Journal of Electrical Engineering Education, vol. 51, no. 3, pp. 203-216, 2014.[9] M. Bojovic, L. Palurovic and L. Tica, "Communication skills in engineering professions: Communicative language ability in foreign languages," International Journal of Engineering Education, vol. 31, no. 1, pp. 377-383, 2015.[10] K. Cook, Y. Han, T. Shuman and G. Mason, "Effects of integrating authentic engineering problem centered learning on student problem solving," International Journal of Engineering Education, vol. 33, no. 1, pp. 272-282, 2017.[11] M. Walker and J. Williams, "Critical evaluation as an aid to improved report writing: a case study," European Journal of Engineering Education, vol. 39, no. 3, pp. 272-281, 2014.[12] A
engineering graphics education. When teaching a subject, we should try tobuild a curriculum which is concise and logical and is relevant both to the students and to theneeds of industry. To enhance visualization ability, students should have the chance to practiceand to sketch a lot of isometric and oblique pictorials. For architectural majors it is important tobe able to make perspective drawings. It is obvious that computers will largely replace hand-drawn designs and that they play an important role in engineering design process today.However, are they a true substitute for hand-made drawings and for the concepts born inperson’s imagination?One general question remains unanswered: How can we cover all this in a single three-creditcourse?Fig.1 Two
, and E. L. Deci. “Intrinsic and Extrinsic Motivation: Classic Definitions and New Directions,” Contemporary Educational Psychology, Vol. 25, pp. 54-67, 2000.14. C. M. Vogt, “Faculty as a Critical Juncture in Student Retention and Performance in Engineering Programs,” Journal of Engineering Education, Vol. 97(1), 27-36, 2008.15. A. E. Black and E. L. Deci, “The effects of instructors’ autonomy support and students’ autonomous motivation on learning organic chemistry: A self-determination theory perspective,” Science Education, 84, 740-756, 2000.16. G. C. Williams, and E. L. Deci, “Internalization of biopsychosocial values by medical students: A test of self-determination theory,” Journal of Personality and Social Psychology
. (2013). Conceptions of mathematics and student identity: implications forengineering education. International Journal of Mathematical Education in Science andTechnology, 44(7): 1020-1029.[24] Walker, M. (2001). Engineering identities. British Journal of Sociology of Education, 22(1):75-89.[25] Bergerson, A.A., Hotchkins, B.K., & Furse, C. (2014). Outreach and identity development:new perspectives on college student persistence. Journal of College Student Retention: Theory& Practice, 16(2): 165-185.[26] Jungert, T. (2013). Social identities among engineering students and through their transitionto work: a longitudinal study. Studies in Higher Education, 38(1): 39-52[27] Bronfenbrenner, U., (1977) Toward an ecology of human development
Conference & Exposition Copyright © 2005, American Society for Engineering Education” Polymer and materials laboratory with related equipment and softwareMaster of Science in Technology Program review and changesIn 2004, an external review of the Master of Science degree in Technology (MST) wasconducted to align the program with the strategic mission of WCU and the Department ofEngineering and Technology. The review board, comprised of leaders from academia andregional industry, determined that changes were necessary.13 Prior to change, the MST programfocus was narrow in scope and demand was directly related to the manufacturing base of theregion. The board and department agreed that the MST would continue as a non
. This series of key engineering activities constitutes the major elementsof system architecture, which is an essential predecessor to any successful engineering effort,especially as the complexity of systems/systems of systems and socio-technical systems continueto grow.Unfortunately, these architecture-centric activities and system thinking techniques are nottypically part of an engineering curriculum. Undergraduate academics are so filled with corecourses and humanities that domain learning is primarily limited to the upper class years, leavinglittle room for system architecture. Noticing the gap in system architecture education, severaluniversities have recently started offering architecture related graduate degrees/certificates.However
AC 2012-4255: STEPPING OUTSIDE THE BOX: EDUCATION OF GLOBALENGINEERSDr. Samuel P. Clemence, Syracuse University Samuel P. Clemence, P.E., Laura J. and L. Douglas Meredith Professor for Teaching Excellence, L.C. Smith College of Engineering and Computer Science, Syracuse University, is a Fellow in the American Society of Civil Engineers, a member of Chi Epsilon and Sigma Xi, and was elected to Tau Beta Pi as an Eminent Engineer in 1977. He has received Outstanding Teacher awards at the University of Missouri, Rolla (1974-75, 1976-77) and at Syracuse University (1988-89). The Division of Higher Education and Ministry of the Methodist Church selected him as the 1990 Scholar/Teacher of the Year at Syracuse
an AIcompetition.Gonzales, M., & Goel, A. (2019), “Why Are Some Online Educational Programs Successful?: ACognitive Science Perspective”. Poster paper at the 41st Annual Meeting of the CognitiveScience Society, Montreal, July 24, 2019.Lawrie, G. (2017). How our school is using Virtual Reality to prepare pupils for a futuredominated by technology. Retrieved 11 April 2021, fromhttp://www.telegraph.co.uk/education/2017/01/23/school-using-virtual-reality-preparepupils-future-dominated/Lee I (2017) Classroom Writing Assessment and Feedback in L2 School Contexts. Singapore:Springer.Lund, B. D. (2023). A brief review of ChatGPT: Its value and the underlying GPT technology.https://www.researchgate.net/publication
education he receives. However, I wantedto highlight that in engineering school, young people may constantly be in the process of figuringout their identities and making sense of what the industry values.Differences in epistemic commitmentsRebecca, a fourth-year Mechanical Engineering student interned at a robotics company andfound that she had to adapt to the company’s culture in terms of how she approaches work. In hercoursework, Rebecca tends to spend more time than her peers to make sense of the mechanismsof the details of her design. She said, “I tend to, even if I do make a decision, question it and goback to and then be like, okay, I'm going to go down another rabbit hole and analyze this otheroption.” She has an epistemological identity as
for numer- ous fortune 500 companies throughout the world. He is a Certified Manufacturing Technologist (Society of Manufacturing Engineers) and is also certified in Planning and Managing Projects (BD University); Ethical Fitness (BD University); Lean Manufacturing (BD University); High Impact Facilitation (Lore International Institute); and Project Management (Saddle Island Institute). Page 22.865.1 c American Society for Engineering Education, 2011Industry Experience and Perspective: A Survey of Advice Brigham Young University Capstone Alumni Share with Incoming
? International Journal of Engineering Education. 2006;22(3):429–438.14. Trevelyan J. Reconstructing engineering from practice. Engineering Studies. 2010;2(3):175-195.15. Donald JG. Learning to think: disciplinary perspectives. San Francisco, CA: Jossey-Bass; 2002.16. Hult H, Dahlgren MA, Dahlgren LO, af Segerstad HH. Freshmen’s and seniors’ thoughts about education, professional identity and work. In: Australian Association for Research in Education 2003 Conference Papers. Melbourne: ACER Library.; 2003.17. Jonassen DH, Strobel J, Lee CB. Everyday problem solving in engineering: Lessons for engineering educators. Journal of Engineering Education. 2006;95(2):139.18. Shulman L. Signature pedagogies in the professions. Daedalus. 2005;134(3):52
stemmed from a long-standing partnership between a private university and a public highschool in New England. The author of this paper is a doctoral student and research assistant inSTEM education at the university. The high school is a large comprehensive urban high schoolthat is racially, ethnically, and linguistically diverse. The partnership has been ongoing for over20 years, with various collaborative efforts including transforming a dormant woodshop into athriving makerspace in the high school and co-designing the high school’s new engineeringcurriculum.“Engineering for our community” is an engineering course offered by Ms. G at Ashford HighSchool where students work with community members and create engineering projects for theirschool and
Institute of Constructors, June 1995, Vol. 19, No. 2, pp. 18-23. Page 2.406.45. Sener, M. E., "An Expert-System-Based Tutorial for Course-Specific Problem Solving." Proceedings of the American Society for Engineering Education Annual Conference, 1995, Anaheim, CA, June 25-28, 1995, Vol. I, pp. 2306-2310.6. Sener, M. E., "Bringing Real World Experiences into the Classroom: Use of Contemporary Information Technologies in Construction Education." Proceedings of the American Society for Engineering Education Annual Conference, Alberta, Canada, June 26-29, 1994, Vol. II, pp. 2737-2741.7
Session 1315 Enhancing Construction Engineering Education Using Internet based Tools Anil Sawhney, Prawit Rotsawatsuk, and André Mund Western Michigan UniversityAbstractThis paper describes the work being performed as part of a three-year project that has beenfunded by the National Science Foundation (NSF) and Western Michigan University (WMU).The goal of the project is to enhance the undergraduate construction engineering education.Enhancements will be accomplished by developing: 1) an Internet-based Interactive ConstructionManagement Learning System (ICMLS) and 2
to building morevalue in what they do. We share practical strategies for an engineering podcast with the goal ofempowering more engineering faculty to explore this emerging communication medium.IntroductionFor years, internal and external programs have provided support for faculty to develop educationalinnovations to benefit engineering students in the classroom [1]. Common dissemination methodsfor these types of projects include news articles, internal lunch and learn workshops, and educationconference papers. However, there is still room to further disseminate these impactful projects toa wider audience to allow for educational innovation “at scale”. We asked: Outside of facultycommunities of practice, how do educational innovations spread
receivedofficial approval from the Chinese Ministry of Education in October 2020. Subsequent approvalsfor the program were duly secured, first from the educational institution itself and later from theSouthern Association of Colleges and Schools Commission on Colleges (SACSCOC) regionalaccreditor.The successful initiation of this international educational site necessitated meticulous planningencompassing various aspects, including logistical considerations for program delivery,academic standards, student recruitment, financial agreements, and the assignment of instructors.In August 2023, this program enrolled its inaugural cohort, comprised of 19 students.This paper describes the development and management of an international instructional site fromthe
students.Reed: I am a Métis man from Winnipeg, Manitoba. I am a master’s student in BiosystemsEngineering with a focus on engineering education. This includes an interest in Indigenizingengineering. As a recent graduate of an engineering program and as a neophyte in EER, I oftenreflect on my experiences as a learner in an engineering setting. In reflecting, I tend to look atengineering education through a critical lens. This perspective, along with my Indigenousbackground, is what drew me to my current research on Indigenous students’ experiences inengineering and the influence of an engineering access program on those students.Our ProcessAs discussed in the introduction, our initial attempts at describing EER in an accessible mannerwere due to
for Graduate Mentorship. Dr. Behjat is advocating and working towards the implementation of United Nations Sustainable Development Goals, including SDG 3: Health and Well-being, SDG 4: Quality Education, SDG 5: Gender Equality, SDG 9: Industry, Innovation and Infrastructure, SDG 10: Reduced Inequalities and SDG 16: Peace, Justice and Strong Institutions. ©American Society for Engineering Education, 2025 Nourishing the Tree of Hope: An art piece about peaceAbstract:This paper explores the intersection of engineering, violence, and peace through an arts-basedproject. Drawing from our lived experiences, we would like to build a narrative that highlightshow engineering is deeply entwined with societal
Paper ID #213792018 CoNECD - The Collaborative Network for Engineering and ComputingDiversity Conference: Crystal City, Virginia Apr 29Why inclusion programs are beneficial to students with disabilities and howuniversities can help: perspectives of students with disabilitiesMs. Meenakshi Manas Das, Mississippi State University Meenakshi Das is a junior computer science student at Mississippi State University and has an active interest in Accessibility in tech.Dr. Sarah B. Lee, Mississippi State University Sarah Lee joined the faculty at Mississippi State University after a 19 year information technology career at FedEx
many stakeholders have a vague awareness offirst principles thinking as a philosophy of knowledge construct, there is a gap in conceptualizingthis in the engineering and education literature.Thematic analysis was used to identify several key findings. First, while some stakeholdersviewed first principles thinking as a learning and problem solving strategy, others tied thepractice to the disciplinary knowledge itself, for example, key theories and equations and theirderivations. While these two conceptualizations are related, the latter provides less room fortransfer to the engineering problem solving process, and stakeholders expressed an interest inbuilding this opportunity to transfer the skill to other engineering contexts. Second
Young University, and a PhD in Educational Technology from Purdue University. His research interests include spatial ability development, virtual and augmented reality applications, product data and lifecycle management, and innovative classroom methodologies. Page 26.1656.1 c American Society for Engineering Education, 2015 Using an Experience Design Approach to Curriculum CreationAbstractIn this paper, we present the approach we took to the development of a newundergraduate major in human-centered design and development. The paper’scontributions are twofold: first, we illustrate how we
(ExCEEd); 3. Precollege Outreach; and 4. Civil Engineering Department Heads Programs including an annual conference.ASCE maintains a very active role in the American Society for Engineering Education (ASEE)Civil Engineering (CE) Division through the ASCE Liaison Committee and continues to publishand present on a variety of education topics every year. ASCE staff is collaborating with the SIG(Special Interest Group) for International Engineering Education under the Corporate MemberCouncil of the ASEE. This group is developing attributes of a global engineer. ASCE alsocontinues to advocate for the full implementation of NCEES Model Law 2020, raising the bar fora professional engineers foundational education to include either a master’s degree
successful designs, discover biomimetic projects that are currentlyunderway, and experiment with biomimetic strategies to better solve the problems by achievingthe benefits without the issues. This curriculum helps change the mindset and foster creativity inthe next generation of engineers who will be tasked with solving the problems of the future. Thispaper will explain the course in greater detail, and how its approach differs from conventionalengineering education. It will provide perspectives from students of different disciplines who havetaken the course, co-instructed in the course, and are currently applying their changed mindset totheir research and jobs.IntroductionTeaching the next generation of engineering students to solve problems
ethical responsibility” (Engineering, 1997).This new emphasis in ethics education is not limited to the engineering profession alone.In fact, this is a component of a much more global movement entitled CharacterEducation. Character Education’s roots lie in behavioral ethics. Behavioral ethics can beviewed as an understanding of desirable and undesirable actions based on a society’sperceptions and norms. Once an individual understands and perceives society’sdistinctions between positive and negative actions, character education then enables theindividual to internalize these values. As a result the individual develops a personal codeof professional conduct which then guides their daily interactions.According to Pfatteicher’s article published in
Paper ID #26217What Can We Learn from a Research Experiences for Teachers (RET) Site?Three Perspectives on Big Data and Data ScienceDr. Stephanie Boggess Philipp, University of Louisville Dr. Philipp is an assistant clinical professor in the Department of Middle and Secondary Education at the University of Louisville. She spent eight years as a project manager for various environmental and geo- physical exploration firms and then as many years as a middle and secondary science teacher in chemistry and physics. She is a liaison between the Center for Research in Mathematics and Science Teacher De- velopment and the Center
; R. Pekrun (Eds.), International Handbook of Emotions in Education, pp. 494-519, New York: Routledge, 2014.[10] M. Guthrie Yarwood, Psychology of Human Emotion: An Open Access Textbook. Pressbooks. 2022. https://psu.pb.unizin.org/psych425/chapter/basic-emotion-perspective/[11] D. Kim and B.K. Jesiek, “Work-in-Progress: Emotion and intuition in engineering students’ ethical decision making and implications for engineering ethics education,” American Society for Engineering Education (ASEE) Annual Conference. Paper ID #25508. 17 pp. 2019.[12] N. Kotluk and R. Torney, “Compassion and engineering students’ moral reasoning: The emotional experience of engineering ethics cases,” Journal of Engineering Education, vol
Page 8.699.6Proceedings of the 2003 American Society for Engineering Education. Annual Conference&Exposition Copyright@2003, American Society for Engineering Education.with many novel delivery features. The facility and its resources are also being used bythe local Community Colleges. Together, the partners seek to build an educationalinfrastructure that will meet the workforce needs of a global-scale competitive industry.Bibliography 1. The International Technology Roadmap for Semiconductors (ITRS) is fully described in an extensive web site at http://public.itrs.net. 2. L Munukutla, J Robertson & A McHenry, “A Contextual experience model to prepare a high-tech workforce”, International Conference on Engineering
international standards of engineering education etc.); such documents can be produced by compiling data from external sources;(b) availability of official documents issued over the period of the last several years, explicitly stating the mission of an institution and a long-term and short-term strategy of development Page 3.470.7 of the institution (its education system, organization and management); the long-term strategy 7 should account for the predicted changes and include - as its essential part - a plan of activities aimed at
education which is being applied atthe Mechanical Engineering Department at Alabama A&M University to facilitate continuousimprovement of the curriculum. This perspective has been developed to better position theprogram in the context of the Accreditation Board for Engineering and Technology (ABET)criteria 2000, which emphasizes an outcome-based philosophy. This paper examines thedevelopment, implementation and results of the use of assessment tools in seeking continuousprogram improvement in Mechanical Engineering at Alabama A&M University.Under the new ABET criteria 2000, engineering educators are being challenged to, not only,revise the content, depth and perspective of the engineering curriculum, but also to adjust, andadapt or re
abilities represent lower-levels of learningdevelopment in hierarchical taxonomies, such as Bloom’s taxonomy of cognition [11]. It is notclear that the sum of the parts of education adds up to the higher levels of intellectual integrationrequired in the capacity to collaborate for sustainable design.Given the urgent international call for sustainable development by intergovernmental coalitions[1, 4, 12] and the integral role that engineers are expected to play in this transition, engineeringeducators would benefit from knowing if current curricula are preparing students for thiscomplex task of collaborating for sustainable design. Certainly, an instrument to assess students’readiness does not facilitate their readiness just as “measuring the pig