students to master variousskills, such as research, persistence, design, construction, and technical writing. The skills learnedby this project were invaluable and important experiences within engineering. This Brain Trainerproject not only