attitudevariations, which bear similarity to grade histogram. Examples of student entrepreneurialphysics based projects in space weather forecast, mobile-Health, solar energy in terms ofenhancing Entrepreneurially Minded Learning are discussed.I. IntroductionThe Kern Family Foundation has initiated a university network called Kern EntrepreneurialEngineering Network (KEEN) to promote the idea of entrepreneurship learning. Multiple grantshave been awarded to curriculums across the country to teach the engineering students aboutEntrepreneurially Minded Learning and assess the learning outcomes. The contrast of Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova Universityentrepreneurially versus tradition engineering has been
differentinstructors, placing the burden of transferring knowledge between courses and connectingconcepts on the student. This structure has been shown to lead some students to struggle in latercourses [1]. Integrated course curricula aim to place the burden of transferring the knowledgeand identifying the connections between courses should on the curriculum instead [2].Engineering curriculum integration has been shown through multiple studies to have variousdesirable outcomes [14]–[16]. Evans [15] demonstrated improved grades, Felder et al. [14]reported improved student satisfaction, while Olds & Miller [16] showed positive reactions fromstudents. One pair of studies by Everett et al. and Felder et al. respectively investigatedMechanical Engineering
measured using bothdirect and indirect assessment tools driving the course towards continuous improvement.Introduction to EngineeringIn the old curriculum, the six hour Introduction to Engineering course covered professionalpractices, introduction to electrical systems, introduction to mechanical systems, and engineering Page 15.210.9graphics, and had a robot project. The course contained thirteen objectives beyond theengineering graphics objectives. The course was somewhat a potpourri of disjointed topicsranging from ethics, teamwork, design, project management, effective presentations, effectivewriting, Excel, problem solving, teamwork, analysis
. Page 13.914.1© American Society for Engineering Education, 2008 Multidisciplinary Teamwork Assessment – A Generalizable InstrumentAbstractDuring a semester long course entailing a multidisciplinary team project, students in computerengineering, electrical engineering, and mechanical engineering were required to work togetherto design, integrate, and test their project. Over the past four years, teamwork surveys for thisproject have been implemented and analyzed. Iterations of this survey have been revised todevelop a shorter and non-project specific survey instrument that measures the effectiveness ofteamwork. The purpose of a concise global teamwork survey is to allow assessment acrossprojects in a consistent manner with established
Dr. Afrin Naz, she has developed and implemented several programs to increase West Virginia’s girls’ interest in STEM disciplines. She is currently working on the curriculum for STEM projects that will be implemented in Spring 2020 at several middle schools in Southern West Virginia. c American Society for Engineering Education, 2020 Competition Of VEX Educational Robotics to Advance Girls Education (Research-to-Practice) Strand: OtherIntroductionApproximately, half of West Virginia high school graduates are female. Meanwhile according toACT college readiness data, as low as 14% of the female high school graduates in
precision. Problems faced are murky with manypossible ill-defined boundary conditions. The careers pursued by engineering graduates aredefined by technical issues, pressures involving cost of idea/product development, time tomarket, market share, and project profitability. If the latter items aren’t part of one’s careerthinking, that career is in great jeopardy because one is pursuing one’s career as if it is a hobby.Would you as the owner or manager of a company pay someone to pursue their hobby? Probablynot. Others won’t fund your hobby either. Engineers need to contribute to the revenue stream,business plan, and leadership. How is that being taught in the typical engineering curriculum?The rapidly changing scenario playing itself out on an
of value. The winner is often offered a“contract” to produce the product for university purposes [9] .Some schools integrated EML in their course projects. The authors of the paper “EntrepreneurialMindset and the University Curriculum [10]” applied technology based dynamic live case studywith color graphics animated computer simulation in their entrepreneurial course. The live casestudy involves multiple student visits to existing companies. Students construct a companysupply chain under the professor’s guidance. Bilen, et al suggested to provide students withmultiple exposures to what it means to have an entrepreneurial mindset [11]. Chasaki describeda seven-week mini-project “Cyber Crime Scene Investigation” they reserved in their new
solutions. Contextual competence as it is typically discussed in engineering incorporates manydifferent types of contexts, such as societal, cultural, historical, political, or economic. Somestudies focus on only one of these dimensions. Because engineers always work to have apositive impact on our society [21], programs try to embed attention to societal and culturalaspects of contexts in engineering curricula. Mikic and Grasso [22] found that using sociallyrelevant design projects throughout the curriculum achieved course objectives of learning theimportance of working in teams and greater consideration of the societal impact of engineeringpractice. Bielefeldt [11] found that when students function on multidisciplinary teams and
centerpiece of these kits isan Arduino microcontroller that can be used to collect and analyze data from various electrical,mechanical, and thermal sensors. These kits were required in lieu of textbooks, resulting in adecrease in costs for most students. This pandemic induced transition was generally well-receivedby students [1] and subsequently featured in a case study [2] and YouTube show [3] created byArduino Education.Since returning to on-campus activities, the Arduino platform and several supplemental hardwarekits have continued to be used across three required ME courses, where they enable open-endedgroup projects, hands-on homework assignments, and pre-laboratory exercises. To alleviatelogistical challenges of multiple kits and reduce costs
, theaforementioned Wright State model has been viewed through the lens of Curricular Analytics toexplain the program's success [16]. MethodsData Collection and PreprocessingThe dataset used in this research encompasses curricula data from five engineering disciplines(i.e., Civil, Chemical, Electrical, Industrial, and Mechanical) across thirteen institutions in theMultiple Institution Database for Investigating Engineering Longitudinal Development(MIDFIELD) [17], which included required courses, prerequisites, and corequisites. Wecollected the curricular data starting from the most recent record in the dataset and went backnine more years to gather a longitudinal perspective on how the curriculum changed over
providing a “transition tocollege experience.” In addition to facilitating that experience, the projects must meet authenticengineering criteria. They do so in conjunction with realistic constraints that include societal,political, economic and ethical issues.BackgroundThe joint engineering programs at Western Kentucky University utilize project-oriented deliverymethods as a critical part of their distinctive character. Each of the three programs (civil,electrical, and mechanical engineering) offers a first-semester University Experience course (2-credit hours). In addition to providing transition experiences to the university academic world,the courses provide a home for students attempting to determine whether engineering should betheir academic
, and thedistribution of majors can be found in another paper.3The first fully implemented project was the redesign and construction of a new ramp for kayaksand canoes to support the activities of the Bayfront Maritime Center. BMC supports variousorganizations (high schools, middle schools, scouts, YMCA, etc.) with educational programs thatbuild small watercraft.4The second project undertaken and completed by SEECS students was the design and Page 23.211.3construction of a bicycle-powered electrical generator. The stakeholder for this project wasGannon University, specifically the Gannon Goes Green initiative, a campus-wide effort toimprove
power electronics. He has been working on thin film solar cell research since 1979 including a Sabbatical Leave at the National Renewable Energy Laboratory in 1993. He has also worked on several photovoltaic system projects Dr. Singh has also worked on electric vehicle research, working on battery monitoring and management systems funded primarily by federal agencies (over $3.5 million of funding). Dr. Singh has consulted for several companies including Ford Motor Company and Epuron, LLC. He has also served as a reviewer for the US Department of Energy and National Science Foundation. Dr Singh has over 100 conference and journal publications and holds six issued US patents. Dr. Singh’s recent work is focused on
, computer engineering, or electrical engineering (CS). The initial two years of the project focused on the design and piloting of academic support components to improve student success rates in mathematics and computer science gateway courses that provide a foundation for subsequent success in upper division CS courses leading to an undergraduate degree. Working in collaboration with state colleges, this paper overviews the design and piloting of the project mentor support model including the project gateway course refinement component that provides the setting for mentor utilization. Discussed is the role of the mentor component in relation to other key project components.Lower division
. Often it is the students who have a drive and a passion to work on their projects whichresults in the best success. We believe our Senior Design approach complements the range andvariety of operating styles found in a normal group of students.Bibliography1. Farr, J., et. al, “Using A Systematic Engineering Design Process to Conduct Undergraduate EngineeringManagement Capstone Projects,” Journal of Engineering Education, vol. 90, no. 2, 2001, pp. 193-197.2. Doty, R., and Williams, S., “A Practice-Based Senior Design Experience,” Proc. 2002 ASEE Annual Conf. andExposition, June, 2002.3. Born, R., “A Capstone Design Experience for Electrical Engineers,” IEEE Trans on Education, vol. 35, no. 3,Aug. 1992, pp. 240-242.4. Wikoff, K., Friauf, J., Tran
: 45th, Electrical Engineers: 33rd, Electronics Engineers: 25th, Software Developers: 14th)[1]. In Texas, these four occupations also ranked among the top 50 with most openings (22nd,41st, 46th, and 9th respectively) and the top 50 highest paying (38th, 30th, 31st, and 27th,respectively) Hence, the short-term and long-term outlook for students with a multidisciplinaryengineering technology degree with a focus in mechatronics is very good. Table 2. Texas Long-Term Employment Projections (2012-2022) [2] Annual Pay Annual average job Occupation Growth rate opening
is unique in many ways: the size of theoperation; the depth of the changes implied; as well as, a decentralization process which usedand imbedded an extraordinary direct involvement and responsibility of faculty members.What was the problem? During the many decades of its existence (135 years old), ÉcolePolytechnique has reviewed and created many undergraduate and graduate programs. At theundergraduate level we are now providing, on a four-year basis, eleven curriculums to close tofour thousand students: civil engineering, mechanical engineering, electrical engineering,software engineering, computer engineering, materials engineering, industrial engineering,physics engineering, chemical engineering, geological engineering and mining
CourseAbstractThe projects and assignments in freshman level CAD/CAM courses provide students a valuablechance to develop their skills further. In the past, most of assignments and projects were aboutdesigning simple mechanical (and/or electrical) system and theories without requiring anymanufacturing skills. However, students need to have basic manufacturing skills as they move upto the upper level classes or when they graduate. Students who have a good manufacturing skillstend to have better hands-on skills and to be more successful as students as well as engineers.In this specific example class, students are required to learn manufacturing skills through severalunique manufacturing assignments. Three manufacturing assignments including Keychain
(ASEE) published a special education researchproject dedicated to retention related issues of engineering students in 2012 [1, 2]. This ASEEretention project collectively invited around 60 universities to share their perceptions on thistopic and, specifically, asked for a focus on exploring the best practices and strategies forretaining students in Engineering, Engineering Technology and Computing programs [1, 2]. Themain focus of this study is to find the reasons why 40 to 50% of engineering freshmen had eitherswitched or withdrawn from the engineering major. The study indicated that it is mainly due topoor teaching and advising, difficulty of the engineering curriculum, and lack of “belonging”within engineering [2, 3]. Furthermore, these
theirexperiences. Project Based Learning is a teaching method in which students gain knowledge andskills by working for an extended period of time to investigate and respond to an authentic,engaging, and complex question, problem, or challenge” (Buck Institute for Education, 2018,para. 3).Methods Participants. Student participants include 140 rural, seventh grade students participatingin the Solenoid Invention Kit Unit Sequence during an in-school, science class. A school withsimilar demographics served as the control group. The unit was taught over a six-week periodduring spring semester 2017. Solenoid Invention Kit Unit Sequence. The Solenoid Invention Kit curriculum containsfive lab activities, two make activities, and one invent
Information(2021) [35] systematic mapping study TechnologyMarques et al. A systematic mapping study on practical Proceedings - Frontiers in(2015) [36] approaches to teaching software Education Conference, FIE engineeringSouza et al. A systematic mapping study on game- Information and Software(2018) [37] related methods for software engineering Technology educationNascimento et al. Using open-source projects in software Proceedings - Frontiers in(2013) [38] engineering education: A systematic Education Conference, FIE mapping studyQadir and Usman Software engineering curriculum: A
LearningSince undergraduate research is inherently a type of PBL, focus will now turn to a discussion ofthis topic. PBL is, itself, a form of experiential learning, where students learn by immersion and‘doing’. PBL presents a challenge or problem for students to solve or a question for them toanswer. In research projects, this challenge or question is the thesis statement of the researchproject.PBL is widely used due to its demonstrable effectiveness. It has been shown to work acrossmultiple educational levels [19]–[24] and in numerous disciplines. Example disciplines includecomputer science [25] and the aerospace [26], computer [27], electrical [28], and mechanical [29]engineering disciplines. It has also been shown to be effective outside of STEM
for their knowledge. With the responses seen above in Figure 3, peers were askedto elaborate on how their level of prior exposure impacted their undergraduate experience. Thegeneral response appears to be that approximately 38% felt adequately prepared by the rigor ofthe secondary school curriculum but 44% felt unprepared compared to peers due to a lack ofexposure to technical classes and hands-on engineering projects and activities. At the same time,100% of peers surveyed believe that there is benefit to offering a hands-on engineering programto secondary school students in Trinidad and Tobago, based on their own experiences.DiscussionSurvey results indicated that those students in Trinidad and Tobago had limited exposure topractical
marketing. He received a Ph.D. in Electrical Engineering from UC Santa Barbara, studying with the inventor of the blue and white LED, and an MBA from the University of South Carolina, Moore School of Business.Dr. Sarah E Zappe, Pennsylvania State University, University Park Dr. Sarah Zappe is Research Associate and Director of Assessment and Instructional Support in the Leonhard Center for the Enhancement of Engineering Education at Penn State. She holds a doctoral degree in educational psychology emphasizing applied measurement and testing. In her position, Sarah is responsible for developing instructional support programs for faculty, providing evaluation support for educational proposals and projects, and working with
first yearIndex Terms – Design, Interdisciplinary, Student Experience, curriculum for Biomedical, Civil, Computer, Electrical,Teamwork Electromechanical, Interdisciplinary and Mechanical INTRODUCTION Engineering majors, annual enrollment in ENGR1500 exceeds 500 students [7].Engineering Education requires that sufficient attention be The course is comprised of one hour of lecture and fourplaced on simulating a realistic work environment to hours of laboratory per week. Through a series ofadequately prepare students for their careers. A
curriculum-based course projects and capstone initiatives, which are typicallyinstructor-led and driven by curriculum credits, the SIG program champions extracurricularprojects fueled by student initiative and passion. Its core objective is to entrust and empowerstudents to spearhead ambitious innovation and technology ventures that will shape the future.The program fosters an environment where students are encouraged to translate their innovativeconcepts into tangible solutions, collaborating with peers across various academic disciplineswho share common interests. Figure 1. Bio-inspired robotics SIG: A robotic fish Figure 2. Electric Vehicle SIG: A fully functional designed and built by students that set two Guinness electric vehicle
Engineering Accreditation Commission [11] in 2019. Thisexploratory study draws on interviews with industrial advisory board members. The followingresearch questions were formulated to guide the study: 1. What do industry members consider important in terms of the competencies acquired by recent graduates? 2. What are industry members’ views on the role of international accreditation for the enhancement of engineering programs?Conceptual FrameworkTo inform the study, we chose the conceptual framework proposed by Volkwein et al. [12](Figure 1), developed for the project "Engineering Change: A Study of the Impact of EC2000". Itpostulates that the modified EC2000 accreditation standards will effect changes in curriculum
and has theadvantage of being controlled by the faculty authors and locally published in soft-bound fashionto facilitate continuous revision and customization. Each chapter contains - in addition toessential topic content - a simulation guide that lists the typical management tasks, and acomplete set of standard management forms for operation of the departments and divisions.PowerPoint lecture and test materials are also potentially available.In conclusion, it is hoped that other IT and ET faculty will recognize the unique merits of aproduction simulation course, and a factory laboratory that actually goes beyond simulation byproducing a product that may be marketed.Bibliography1. Curriculum available: http://cost.georgiasouthern.edu/meteet
, intermediate and advanced based on the level of the students within the course.2In a study by Atman et al, the design skills of first-year and senior level engineering studentswere compared.3 As in the previous study, the older students spent more time than first-yearstudents modifying their designs and evaluating their feasibility. First-year students spent moretime than the seniors when defining the problem. Both groups spent little time on formallydeciding which design was the “best” and on communicating their design ideas to others. Thepaper recommends that engineering courses begin to focus on problems where students have topractice and improve different skills, especially those that emphasize project realization (designselection and
Paper ID #9705Evidence for the Effectiveness of a Grand Challenge-based Framework forContextual LearningDr. Lisa Huettel, Duke University Dr. Lisa G. Huettel is an associate professor of the practice in the Department of Electrical and Computer Engineering at Duke University where she also serves as associate chair and director of Undergraduate Studies for the department. She received a B.S. in Engineering Science from Harvard University and earned her M.S. and Ph.D. in Electrical Engineering from Duke University. Her research interests are focused on engineering education, curriculum and laboratory development, and