. She leads projects that embed sustainability and entrepreneurial thinking into engineering education and collaborates with communities to develop climate-resilient infrastructure solutions. ©American Society for Engineering Education, 2025 Developing Entrepreneurial Mindsets in Construction Management through Experiential ProjectsEntrepreneurial Minded Learning (EML), a framework supported by the Kern EntrepreneurialEngineering Network (KEEN), promotes critical thinking and innovation by encouraging studentsto explore real-world problems through the 3Cs: Curiosity, Creating Value, and Connections. Inconstruction management education, the focus often remains on technical skills and
presented their LCA work at conferences like FYEE and EWRI. Active in service, Dr. Logan is a district director for Tau Beta Pi, and advises student groups on campus including the LGBTQ+ group Open Doors. Dr. Logan was recently recognized as a 2024 Engineering Unleashed Fellow for her work developing an engineering museum exhibit classroom project. In her free time, Dr. Logan enjoys visiting theme parks and watching horror movies with her spouse, and cuddling their four furbabies. ©American Society for Engineering Education, 2025 Autonomy, Motivation, and Inclusive Teaching: Engineering Museum Exhibit Class Project Lauren H
. Ryan earned his BS and PhD in Electrical Engineering and his MS in Systems Engineering. Ryan presently serves as the Director of Systems Engineering and Assistant Professor of Biomedical Engineering at the University of North Dakota. ©American Society for Engineering Education, 2025 Boosting Innovation Self-Efficacy: The Role of Learning Coaches and Project Mentors in Innovation-Based LearningAbstractThis study explores the impact of learning coaches on innovation self-efficacy (ISE) inundergraduate and graduate biomedical engineering students within an innovation-based learning(IBL) program. Innovation self-efficacy, or the belief in one’s ability to successfully engage
Hands-On Learning: A Case Study on Project-Based Learning in Advanced Manufacturing and Additive Manufacturing Courses1. IntroductionAdvanced manufacturing integrates cutting-edge technologies such as robotics, artificialintelligence (AI), Internet of Things (IoT), and Additive Manufacturing. Advanced manufacturingtechnologies are fundamental to Industry 4.0. Educating students in these areas is crucial todeveloping a workforce capable of innovating and managing highly automated manufacturingsystems. Modern manufacturing systems require interdisciplinary knowledge spanningmechanical, electrical, software, and systems engineering. Therefore, teaching methods formodern manufacturing should emphasize creative thinking
in mathand sciences along with laboratory coursework that demonstrates these principles through representativetheoretical and experimental models. Students learn deductively and appreciate the careful cautionexhibited by a developer in ascertaining that the solution is reliable and accurate. Although the learn-implement-build-test technique is necessary for communicating large amounts of technical information,it lacks the real-world relevance and use of available resources necessary for product design. Furthermore,technical competence is not enough to address the practical considerations of successful product design[6]. Engineering education has emphasized STEM curriculum, laboratory experience, design projects,and professional skills
stakeholders, including clients, end users, suppliers, designers, contractors, andother project team members. The civil engineering body of knowledge identifies four categories(foundational, engineering fundamentals, technical, and professional), including 21 outcomes forcivil engineers to acquire [4]. Many of these outcomes are addressed through the KEENframework. Integrating an entrepreneurial mindset into civil engineering education fosters aculture of critical thinking and collaboration, enabling civil engineers to approach challengesholistically by considering diverse stakeholders and environmental contexts [5]. This broadenedawareness enhances problem-solving capabilities while empowering professionals to createinnovative, sustainable, and value
efforts for various product lines in global markets. He received his PhD from the University of Rochester and his MBA from Boston College.Dr. Kevin Galloway, Vanderbilt University Dr. Galloway is a Research Associate Professor in the Mechanical Engineering Department at Vanderbilt University, also holding the positions of Director of Making at the Wond’ry, Vanderbilt’s innovation center, and serves on the Advisory and Leadership Council in Vanderbilt’s Institute of National Security. He completed his B.S., M.S., and Ph.D. in Mechanical Engineering at the University of Pennsylvania. Through extensive project involvement and collaborations, Dr. Galloway has cultivated a diverse skill set encompassing mechanical design
them and launch the businesses after successfully securing external funding[6]. Efforts to support start-up activities for senior MEs exist on university campuses outside theUS, as Pradeep’s description of entrepreneurial support on APJ Abdul Kalam TechnologicalUniversity in India shows [7]. Entrepreneurial activities also enter the engineering curriculumwith the support of existing businesses. The presence of market identification and business plandevelopment differentiate traditional and entrepreneurial capstone projects in such cases [8].Creed’s two course sequence meant to design prototypes and generate associated business plansfor committed corporate sponsors serves as an example [9]. Efforts in the United Kingdom ledto a multi-year
an Associate Professor in the Civil and Environmental Engineering at Rose-Hulman Institute of Technology. She earned her Ph.D. in Environmental Engineering from the University of Illinois at Urbana-Champaign, her M.S. in Environmental Engineering from Missouri University of Science and Technology, and her B.S. in Nuclear Engineering from the University of Missouri-Rolla (same school, different name). At Rose-Hulman, Michelle is co-leading a project to infuse an entrepreneurial-mindset in undergraduate students’ learning, and a project to improve teaming by teaching psychological safety in engineering education curricula. Michelle also mentors undergraduate researchers to investigate the removal of stormwater
needs to be complemented with skills that includecreativity, critical thinking, and collaboration[3, 6], along with an improved self-efficacy toconduct different entrepreneurial tasks, that is, the person's belief of being capable [4].Prior studies have shown that students who received entrepreneurial training reportedhigher levels of entrepreneurial self-efficacy [2], and were much more likely to engage withhands-on experiences were they are expected to learn how to navigate complextechnological landscapes and spearhead the development of solutions to significanttechnological challenges on both local and global scales [5]. To achieve this later objective,engineering programs have implemented practical experiences based on project- andteam
for translational research development, strategic planning, and implementation of major projects. Ms DeChant is a dynamic leader with 20+ years of experience in higher education, and earned her MBA at Case Western Reserve University, her MS in Cell Biology at Cleveland State University, and her BS at Ohio State University.Prof. Erika Swift, The Pennsylvania State University College of Medicine Erika Swift is a Professor of Practice and Center for Medical Innovation Director at The Pennsylvania State University College of Medicine. Before joining Penn State University in 2015, she worked in various industry sectors, including medical devices, dental equipment, and consumer goods. She has over 25 years of experience
, students who had an interest in graduate programs were alsoencouraged to take an M-CURE that focused on writing peer reviewed papers and transition to graduateprograms [3,5].The last element of the CURE experiences was tied to development of an entrepreneurial mindset (EM).EM for this project is defined as a set of attitudes, dispositions, habits, and behaviors that shape a uniqueapproach to problem-solving, innovation, and value creation. In the context of research, we are focused onhelping students connect research with value creation. We have defined a research mindset as a broaderidea that includes many facets of an entrepreneurial mindset. These factors in turn are connected to theidea of student-centered research [6].All of the CUREs in the
of Illinois at Urbana-Champaign, her M.S. in Environmental Engineering from Missouri University of Science and Technology, and her B.S. in Nuclear Engineering from the University of Missouri-Rolla (same school, different name). At Rose-Hulman, Michelle is co-leading a project to infuse an entrepreneurial-mindset in undergraduate students’ learning, and a project to improve teaming by teaching psychological safety in engineering education curricula. Michelle also mentors undergraduate researchers to investigate the removal of stormwater pollutants in engineered wetlands. Michelle was a 2018 ExCEEd Fellow, and was recognized as the 2019 ASCE Daniel V. Terrell Awardee.Sophie Wang, University of Illinois at Urbana
Environmental Engineering from Missouri University of Science and Technology, and her B.S. in Nuclear Engineering from the University of Missouri-Rolla (same school, different name). At Rose-Hulman, Michelle is co-leading a project to infuse an entrepreneurial-mindset in undergraduate students’ learning, and a project to improve teaming by teaching psychological safety in engineering education curricula. Michelle also mentors undergraduate researchers to investigate the removal of stormwater pollutants in engineered wetlands. Michelle was a 2018 ExCEEd Fellow, and was recognized as the 2019 ASCE Daniel V. Terrell Awardee.Dr. Liping Liu, Lawrence Technological University Liping Liu serves as the Associate Dean of Graduate
Paper ID #46967Development of Entrepreneurial Competencies in Engineering Students: AComparative Analysis between In-Person and Online EducationProf. Barbara Munoz-Vallejos, Universidad Andres Bello, Chile B´arbara Estefan´ıa Mu˜noz Vallejos, M.Sc., is an Assistant Professor and faculty member at the School of Engineering, Universidad Andr´es Bello (UNAB), Chile. She holds a degree in Psychology and a Bachelor’s in Psychology from Universidad del Desarrollo (2008). Additionally, she earned a Master’s degree in Curriculum Development and Educational Projects from Universidad Andr´es Bello (2019–2021). She has also
prior coursework to new experiences, build and strengthen their socio-and technical skills, and to approach their capstone projects utilizing the EM framework.This work in progress paper will describe the process and impact of integrating EM into amultidisciplinary capstone two-semester course sequence through the use of writinginstruction and assignments. The intervention positions the course—and its technical andprofessional communication-specific lectures and assignments—as a site for instructorsand students alike to be what Rebecca Nowacek terms “agents of integration” [2]. Forinstructors, this is demonstrated in the facilitation of transfer by creating an environmentthat encourages students to make connections between different areas of
Through an Alumni Seminar Series and Alumni-Led Jigsaw ActivitiesAbstractThe development of an entrepreneurial mindset (EM) is critical for engineering students as theyprepare to navigate complex, real-world challenges. This project aimed to enhance students' EMby connecting them with early-career professionals through a seminar series and in-class jigsawactivities. In the spring semester of 2024, four alumni, representing diverse career paths inconsulting, water treatment, enzyme manufacturing, and data science, participated in a monthlyseminar series open to all engineering students. Following each seminar, the alumni collaboratedwith the course instructor to design and present a jigsaw activity related to their
shortintroductory design project.EML principles were integrated into each class session through learning objectives, content,readings, and activities. Students were provided videos and resources regarding EM and valuecreation. In one assignment, students identified issues from their daily lives that could beaddressed through engineering solutions and shared them on a discussion board. Their peersresearched and proposed potential solutions, which the original student evaluated based on theirown value criteria. This activity highlighted the importance of customer-focused, value-drivenengineering design.A major component of the course was a team project where students applied EML concepts todesign a swarm of robots using Arduino technology. Students worked in
inform newapplications and frameworks for how entrepreneurship and innovation are taught in engineeringwith a focus on venture design and capital formation.A fundamental component of entrepreneurship education is experiential learning [2] which hasalso been a foundational pedagogy in engineering education [3]. Following Kolb’s learning cycle[4], understanding how entrepreneurs learn is often directly related to an educator’s teachingphilosophy.Entrepreneurship education can be operationalized and described in four modes [2, 5, 6]: ● Teaching ‘about’ entrepreneurship takes the traditional format of lectures and seminars. ● Teaching ‘for’ entrepreneurship focuses on skill development and acquisition in practicums and projects. ● Teaching
Paper ID #49179BOARD #153: Work in Progress: Designing a Role Playing Game for anAstrobiology CourseProf. Steven McAlpine, University of Maryland Baltimore County Steven McAlpine is an Assistant Teaching Professor in the Entrepreneurship, Engineering, and Individualized Study programs at UMBC. He has been teaching role playing game design and leading campus wide RPG events for the past ten years. He also leads the multidisciplinary sustainable design course entitled INDS 430: The Kinetic Sculpture Project, which won the grand prize in the 2015 Baltimore Kinetic Sculpture race. ©American Society
Communications course. EML is a pedagogy that aims to inculcate the entrepreneurialmindset (EM) in students, specifically the 3C framework of the EM: curiosity, connections, andcreating value. EML techniques aim to increase student curiosity, improve the student’s ability tomake connections between disparate sources of information, and ultimately equip them to createvalue for themselves and society. Thus, EML is closely related to inquiry-based learning, problem-based learning, and project-based learning. The distinction between EML and these otherpedagogical approaches is the focus on a value-creation mindset.EML is integrated into this course primarily through three frameworks: (1) DevelopingConnections, which employs risk factor consideration when
SafetyThis work-in-progress submission describes activities to nurture an innovation ecosystem toimprove agriculture, forestry, and fishing (AgFF) occupational safety. This ecosystem will besupported through a research-to-practice (r2p) incubator project entitled “IdeasThatWork” thataims to remove health and safety hazards in AgFF, industries that historically have significantlyhigher than average occupational injury [1] and fatality rates [2], as compared to other industries.This paper describes (1) a data gathering effort to identify best practices utilized in existingtechnology incubators, (2) the recruitment of an expert advisory board representing the range ofexpertise needed in the AgFF occupational safety innovation sphere, (3) the
specific needs of teachers, including those with greater experience. Topics such as activelearning methodologies, integration of emerging technologies, design of learning experiencesthat foster creativity and critical thinking, and assessment of innovation competencies should beaddressed.Communities of practice: Encourage the creation of communities of practice where teachers canshare experiences, collaborate on projects, and learn from each other. These communities can beorganized by disciplinary or interdisciplinary areas and supported by expert facilitators ormentors.Incentives for innovation: Recognize and reward teaching innovation initiatives throughcompetitions, publications, or allocation of resources for projects. This will motivate
project examining how math and science motivational beliefs influence STEM students’ major choice in college. Her recent work focuses on exploring STEM students’ metacognition, entrepreneurial mindset, self-regulated learning strategies, and learning achievement.Dr. David K Pugalee, University of North Carolina at Charlotte David Pugalee is a full Professor and Director of the Center for Science, Technology, Engineering, and Mathematics Education (STEM) at UNC Charlotte. Dr. Pugalee has published works on STEM teaching and learning and on the NSF project Developing a Systemic, Scalable Model to Broaden Participation in Middle School Computer Science that focuses on computational thinking in science and mathematics. He
tounderstand themselves and others in new ways, and sought connections between theirengineering experiences and their real lives. Future work should capitalize on students'reflections on their experiences to increase the body of literature supporting translationalresearch experiences for undergraduate engineering students, especially through qualitativemeasures like narrative inquiry.IntroductionBiomedical engineering research has advanced to a focus on translational medicine, which workstoward creation of usable technologies, medicines, and practices in the real world [1], [2]. Forhuman healthcare to improve, researchers must be willing to take on projects with thesetranslational goals [3]. Therefore, calls for translational medicine-focused research
Syharat, University of Connecticut Connie Syharat is a Ph.D. student in Engineering Education and a Research Assistant at the University of Connecticut as a part of two neurodiversity-centered NSF-funded projects. As the Program Manager of a Revolutionizing Engineering Departments (NSF:RED) project titled, ”Beyond Accommodation: Leveraging Neurodiversity for Engineering Innovation”, she has co-facilitated a range of Neuroinclusive Teaching Institutes and workshops for STEM instructors and Teaching Assistants. As a graduate researcher, she conducts qualitative research related to the experiences of neurodiverse graduate students in STEM fields through an Innovations in Graduate Education (NSF:IGE) project titled
aligns with the grand challenges themes of security, sustainability, health, and joy of living, linking experiential learning, disciplinary knowledge, multicultural awareness, and EM development. Previous studies suggest that short-term international experiences can be highly motivating, transformative, and effective in fostering students' cultural awareness. A strong connection to place may enhance first-year engineering (FYE) students’ approach to their end-of-year design projects. Each team of four students creates, develops, and tests their assigned design project at their respective international location. This research study explores the impact of international
seetheir mission in response to economic pressures, funding constraints, and the evolvingexpectations of higher education.The Bayh Dole Act passed in 1980, is the legislation that allowed US universities to own patentsemerging from federally-funded research (Mowery et al., 2001). Before the Act, the federalgovernment owned inventions emerging from government-funded projects. Granting universitiesownership and management of their patent portfolios was viewed as a way to promotetechnology transfer, research commercialization, and collaboration between academia andindustry. Universities could demonstrate research's societal and economic impact by developingnew technologies, products, and services. They could also benefit from licensing agreementswith
, groups, and teams inenhancing their project efficiency and increasing the novelty and effectiveness of their ideas andimplementation strategies. With the increasing prevalence and accessibility of generative AI, itis worth exploring how these applications might be utilized for idea generation and in thecreative process.This work describes a deliverable that includes the utilization of generative AI assigned tostudents within a graduate-level engineering course in creativity at a large university. Similar tothe journals and sketches of famous creative individuals throughout history, the CreativityPortfolio is an individual assignment designed to facilitate students’ documentation of theirdiscoveries, insights, inspirations, identified problems
supported the goal of bringing faculty on board.Our presentations included an explicit request: faculty should work to help students buildconnections between the content of their lectures and the real world and the connections betweentheir lectures and other classes. Our contention was that while faculty often had these connections inmind, they needed encouragement to add them explicitly to their lectures and homework. Anothertypical reaction from faculty is the study skills of students, specifically the students' belief thatengineering can be learned by cramming before the exams [5]. We contend that students facing anopen-ended project with real-world implications start to understand that they need to work a bit at atime; offering such projects