industry backgrounds have the choice to assist students in creating theRover. In the beginning, the program was formed to give students majoring in EngineeringTechnology at MTSU a direct application for the skills and knowledge they have learned duringtheir undergraduate classes. Today, the program welcomes international students from variousscience, technology, engineering and mathematics (S.T.E.M) education backgrounds.BackgroundEVP has 15-20 international members currently active in the program. The members work withAmerican students and learn about each other’s customs. Through building the rover,international and domestic students work together to learn how to bridge potential languagebarriers. In the EVP program, students from various
. in Educational Policy and Planning from UT Austin. ©American Society for Engineering Education, 2024 Navigating the Personal and Professional: How University STEM Mentorship Programs Support Women in Austria and Germany IntroductionThe underrepresentation of women in Science, Technology, Engineering, and Mathematics(STEM) fields isn't just a statistic – nor a debate – it's a persistent global issue [1]. Althoughsignificant progress has been shown to promote gender equality in society, women holdingpositions in the higher echelons of predominantly male-centric STEM fields remain a rarephenomenon [2]. Recent statistics support these findings, shedding light on the stark reality ofsuch
Paper ID #38641Excellence, Belonging, and the American Dream: An Auto-ethnography onBeing International in EngineeringDr. Sreyoshi Bhaduri, ThatStatsGirl Dr. Sreyoshi Bhaduri is an Engineering Educator and People Research Scientist. Sreyoshi’s expertise lies at the intersection of workforce development, AI and emerging technology, and engineering education. As a Research Scientist in the tech industry, Sreyoshi leverages AI for mixed-methods research on and for people at work, ensuring that organizations intentionally center the human experience. Sreyoshi has spoken at over 100+ global venues, addressing diverse audiences
connectedness and interdependence ofworld cultures and economies. With the Information Age, globalization went into overdrive.Advances in computer and communication technology launched a new global era and redefinedwhat it meant to be “connected” [1]. Over recent years, the engineering field, among others, haswitnessed the power of connectedness as a catalyst for breakthroughs. Often these breakthroughsresult from cultural exchanges - the process of sharing and experiencing ideas, knowledge, andpractices across different cultures [2]. Specific to engineering, the cultural exchanges create amelting pot of ideas and influences from around the world through bringing togetherprofessionals from diverse backgrounds. Yet, bringing together individuals from
Paper ID #47700Exploring the Impact of Unexpected Learning Outcomes Across Cultural andArchitectural Differences: A Comparative Study of Japan and EthiopiaMr. Hiroyuki Ishizaki, Shibaura Institute of Technology Hiroyuki Ishizaki is a Visiting Professor at Shibaura Institute of Technology (SIT), a leading Japanese engineering school. His research interests include multidisciplinary teaching and learning, cross-cultural competence, collaborative online international (COIL), technopreneurship, and project/problem-based learning methods. As a Director of the Malaysia Office, he has been expatriated in Malaysia since 2014 and
Paper ID #41099Text Mining Analysis for Assessing Washington Accord Graduate AttributeProfiles through Techno-Socio Project-Based Learning ProgramMr. Hiroyuki Ishizaki, Shibaura Institute of Technology Hiroyuki Ishizaki is a Visiting Professor at Shibaura Institute of Technology (SIT), a leading Japanese engineering school. His research interests include multidisciplinary teaching and learning, cross-cultural competence, collaborative online international (COIL), technopreneurship, and project/problem-based learning methods. As a Director of the Malaysia Office, he has been expatriated in Malaysia since 2014 and leading
] and panels [5-6].Friedman [1] discusses how globalization has profoundly impacted engineering by leveragingtechnological advancements like the Internet and workflow software to enhance communicationand collaboration. This has led to more integrated global supply chains, with engineering tasksoften outsourced to countries with specialized skills, making the profession more interconnected.Engineers are encouraged to continuously innovate and adapt to new technologies andmethodologies to remain competitive. Additionally, collaboration tools have become crucial formodern engineering projects, which frequently involve teams spread across different countries.Friedman [1] also discusses how engineers support globalization by developing
forengineering students.The composition of the classes targeted by each of the global engagementinterventions, as described above, is shown in Table 1. Table 1: Target populations for global engagement interventions Global Engagement intervention Required / Student Class Elective Grade EnrollmentInternational case study Required Soph., Jr., 10-15 Engineering Technology & Sr.Multi-national student teams Required Sr. 120 - 140 Computer, Electrical, and Mechanical EngineeringCOIL project
partnerships with the universitiesto have access to engineering graduates exposed to the required competencies at theinternational level.The international credentialing process begins with the development of a roadmap ofcompetencies that are essential for an engineering educator. These competencies includesubject matter expertise, teaching and assessment skills, instructional design and technology,and leadership and professional development. By working towards the systematicimprovement of these competencies, engineering educators can establish themselves ashighly qualified professionals who can make a significant impact on the education system.The international recognition of engineering educators also has a symbiotic effect on therecognition of
this study). Therefore, through thisapproach, universities in the region that have the most appropriate capabilities to lead the developmentand transfer of technology in this field are identified, but they can be applied to any sector and region.This study proposes a comprehensive model to measure the capacity of engineering universities toanalyze the semiconductor and chip sector, evaluating their ability to adapt, create, and transferknowledge and technologies with economic impact. The model, based on a Capability Index, allows forthe identification of institutional maturity levels in key areas such as research, development, innovation,and entrepreneurship (R&D+i+e). Therefore, the objective is to analyze the semiconductor and chipsector
©American Society for Engineering Education, 2024 Training program in teaching for Engineering for the Americas (EftA)AbstractBeing a professor-engineer in engineering courses is common in universities in LatinAmerica and the Caribbean, so it is likely that pedagogical practices are not the subject ofreflection, since the activity, in most cases, would focus on the contents. Therefore, in thisarticle, we review various pedagogical training proposals for engineers and anticipate ateacher-training program endorsed by LACCEI, an organization focused on collaboration,education, practice, research, and innovation in Engineering and Technology. The issue oftraining is a priority; for example, recently, the recognition of the iPEER
cooperation. Engineers play a pivotal role in addressing these issues by applying theirexpertise to develop innovative technologies and systems that improve health outcomes globally.Preparing engineers to lead and innovate in this interconnected world requires pedagogical effortsthat foster multicultural competencies. To address this challenge, we implemented an internationalvirtual exchange between biomedical engineering graduate students at the University of Florida inthe United States and bioengineering undergraduate students at Pontificia Universidad Javerianain Colombia. This exchange, conducted over 6-7 weeks, tasked university students with designingan engineering solution to a critical health problem in their partner country. Through
making solarenergy economical, providing clean water access, and advancing health informatics, as GrandChallenges for Engineers. These challenges align with the SDGs, emphasizing the vital role ofengineering solutions in achieving sustainable development. Moreover, beyond the NAE GrandChallenges, technology offers solutions (Appendix 3) to global issues like carbon sequestration,grid-scale energy storage, universal flu vaccines, dementia treatment, ocean clean-up, energy-efficient desalination, safe driverless cars, embodied AI, earthquake prediction, and braindecoding. These technological advancements significantly contribute to building a sustainablefuture, showcasing the interconnectedness of global goals and innovative solutions.Global
presented as an in-class activity during one of the 65-minute lectureperiods. There are usually two sections of the class offered every year with between 15 and 25students per section. In addition to these two economics-oriented modules, in-class activities ontopics of global engineering ethics, culture, DEIB and mental health issues while traveling, likelyexperiences in other cultures, and appropriate technology are included. Because lecture onlyhappens once per week and the class covers a wide range of topics, each topic is intended to bean introduction to the material. Students who are interested in any of the topics are encouraged toseek out additional courses or minors in the area of interest. The following modules are thereforeintended to
pertaining to integration and cultivation of intercultural competence. Her expertise extends to facilitating workshops and training sessions, catering to the needs of both staff and students within Purdue University.Dr. Sakhi Aggrawal, Purdue University at West Lafayette (PPI) Dr. Sakhi Aggrawal is a lecturer and research scientist in Purdue University’s Department of Computer and Information Technology. Her work explores how project-management frameworks, teamwork dynamics, intercultural competencies and AI tools can enhance STEM and engineering education. She also serves as a technical program manager at Google—industry experience that underpins her research on data-driven project management and agile methodologies. She
Education, 2023 Workshop on Global Engineering Design for Low-Resource SettingsBackgroundGlobal engineering is becoming more prevalent as technology increases communication andcollaboration worldwide [1]. To keep up with the ever-evolving society, global engineers mustwork on cross-cutting issues and bring a diverse mindset to work nimbly across differentenvironments with changing resources [1,2]. This adaptability requires being comfortable withdesign skills and being open to new ideas and international relations [3]. The design process iscrucial for students to experience and understand how to meet a population’s needs and iteratethrough feasible and culturally appropriate solutions.Undergraduate engineering curricula have significantly
programs of high academic recognition and international positioning. 10 years of business experience in financial and administrative areas, leading organizational change management processesJose Daniel BallenMILTON JANUARIO RUEDA VARON, Universidad EanDouglas Lee Robertson, Florida International University ©American Society for Engineering Education, 2024 Associating Sustainability Literacy with educational level of Industrial Engineering StudentsSustainability Literacy has become crucial in promoting Education for Sustainable Development(ESD). Embedding ESD in the design of global engineering courses implies the incorporation ofSustainability Literacy into
: international and domestic undergraduate students in focus in the United States higher education institutions. In addition, Mr. Halkiyo is interested in broadening the participation of engineering education in Ethiopian universities to increase the diversity, inclusivity, equity, and quality of Engineering Education. He studies how different student groups such as women and men, rich and poor, students from rural and urban, and technologically literate and less literate can have quality and equitable learning experiences and thrive in their performances. In doing so, he focuses on engineering education policies and practices in teaching and learning processes, assessments, laboratories, and practical internships. Mr. Halkiyo
Paper ID #45368Pandemic Transformation in a Field Study Design Course: Insights Before,During, and After the CrisisDr. Todd Nicewonger, Virginia Tech Todd E. Nicewonger has a Ph.D. in Applied Anthropology and his work focuses on the ethnographic study of engineers and designers.Shea Fitzgerald Hagy, Chalmers University of Technology ¨Catarina Ostlund ©American Society for Engineering Education, 2025 Pandemic Transformation in a Field Study Design Course: Insights Before, During, and After the CrisisIn early spring of 2020, a group of engineering and architectural graduate students
bachelor’s degree in Educational Technology and is excited about the possibilities technology offers to the learning experience beyond the formal classroom setting. Her research focuses on improving the educational experience of engineering students using virtual reality labs and other emerging technologies. ©American Society for Engineering Education, 2024 An International, Bilingual Engineering Design Course: Faculty/Student Experiences and Lessons Learned Abstract – Early in 2023, the University of Georgia (UGA), located in Athens,Georgia, United States, and the Universidad de Guadalajara (UG), located inGuadalajara, Jalisco, México conducted a bilingual, international design
. Prasad had ©American Society for Engineering Education, 2025 A Collaborative International Active Learning Workshop for Engineering Education in India – An Experience Report Bhuvaneswari Gopal School of Computing, University of Nebraska-Lincoln, USA Byrav Ramamurthy School of Computing, University of Nebraska-Lincoln, USA Edamana Prasad Department of Chemistry, Indian Institute of Technology Madras, Chennai, IndiaAbstractThis experience report describes a 4-day international workshop, a collaborative effort byAmerican
Paper ID #42939Investigating Transition Phases: An Autoethnographic Study of InternationalWomen of Color Engineering Educators in the U.S.Maimuna Begum Kali, Florida International University Maimuna Begum Kali is a Ph.D. candidate in the Engineering and Computing Education program at the School of Universal Computing, Construction, and Engineering Education (SUCCEED) at Florida International University (FIU). She earned her B.Sc. in Computer Science and Engineering from Bangladesh University of Engineering and Technology (BUET). Kali’s research interests center on exploring the experiences of marginalized engineering
and holds over 10 U.S., international, and provisional patents. He is a technical committee member of the National Council of Examiners for Engineering and Surveying (NCEES) and a technical reviewer for multiple peer-reviewed scientific journals.Dr. Tiejun Bai, University of California, Irvine Dr. Tiejun (TJ) Bai is a seasoned executive, engineer, and educator with over three decades of leadership and technical experience spanning the aerospace, telecommunications, technology consulting, and education sectors. He earned his Ph.D. in Aerospace Engineering from the Georgia Institute of Technology in 1992 and has since held prominent positions in both academia and industry. Dr. Bai is a Project Scientist in the
individualized to the student participants and each university-affiliated program.Low-resource design is another important skill expected of well-rounded engineers, though it toois often excluded in undergraduate curriculums. Low-resource engineering emphasizes creativityand user-centered design, which are transferable skills to many other career paths as well. Thepractice of designing technologies with low-resource communities in mind has been shown toincrease the equity, accessibility, and use of developed technologies worldwide [5]. Low-resource engineering design projects have benefited communities facing challenges such aspoverty, natural disasters, and inaccessibility to quality healthcare [6]. Future engineeringtechnologies have the potential to
information (e.g., visual, textual, verbal), engaging students (e.g., group projects, real-world problems), and assessing their learning beyond traditional exams. Additional practices include designing accessible learning materials, facilitating diverse participation in classroom activities, and incorporating diverse authors and case studies into syllabi. • Technological Advances: Assistive technologies such as screen readers and communication devices enable students to overcome barriers and participate fully in educational programs.5.2 Inclusion as a Driver of Innovation.Inclusion benefits not only individual students but also the broader engineering field byfostering the development of future engineers
Paper ID #47525Designing a high-impact, short-duration sustainability-focused study abroadprogram for engineering studentsDr. Joanna G Burchfield, University of South Florida Dr. Joanna G. Burchfield is a Communication professor for the College of Engineering (CoE) at the University of South Florida (USF) where she leads a college-wide initiative to vertically integrate communication education into core engineering courses. She has over 17 years of experience in academic research, higher education instruction, and course design, and is guided by a teaching philosophy founded on growth mindset and systems thinking. Dr
techniques, statistics and applications, data analysis and information methodologies, projects, engineering, economics, and business.Douglas Lee Robertson, Florida International UniversityJulian Rodrigo Sosa-Molano, Florida International University Julian is a graduate research assistant at Florida International University. He holds a BSc in Electronics Engineering from Pontificia Universidad Javeriana in Colombia and a MSc in Electrical and Computer Engineering from The University of Arizona. He is pursuing his PhD degree in Engineering and Computing Education at Florida International University. He has professional experience in Information Technology, Semiconductors, and Telecommunications in international companies such
other academic levels (e.g., non-degree, undergraduate)[1].2.1.1 Engineering Students' Experiences in NigeriaIn a typical public university in Nigeria, the student-to-teacher ratio is very high [19]. With moreengineering students, and fewer engineering faculty members, Nigerian engineering students(especially those in a non-private institutions) attend overcrowded classes [20], that are mostlynot technologically supported to enhance learning. As such, the students may have to: 1) get tothe class earlier (to secure a good sitting spot), 2) shun the noises and be highly attentive to thelecture, 3) seek a tutoring time (often conducted by a senior student who has previously done theclass before and more knowledgeable), 4) join smaller study group
our society. To be successful in anysocial or professional group, it is necessary to be tolerant of differences, to be accepted, andto accept others. By providing professional development and formal training in DEI, teacherscould have the tools to teach students to truly understand the characteristics of others andcreate an inclusive environment. This study proposes to define a research methodologywhose data collection and analysis tools will allow us to answer our research question onhow to train teachers in Latin America and the Caribbean in DEI from the educationalapproach in Science, Technology, Engineering, and Mathematics (STEM). Following amultiple case study methodology, this paper presents the results of teacher training inDEI+STEM
modified his module design and delivery - leading to demonstrable improvement in his teaching. Currently, apart from his materials engineering research, Steven devotes a considerable time to research and dissemination of evidence-based strategies for improving engineering education globally.Dr. Ashley Rae Taylor, Rice 360 Institute for Global Health Technologies Dr. Ashley Taylor is Director of Education for Rice360 Institute for Global Health Technologies and a Lecturer in the Department of Global Health Technologies at Rice University. Taylor is an engineer and educator committed to working toward equity in engineering education and global health, with a focus on expanding access to engineering education for