include foundational sustainability principles, corporateenvironmental, social, and governance (ESG) reporting, decarbonization, sustainability inmaterials, life cycle assessment (LCA), renewable energy, and sustainable engineering designprinciples. In addition, students participate in three lab components—two experiments and onedemonstration—exploring alternative energy sources including the production of H2 fuel, solarpower, and polymer pyrolysis to fuel oil. Student learning is assessed through reflection papers atthe end of each unit, two lab reports, and a group project at the end of the semester. A newcourse in LCA will be taught in the department in Spring 2024 to supplement the sustainabilitycurriculum.The Introduction to Sustainable
project which involvesimplementing a digital badging system through students’ participation in makerspaces andcollecting both qualitative and quantitative data to assess its impact on students’ participation inmaking and makerspace activities and thus their engineering identity development and sense ofbelonging in engineering, acknowledging that gender, race, and ethnicity affect their engineeringidentity [3].Makerspaces are community-focused spaces that derive their purpose and meaning from thepeople utilizing the space. Definitions of makerspaces and related spaces (i.e., hackerspaces, fablabs) vary, but often include a focus on design, creativity, and access to fabrication tools [4]. VanHolm defined these spaces as “characterized as a
revitalizing these cities.The Center for Civic Innovation at the University of Notre Dame (UND) piloted a programleveraging what we know about STEM engagement, project-based learning (PBL), academiccommunity engagement, and asset-based community development [3-12] with federal support(NSF IUSE Exploration and Design Tier for Engaged Student Learning & Institution andCommunity Transformation). Through examination and refinement, researchers developed theCommunity-Engaged Educational Ecosystem Model (C-EEEM, pronounced ‘seam’) [1, 4, 13].The C-EEEM pilot contributed to our understanding of how to build learning environments thatsupport 1) improvements in student motivation and retention in STEM; 2) changes in placeattachment for participants; and 3
threat in the field. This IUSE project focuses on the development,implementation, and evaluation of the impact of a unique storytelling intervention to enhance theself-view of undergraduate engineering students. It explores how telling personal narrativesabout oneself affects students' engineering professional identity, sense of belonging, andpersistence in the major. Collaborating with the non-profit organization The Story Collider andfunded by an NSF grant (award #2142137), the research uses a design-based mixed-methodsapproach to investigate the impact of storytelling on undergraduate engineering students.Incorporated into engineering courses, this intervention targets students during their sophomoreyear with the goal to develop and refine
workforce – particularlyworkers with STEM skills. STEM-related jobs, which generally have higher wages and growth[2] are important to stabilizing and rebuilding their communities in the Digital Age. Yet, theseareas also tend to have higher percentages of those underrepresented in STEM, including lowsocio-economic status (LSES) and underrepresented minorities (URM). Engagement andretention in STEM disciplines is of national importance, but for these regions it is critical tocompeting in the knowledge economy and revitalizing these cities.The Center for Civic Innovation at the University of Notre Dame (UND) piloted a programleveraging what we know about STEM engagement, project-based learning (PBL), academiccommunity engagement, and asset-based
Engineering, an ABET-accredited project-based engineering education program of Minnesota State University, Mankato. She enjoys helping student engineers develop entrepreDr. Yuezhou Wang, Minnesota State University, Mankato Dr. Yuezhou Wang is an associate professor in both Iron Range Engineering and Twin Cities Engineering programs. His leading teaching competencies are in areas of materials science, structural analysis, finite element modeling and dynamic systems. He has a broad range of research interests. His technical research focuses on multiscale modeling on mechanical behavior of nanofibers and carbon nanotube materials. In the area of pedagogical research, he is interested in using learning analytics tools to
Paper ID #42465The Impact of Diaries and Reflection on Self-Assessments of Learning in aFirst-Year Undergraduate Engineering Design CourseSerena Mao, Harvey Mudd CollegeDavid Chen, Harvey Mudd CollegeMagdalena Jones, Harvey Mudd College Magdalena, a senior at Harvey Mudd College studying Computer Science and Mathematics is dedicated to working at the intersection of many fields. This project was a treat to work on and she is very proud to have been a part of it!Aye Mon Htut-Rosales, Harvey Mudd CollegeDr. Laura Palucki Blake Laura Palucki Blake is the Director of Institutional Research and Effectiveness at Harvey Mudd
Electrical and Computer Engineering at the University of Utah and he is an Associate Editor at the ACM Transactions on Privacy and Security. His research is centered around the security and privacy of cyber-physical systems using tools from control theory, optimization, and machine learning, with applications in power systems resilience.Dr. Hamed Nademi, California State University, San Marcos Dr. Hamed Nademi is an Assistant Professor of Electrical Engineering at California State University-San Marcos (CSUSM). He worked as PI/Co-PI with industry-sponsored projects granted by New York State together with utility companies focusing on control solutions, autonomous digital power grids and transportation electrification. Dr
Paper ID #42232Leveraging an Active-Learning Approach through Online Courses to FosterSustainable, Equitable, and Resilient Infrastructure ConceptsMiss Rubaya Rahat, Florida International University Rubaya Rahat grew up in Bangladesh, where she pursued her Bachelor of Science in Civil Engineering at the Bangladesh University of Engineering and Technology (BUET). After graduating she worked for two years in a construction management company in Dhaka, Bangladesh. She was involved in various residential and infrastructure construction projects. Rubaya now is a Ph.D. candidate at Department of Civil and Environmental
implementation activities that are designed to increase the number of underservedminority students interested in STEAM programs in nuclear science and technology. The impact of ouractivities in addressing the challenges and providing skills developed and utilized in the implementationof our project frameworks of SUpporting Strategic Training of Adaptable and Integrated Nuclear(SUSTAIN) Workforce funded by Department of Energy (DOE), Experiment-Centric Pedagogy (ECP),funded by National Science Foundation (NSF) and Homefront Factors Study funded by our school, hasled us to some innovative and practical solutions that need to be enhanced and supported. Our initialactivities include experiential learning and research; collaborating and making use of
Education Research Ph.D. student at the University of Michigan. She received her B.S. in Chemical Engineering from the University of Nebraska-Lincoln in May 2023. Dorian currently works with Dr. Karin Jensen at the University of Michigan on projects related to mental-health and well being. She was previously involved in Engineering Education Research under the supervision of Dr. Grace Panther and Dr. Heidi Diefes-Dux on projects related to faculty development, adaptability, and educational research methods.Jeanne Sanders, University of Michigan Jeanne Sanders (she/her/hers) is a researcher in Engineering Education. She graduated with her Ph.D from North Carolina State University in the Fall of 2020. She currently works
design, and inquiry-guided learning. He has supervised undergraduate and master’s student research projects and capstone design teams.Dr. Heather Dillon, University of Washington Dr. Heather Dillon is Professor and Chair of Mechanical Engineering at the University of Washington Tacoma. Her research team is working on energy efficiency, renewable energy, fundamental heat transfer, and engineering education. ©American Society for Engineering Education, 2024 A secure, scalable approach to student-graded homework for self-reflectionAbstractA large body of research shows that deliberate practice is essential to developing expertise in anyskill. The essential
. Emerging Themes Themes Definition N Student Motivation and Topics that include improving motivation and engagement in 3 engagement GBL course assignments, projects, and exams. Technical/Soft Skills Topics that include students learning skills needed in the 4 engineering work field. Including professionalism, communication, and time-management. Feedback Topics that include student feedback about GBL learning and 8 coursework. Including the different opinions on formal class learning versus
students’ understanding, confidence, awareness,and interest in numerous engineering subjects. Our research experience for the undergraduate(REU) program focuses on engineering educational research, which is to expose and trainundergraduate students in emerging engineering education research through independent,collaborative well-managed, high-quality research projects.This paper shares the findings of the REU participants’ perception of engineering educationresearch before and after participating in Engineering Education (EED) research projects. Thequalitative data were collected through Qualtrics survey from three REU cohorts, those whoparticipated in the summer of 2021, 2022, and 2023. Each cohort participated in a 10-weekresearch activity and
' attitudes.Our analytical approach incorporated ANOVA; these results indicated minimal group variancesacross most survey dimensions, hence suggesting a uniformity in perceptions. Paired sample testsbrought to light a minor, but statistically significant increase in sustainability-related knowledge.The educational methods employed included hands-on projects, seminars, and group assignmentsfocused on various aspects of renewable energy and sustainability. These incremental yet impactfulchanges highlight the potential of precise educational strategies to effectively mold studentperspectives towards sustainability. By integrating solid statistical techniques and delving into thebroader educational implications, this study provides valuable insights into the
project incorporatingcentering Indigenous ways of knowing and being within an engineering education context. Cal PolyHumboldt’s new master’s program in Engineering & Community Practice is among the first of its kind inthe United States as an Indigenous-centered graduate engineering program. This program is a one-year,project-based degree where STEM students will work through the relationship-building process with anIndigenous Nation to develop and complete an engineering project. As such, the potential impact of theprogram could be significant as we start to engage with the decolonization process as a field. Thisresearch attempts to capture and communicate that impact in a way that centers Indigenous ways of beingand storytelling. This will
further reinforced by specific examples from engineering projects. Participantsshared how intuition helped them select the best analysis methods, tools, and parameters, or evendetect and correct errors and outliers within their data sets. These anecdotes illustrate how intuitionacts as a valuable complementary skill to technical and analytical abilities, guiding decision-making when logic alone might fall short. Rivers, a senior, perfectly encapsulated this: “You must logically evaluate whether your answer makes sense. Unlike homework or other situations where you might have access to answers or people who have found the answers, you’re relying solely on your own understanding and proficiency. You’re using the skills and
argued that technical competence and leadership alone are not keys to project successoutcomes; team dynamics and personality composition are other indicators that synergisticallyaffect project outcomes. This paper explores the effective management of a large educationalSTEM program that includes multi-departmental projects by harmonizing team dynamics andpersonality strengths. In this study, the team members’ personalities were assessed using animpartial personality evaluation tool that employs the Myers-Briggs Type Indicator (MBTI).This study further examines the team’s dynamics under the spectrum of the members’perspectives, exploring how the team utilizes personality traits and team dynamics to effectivelyadminister a sizable STEM program
training in active learning methodologies at the three campuses of the School of Engineering (Santiago, Vi˜na del Mar and Concepci´on, Chile). She authored several manuscripts in the science education area, joined several research projects, participated in international conferences with oral presentations and key note lectures and serves as referee for journals, funding institutions and associations. ©American Society for Engineering Education, 2024 Relationship Among Entrepreneurial Intention and Entrepreneurial Competency Development: A Study on Perceptions Through Engineering Students.AbstractEntrepreneurial intention and entrepreneurial competencies are two
projects [1]. Well supportedacademic makerspaces provide students with open access to resources that help them developtheir problem-solving skills, provide opportunities for collaboration, increase self-efficacy, anddevelop sense of belonging [2] [3]. Sense of belonging generally relates to self-perceptions of fitwithin a given context [4] [5] and has the ability to positively impact academic achievement andpersistence in STEM [6] [7] [8]. There is evidence to suggest that the presence of a non-intimidating, informal community established within an academic makerspace can potentiallybenefit student sense of belonging [9].Creating an inclusive community within a makerspace that promotes belonging requirespurposeful considerations. Research has
should be matched with a more inclusive andsuitable learning environment for all students.In engineering schools, typically students work in teams throughout the whole undergraduate period,tackling different problems and project types. In order to ensure that students get the most beneficialexperience of being part of a team and the maximum team performance, team formation needs to takedifferent factors into account, with how diverse the team is being a very important one [2]. Acquiringteamwork skills is crucial for all engineers because the engineering field relies heavily on collaboration[3]. These skills are highly valued by educational accreditation agencies [4] and employers worldwidedue to its recognized importance [3]. While acquiring
ofpracticing sustainability in a research work project.1. IntroductionThe demand to educate sustainability principles and practices in engineering and technology programs hasbecome more pronounced especially with the escalated environmental challenges around the world.Focusing the central role of engineers in shaping industries’ future and the required skillset for the 21stcentury workforce, show there is a considerable consensus in the education community that the integrationof sustainability principles into engineering and technology education is undeniably required.Manufacturing engineering and technology field is at the forefront of education transformative towardsmore sustainability in curriculum and research [1] and [2]. Mentoring independent
Paper ID #44105ChatGPT to Support Critical Thinking in Construction-Management StudentsDaniel Abril CaminoDr. Miguel Andres Guerra, Universidad San Francisco de Quito USFQ MiguelAndres is an Assistant Professor in the Polytechnic College of Science and Engineering at Universidad San Francisco de Quito USFQ. He holds a BS in Civil Engineering from USFQ, a M.Sc. in Civil Engineering in Construction Engineering and Project Management from Iowa State University, a Ph.D. in Civil Engineering with emphasis in Sustainable Construction from Virginia Tech, and two Graduate Certificates from Virginia Tech in Engineering Education and
Students and Teachers (ITEST) project,DeSIRE is a school-university-community collaboration (SUCC) with goals to broaden participationin engineering and strengthen the science, technology, engineering and mathematics (STEM) identityof minoritized middle school students and teachers in a rural southeastern state. Operating in twomiddle schools since 2020, DeSIRE features a formal, three-part manufacturing engineeringcurriculum that was designed around the commodities of local industry partners in the areas ofbiopharmaceuticals, food process engineering, and energy systems. Through collaboration withcompanies including Pfizer, Cummins, Kaba Ilco Corporation, LS Cable & System, Hitachi, andPoppies International, students were exposed to project
Design and Construction, BIM, Scheduling and Project Controls, Graphical Communication, and Virtual Design and Construction. He has been awarded the Fulbright Scholarship, the AGC Faculty Fellowship, and is currently the Microsoft Fellow for the TechSpark Immokalee in Florida.Dr. Diana Marcela Franco Duran, University of Virginia Assistant Professor in the Department of Civil and Environmental Engineering. Director of the Construction Engineering and Management (CEM) concentration.Dr. Kenneth Stafford Sands II, Auburn University Kenneth S. Sands II is an Assistant Professor at Auburn University in Auburn, AL.David Gutierrez, University of VirginiaDeyrel Diaz, Clemson University ©American
supports other research projects on science pedagogy.Mia Lettau, University of Notre DameKimberly Marfo, University of Notre DameScott Pattison Scott Pattison, PhD, is a social scientist who has been studying and supporting STEM education and learning since 2003, as an educator, program and exhibit developer, evaluator, and researcher. His current work focuses on engagement, learning, and interest and identity development in free-choice and out-of-school environments, including museums, community-based organizations, and everyday settings. Dr. Pattison specializes in using qualitative and quantitative methods to investigate the processes and mechanisms of learning in naturalistic settings. He has partnered with numerous
principles in subsequent projects. Thishighlights the value of integrating sustainability early in the engineering curriculum, shapingstudents' perceptions of its importance and preparing them for future challenges in the field.IntroductionThe integration of sustainability into engineering education at the higher education level has seenlimited progress since the 1992 United Nations World Summit on Sustainable Development [1]Recognizing the role of engineers in achieving the United Nations Sustainable DevelopmentGoals by 2030 [2] and the emphasis by the Accreditation Board for Engineering and Technology(ABET) [3] on sustainability in engineering designs, there is a growing need to educateengineering students in sustainable and green engineering
gap is not novel to engineering educationresearch and is often overcome with on-the-job training that help prepare recent graduates fortheir transition into the workplace. While most would agree that complete preparation for allengineering careers is not the intent of a student’s engineering education, it would be fair to saythat addressing this gap holds value for the major stakeholders. We define the major stakeholdersas the student, faculty, and engineering practitioners (or firm/agencies) that will employ thestudent.Students value opportunities to “practice the engineering profession” and have exposure toengineering processes through authentic projects [5]. In a recent study, students completed anengineering course on changeable and
reinforced the connection between Lean principles and sustainability goals. Additionally,a final project with a biofuel company offered students hands-on experience in streamliningsustainable processes.Feedback from both students and the industry partner was positive, affirming the effectiveness ofintegrating sustainability into the curriculum. Student responses indicated a significant shift intheir perception of the role of engineers in addressing environmental challenges. Statisticalanalysis revealed a meaningful impact on student attitudes towards sustainability.Looking ahead, the author is spearheading initiatives to build on this momentum, including theformation of a sustainability consortium and pursuing grant opportunities to
can both compliment and challenge the traditional systems engineering approach. 3 Choose an appropriate scope, define the purpose, and define the approach for a systems engineering project intended to leverage MBSE. 4 Describe the intent of SysML using the ‘4 Pillars’ rubric. 5 Construct and interpret semantically consistent SysML models. 6 Critique a project’s implementation of MBSE as captured in a SysML model.lessons learned based on feedback from the cohort, and discuss how the teaching of MBSE can befurther improved using active learning techniques and modern technology. The paper underscoresthe importance of fostering student engagement, critical thinking, and proficiency in MBSEpractices.2 ‘Model