introduces globalization and the UN Sustainable Development Goals (SDGs) [14]. Thegoal of this module is to help students recognize the implications their design decisions mayhave outside of their immediate community and identify ways their careers as designers couldinclude work toward addressing some of the SDGs.The lesson plan for this module first introduces the concept of globalization, including bothpositive aspects like economic growth and cultural exchange and negative aspects likeoverconsumption and exploitation. The UN SDGs are then presented as an international effort toalign countries and major organizations toward positive globalization outcomes. After a briefhistory of the development of the SDGs, students are encouraged to evaluate the
comprehensionand problem-solving abilities. As STEM research focuses more on workforce developmentand students’ career visions rather than content learning, Takeuchi et al. [1] emphasize theneed to examine current learners, target learners, and their positions with respect to STEM.They argue that improving the rate of learning transfer across STEM education requiresgreater focus on spatial skills as a part of STEM integration applicable and relevant toindustry context. Literature suggests that visuospatial skills contribute to success in STEMdisciplines [2]–[4]. Children with good visuospatial skills performed better on numeric tasks,such as estimating the values on a number line, while children with poor visuospatial skillswere less accurate in their
- ter for Advanced Computing, Information Technology at Purdue University where he led the education and the educational technology effort for the NSF-funded Network for Computational Nanotechnology (NCN). His work focuses on how semantic grid-based technologies and tools can co-exist with students’ lifestyles, learning patterns, and technology choices. Dr. Madhavan was the Chair of the IEEE/ACM Supercomputing Education Program 2006 and was the curriculum director for the Supercomputing Ed- ucation Program 2005. In 2008, he was awarded the NSF CAREER award for work on learner-centric, adaptive cyber-tools and cyber-environments. He was one of 49 faculty members selected as the nation’s top engineering educators and
AC 2011-1392: TEMPERATURE ALARM LABORATORY DESIGN PROJECTFOR A CIRCUIT ANALYSIS COURSE IN A GENERAL ENGINEERINGCURRICULUMLoren Limberis, East Carolina University Dr. Limberis joined the Engineering faculty at ECU in August 2006. He earned his B.S. in electrical engineering and Ph.D. in bioengineering from the University of Utah. Dr. Limberis taught for several years as an Assistant Professor at The College of New Jersey and was a research analyst with Southwest Research Institute prior to his academic career. His research interests focus on designing techniques to utilize nature’s highly complex and sophisticated biological systems to develop biohybrid devices for use in biotechnology applications.Jason Yao, East
AC 2011-819: ENGINEERING ENTREPRENEURSHIP: LEARNING BYDOINGErik Sander, University of Florida Erik Sander began his career as a Project Manager and Senior Engineer analyzing advanced fighter aircraft engines and the Space Shuttle Main Engine for NASA, Lockheed Martin, General Electric, and Pratt & Whitney. He was also a Technology Transfer Officer for Lockheed Martin and the NASA Marshall Space Flight Center. Starting in 1995, Erik joined the faculty of the University of Florida College of Engineer as Director of the University Center, Associate Director for the Engineering Research Center and the Florida Energy Systems Consortium, and Director of Industry Programs - all directed at fostering industrial
on aerody- namics. He has been teaching twenty five years at Austin High, teaching Physics, Chemistry, Dual Credit Chemistry and Physical Science and also two addtional years in Luling, Texas. His passion and goal is to prepare students on a daily basis for the next level in their education process - college and STEM careers beyond that. In addition to his teaching assignment he serves as the Science Department Chair which involves leading a team of nineteen teachers. This includes assisting in the areas of pedagogy, science content and course development. Recently Austin High achieved the level of a recognized high school in the State of Texas based on scores in all four core content areas. They are pushing on to
Society for Engineering Education, 2011 Creating Real-World Problem-Based Learning Challenges in Sustainable Technologies to Increase the STEM PipelineAbstractIn this paper, we report on the progress of the Problem Based Learning for SustainableTechnologies: Increasing the STEM Pipeline (STEM PBL) project of the New England Board ofHigher Education. This three-year National Science Foundation Advanced TechnologicalEducation (NSF-ATE) project is aimed at increasing student interest and preparedness in STEM-related careers by providing STEM educators across the U.S. with the training and resourcesneeded to introduce PBL in their classrooms. Working closely with industry, government, anduniversity collaborators involved in new
also noted that the legacy cycle helped students to think differently about theircareer trajectories and to consider STEM fields they had not previously considered: Implementation of this legacy cycle in the classroom has had a profound impact on the student perspective of careers in science and engineering. I teach at a small, rural school...Opportunities for furthering education after high school are limited for these students as most of them come from low SES families and motivation to attend postsecondary schools is scarce. Opening the door with aspects of engineering and scientific inquiry has made students aware that there are more fields of study besides teaching, medicine and business
careers in the future." • "My most rewarding aspect throughout the quarter would have to be between the interactions with my fellow students, seeing our prototype actually prove its concept, and using knowledge from the year to accomplish our goals. After two quarters of limited student involvement, finally getting to work in a group setting for more than a week was extremely rewarding to me." • "I have learned how surprisingly hard it is to work as a team to come to a solution." • "Another way that the course has helped me grow is by forcing me to become a better leader by getting a group of four people to work together effectively on one goal." • "This project also helped better my understanding of
basic competence in the English language is a prerequisite for themodern automotive engineering graduate. This is not always the case at comparableinstitutions.While motivation for the course, even in the “difficult” subjects such as Mechanics, tends tobe high, very often students pose the question (usually in the first EFL lesson taught) if thereis not a way for them to accredit the course, as they consider other areas to be more central totheir study. Clearly, at this early stage of their academic career, the important role of theEnglish language has not yet become clear to them – as the language of communicationbetween international companies and also the language in which the majority of academicreports are written (and in the student’s own
' predisposition in learning (equivalent to learning style),and (d) assumptions about the purpose of learning. 18Overall, higher education has increased the opportunities for experiential learning as a formalcomponent of college and university curricula. Faculty view experiential learning as a valuableaddition to traditional instruction and a way to make learning relevant to students. As such, theliterature on experiential learning in higher education is expanding across the range of disciplinesfrom the social sciences to the arts and humanities. 19 Experiential learning techniques are beingused in the professional and technical disciplines including education and the health careers andsocial work to provide students with the competencies necessary to
, and in what ways.The publication of the report Rising Above the Gathering Storm by the National Academy ofSciences (NAS) (Augustine, 2005), highlighted political and popular concerns in the UnitedStates that the globalization of knowledge and increased use of low-cost labor had led to theerosion of the US as a leader in science, technology, and engineering. The report also arguedthat the federal government needed to act to ensure the country’s continued success in thisarea. As with the Sputnik ‘crisis’ nearly a half century earlier, these concerns were manifestas a call to increase the number of American-born students entering science, technology, andengineering careers. In 2006-7, I responded to a call for proposals from the National
, Emergent, and Distributed Systems, the Journal of High Performance Computing and Networking, and the Journal of Computers and Applications. He was a founding program cochair of the International Workshop on Security in Systems and Networks (SSN), a general co-chair of the IFIP 2006 International Conference on Embedded and Ubiquitous Computing (EUC ’06), and a member of the program committees of numerous conferences. His research was supported in part by the US National Science Foundation, NASA, and Cray Research. He is a recipient of the Faculty Research Award of Wayne State University in 2000, the President’s Award for Excellence in Teaching in 2002, and the Career Development Chair Award in
, what they have done, donow, and want to do as engineers (i.e., their career trajectories), what they know (knowledgeacquired through formal education and experience on the job), and what they want in life. AsMarcus points out, "distinctive identities are created from turbulence, fragments, interculturalreference, and the localized intensification of global possibilities." (1999: 59) So how doengineers experience mergers? How do mergers challenge engineers’ identities and practices?Mergers bring complex organizational changes to life. For example, engineers at one of theresearch sites work in a complex three-dimensional work arrangement brought by organizationalchanges that resulted from the merger between two aerospace giants. A three
to midcareer professionals, and theyare looking for opportunities after the 3-5 year investment during some of the most importantyears of their careers. In the above case, this includes follow on contracts at the university basedon the successes, enabling technology transfer for production, establishing or contributing to newcompanies based on the technology, etc. The point is, to get the best professionals in theCommunity of Scholars, the program has to be enticing to attract the best talent to enhance theother personnel (primarily faculty and students), and to be unique contributors in the team.Table 3 is a summary of the core members of the
University. He is also an Associate Director of Purdue’s Global En- gineering Program, leads the Global Engineering Education Collaboratory (GEEC) research group, and is the recent recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science and Technology Studies (STS) from Virginia Tech. Dr. Jesiek draws on expertise from engineering, computing, and the social sciences to advance understanding of geographic, disciplinary, and historical variations in engineering education and professional practice.Prof. Josh Boyd, Purdue University Josh Boyd is associate professor and
individuals to teams or assess an individual’s fitness for a particular careerpath.5,6,7,8,9,10 These studies often produce conflicting results surrounding the benefits of teamdiversity or homogeneity of personality type,5,8 which limits the possible impact of the researchon engineering pedagogy. While some MBTI types may be statistically more likely to be theleader of a team or pursue a particular career, any type can excel in any position or field giventhe proper self reflection and knowledge of MBTI type. The value of this team training aspect ofMBTI is often overlooked or mentioned as an afterthought.5,10 Further, because of this aspect ofMBTI type, some studies discard the MBTI instrument in favor of other, more prescriptiveinstruments.6,7Rather
summary, our research demonstrates a number of differences in pre-college characteristicsbetween students beginning their postsecondary educations in community colleges, students whosuccessfully transferred to four-year institutions, and students who began in a four-yearengineering program. Though based on cross-sectional data, these findings allow us to considerhow pre-college characteristics and experiences may influence the academic pathways ofstudents interested in engineering majors and careers, and provide strong bases for hypothesesabout the impact of pre-college factors on the shape of the engineering workforce.Our findings suggest a unique set of pre-college characteristics are associated with a unique setof barriers to completing a
the importance of It is important to incorporate societaldevelopment: including social aspects in the engineering constraints into engineering decisions.36analyze process, including community feedback, a broad range of stakeholders, etc.Professional The responsibility or obligation that an It is important to use my engineeringconnectedness engineer or the engineering profession may abilities to provide a useful service to the have to help solve social problems or help community. othersCosts/benefits A recognition of the costs and benefits I would be willing to have a career that associated with engaging in
, wefound that students not only consider they learned a lot from the labs (where Microsoft toolswere used) but also deem the tools easy to use, relevant to the course (supported the learningof course concepts), and valuable for their professional career. On the other hand, based onthe teacher assessment, Microsoft tools provide support for the application of many differentconcepts studied along the course within an integrated environment, reducing the learningcurve for students, while offering the added value of an industrial-level tool.1. INTRODUCTIONSoftware testing is a critical activity in software engineering, accounting for 30% to 90% ofthe total labor expended in developing software15. Yet software testing remains an under-estimated
. We believe that the LC approach incorporates and builds on many of the Page 24.1334.3suggestions in the literature on how to facilitate transfer; moreover, it makes a statement, early inthe students’ academic careers, about the importance of connecting courses in the major andthose in general education so as to facilitate transfer. This LC also builds on previous researchshowing that introducing narrative elements into problem-solving courses improves studentperformance in general as well as in computer programming-related problem-solving skills.4,9We begin this paper by introducing the concept of a first-year LC, along with the
or a strong connection to technology use to help students connect technical and policy subjects.Since the range of breadth and depth of the energy history is so vast, the case study proposedcovers the years between 1880 and 1935, highlights a series of legislative pursuits and impactson the private energy sector, the evolution of the energy product, and the development of theenergy industry. This case study will expose students to a portion of energy policy history in theUnited States and therefore help them understand the development of the current energy policyenvironment.Sample Case Study This section outlines the case study selected for this module. This case study follows aportion of the career of Samuel Insull and the
teamwork in engineering, design education, and engineering identity. She was awarded a CAREER grant from NSF to study expert teaching practices in capstone design courses nationwide, and is co-PI on NSF. Her work includes studies on the teaching and learning of communication, the effects of curriculum on design cognition, the effects of differing design pedagogies on retention and motivation, the dynamics of cross-disciplinary collaboration in both academic and industry design environments, and gender and identity in engineering.Dr. Lisa D. McNair, Virginia Tech Dr. Lisa DuPree McNair is an associate professor of Engineering Education at Virginia Tech where she also serves as assistant department head of Graduate
same thing,in the same way, at the same pace, at the same sequence, at the same time42. This focus on massproduced uniform learning hinders learning when students are forced to learn in a way, at a pace,at a sequence, or in a time they are uncomfortable with. Mass produced uniform learning alsoproduces a lot of inefficiencies since students often learn topics they are not interested inlearning, or that they do not need based on their career goals, or that they already know but areforced to relearn anyway with the rest of the class.The student’s learning goals can range from learning an entire standard curriculum, to learning asingle course, or even a single or multiple nodes from a single or several courses. In case thestudent chooses
Page 23.1234.4to be learning.Some of the benefits of introducing engineering (in particular engineering design) into themathematics and science curricula are increased interest in STEM subjects and careers in STEMfields. Several studies found an increase in students’ interest in these areas after implementingengineering design into K-12 science and mathematics classes13, 14, 21, 22. There was also anincrease found in students’ interest and attitudes in STEM subjects in studies that involvedcurriculum used as extra curricular programs such as Adventure Engineering19, Engineering isElementary23, and In the Middle of Engineering24.While there is limited data in this area, it has been suggested that the inclusion of engineering inK-12 can lead to
)1.2.1.1 Keen EM – Introduction The Kern Engineering Educational Network (KEEN) is a network dedicated to preparingundergraduate engineering students for success, by fostering an entrepreneurial mindset in a waythat develops critical entrepreneurial skills and capabilities through experiential learning thatextends beyond business skills. A particular focus is placed on entrepreneurial mindsetdevelopment to describe the value of entrepreneurial education for all engineering students,regardless of their career paths [6] [7]. KEEN’s philosophy for an Entrepreneurial Mindset consistsof three key elements, collectively known as the 3Cs: Curiosity, Connections, and Creating Value.This study intends to show how combining the engineering skillset
energy and conversion to electricity in high school students in a rural community, remotely implementing the teaching-learning process through STEM-oriented project-based Learning (PBL)? 2) What is the change in attitudes towards STEM careers of high school students in a rural community who remotely implement the teaching-learning process through STEM-oriented Project-Based Learning (PBL)?4.1 Design of the Content ExamTo answer the first question, the project designed an exam of 20 multiple-choice questions following thetopics covered in the Didactic Sequence. To validate the exam, the project followed the ValidationProcess (Coral, 2009) [16]. After developing the first draft, the exam was presented to two
usingtrial and error to fine tune their IM selections over time (Go It Alone). We also found complexPower dynamics were involved. Instructors often teach more than one course over an academicyear or a career, and thus we expected to see multiple strategies mentioned. As noted earlier,there is expected overlap between responses and instructors in the Power and the Peers andColleagues themes. However, we did not see overlap between instructors with responses in thePower or the Go It Alone themes. Perhaps those who employ a Go It Alone strategy for their IMselection also opt to teach courses without a strong Power dynamic at play. Also, one instructor'sresponses are in both the Go It Alone and the Peers and Colleagues themes, as they use a mix ofself
academic learning objectives is clearly a requirement, institutions shouldconsider whether the course objectives and associated materials can be aligned with the body ofknowledge of industry professional societies certifications to ensure that the knowledge gained ina course can be readily applied to a career in industry. Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 3651.0 IntroductionAcademic institutions at all levels strive to ensure the competency of their graduates by a varietyof means, including measuring course learning
impart design conceptsand related computational tools at the lower division to improve students’ preparation forthe senior design capstone course and their future careers. These changes resulted in a“design stem” of courses (see diagram below): the freshman orientation course ME101,the one-year sophomore design sequence ME286AB, the junior-level machine designcourse ME330, and a year of senior design. Based on industry partners’ input, theDepartment also selected a single software design tool, SolidWorks and its linkedanalysis packages, for use not only in design courses, but also in other courses in thecurriculum.While this development has improved the Department’s offerings, it also resulted in apatchwork curriculum. Over the past 15 years, ME