and vocational pathways. Dr. Lande is the PI/co-PI on NSF-funded projects focused on engineering doing and making, citizen science and engineering outreach, and ”revolutionizing” engineering education. He has also been an instructor and participant in the NSF Innovation Corps for Learning program. He re- ceived his B.S in Engineering (Product Design), M.A. in Education (Learning, Design and Technology) and Ph.D. in Mechanical Engineering (Design Education) from Stanford University.Dr. Shawn S Jordan, Arizona State University, Polytechnic campus SHAWN JORDAN, Ph.D. is an Assistant Professor of engineering in the Ira A. Fulton Schools of En- gineering at Arizona State University. He teaches context-centered
measure because new manufacturing technologies frequently require specific newskills that preparation programs do not yet teach and that emerging labor markets do not yetsupply [4]. In rural communities, where AM employers rely on the labor market at hand, a skillsgap can be a formidable barrier to building and sustaining a presence.To further explore the mismatch between workforce supply and workplace needs, we conductedsemi-structured interviews with Northwest Florida’s Rural Area of Opportunity (RAO)employers to identify what they perceived to be important employability for AM technicians.The research question guiding this investigation is What are essential employability skills that 2-year AM programs graduates need to be successful in AM
building enterprise-related institutions across departments and integrating administrative institutions. ZhaoDongming, et al. (2015) and Mack (2016) pointed out that the university-basedentrepreneurial ecosystem, which is university-led, government and society-assisted, is theinteraction of capital flow, technology transfer and cultural construction in the process ofimplementing entrepreneurship education. It makes the "energy" in talents, information andfunds circulate among universities, government and society, thus creating a newentrepreneurial ecosystem, promoting the formation of new enterprises and the rise ofregional entrepreneurship activities. Based on the research on entrepreneurial ecosystem ofthe university of Michigan, Huang-Saad et
Engineering Education, 2019 Engineering Interest and Attitude Development In Out-of-School TimeAbstractSince its inclusion in the Next Generation Science Standards (NGSS), engineering has continuedto emerge in classrooms and informal settings. As educators become familiar with this discipline,there is opportunity for research to inform our understanding of how youth are relating toengineering concepts and practices. This paper examines how engaging with engineering in out-of-school-time (OST) settings impacts youths’ interests and attitudes toward engineering. Dataare drawn from four OST sites that implemented a hands-on engineering curriculum with 52middle-school-aged youth. Quantitative analysis of
Technology ●! Information Graphics ●! Cutting ●! Design Validation through ●! Appropriate Technology ●! Visual Design ●! Milling Calculations ●! Inclusion & AccessibilityProject Management ●! Turning Engineering Algebra ●! Public Participation in Decision ●! Initiating and Planning ●! Grinding ●! Recognizing, Selecting, and Making ●! Scope, Time and Cost ●! Reaming Applying Appropriate Algebraic Careers in Engineering Management
curriculum during the COVID-19 disruption? We explored teacher delivery of thee4usa curriculum through a variety of levels to capture the drivers that prompted decisions,identify pedagogical adjustments, and identify drivers behind the chosen changes.Background:As COVID emerged unexpectedly during the 2020 Spring semester, educational institutions allover the world had to pivot and adapt, utilizing alternative modalities to deliver curriculum totheir students. When the disruption occurred, there was little to no consistency in the directivesof local K-12 administrations as they began to react and adapt to the new education climate.Variations included trying to continue with the curriculum via video conferencing software andwork at home projects
National Laboratory focusing on developing a modern computational framework for the nonlinear seismic analysis of Department of Energy nuclear facilities and systems. For her engineering education research, she is interested in exploring how to use technology such as virtual reality and 3D printing to enhance student engagement. She is an active member of ASCE, ASEE, and SEAONC.Shahrukh Humayoun Dr. Shah Rukh Humayoun is an Assistant Professor in the Department of Computer Science, San Francisco State University (SFSU), USA. His current research topics include human-computer interaction, virtual reality, information visualization, visual analytics, and software engineering. He has co-organized more than 10 workshops in his
reflecting knowledge from various engineering areas: electrical, mechanical,chemical, biology, etc. Therefore, faculty from the electrical engineering and mechanicalengineering technology programs has started to collaborate since the fall of 2014 to bring thisbreadth of information under the nanotechnology minor umbrella. Although the program isgeared specifically toward students in the technology and engineering areas - most of theenrolled students are from electrical and mechanical technology programs – a few of the courseshave a general character suitable for students from other areas of education with an interest innanotechnology.Minor in NanotechnologyThe nanotechnology minor is designed to provide knowledge and skills valuable to
are integraland necessary parts of a system. A more detail information about the courses (required andtechnical electives) for the degree program is given in the Table 2 and on the Division ofEngineering Technology web site [49].GENERAL PHILOSOPHY AND CONCERNS Even though the emerging issue of preparing the workforce for alternative energydiscipline continues to hold promise, the short term future of employing those graduates poses adifficult challenge to higher education. That is the primary reason community colleges anduniversities are cautious about offering such programs. Based on this philosophy, a limitednumber of courses focusing on the local business needs were included in this proposedspecialized program. New courses proposed
and 2) representation of racially minoritized populations can be improved throughmore inclusive recruiting and marketing efforts. Overall, this research aims to inform practicesthat advance diversity, equity, and inclusion in STEM entrepreneurship programming.Key words: I-Corps, Entrepreneurship, Engineering Faculty, Inclusion IntroductionIn recent years, interest in entrepreneurship education to advance technological innovation hasgrown significantly to further expand the U.S. economy [1]. Drawing from the businesscommunity, entrepreneurship education and training programs have been introduced to broadercommunities, including STEM researchers, to bridge the gap between research andcommercialization
. • Active In-Class Exercises. • Demonstrations and Examples. • Homework problems and solutions.Outside the Classroom Transformation: Integrating Habitat for Humanity Page 22.1241.5 As mentioned earlier, integration of Habitat for Humanity was executed under an internalcurriculum enhancement program funded by the University of North Carolina at Charlotte in2009-2010. The emerging results of that proof of concept were published last year throughASEE;1 the literature review presented previously in that article is summarized here to presentsome general information for Habitat and to support this continued program initiative. Habitat
., & McNair, L. (in press). Assessing graduate engineering programs with eportfolios: A comprehensive design process. Advances in Engineering Education.7. McNair, L., & Borrego M. (2010). Graduate students designing graduate assessment: ePortfolio design as problem-based learning. Proceedings of the Frontiers in Education Conference. Washington, DC: ASEE/IEEE.8. Paulson, F. L., Paulson, P. R., & Meyer, C. (1991). What makes a portfolio a portfolio? Educational Leadership, 48(5), 60-63.9. Carroll, N.L., & Calvo, R.A. (2005). Certified assessment artifacts for ePortfolios. Proceedings of the Third International Conference on Information Technology and Applications (ICITA’05), 2, (pp. 130-135
Universities for developing the advanced manufacturing engineers needed tosustain European competitiveness. The study serves as a benchmark of current provision and as afoundation for future initiatives in this field by the ICIMS Network of Excellence.The methodology used included literature reviews and combined questionnaires with site visitsand interviews. Information sought included the level of advanced courses offered, the curriculummodels and delivery methods employed together with the underlying rationale for the courses.Analysis of the results reveals areas of emerging consensus about the core curriculum anddevelopment trends in advanced manufacturing education.The paper presents a summary of the data obtained, describes the analytical methods
recipients will be required to work for the Federal government fortwo years in fulfillment of their Federal Cyber Service commitment. The CapacityBuilding Track provides funds to colleges and universities to improve the quality andincrease the production of information assurance and computer security professionalsthrough professional development of information assurance faculty and the developmentof academic programs.The Science, Technology, Engineering, and Mathematics Talent Expansion (STEP)Program 6 seeks to increase the number of students (U.S. citizens or permanent residents)receiving associate or baccalaureate degrees in established or emerging fields withinSTEM. The goal of projects must be to increase the total number of students at
re-examine the historical basis for the core computational skill set and assess thedegree to which it has met the needs of industry for modeling, design, and construction. Weidentify technology trends such as scripting languages (e.g., Python and Ruby), modernnumerical programming (e.g., Matlab), and Building Information Modeling (BIM) tools (e.g.,Revit and Sketchup) that, to be available and effective for industry, must have a curricular basisfor CE graduates. Finally, we provide recommendations for incorporating modern tools intoboth introductory engineering computing courses and senior level design courses.IntroductionComputational skills have been an integral component of engineering education for decades.Long before digital computer
re-examine the historical basis for the core computational skill set and assess thedegree to which it has met the needs of industry for modeling, design, and construction. Weidentify technology trends such as scripting languages (e.g., Python and Ruby), modernnumerical programming (e.g., Matlab), and Building Information Modeling (BIM) tools (e.g.,Revit and Sketchup) that, to be available and effective for industry, must have a curricular basisfor CE graduates. Finally, we provide recommendations for incorporating modern tools intoboth introductory engineering computing courses and senior level design courses.IntroductionComputational skills have been an integral component of engineering education for decades.Long before digital computer
Paper ID #15463Cognitive Research: Transferring Theories and Findings to K-12 Engineer-ing Educational PracticeMr. Michael Grubbs, Baltimore County Public Schools Previous to my current position as Acting Supervisor of Technology, Engineering, and Manufacturing Education of Baltimore County Public Schools, I was a Virginia Tech GRA and educator in Clayton County Public Schools.Dr. Greg J. Strimel, West Virginia University Director, K-12 Initiatives c American Society for Engineering Education, 2016 Design Cognition Research: Establishing Coding Scheme
and societal decisions about technology, macroethicshelps novice engineers better understand the real implications of their work in society (Hekert, 2005).Aerospace engineering has been historically dominated by white cis-gendered male students, and theprivilege that this majority holds affects the lens through which students perceive macroethical conceptsin the field. Thus, there is a vital need for macroethical concepts to be included in undergraduateaerospace engineering curricula.This study extends previous iterations of our research, in which one-day macroethics lessons wereimplemented into undergraduate aerospace engineering courses (Benham et al., 2021). These data wereused to inform the development of a survey that was distributed to
definitions in the engineering context, constructs of theframework, types of research being conducted, and gaps in research to be pursued. This reviewof literature also served to reinforce the strength of the framework and the importance ofmaintaining an assets-based perspective and approach throughout this CAREER project research. Finally, during this first year, datasets were established, and data collection has begun.Data collection has emerged from three primary sources. The first source of data comes fromsecondary document collection of resources, supports, transfer program information and otherrelated documentary evidence from partnering institutions (one four-year university and threetwo-year colleges). The next source of data is
concerned circles about the future of work and future ofeducation. What should Education 4.0 look like? Here are some relevant quotes from recentpublications.“The emerging technologies have huge effect on the education of people. Only qualified andhighly educated employees will be able to control these technologies.”(Benešová & Tupa ) “The argument is simple: the change is here, there’s no avoiding it, so it’s time to adapt.Institutions must change to keep up — and I don’t mean they need reform; there’s no use inimproving a broken model. We are on the brink of a fourth industrial revolution, and we need afull-scale transformation, an education revolution to keep up to the world of 4.0.” (Walsh)“Education 4.0 is catering to the need of the
, which provides many flexible options for students as they pursue their educationalgoals.The buzz about cloud computing is everywhere; on the TV, Internet, and inconferences/workshops being promoted as a business solution. But what is cloudcomputing and what makes it attractive to businesses regardless of the type of business?It has emerged to be the latest and greatest trend for businesses that are looking to expandtheir Information Technology to keep up with the ever increasing demand of doingbusiness via the internet in order to provide better services to customers and streamlinebusiness processes.In this paper, the author will discuss how cloud computing could provide DeVryUniversity the ability to keep up with the demand of its expanding IT
- Annual conference of American Society of Engineering Education (ASEE). His current research interests are engineering education, software engineering, and developing innovative entrepreneurs and intrapreneurs.Prof. Ashok Ranade, EE Collaborative Ashok has worked as Information Technology specialist in India, USA and Canada for more than 40 years in various capacities. He founded several IT services businesses. He is teaching subjects related to Entreprise Systems and Entrepreneurship Developent at multiple colleges in India and Canada. c American Society for Engineering Education, 2016 Identifying Entrepreneurial Competencies: An Indian StudyIntroductionEntrepreneurship has become more
engineering or design experience. Consequently, the types of empathicencounters that one would associate with engineering, especially in a design-based project maynot have emerged as often as could be possible in participants’ discussions. And since many ofthe concepts that informed interview questions were relevant to empathy in engineering anddesign, it was difficult to get at empathic encounters that may have emerged from students’experiences in a broader sense. Despite this limitation, the types of experiences that participantsengaged in still support the suggestion in the literature that service learning could fosterengineering students’ empathy development [4].While the above paragraph highlights a limitation, it also highlights a strength of
,with significant implications for the engineering and information and communications technology(INFOCOMM) sectors. Industry 4.0 has been characterized by integrating technological systemsthat have revolutionized traditional manufacturing and service models by enabling unprecedentedlevels of automation and digital connectivity [1, 2]. Meanwhile, Industry 5.0 builds on theseadvancements, emphasizing human-centric approaches, sustainable practices, andhuman-machine collaboration to address societal challenges [3, 4].In the engineering and INFOCOMM sectors, these advancements have created a pressing need forprofessionals to acquire new skills to adapt to technological disruptions and changing marketdemands. Digital transformation and automation
on IEEE’s vision for creating virtual communities. We will discussthe potential and limitations of the current technology and its application within theIEEE. But before focusing on the IEEE, let us take a broader look at virtual communitiesin light of the literature.What are Virtual Communities?According to Chang, an online or virtual community is a “social aggregation of a criticalmass of people on the Internet who engage in public discussions, interactions, andinformation exchanges with sufficient human feeling on matters of common interest toform Webs of personal relationships” 2 Etienne Wenger wrote a seminar work oncommunities of practice in which he describes a “social theory of learning. 3 Preecediscussed various informal virtual
Angeles Unified data governance, accountability, and transparency into thebanned access to AI tools like ChatGPT due to fears of curriculum, educators can empower students to design andcheating. Fortunately, many schools have since reversed these deploy AI systems that are not only effective but also securebans. For example, New York City Public Schools lifted its and ethically sound.ban after four months and now support a curriculum that Emerging technologies and pedagogical theories are vitalincludes generative AI. The district’s chancellor emphasized for shaping the future
. This paper is a step towards a more historically informed and comprehensiveunderstanding of the obstacles automotive technician training programs in public education haveand continue to face. The authors of this paper are preparing to expand these findings byconducting interviews of current automotive repair education programs to understand how theycontinuously update their curricula to integrate emerging EV technologies, what funding theyuse to do so, and how the federal and state governments can improve their provisioning of fundsto help public education keep pace with the EV requirements those governments set. Futureresearch could also consider how efforts to fund public EV repair training initiatives struggle tofind footing in the
, intelligent process inwhich designers generate, evaluate, and specify concepts for devices, systems, orprocesses whose form and function achieve clients’ objectives or users’ needs whilesatisfying a specified set of constraints”.9 With the incorporation of engineering into theNext Generation Science Standards, engineering design becomes increasingly importantin K-12 settings. Precollege students and teachers are now charged with understandingengineering concepts and processes, such as defining problems, developing models,planning investigations, analyzing data, using mathematics, information technology, orcomputational thinking, designing solutions, and engaging in argument from practice1. Inthese settings it is also important to understand how
Educational Research, Interpreted from a Virtue Perspective. Ethical Theory 2008. 78(3): p. 367-409. and Moral Practice, 2005. 8(5): p. 485-506. [19] Cooper, H., et al., Making the most of summer[5] Bryant, J.M., On Sources and Narratives in school: A meta-analytic and narrative review. Historical Social Science: A Realist Critique of Monographs of the society for research in child Positivist and Postmodernist Epistemologies. The development, 2000: p. i-127. British Journal of Sociology, 2000. 51(3): p. 489- [20] Joseph, D., et al., Turnover of information technology 523
Page 14.563.2technology, integration of physical manufacturing processes into the global business andengineering functions will be the next stage of the foregoing manufacturing evolution. 1Development of e-Manufacturing Lab for Network Based Manufacturing EducationSchool XXXX has recognized the strategic importance of the new program to themanufacturing industries, which has materialized through a strong support in resources.This lab is the synergistic combination of manufacturing engineering, computer,information technology, control systems as well as Internet-based, advanced tools forcollaborative product design, remote process monitoring & control, embeddedfunctionality, and built-in