awareness of diversity, equity, and inclusion for professional practice consistent with theinstitution’s mission” [1]. Many in the engineering community recognize the need for developingengineering skill sets that address societal impacts within the design process. Not only shouldengineers be aware of the potential negative consequences of their designs, but they should alsoseek opportunities to create value and benefits for under-served populations.The body of research on social justice in engineering design is well documented [2, 3, 4, 5, 6]. Inparticular, human-centered design has emerged as a favored approach for students to approach thedesign process in capstone courses[7, 8, 9, 10]. Other best practices in engineering education topromote DEI
Paper ID #37034EXAMINING THE IMPACT OF ONLINE LECTUREVIEWING BEHAVIOR ON STUDENT PERFORMANCEIN A FLIPPED CLASSROOM BLENDED COURSESudeshna Pal Dr. Sudeshna Pal is an Associate Lecturer in the Mechanical and Aerospace Engineering Department at the University of Central Florida (UCF), where she teaches courses in the areas of system dynamics, controls, and biomedical engineering. Her current research focus is engineering education, including blended learning, project-based learning, and digital and design education. She co-directs the “Biodesign Program in Rehabilitation Engineering” program for undergraduate
best senior project supervisor in 2003-2004 academic year. He has served as a consultant in three companies in the field of air conditioning and hydraulic power plants. c American Society for Engineering Education, 2017 Engaged Student Learning Project: Challenges and Lessons LearnedAbstractThis engaged student learning project is focused on the development and implementation of a newsoftware-assisted, project-based technical elective course and its associated laboratory in buildingenergy efficiency and green building design. The primary goals of the project are to engagemechanical engineering students in the learning process and to make them prepared for
after reading the legal case. In the second stage (days 2-4), students takeroles and use first-principles reasoning to gather evidence by studying scientific principles such assolar radiation and the impact of shading (e.g., due to tree growth) on solar insolation. During thethird stage (days 5-8), students present the evidence they gathered with tables and figures. Thesedata provide an opportunity to practice trade-offs reasoning and weigh risks and benefits in supportof a position (the defendant or plaintiff). Stage four (days 9-10) is the post-mock trial discussion,during which students practice future reasoning by imagining near and far future implications onpeople and the environment if a similar court decision was made in their own
Paper ID #38274Board 131: Investigating the Impact of a Mechanical EngineeringUndergraduate Research Experience on Student Learning (Work in Progress)Nosakhare Iyobosa Idiaghe Idiaghe Nosakhare is a PhD Student of Engineering Education Research at University of Nebraska, Lin- coln. He holds a Masters degree in Industrial Engineering and a Bachelors degree in Petroleum Engineer- ing.Dr. Jessica R. Deters, University of Nebraska Lincoln Dr. Jessica Deters is an Assistant Professor of Mechanical and Materials Engineering and Discipline Based Education Researcher at the University of Nebraska - Lincoln. She holds her Ph.D. in
impact students’ major selection. Effective recruitmentemphasizes personalized outreach and career-focused messaging that highlights job stability andlong-term opportunities [7],[8]. Incorporating multimedia content, such as brief instructional andtestimonial videos, can further strengthen engagement with prospective students [9],[10].Mentoring supports the development of essential life skills - such as communication, networking,and professionalism - while boosting confidence and encouraging persistence in academic andcareer paths [11]. Participation in subject-based organizations and competitions enhances studentsatisfaction, campus engagement, academic motivation, and commitment to future careers [12].Social and professional events with peers
support of community driven projects that meet relevantand real needs of their community. This service learning program reinforces STEM learning andteaches 21st century skills needed to succeed in tomorrow's workforce. Students develop usefulskills as they work with community leaders to develop their designs. This model is aligned withresearch findings on diversity and has the potential significantly to impact the numbers anddiversity of students coming into STEM pathways. Currently, Purdue University offers extensivesummer workshops for middle/high school teachers who wish to operate the program in theirschool. Support is provided to over 100 middle and high schools in the United States and aroundthe world.Teachers who opt to offer an EPICS High
Professional Communication, Technical Communication Quarterly, Technical Communication: Journal of the Society for Technical Communication, and the International Journal of Engineering Education. She is also the recipient of a Tablet PC Technology, Curriculum, and Higher Education 2005 award from Microsoft Research to assess the impact of tablet PCs and collaboration-facilitating software on student learning. Page 12.278.1© American Society for Engineering Education, 2007 Assessing the Impact of Pen-based Computing on Students’ Peer Review Strategies Using the Peer Review Comment
. Looking back groundsengineering work within the historical context of research progress to date. In defining termswith the same meanings as in the existing service-learning field, we build on existing researchand maintain the respect of the larger academic service-learning community.2. Service-Learning in Higher Education2.1 Historical context of service-learningService-learning is used to engage students in grade levels from kindergarten through graduateschool. Since the focus here is on higher education, Table 1 contains a summary of selectedhighlights.Table 1: Condensed history of service-learning in higher education (Learn and Serve America'sNational Service-Learning Clearinghouse, 2009) Date Activity Circa William James, John
Technology in the College of Education at Purdue University. Dr. Exter’s research aims to provide recommendations to improve or enhance university-level design and technology programs (such as Instructional Design, Computer Science, and Engineering). Some of her previous research has focused on software designers’ formal and non-formal educational experiences and use of precedent materials, and experienced instructional designers’ beliefs about design character. These studies have highlighted the importance of cross-disciplinary skills and student engagement in large-scale, real-world projects. Dr. Exter currently leads an effort to evaluate a new multidisciplinary degree program which provides both liberal arts and
in fellow students.”“[#11] NEET helped me learn to work in a team which has been a very important skill whileworking. Also being able to communicate your work and ideas is very important and anotherskill NEET helped me with.”3.2.4. Role models encountered at MITParticipants were asked “Did you find any role models at NEET? If so, please describe the mostinfluential one or two role models and their career-related impact on you. If you did not find anyrole models in NEET but did find role models at MIT outside of NEET, then please describethem instead.”12 respondents out of 16 mentioned having encountered at least one role model at MIT. Of those12, six mentioned having found one or more role models at NEET.Table 7 summarizes the number of
appreciative email was also received from a parent who acknowledgedthe effectiveness of the technique on his son’s skill to communicate and to engage in an effectivediscussion. This paper assessed, compared and documented the impacts of clustering fromgrouping teaching technique on students’ classroom engagement.Keywords: Engagement, clustering, cognitive, behavioral, affirmative.1. Introduction:Technology increase in our society had greatly impact students’ interaction in various classroomsdiscussions and had in one way or another, degraded student classroom engagement. Although,student low engagement has been attributed to instructor inability to motivate students in theclassroom. Notwithstanding, student classroom engagement is a complex issue
faculty in 2010. He is the director of the for sustainable infrastructure development, smart innovation and resilient innovation and the director of undergraduate programs at the department of civil engineering, Morgan State University.Frank Efe, Morgan State UniversityHannah Abedoh, Morgan State University ©American Society for Engineering Education, 2024 Engaging University Students in Practical Physics Labs Through Motivational Active LearningAbstractThe COVID-19 pandemic had a significant impact on student’s motivation to learn. As a result,the in-person laboratory session evolved into a virtual laboratory session. Despite this effort, manystudents struggled with the home
learning, civic engagement and community. Laura holds a PhD in Sociology from the University of Illinois at Urbana-Champaign. c American Society for Engineering Education, 2017 WIP: The Impact of Project Based Service Learning on Students' Professional Identities and Career Readiness 1. Introduction Project based service-learning (PBSL), as an innovative pedagogy and strategy, has beenintegrated into engineering education through curricular, co-curricular and extra-curricularactivities in many universities to improve engineering education with many favorable impacts onstudents [1-10]. There is evidence that PBSL has a positive influence on student learningoutcomes, as well as on an
inactive or ‘non-persisting’. The committee felt that retaining these students does not constitute real student success.They advocated a model of student success that emphasizes engaging students early and throughouttheir time at the College, with meaningful, intensive, targeted and coordinated interventions.Moreover, it urged the Excelsior College community to start thinking about student persistence as amore accurate and meaningful indicator of student success than the retention metric that we haveused in the past. That metric helped set the stage for retention by highlighting the importance ofretention to our students and to the success of the College. Persistence—based on indicators ofacademic activity and progress—will better enable the
international consulting projects. While at MIT, his dissertation research and collaborative research with institute colleagues focused on domain-specific self-efficacy in engineering entrepreneurship, and on the impact of project-based pedagogies on persistence in engineering among undergraduate students. He served as Director of Institutional Research at Goshen College for five years before coming to EMU in 2016. © American Society for Engineering Education, 2022 Powered by www.slayte.com STEM Scholars Engaging in Local ProblemsAbstract Eastern Mennonite University received a 5-year S-STEM award for their STEM ScholarsEngaging in Local
. Descriptive analysisprovides an insight on the association between land-use practices and possible point sources.Results can enhance our ability to understand and analyze the spatial and temporal patterns ofCEC pollutant loading within riparian watersheds. 3. Graduate Applied Research in Electrical and Computer EngineeringIn the Department of Electrical and Computer Engineering, students are engaged in projects thatoften have corporate or Federal sponsors and the projects are application-based. Thus, studentwork is heavily impacted by the availability of mentors and advisors with these ties. There isstrong interest in language recognition within intelligence and other communities. A recentproject involved developing a method to rank the performance
). This is particularly important in light of long-standingevidence that the underrepresentation of women and minorities in STEM is more a result of theirattitudes toward and sense of belonging in these studies and careers, than their technicalcapabilities (Bush-Vishniac & Jarosz, 2007; Clewell & Campbell, 2002; Isaacs, 2001; Marra etal., 2012; University of Michigan, 2005). Student design competitions that emphasize broadersocietal impacts of engineering and STEM provide one avenue for engaging and supporting abroader, more diverse group of students.MethodologyClarkson’s Institute for STEM Education created the STEM QuESTS Challenge (Questions thatExplore STEM for Teachers and Students), offering an alternative to the ‘design and build
AC 2007-566: ENGAGING FIRST-YEAR STUDENTS IN ETHICAL ISSUES VIASTAR TREKAndrew Lau, Pennsylvania State University Page 12.614.1© American Society for Engineering Education, 2007 Engaging First-Year Students in Ethical Issues via Star TrekIntroductionThis paper describes the First-Year Seminar (FYS), The Ethics of Star Trek, inspired by the bookof the same name by Judith Barad and Ed Robertson. It has been taught for the past four years asone of about sixty different FYS’s offered by the College of Engineering. Since 1999, all newstudents must complete one of these one-credit courses as part of the university generaleducation requirement. This specific course is
communication between students' feedbackand information and the instructor's responses to give feedback, adjust instruction, and create ofweb-based learning resources can enhance students' progress toward their learning goals. Onefeedback method cited next-class feedback slide or two for discussion at the beginning of thenext class which can help clarify confusing or difficult-to-grasp concepts. Another methodshown was to create Muddiest Point YouTube tutorial screencasts, such as the ones at Googlekeyword: materialsconcepts, which could be viewed by students to help resolve difficultconcepts and also assist in solving homework problems. Positive impact on student achievementMuddiest Point and engagement pedagogy showed final exam grade shift of a full
Department of Geography and Environmental Engineering at the United States Military Academy. He earned a B.S. in Civil Engineering from USMA, a M.S. and Engineer Degree in Environmental Engineer- ing and Science from Stanford University, and a Ph.D. in Civil and Environmental Engineering from the Colorado School of Mines. He is a licensed PE in the state of Delaware. c American Society for Engineering Education, 2020 Engaging Students through an Interactive Mass Balance Fundamentals DemonstrationAbstract Employing mass balance concepts is one of the fundamental approaches to address manyof the National Academy of Engineering’s Grand Challenges of the 21st
Paper ID #27445Positionality: The Stories of Self that Impact OthersCynthia Hampton, Virginia Tech ynthia Hampton is a doctoral candidate in the Department of Engineering Education at Virginia Tech. She also serves as program and student support for the Center for the Enhancement of Engineering Diversity (CEED). While at Virginia Tech, Cynthia has directed summer bridge programs, led peer support initia- tives for underrepresented groups, and served on various commissions, committees, and research groups focused on student support, organizational change, graduate student policy, and culturally responsive evaluation
, J. Robinson, J. McLean, K. Jensen, and H. Golecki, “Revolutionizing Robotics: Broadening the Definition of Engineering by Engaging Students in Soft Robotics,” The Science Teacher, vol. 90, no. 5, May 2023, [Online]. Available: https://www.nsta.org/science-teacher/science-teacher-mayjune-2023/revolutionizing- robotics[16] H. M. Golecki, T. Tran, E. McNeela, and K. J. Jensen, “Pilot Study of the Impacts of a Robotics Curriculum on Student’s Subject-related Identities and Understanding of Engineering,” in Proceedings of the American Society of Engineering Education, Baltimore, MD, Jun. 2023.[17] S. E. Coulter, “Using the retrospective pretest to get usable, indirect evidence of student learning,” Assessment &
question: do afterschoolengineering experiences positively impact elementary students and undergraduate studentleaders?BackgroundThe goal of the afterschool TEAMS Clubs is to expose elementary-aged girls and boysfrequently in engineering in an extracurricular setting in their own learning environment. Duringthe past six years, nearly 700 grades 3-5 students have experienced engineering through theUniversity of Colorado Boulder’s (CU-Boulder) afterschool TEAMS Club initiative. For 12weeks each fall and spring semester, CU-Boulder engineering students volunteer their time to“give back” to their community; they commit to commit one afternoon each week for the entiresemester. An average of 25 undergraduate engineering students engage each semester
purpose of the workshop. Instead of a more general problem focused on “improving engineering education,” we decided to pose the following problem: How can we improve engineering education by bringing together the POD Network and the engineering education research community? Within the FIE workshop, we also noticed our participants carried with them particular prior experiences with CTLs that impacted their perceptions and the discussions. Thus, we incorporated an opportunity at the start of the POD workshop for our participants to record their concerns prior to engaging with the activities. By acknowledging our participants’ concerns and prior experiences, we hoped to “suspend disbelief” and create an environment for productive
how well the students thought they had achieved the learning objectives of the course,we asked them to rate their confidence, on a scale of 1-5, for the following learning objectives,both before the course and after the course: a) Operate and communicate effectively on a multi-disciplinary team with a variety of learning and personality styles b) Effectively communicate technical information in written and oral settings c) Critically evaluate the written, oral, and engineering analysis work of themselves and others by identifying the strengths and areas for improvement d) Assess the value of work from various sources such as the internet and peer reviewed journals e) Describe the importance of engaging the community
curriculum,there is an opportunity to study these potential impacts on the student cohort at later points in the Page 26.884.2curriculum. A two part study was conducted which sought to explore and measure the impact ofthe course sequence.Project-based learning, which is also related to problem-based learning, is an inductiveeducational methodology1 where learning is accomplished by applying skills to a project orproblem. The advantages of this type of learning includes positive impact on content knowledge,increased levels of student engagement, improved critical thinking, and improved problemsolving2.The use of project-based courses in an
Assessment of Student Attitudes and its Impact in a Hands-On Programming Model for the Introductory Programming Course Sheikh Ghafoor, Stephen Canfield, Michael Kelley, Tristan Hill Tennessee Technological University, Cookeville, TennesseeSTEPHEN CANFIELDStephen Canfield is a professor in the Department of Mechanical Engineering at TennesseeTechnological University. He received his Ph.D. in mechanical engineering at Virginia Techin the field of parallel architecture robotics. His research interests include robotkinematics and dynamics, topological optimization of compliant manipulators and in-spacemechanisms active student learning and undergraduate student researchSHEIKH GHAFOORSheikh
doingindividually, and how their group was functioning as a unit. They were concerned with howothers perceived their effort. Students discussed their peers’ evaluation more often than theydiscussed the impact it had on their grade. Students commonly articulated a feeling of “doingwhat I’m supposed to be doing” from the perspective of their peers. The data seemed to suggestthat students considered their peer feedback more so than they did their self-reflection. CATMEpeer evaluation allowed students to communicate in a non-conformational way allowing for thisopen anonymous dialog between teammates about contribution. This may be particularly helpfulfor those students who are not comfortable discussing performance openly with their teammatesas indicated by
degrees earned by underrepresented minorities (URM) [4]. Equally alarming is theunderrepresentation of women in STEM-related fields, in particular in disciplines such asphysics, engineering, and computer science, with women earning only 20 percent of bachelor’sdegrees and representation declining further at the graduate level and in the transition to theworkplace [5]. Engaging more students in science and technology careers, especially women andURMs, would not only contribute to the pool of talent needed to fill the job market’s demand butit may also lead to a more equitable society, with a broader understanding of the many diversecommunities that make up our nation [6].The strong impact of K-12 education on fueling interests or disenfranchising