, implementation, and assessment of modeling and design activities with authentic engineer- ing contexts. She is currently a member of the educational team for the Network for Computational Nanotechnology (NCN).Krishna Madhavan, Purdue University, West Lafayette Dr. Krishna Madhavan is an Assistant Professor in the School of Engineering Education at Purdue Univer- sity. He is Co-PI and Education Director of the NSF-funded Network for Computational Nanotechnology (nanoHUB.org which serves over 330,000 global researchers and learners annually). Dr. Madhavan was the Chair of the IEEE/ACM Supercomputing Education Program 2006. In January 2008, he was awarded the US National Science Foundation (NSF) CAREER award for work on learner
universities and community colleges as part of a $5.0 million technical workforce development initiative funded by New York State. She has pub- lished diverse articles on topics ranging from engineering education to high temperature superconductors and has spoken at many national and international conferences. Her doctorate in materials science and engineering is from the University of Wisconsin, Madison, and she holds five patents.Mr. Brian Arnold, National University Assistant Professor and Lead Faculty for National University’s Digital Media Design Program, Brian is also a hybrid PhD student in Michigan State University Educational Psychology and Educational Technol- ogy Program. Career highlights include a five year
empathy across disciplines coupled with deep knowledge in specific areas1. One keyaspect of the T-shaped individual is the ability to see opportunity and bring it into their owndiscipline2. Facilitating an environment where students studying different disciplines can worktogether should enhance cross-discipline thinking later as well as a greater sense of their ownstrengths in the common career paths of the two disciplines3, 4.The fields of Chemical Engineering and Bioengineering have historically worked together5, 6.The US Bureau of Labor Statistics classifies these disciplines as similar, and some overlappingemployment opportunities include: biosciences equipment and supplies manufacturing; scientificresearch and development services
this regard. • Provide the students with abundant instruction on ideation. • Develop a strategy to prevent the instructors from giving teams conflicting advice. • Do not underestimate the importance of providing the students with convenient transportation options.References[1] H. Bridle, A. Vrieling, M. Cardillo, Y. Araya, and L. Hinojosa, “Preparing for an interdisciplinary future: A perspective from early-career researchers,” Futures, vol. 53, pp. 22-32, 2013.[2] M. Levy, Y. Shlomi, and Y. Etzioni, “When engineering and design students collaborate: The case of a website development workshop,” in Knowledge, Information and Creativity Support Systems, S. Kunifuji et al. Eds., Springer, 2016, pp
andrandomly-assigned members could be extremely beneficial for students future careers in which,they would need to work in such teams. Finally, below are some of the students comments inregards to this course:“The instructor is teaching a very intensive and difficult topic and did a good job of getting theinformation across in the time frame provided. He expects a lot out of his students, and for thisreason, I feel like I have benefited greatly by trying my best to keep up with his expectations. Ifeel like I have gotten more out of his class than I have from any other professor.”“The robots may still have some bugs to work out. I hope the prior experience from the labs andproject this semester will be helpful for this class in the future
enrollment in many majors.NEET is based on the following four principles: 1. Our education should focus on preparing our students to develop the new machines and systems that they will build in the middle of the 21st century. 2. We should help our students prepare themselves to be makers, discoverers or positioned along this spectrum, and we should teach engineering fundamentals as a foundation for careers in both research and practice. 3. We should build our education around the way our students learn best, engaging them in their learning, and implementing pilots to understand the desirable balance of classroom, project, and digital education for the digital natives. 4. In view of the speed of scientific
recruiting ramps up. Third, itgives insight into a company’s own business practices and interests and possibly helps studentsdecide on a career path. When students succeed, the company succeeds. To facilitate asuccessful process, communication is emphasized. Weekly status reports showing progress,problems and questions needing answers are required to be submitted in written form. Studentsare accountable for milestones and their estimated completion dates. Domain knowledge and acompany’s specific engineering process are provided by technical mentors. For example, ourpilot corporation stresses “six pillars” of competencies for university students: • Quality • Innovation • Teamwork • Communication and interpersonal
courses were seen as opportunitiesto improve students’ ability to work in teams7-9, and improve their communication skills10-14. Page 13.1101.2 However, it is challenging to accomplish all the tasks recommended by ABET during thecapstone design projects. Several institutions (including MSOE) are finding ways to introducethis experience to the students much earlier in their career. This allows the capstone designexperience to be the place where these skills are polished and re-assessed.There have been several approaches tried by various engineering programs to incorporate theABET mandated “experience in multi-disciplinary teams”12,13. Most common
, the chemical engineering faculty are not likely to Page 11.570.7favor such a change. An additional possible consequence is a graduate lacking sufficient chemi- Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright ø 2006, American Society for Engineering Education Session 1823cal engineering coursework to enter a purely chemical engineering profession should they chooseto make a career change from bio-engineering.The current university paradigm is for baccalaureate
Page 24.122.2programs 31-35.A less common approach towards multidisciplinary education is the module-level project,defined here as a project having a time span of less than a semester. One example of a module-level project is a robot design-build assignment within a “circuits for non-electrical students”course, where students apply concepts presented earlier in the semester 36. Another example is aset of mini-projects placed at the beginning of a two-semester capstone course. Theseexperiences provide students with a low-risk introduction to the multidisciplinary design skillsthey are expected to exercise later in the academic year 37 and in their careers. It should be notedthat both examples occur within the context of a single course.This
tunnel test model.They then learned the process to physically countermeasure that model to further reduce aerodrag inside of a wind tunnel. At that point we were able to discuss feasibility issues andconstraints that currently influence automobile design and aero countermeasures. We felt it wasa great real world learning experience for these university students and demonstrated twodifferent paths they could choose for a future career. Their overall design and individual ideaswere unique and the results were above the expectation of our company. They worked as a teamin design, construction and problem solving.”The student team felt that this project was a great experience not only as a capstone design-buildproject but in gaining an appreciation
inengineering enrollment. Materials will allow students with different learning preferences to studyand solve problems at their own pace in “gateway” courses.)Enhancing Liberal Studies for Engineering Students (Goal: To better expose engineeringstudents to the humanities and social sciences by providing recommendations on how studentscan maximize elective credits to gain a comprehensive understanding of the social contexts ofengineering careers.)International Engineering Development (Goal: To provide leadership training for studentsparticipating in international projects, and in particular in countries where the Engineers WithoutBorders chapter is active.)Video-Enhanced Instructional Material for Statics (Goal: To help students better understandbasic
disciplines. Within thiscontext, the Power and Energy Institute of Kentucky, a multidisciplinary engineering instituteoffering certificates in power and energy at the University of Kentucky has been created. Amotivating observation guiding this educational program is that exposure to multidisciplinaryideas within the power and energy field will better prepare engineers from all disciplines for thetypes of multidisciplinary problems that they will encounter in their careers. As part of thisprogram, a senior-/graduate-level course in electric power system fundamentals was created.This course is a core course within the power and energy program and is an option forundergraduate students and a requirement for graduate students studying within the program
Wichita State University. He received his B.S., M.S., and Ph.D. degrees from Oklahoma State University. In his 38-year teaching career, he has taught a wide range of industrial engineering courses and currently directs the department’s capstone design experience. His research interests are in systems engineering, decision analysis, and engineering education. Page 25.1263.1 c American Society for Engineering Education, 2012 Team Decision Skills Development with MBTI © Step IIAbstractAs part of an Engineer as Leader course, students learn to dynamically take leadership
ofbuilding the specialty engineering education on a sound systems engineering foundation.Being close to graduation, students enrolled in the capstone design sequence expect that theprojects selected for the course are part of the real-world such that they can apply the knowledgeand skills acquired in their undergraduate program to solving problems that have relevance to Page 22.613.4real-world organizations, and thus being better prepared to start their career, upon acceptance ofa job offer. Students expect to be actively involved with the client organization in data collection,and information sharing with both the management and the engineering
civil,electrical, mechanical, and chemical engineering, computer science, mathematics, and earth andatmospheric sciences, chemistry, physics, and biology. This flexibility allows students to designpersonalized curricula that support their individual career plans or interests.An engineering student completing the ESE program is required to take 127 credits total, withrepresentation in these curricular areas: 38% engineering (with 6/18 of the courses withsubstantial design content), 31% math and basic science, and 31% other. At a minimum, 46 ofthe credit hours are dedicated to environmental topics. Since this is a multidisciplinary programbetween science and engineering, students are able to select courses from a list of science andengineering
different from what was traditionally seen as proper training of an engineer. Thegeneral approach to engineering education has always emphasized the benefits of a broadeducation and its advantages throughout the career of the engineer compared to a narrowengineering education that trains students for entry-level tasks or highly specialized engineeringwork. The adaptability of a broadly educated engineer will help her respond to system-levelchallenges and rapidly evolving technology and thus will set her apart in the 21st century.One of the best ways to enhance a broad engineering education is to complement it withcontextual knowledge which is associated with a liberal arts curriculum. Courses taken in non-technical disciplines help students
differences in both the level andmechanisms to impart problem solving and professional skills around the world.Despite the unavoidable differences we still expect that our engineering graduates will, at somepoint in their careers, work with their international peers in collaborative settings. Cognizant ofthis, engineering programs provide opportunities for course level collaborations across multiplecountries to provide students with an understanding of working in global engineering teams.Mostly, programs involve design-based problem solving in order to practice professional skills(i.e., teamwork, communication, leadership) in a context. We have not found an extensivequantitative study showing the differences in the way students and faculty members
introduced afterhand drawing, followed by auxiliary and section views, dimensioning, and tolerances. However,the students often struggle with visualization at the beginning of the semester; especially, how tocomplete an incomplete or missing orthographic view and the isometric view of the orthographicprojections. If this lack of understanding continues the students will quickly fall behind and willhave a difficult time transitioning to understanding the 3-D computer aided parametric modelingtool. The relatively short class time means that not all students get the immediate help they need.In addition, many of them do not follow up during office or tutoring hours for additionalassistance. Since it is early in their university career they often are not
and senior academic years.Following the sophomore design experience, students have the opportunity to “specialize” theirdegree through the selection of their two-year capstone project and their technical electives.Some students choose a very specific path with the desire to enter a particular field of study ingraduate school, while others choose to remain non-discipline specific.It is during the sophomore design experience where student’s paths are most common, andconsequently, the sophomore experience is the ideal time in our students academic career tostudy their values related to individual behavior on teams. Students have two different teamexperiences during the sophomore design sequence.2,3 During Engineering Design I, studentswork in
responsibility is identifying Health Science, non-profit and industrially sponsored projects for engineering student teams to work on. Dr Ward is also Principal Investigator for the Engineering Critical Patient Care VIP team, which develops medical devices for various constituencies in the VCU Health System. One of the developed devices has been taken private by a company founded by former students. Prior to joining Virginia Commonwealth University, Ben had an industrial R&D, Engineering and Product Development career spanning 33 years. This includes Hoechst Celanese from 1981 to 2000, and Filtrona (Essentra) Porous Technologies as VP of R&D from 2001 to 2013. He led successful product development activities in
general engineering major. At HMC and MIT, the required general educationcurricula also stressed disciplinary connections and thus interdisciplinarity. Institutions –particularly ASU, Howard, and the University of Michigan (UM) – incorporatedinterdisciplinarity into courses and programs: ASU’s Innovation Space course brings togetherstudents from business and engineering; at Howard, senior design courses are interdisciplinary,involving students within engineering and from other fields as well; the focus at UM was on thedevelopment of three interdisciplinary minor programs that would allow students to combinestudies across engineering majors to meet their career goals. At Virginia Tech (VT) and UM,curricular efforts were greatly supplemented by co
executive in the medical device industry and in academic instruction as a professor in biomedical engineering. His industry experience includes medical product development, marketing and sales, international business development, strategic and business planning, and senior man- agement with P&L responsibility. Currently, Bost is the Executive Associate Dean in the School of Engineering at Virginia Commonwealth University. He oversees development of innovation and outreach programs along with the School’s mar- keting and communications, human resources, information technology, and student career service activ- ities. Bost is also Director of the VCU Institute of Engineering and Medicine located in the Virginia
Hellmuth, LeTourneau University Dr. Tom Hellmuth is Dean of the School of Engineering and Engineering Technology at LeTourneau University in Longview, Texas. He obtained a B.S.M.E. from Rice University in 1978, an M.S.M.E. from Colorado State University in 1980, and a Ph.D. from New Mexico State University in 1995. He worked in industry in the area of machine and thermal system design for about five years before beginning his teaching career. He has taught for 20 years in mechanical engineering and engineering technology programs. Current interests are in modeling of thermal systems and engineering design. Email: TomHellmuth@letu.eduRoger Gonzalez, LeTourneau University Dr. Roger V. Gonzalez
, this appears tobe the case based on a preliminary review of the program. The Master of Science in CivilEngineering is a research degree and requires a 6 credit transportation thesis and 7 credits intransportation engineering electives. The Master of Civil Engineering requires a 3 credittransportation project and 7 credits in transportation engineering electives.The GITP is now being offered as a six-course certificate program. The certificate wasdeveloped for early and mid-career transportation professionals in response to a need expressed Page 13.188.7by the profession for increased training in interdisciplinary approaches to transportation
partnership with the university’s Facilities Management, developed a highly instructiveand useful Alternative Fuel Vehicle Lab. Using existing university resources and a broad base of Page 13.509.2cross-disciplinary knowledge, we have been able to provide students with diverse, hands-oneducational experience that is often inaccessible to students outside of traditional engineeringprograms. Furthermore, the resulting K-12/STEM educational outreach program demonstrateshow these student-generated projects can inform the general public and inspire K-12 students topursue careers in science and engineering.Introduction & HistoryAs educators struggle to
components of the course, but this is no surprise considering the applied nature of theparticipants’ majors. The most valuable evaluation input, however, came from narrativecomments to open-ended questions on the survey tool and from excerpts from student journals.These comments confirm that the experience is life-changing:“I have gained perspective into my major.”“I was pushed outside of my comfort zone and had to learn to solve problems and think aboutthings differently.”“Paradigm shift – we are all one world.”“[The most meaningful part was] taking information and using it to improve lives.”“I learned about myself and new career paths.”“I need/want to go back in the Peace Corps.”To date, evaluation of other dimensions of the WATER program has been
examining the data and reasoning that led to a particular conclusion willincrease trust, openness, and learning, leading to better working relationships and betterdecisions. Good habits formed during work on student teams will be practiced in the long-termteamwork situations of an engineering career. Effective collaboration and consistent groupdecisions are more likely when each member of the team operates using the Mutual LearningModel. In the hypothetical examples, Mutual Learning behavior would have produced clearbenefits. If Joe had surfaced his fear that his teammates were not going to pull their weight at thefirst sign of trouble, he would not have to engage in the covert and deceitful behavior. If Sue had
disciplines by nature. Teacher A’s professional training traverses the disciplinesof civil engineering and information technology. He was also engaged in various co-teachingactivities with professors from other fields in the same discipline, from architecture, and fromelectrical engineering, though the levels and forms of co-teaching varied. Teacher B also had2 semesters of teaching experience working with civil engineering professors before thisproject. Teacher C’s entire career was mostly built on crossing different academicboundaries—from education to cultural studies to futures studies. To all three teachers, theleap between disciplines seemed to be the greatest this time. However, it was not acompletely foreign experience to any of them. The
exist.In actuality, most engineering jobs are much more diverse than the engineering curriculum.Companies of today, to stay competitive, demand more and more out of their engineers becauseof their ability to learn and problem solve. Most engineers claim that the learning begins aftergraduation, on the first job and continues through the entire career. In today’s world, anengineering student cannot only rely on a high GPA to help them land a job. Today’s marketsrequire an engineer who can handle diverse situations with multiple outcomes and multiple areasof knowledge. These challenges that the modern economic world demands need to be tackledand solved. It is the responsibility of universities to produce high quality engineers by providingthe