Herbert F. Alter chair of Engineering in 2010. His research interests include success in first-year engineering, introducing entrepreneurship into engineering, international service and engineering in K-12.Mr. Tyler J Hertenstein, Ohio Northern University Tyler Herternstein is a sophomore studying engineering education at Ohio Northern University, where he currently resides as president and co-founder of a student chapter of ASEE. Previously, Hertenstein has co-authored two papers for the 2012 ASEE North-Central conference. At ONU, Hertenstein is also involved in the Dean’s advisory team, Alpha Lambda Delta, Phi Eta Sigma, the yearly STEM day, and Northern Engineers without Boundaries.Ms. Morgan SperryDr. Debra Kay
example, two of the IPM required courses arebased on interdisciplinary classes that faculty had taught as an overload because institutionalstructures only allowed work to be credited toward a single department.5 This reality means thatthe core courses of the IPM were not originally designed with the new general education learningoutcomes in mind. This kind of process is counter to the teaching-learning-assessment cycleproposed by Suskie, in which learning outcomes should ideally guide the design of a course.3Keeping in mind that reality rarely achieves perfection, the designers of the IPM decided that thebest course of action to address this challenge would be to conduct one iteration of assessment onthe three core courses even as the minor was
strategically manage the way wequilt the fragments together to manage the multiple and oft conflicting stories that interact inour day to day experience [6].We can use our intentional and systemic storymaking to make arguments for, and move thebehavior of individuals toward, the positive changes we want to see in engineering education.Lounsbury and Glynn [7], for example, define cultural entrepreneurship as “storytelling thatmediates between extant stocks of entrepreneurial resources and subsequent capitalacquisition and wealth creation”. In terms more useful to academic departments, well-positioned stories connect the ideas and our abilities to innovate with our ability to acquire theresources we need to enact our proposed improvement as well as
management systems o Enterprise systems design and management o Entrepreneurship and intrapreneurshipCurriculumEducation for technology management requires courses that provide an understanding of system-level product development, enterprise-level supply chain management, marketing and e-business,and the management of human resources in the team and organization. Successful executivesand managers will be those who can exploit opportunities and resources and employ riskmanagement approaches, enabled by information technologies, in designing product portfoliosand achieving rapid and effective product design and delivery. Relevant technologies in theresearch of TIM, related to the development of tools for management decision making
public health,Analytic Thinking category [t(77) = -1.92, p = .058]. safety, the environment, and engineering NSPE code.Non-Ethics texts (mean = 87.08) expressed slightly moreformal, logical thinking than Ethics texts (mean = 85.61). 4. DiscussionThere was a substantial and significant difference for the The present analyses confirmed several possibilitiesAuthentic category [t(77) = -6.43, p < .001]. Non-Ethics related to the utility of machine tools in the assessment oftexts (mean = 23.57) expressed an honest, disclosing students’ SIA papers in an ethics class. The LIWC 2015narrative, whereas Ethics texts (mean = 15.22) expressed a analyses showed that ethics portions of students’ papersmore
sustain connectedness to inquiry and engineering designexperiences, future studies are needed that examine whether disciplinary domains imbueassociations between types of curiosity and types of epistemic engagement.Curiosity and Engineering Luce and Hsi (2015) found students’ curiosity about science and engineering as a moreproduct means of gauging and promoting interest in STEM. Their study of middle gradeslearners’ curiosity outlined specific types of curiosity about science and engineering and thisstudy extended that work by investigating the curiosity of teachers. Curiosity among futureengineers has been a focus within entrepreneurship (e.g. Gorlewicz & Jayaram, 2020) andengineering coursework (e.g. Pusca & Northwood, 2018). In
with the students spending 11 nights at the partner institution living withhost families on the campus of the university. At UDSM, students took classes, taught byTanzanian faculty, on Tanzanian Peoples and Culture, STEM Education in Tanzania, Innovationand Entrepreneurship in Tanzania and Appropriate Technology. Students also visited and hadextensive discussions at the Innovation and Entrepreneurships Center and the TechnologyDevelopment and Transfer Center. The team also took part in excursion tours of• the town of Stonetown in Bagamoyo to learn about early colonial influences on trade, architecture and culture• a government run cashew development center to learn about policies on cashew cultivation and efforts to overcome
as the Program Director of the Electronics and Telecommunications programs and as the Associate Department Head for Operations. He received his B.S. degree in electrical engineering (1975) from California State University, Sacramento, and his M.S. (1980) and D.E. (1983) de- grees in industrial engineering from Texas A&M University. His education and research interests include project management, innovation and entrepreneurship, and embedded product/system development. Page 25.841.1 c American Society for Engineering Education, 2012 Introducing Faculty Research to Undergraduate
Inventive Problem Solving in Engineering”. Its goal is toenhance innovative and inventive thinking abilities of undergraduate students resulting in skillsthat can be used in science, math, engineering and technology. In this paper we detail projectsand homework assignments, teaming and communication activities, and hands-on and funinteractive class actions. One of the core ideas of the class is the Eight-dimensional methodologyfor inventive and innovative problem solving: a systematic approach that stimulates innovationby effectively using both sides of the brain. The methodology is a unified approach that builds oncomprehensive problem solving knowledge from industry, business, marketing, math, science,engineering, technology, and daily life. It
imagination and innovation” [32]. ABET describesengineering design as “an iterative, creative, decision-making process in which the basicsciences, mathematics, and engineering sciences are applied to convert resources into solutions”[28]. However, including innovation in the engineering curriculum can be challenging. Anobvious question is who will teach that subject since faculty typically have little if any industrialexperience, let alone entrepreneurship knowledge and skills [33]. In addition to experience is thetime to develop, supervise, and grade open-ended design projects. Industry encouragesinnovation because it leads to increased profitability and value. Companies that fail to innovateare often left behind, lose market share, and may
formal oralpresentation are required. In addition, students are exposed to discussions about professionalism,ethics, entrepreneurship, environmental sustainability, etc. Over 80% of the projects aresponsored by local or multinational companies such as GE, Siemens, HP, Intel, General Motors,Huawei, etc. Each of these projects is co-supervised by a JI faculty member and an industrialadvisor from the company. The rest of the projects are proposed by JI faculty members or thestudents themselves. Each Capstone Design project team is composed of 4-5 students of mixed(ME and ECE) majors. The course was designed this way embracing the idea ofmultidisciplinary teamwork in each project just like real world industrial settings.The growing importance of
-Centered Design to Connect Engineering Concepts to Sustainable Development Goalsthem to peers in the community in which they live. In India, mothers of middle school and elementaryschool students participated in Ignite and demonstrated that this program can also be used as part ofadult education in innovation and entrepreneurship. The Guatemalan program, which was geared towardmiddle school and high school students, included a component related to student career goals. METHODSHuman-Centered Design as a Framework for the Ignite Curriculum Human-centered design, used to develop and implement the Ignite program, has three formalphases: hear, create
undergraduatecourses in this field. We discuss a new program targeting nontraditional and under-representedstudents at The City University of New York, based on the so-called flipped classroom model.Learning objectives, class resources, and results of recent information security course offeringsin this area will be presented. We also discuss opportunities for academic collaboration with theNew York State Cloud Computing and Analytics Center at Marist College.Index Terms: Cybersecurity, Flipped Classroom, Cloud Computing.I. INTRODUCTIONWith the growing importance of cloud computing, big data/analytics, and other informationtechnology (IT) programs, cybersecurity has received increasing attention in recent years1-3. Inparticular, the rapid growth in these
Paper ID #36782WIP: A Visual Approach to Teaching and Learning theConcept of LimitDaniel Raviv (Professor) Daniel Raviv received his B.Sc. and M.Sc. degrees from the Technion, and his Ph.D. from Case Western Reserve University in Cleveland, Ohio. He is a professor at Florida Atlantic University (FAU) where he is the Director of the Innovation and Entrepreneurship Lab. In the past he served as the assistant provost for innovation. Dr. Raviv taught at Johns Hopkins University, the Technion, and the University of Maryland, and was a visiting researcher at the National Institute of Standards and Technology (NIST) as
entrepreneurship environment. Apart from this,engineers need to develop broad fundamental understanding of their professional responsibilitiesas well as the need to be entrepreneurial in order to understand and contribute in the context ofmarket and business pressures. If engineers can work with the public to explain how engineeringcan help address their problems, and to help them to decide which are the most effective andaffordable ways to address their concerns, the community can make great progress andimprovements. It will surely be a great acquisition for the city business community as well as forthe students themselves, once they can get a glimpse of what it is to engineer in real world.This project is being developed in partnership with a City Hall
more convenient for students to fit into their first-semester schedules,which often include blocks of lab time.A committee of COE faculty was assembled to develop the course, which was given thedesignation ENGR 1101. After reexamining what could be accomplished in fifteen 50-minutesessions, and what would be most useful to transfer students, the committee decided on thefollowing learning objectives for ENGR 1101: Work on a design project in multi-disciplinary teams Develop an engineering entrepreneurship mindset Explain the basis for and importance of engineering ethics Describe the different engineering disciplines Recognize and utilize academic and personal student resources available at UTATeam ProjectThe
members. Jordan (2017) presented apaper on using undergraduate research to teach advanced materials17. Grave and Hager III (2007)successfully integrated research, teaching and entrepreneurship in their project 18. Zhan (2014)presented a result in integration of research and education involving undergraduate research. Thechallenge is to increase research productivity without sacrificing quality of educationalexperience for students. Integration of teaching and research is one of the proposed solution tothis challenge.Inspired by the above mentioned educational research work in the literature, the authors tried tocombine a course project in the control systems course, a capstone project, and research activityof faculty members into a seamlessly
, designedtop-down, incorporates a number of best practices, including spiral curriculum, a unified set ofcore courses, multiple pathways, inclusion of social issues and entrepreneurship, an emphasis onprojects-based learning, and capstone design projects. This paper provides a brief synopsis,comparison with other approaches, and multi-year retrospective on the program. The curriculumhas evolved rapidly from the original to its current state, including changes in requirements,courses, hardware, software, labs, and projects. The guiding philosophy remains unchanged,however, providing continuity of purpose to the program. The program has been highlysuccessful in meeting its desired outcomes, including: quantity and quality of enrolled students,ABET EAC
ability to work in teams.New Program DevelopmentInitial program development was highlighted in 2004 conference proceedings by Kauffmann etal.7. Figure 1 shows the conceptual architecture presented at the time, with IntegratedCollaborative Engineering Environment (ICEE) courses being designated as the core curricula,followed by concentration courses. Nucleated in the ECU College of Technology and ComputerScience, this new engineering program will graduate its first class of engineers in 2008 with aBachelor of Science in Engineering degree with a concentration in Systems Engineering, with asecond class concentrating in Systems Engineering finishing in 2009. The third class, whichentered as freshmen in 2006, will have three concentration options
courses where students tackledthe analysis of systems that required knowledge of principles from multiple disciplines.An improvement in scores was found on a Fundamentals of Engineering-like test used asa diagnostic, and the new curriculum remained in place (Froyd & Ohland, 2005). LehighUniversity has two degree programs, Integrated Design Arts and Integrated BusinessEngineering, that aim to infuse invention and entrepreneurship into the curriculumthrough freshman projects, capstone projects and graduate projects (Ochs et al 2001).3. Course DescriptionThis trans-disciplinary design seminar (TDS) aims to integrate engineering research intothe creative design process; it gives students the opportunity to use modeling, software,and algorithms
thorough this fundingapplication. She is working closely with learning module and curriculum development to verifyinvasive species identification and management information. Jacob Brandon is a Graduatestudent in Agricultural Sciences, working on the curriculum development and preliminarydissemination into high school classrooms across the state. b. ObjectiveThere are over 1100 programs teaching classes in AFNR in public and private schools in Texas,and the expedited dissemination of knowledge and skills across the state would have animmediate impact. To provide the program proposed successfully, this funded work adhered tothe following objectives:Table 1: Objectives of Biosecurity Curriculum Objective 1 Develop a TEKS-aligned and USDA
disciplines for a new college model that brings together engineering, science and business in a multi- disciplinary fashion focusing on innovation and entrepreneurship. The newly developed curricular model is studio based and highly flexible. As part of the program development, Roberts has created a corporate partners program that has resulted in a high level of industry leadership and funding of multidisciplinary senior projects. Roberts received a Ph.D. in industrial engineering from Virginia Tech, a master’s degree in industrial engineering from the University of Utah, and a bachelor’s degree in mathematics from the University of Utah. Roberts has published more than 70 technical articles, has guided more than $2 million
work for proficiency naturally lends itself to the pass/no pass gradingscale compared to the traditional A-F grading scale. However, pass/no pass courses have beencited by students as demotivating to student learning,12 most likely because students areextrinsically motivated to learn by achievement of high letter grades. To help motivate studentlearning, future course offerings will be graded based on a demonstration of skill proficiency,attendance, and class participation.Some of the topics covered (hazard assessment, regulatory affairs, role of testing in design,economics, and entrepreneurship) had not been formally taught elsewhere within the requiredcourses in the BME curriculum. Thus, students were getting their first exposure to these
in undergraduate classes (problem based learning, games and simulations, etc.) as well as integration of innovation and entrepreneurship into the Chemical and Petroleum Engineering as well as broader engineering curriculum. In addition, she is actively engaged in the development of a variety of informal science education approaches with the goal of exciting and teaching K-12 students about regenerative medicine and its potential. Page 26.250.1 c American Society for Engineering Education, 2015 Assessing the Impact of Game-Based Pedagogy on the Development
(PAEE’2013): Closing the Gap between University and Industry, Eindhoven, The Netherlands, 2013.[2] J. Dinis-Carvalho, S. Fernandes, R. M. Lima, D. Mesquita, and C. Costa-Lobo, "Active learning in higher education: developing projects in partnership with industry," in INTED2017 Proceedings, 2017: IATED, pp. 1695-1704.[3] D. Rae and D. E. Melton, "Developing an entrepreneurial mindset in US engineering education: an international view of the KEEN project," The Journal of Engineering Entrepreneurship, vol. 7, no. 3, 2017.[4] N. Tabrizi, "Fostering an entrepreneurial mindset in “computer architecture and organization” class through a producer-customer model," in 2017 IEEE Global Engineering Education
for demand. Following themodel of sustainability across the curriculum which has worked at schools such as NorthernArizona University and Emory University and has been emulated in North America andbeyond,13, 14, 15 we sought federal and local grants that would pay interested faculty to learn moreabout sustainability, sustainable engineering, and sustainable design and then incorporatelearning modules into one or more of their courses. While this model has worked at otherengineering schools,16, 17, 18, 19 a number of cultural and institutional barriers beyond the scope ofthis paper have prevented a similar approach from working at ours. We do, however, havefaculty-training programs in entrepreneurship and innovation, values that are clearly
increasingly complex, technologydriven society”8. The Center has created new courses and revised some existing ones, with the goal ofexposing students to real life problems that need to be solved from a multidisciplinary perspective.Besides courses such as “Engineering in the Modern World”, “High-Tech Entrepreneurship” and“Introduction to the Innovation Process”, students can enroll in “Reading and Writing About theScientific Literature in English” (WSE-1) and “Writing an Effective Scientific Research Article”(WSE-2). WSE-1 is particularly designed to introduce non-native English speakers to reading and writingscientific literature by analyzing how successful scientists use the published literature as readers andwriters. Both courses, WSE-1 and WSE-2
-generation college students in the design contest, indicating that design contests can serve toincrease confidence and more fully develop the needed technical and professional skill sets for theseunderrepresented groups.Although experiential learning has historically been reserved for the senior year and more recentlyincorporated into many Freshman curricula, data from the WERC Environmental Design Contestindicate the value of filling the gap between the Freshman and Senior years with an engineeringdesign contest as an out-of-class instructional vehicle. IntroductionWorkforce development in the undergraduate engineering curriculum serves two primaryconstituents: students and their prospective employers. The
side-by-side with engineering professionals to see how theprinciples learned in class are applied in actual practice.13,14 Industry sponsors senior designprojects to produce some type of product of interest to them while simultaneously educatingstudents by allowing them to apply their knowledge and skills to an actual problem.13 Someuniversities have used industry to help teach senior design courses as part of capstone projects,15where these adjunct instructors are sometimes referred to as “Professors of Practice.”16 Industrycan sponsor research projects with faculty that also include student workers and can also providefacilities for students to conduct research if these are not available at the university. Industry canprovide formal mentors
electrical engineering. In addition, eachfaculty member had some limited amount of experience overseas. The consulting engineer hadextensive experience with EWB teams and in developing engineering solutions worldwide.The concept of “Do No Harm” was woven throughout the course by exposing students tointernational case studies. One class per week was dedicated to considering success ofhumanitarian engineering projects and the unfortunate frequency of failed – though well-intended – projects. Assignments forced the students to reflect upon positives and negatives andincorporate the best in their plans. Additionally, the students were challenged to develop a designand prototype to transport water from a creek on campus considering appropriateness