hand, entrepreneurship education is defined byTorrance and Rauch as “the teaching of skills and cultivation of talents that students need to startbusinesses, identify opportunities, manage risk, and innovate in the course of their careers” [9].Therefore, it is prudent to incline students toward adopting entrepreneurship as a tool forinnovation and value creation, enabling them to discover, evaluate, and exploit businessopportunities essential to economic growth [10].Thus, this study is designed to challenge students to employ their intellectual gifts and combinethese two rival concepts (sustainability and entrepreneurship), connecting them with STEM andart. Bioengineering improves the environment and increases the human quality of life
leadershipskills and develop their knowledge of business and markets. The project work promotes teamwork which help the students prepare for careers in industrial manufacturing andentrepreneurship by providing them with valuable prior experience in an academic setting.A study by Kujala et al. (2015), provides insights into the motivation and challenges thatstudent’s face when working on such projects. The authors conducted a case study at a Finnishuniversity of technology, where students were given the opportunity to identify and solve real-life problems using innovative approaches. The study found that students were motivated toparticipate in the course for a variety of reasons, including the opportunity to work on real-lifeproblems, to develop their
form of a provable good faith effort. This enablesstudents to derive invaluable insights from their missteps But gives them a launching pad to doprojects where a positive outcome isn’t necessarily guaranteed, traditionally known as amoonshot, were high risks can land high rewards This approach empowers students to graspfundamental engineering principles and apply them in their innovation projects to leverage theireducation to jumpstart their future careers. A distinctive feature of this learning ecosystem is the custom learning managementsystem, MOOCIBL, which rewards students with learning tokens. As participants in ourBiomedical Engineering program, students amass blockchain-based learning tokens across theirundergraduate courses
device prototyping and innovation center that he co-founded in 2013. He has served as a faculty member of general and mechanical engineering for 12 years with the UW-Platteville Engineering Partnership and worked as an industrial consultant and research affiliate through his company Critical Flux LLC. In 2016, Ranen was invited to the Wisconsin State Capitol to give a workshop on Solidarity to the Wisconsin Legislators. Topics from this workshop became his 2019 book, The Science of Solidarity. Over his career, Ranen has earned multiple educational awards and nominations for his teaching, outreach, and innovation.Dr. Stephanie M. Gillespie, University of New Haven Stephanie Gillespie is the Associate Dean at the
, and I can personally see myself using the printer throughout college, if it may be for other classes or clubs or for my own ventures into a variety of engineering projects.”Although not as prevalent, several students mentioned taking the initiative to spend extra timeoutside of class to further their learning of what was introduced in the class though not beingasked to. For example, one student noted that: “I was able to learn from my team members how to use screwdrivers and cut wood as I have never worked with these tools before. I even took the time outside of class to get familiar with them, as they are valuable skills that I can use at home and in my career.”ConnectionsAccording to the connections rubric [11] that
Paper ID #37247A Multi-Method Analysis of Engineering Student CuriosityDr. Meagan Eleanor Ita, Arvinas Dr. Meagan Ita is a Research Scientist at Arvinas working to develop disease modifying therapies for neu- rodegenerative diseases. Her career passion is to develop novel biotechnologies and therapeutics to better understand human physiology with the goal of equitably extending healthspan, ideally at the intersection of healthcare and STEM education. Meagan has experience as a Postdoctoral Scholar in Engineering Education from The Ohio State University (OSU), earned a Ph.D. in Bioengineering from the University of
impact entrepreneurialmindset.2.1. Manufacturing Education for Engineers Manufacturing education is a type of education that focuses on teaching individuals the skillsand knowledge they need to work in the manufacturing industry. This may include technicalskills such as operating machinery, as well as a broader understanding of the manufacturingprocess and how different parts of a manufacturing facility work together [17]. Manufacturingeducation can be obtained through a variety of programs, including vocational schools,community colleges, and four-year universities. The goal of manufacturing education is toprepare individuals for careers in this important industry, which plays a vital role in theeconomy. Manufacturing coursework is
career development components with required evaluation and tracking of student participants.Mr. William Pennock, New Jersey Institute of TechnologyProf. Erick S. Vasquez-Guardado, University of Dayton Erick S. Vasquez-Guardado (Erick S. Vasquez) is an Associate Professor in the Department of Chemical and Materials Engineering at the University of Dayton. Dr. Vasquez earned his B.Sc. degree in chemical engineering (ChE) at Universidad Centroamericana Jose Simeon Canas (UCA) in El Salvador, an M.S. in ChE at Clemson University, and a Ph.D. in ChE at Mississippi State University.Fahmidah Ummul Ashraf, Bradley University ©American Society for Engineering Education, 2024WiP: Exploring the Impact of
, enhancedperformance, and better preparation for the job market?The program has received positive feedback from both students and faculty members, indicatingits effectiveness in achieving these goals. Students reported increased confidence in their problem-solving abilities, gained valuable skills and knowledge applicable to their future careers. Moreover,faculty members observed improvements in student performance, acknowledged that the programprovided students with the necessary tools and resources to continue their innovation journey.Furthermore, as part of the program, each group submitted a research paper for journal publication,allowing them to contribute to the broader academic community and gain valuable experience indisseminating their findings.The
Its Effect On Student Design Performance," Atlanta, 2006, no. Conference Proceedings: American Society for Engineering Education-ASEE, p. 11.1343.1. [Online]. Available: https://go.exlibris.link/1Xv21lLs. [Online]. Available: https://go.exlibris.link/1Xv21lLs[14] C. A. Toh and S. R. Miller, "Choosing creativity: the role of individual risk and ambiguity aversion on creative concept selection in engineering design," Research in Engineering Design, vol. 27, no. 3, pp. 195-219, 2016, doi: 10.1007/s00163-015-0212-1.[15] A. Bandura, "Self-efficacy," vol. 13, ed: Harvard Health Publications Group, 1997, p. 4.[16] N. E. H. Betz, G. , "Applications of self-efficacy theory to understanding career choice
challenges but also enhances problem-solving capabilities and creativity. • Implement DEI Initiatives: Our findings highlight the importance of DEI in creating a supportive learning environment. Educators should strive to develop curricula that reflect diverse perspectives and actively recruit a varied student body to enrich the educational experience.Looking ahead, there is a clear avenue for future research to explore the longitudinal influence offailure journaling on students’ career development and industry readiness. Such studies couldfurther validate the role of a fail-forward mindset in preparing engineering graduates to navigatethe complexities and uncertainties of the professional world.In conclusion, the "Innovation
. Theassessment instrument used in this study shows promise as a starting point for future efforts inassessing the EM, though further work on reliability and validity is needed.Based on student feedback, the authors believe the EML activities were successful and beneficialfor students' future courses and career development. While designed for a freshman seminarcourse, the activities could be applied to other classes with similar learning objectives.References[1] Kern Entrepreneurial Engineering Network, “The KEEN Framework.”https://engineeringunleashed.com/framework Accessed 7 February 2024.[2] J. J. Daspit, C. D. Fox, and S. Findley. “Entrepreneurial mindset: An integrated definition, a review ofcurrent insights, and directions for future research
and efficiency of human- machine interface.And finally, the interdisciplinary aspect of the project was developed through the integration ofArts and STEM, also known as STEAM. The literature on the integration of Arts and STEMshows several benefits of this approach [14-16]. Integration of Arts and STEM enhancesstudents’ skill in “problem-seeking” in conjunction with problem-solving skills - the formerinvolving divergent interdisciplinary modes of thinking, shifting among various disciplinaryperspectives, while the latter is focused on convergent analytical thought. STEAM experiencesare also known to improve students’ motivation towards STEM careers [14]. Following thetaxonomical categories of National Core Arts Standards on “conceiving
education into theengineering curriculum had a significant impact on improving creativity, critical thinking, andproblem-solving skills [9]. Shane and Venkataraman defined entrepreneurship as “the discovery,evaluation, and exploitation of opportunity” [10]. Academic research on teaching the EMsuggests that developing an entrepreneurial mindset in engineering students is a process thatrequires practice and repetition. Consequently, EM should be incorporated in courses throughouttheir educational career and not limited to one or two courses.Once implemented, entrepreneurial education provides students with an opportunity to use theirtechnical knowledge to meet market demands and create solutions to real-world problems. Itallows the students to become
such as health than others [12]. Many institutions are offering programsthat bridge different disciplines, such as business and engineering or science and policy, to equipstudents with the skills and knowledge they need to tackle complex and multifaceted problems.Additionally, Canada has launched many initiatives to better prepare students for the latestadvances in their fields and future careers by focusing on research and innovation.Systems ThinkingSystems Thinking was developed from the General Systems Theory of Bertalanffy and has beenapplied to a wide range of fields and disciplines including health care, management and business,plant manufacturing and sustainability [13]. Systems Thinking is utilized for its ability to addresscomplex
end goal of creating a new venture [5, 20,21]. It was clear that engineering professors do not have a background in or embed theseopportunities into their courses: CD indicated: I want to say it’s (entrepreneurial mindset) important, although I don’t know a lot about it. I think a lot of students are interested in it and I think it’s an important skill but it’s not something that I had when I was a student and it’s not something that I really gained (laughs) during my career in academia.It is important to note there are stand-alone courses in entrepreneurial thinking for engineeringstudents at the site. These courses were developed by the business school, and are mostly taughtby adjunct professors that are not part of
even just a few months ago.” “This made me really rethink the way I used food. I was more careful about not buying too much food, especially fruits and vegetables that go bad quickly. I also made sure I was taking leftovers home when going to a restaurant.”Impact of the course was also seen in terms of how the course will affect their future professionalwork, and also how they have started sharing information about the course (specifically on S/CCtopics) with others. For example: “I still hope to build a career for myself in the cosmetics industry, but now I want to go in with the hopes of trying to make a difference in the ingredients and materials used in the products put out.” “My favorite unit in