Page 22.1214.1 c American Society for Engineering Education, 2011 Re-engineering engineering education: A comparison of student motivation, ability development and career paths in traditional and cross-disciplinary engineering degree programsAbstract With the breadth and complexity of global problems engineers will face comes a blurring ofboundaries among engineering disciplines, and between engineering and social sciences.Schools in both the U.S. and abroad have addressed this call for change in engineering educationthrough innovations in traditional engineering curricula to broaden disciplinary perspectives.This study examined the impact of two engineering degree
AC 2011-725: SE CAPSTONE: A PILOT STUDY OF 14 UNIVERSITIESTO EXPLORE SYSTEMS ENGINEERING LEARNING AND CAREER IN-TEREST THROUGH DEPARTMENT OF DEFENSE PROBLEMSElisabeth W McGrath, Stevens Institute of Technology Elisabeth McGrath is Senior Research Associate at Stevens Institute of Technology and Executive Director of the Stevens Center for Innovation in Engineering & Science Education, Hoboken, NJ.Susan Lowes, Institute for Learning Technologies, Teachers College/Columbia University Susan Lowes, Ph.D., is Director of Research and Evaluation, Institute for Learning Technologies, Teach- ers College/Columbia University.Chris Jurado, Stevens Institute of Technology Chris Jurado is involved in the development of research
informal and experiential education results in learning but learning is not thebasic purpose of an activity.This research revealed 1) the pattern of learning interventions along the educational continuum isdifferent for those engineers that made a successful transition versus those that did not. Thelearning for a successful transition was weighted toward the experiential end of the continuum.2) The key educational content for those engineers who made a successful transition ismultidisciplinary. And 3) this multidisciplinary education takes place early in a career. Whenlooking at the ABET criteria 3d, “ability to function on multidisciplinary teams,” this career pathand educational study indicates that we should define multidisciplinary as
areas of teaming and leadership. She is also actively involved in coordination, curriculum devel- opment, assessment, and instruction in the Pavlis Global Leadership program. She received her B.S. in mechanical engineering from the University of Michigan and an M.B.A. from Wayne State University and is currently working on her Ph.D. at Michigan Technological University. Before joining MTU, she held various engineering and management positions during a 15 year career in the automotive industry.Dr. Susan L. Amato-Henderson, Michigan Technological University Susan Amato-Henderson is an Associate Professor of psychology in the Department of Cognitive and Learning Sciences at Michigan Technological University, earning her
Education, Professional Development, and OutreachAbstractAn undergraduate Nanotechnology Fellows Program was established to addresses key problemsin implementing nanotechnology education: (1) science and engineering curricula are alreadyfull; (2) practical, hands-on experiences require extensive training on complex, expensiveequipment; and (3) necessary fundamental concepts and knowledge span multiple disciplines andare rarely taught at the undergraduate level. This work reports on the program evolution over thecourse of three years as well as the short- and long-term impacts on students’ academic andprofessional careers. The evaluation results from the first year indicated the most profoundimpact came from integrating the interdisciplinary
Paper ID #25117Communicating the Value of a Transdisciplinary Degree: Comparing andContrasting Perceptions Across Student GroupsDr. Lisa Bosman, Purdue University, West Lafayette Dr. Bosman is an Assistant Professor in Technology Leadership and Innovation and the Program Co- ordinator for Transdisciplinary Studies in Technology. Her STEM education research interests include entrepreneurial mindset, renewable energy, competency-based learning, self-regulated learning, transdis- ciplinary education, civic engagement, and faculty professional development. She spent the first part of her career working as a manufacturing
on student ability development and career paths. An undergraduatesurvey was distributed to freshmen and again to seniors. Students were also asked to report theirlevel of confidence in their engineering, science, professional and integrative disciplinaryabilities used in complex problem solving as well as career plans at each point in time. Inaddition, seniors were asked about their participation in global initiative activities includinginitiative choice, type of activities, length of participation, and motivations for choice. Thosewho engaged in exploration of a global initiative area reported higher self-efficacy forintegrative disciplinary and professional ability factors than non-explorers. Significantdifferences were also noted for
Education Innovation Center The Ohio State Univer- sity Columbus, OH 43210 Rogers.693@osu.edu Rogers joined the university in October, 2008 bringing with him 35 years of industrial experience. His career includes senior leadership roles in engineering, sales, and manufacturing in robotics, electron- ics, sensors, and controls industries. Throughout his career, Rogers has developed products using an innovative process consisting of multidisciplinary teams focused on understanding customer needs and converting them to commercially viable products and services. He brings this experience to the university where he leads the effort in developing company-sponsored, product-oriented Capstone design programs. As part of the
Paper ID #33673Educational Opportunities for Technical Writing in Engineering EducationDr. Susan J. Ely, University of Southern Indiana Dr. Ely began her academic career at the community college level, after having worked as an engineer in areas of manufacturing, distribution, logistics and supply chain. Her research interests in Supply Chain Management include optimization through resiliency, lean supply chain practices and effective instruction in supply chain for career development, professional development of educators and online practices.Mr. Jotam E. Chen, University of Southern Indiana Jotam Chen is currently
Science and Mathematics, Engineering, and Technical EducationAbstractSTEM students face general education requirements in humanities as a part of theirdegree programs. Many students believe these courses are of little value to theireducation and career goals. Policy discussions at all levels of government has politicizedhistory education. History curriculum focusing on societal and political developmentsseems obscure to the high school or undergraduate STEM student. STEMstory focuses onengaging STEM students by examining history general education courses through thelens of history of technology. The study proposes curriculum for a U.S. history surveycourse focusing on progress in science and technology incorporating best practices
were significantly more committed about attendingthe graduate program at the end of the REU program compared to the beginning of the program.However they reported statistically no significant change in students’ career plan and interest inbecoming research scientist. The objective of the NSF REU Site “Micro/nano Assembly Workcell via Micro Visual Page 14.1195.2Sensing” is to provide hands-on training in micro-manufacturing research to a total of 20 studentparticipants over a two-year period from June, 2008 to August, 2009. This is a part of an on-going research effort to develop prototypes of a micro assembly system that can
, career track surveys, project-based learning, afield trip and peer-to-peer supervising and learning. Especially, we are exploring the studentlearning outcomes of interdisciplinary projects when we mix students from ME and EE in thesame team. Several surveys are given to students and teaching assistants through the semester toexplore students’ outcomes and feedback about diverse activities. Results show that studentsprefer learning and working cross the fields. They do not just learn the basics of ME and EE butalso gain a lot of soft skills from different activities. We find such a course gives freshmenespecially those who do not know what EE is a better idea about EE. A couple of studentsdecided to transfer to the EE major or be double majored
UGresearch program could enhance the undergraduate experience of a large number of students andbetter prepare them for making an appropriate postgraduate choice (industrial R&D, graduateschool, etc.) that would lead to career success. In Armour College of Engineering at the Illinois Institute of Technology, we havedeveloped and implemented a college-centered engineering Undergraduate R&D Program thatteaches students the art of conducting research using a comprehensive approach. The students areintroduced to research methods and concepts through a research course, and a series ofcompetitive research project opportunities is provided. In addition, students are required topresent their research findings at a college-wide research expo
careers in STEM fields and graduate education.During the four-year duration of the scholarship project, the project team indicated that it woulddevelop a program structure and arrange activities to achieve the following objectives: Objective 1: Provide 20 scholarships per year for academically talented, financially disadvantaged STEM majors, especially those from underrepresented groups. Objective 2: Build a referral network arrangement between Gannon University, the Erie City School District, and the local U.S. Department of Education Talent Search program to identify and recruit financially disadvantaged students from underrepresented groups who meet SEECS scholarship eligibility requirements
students for a wide range of careers in professional fields thatcombine skills and interests in engineering, the arts, technology, and culture. As part of a quartersystem, the LAES program requires 52 quarter units (hereafter referred to as simply “units”) ofgeneral education, 40 units of Science and Mathematics, 34 units of Engineering, 24 units ofLiberal Arts, and 8 units of study abroad coursework. LAES students also take 16 units ofservice-based learning combined with their senior project work. Our graduates have successfulcareers as game designers, media developers, sound engineers, and technical writers, to namejust a few. For more information on advising and Engineering/Liberal Arts course selection,please refer to the following web page
implementing a similar model at theirinstitutions. Page 22.65.2Theoretical FrameworkEngineering majors leaving the field is a common problem across the US campuses. Among thereasons reported as engineering majors’ reluctance to remain in engineering was “the lack, orloss of interest in science” and “the belief that non-STEM majors hold more interest, or offerbetter education” (Seymour, 1995). The lack of student interest or loss in their excitement topursue engineering as future career options can be associated with their learning experiences inundergraduate courses.Courses offered in undergraduate engineering programs can be highly technical and
remaining 16-15required hours that may be from any subject area that is career oriented but not necessarily fromengineering. The entire package is then evaluated against the student’s Statement of Purpose(which indicates, by its career focus, why the student is not taking the ECE or ME curriculumand needs the flexibility of the Engineering major).Since the Engineering major does not have its own faculty or courses, it depends on the ECE andME courses and faculty for assessment. When a student has prepared the desired plan, a checksheet of outcomes assessment conducted in each course is used to assure that each Engineeringgraduate has been included in the full set of our required student outcomes measurement. Ourprimary sources for evaluation of
the faculty advisor for the ASME student chapter.Prof. John F. Sweigart P.E., Southern Polytechnic State University John Sweigart is an Associate Professor in and Chair of the Mechanical Engineering Technology Depart- ment at southern Polytechnic State University in Marietta, GA. His teaching responsibilities are currently centered on Materials. Prior to his teaching career, John was in the aircraft and composite materials in- dustries. He received his BS degree in ME from Missouri University and his MS in EM from what is now the Missouri University of Science and Technology.Dr. Beth Stutzmann, Southern Polytechnic State University Dr. Beth Stutzmann, is the Director of Bands at Southern Polytechnic State
participate voluntarily via the Collaboratory for Strategic Parnternships and Applied Research. His on-going projects include improving flight tracking and messaging systems for small planes in remote locations, and developing assistive communication technology for those with cognitive and behavioral challenges, such as high- functioning autism, or PTSD. c American Society for Engineering Education, 2017 Formalizing Experiential Learning Requirements In An Existing Interdisciplinary Engineering Project CurriculumIn education, experiential learning has become a best practice, high-impact strategy, becauseengaging with real life problems heightens students’ interest, teaches them career
. Page 25.211.1 c American Society for Engineering Education, 2012 Assessing a Unique Engineering Undergraduate Degree ProgramAbstractThe ABET accredited Bachelor of Science in Engineering (BSE) degree program at MichiganTechnological University allows students to customize their degree curriculum. With guidancestudents are allowed to select up to 40% of their degree requirements to meet their career goals.Due to the flexible nature of this degree, it is challenging to determine if Program Outcomes(ABET a-k) are being met because each degree may be different. To supplement our currentassessment of student learning outcomes we have implemented a core competency exam whichBSE students must complete before
management, dynamic voltage and frequency scaling, and interdisciplinary course design. Dr. Murray has 17 publications and conference proceedings and has been the IEEE Seattle Section Education Society Chair since 2017.Prof. Lucrezia Cuen Paxson, Washington State University Everett Lucrezia Cuen Paxson is a clinical assistant professor in the Edward R. Murrow College of Communica- tion at Washington State University-Everett and is a graduate of King’s College London. After a career as a broadcast journalist and foreign correspondent covering stories around the globe, Cuen Paxson joined the Murrow College in 2012. She founded the college’s Global Engagement program and Backpack En- vironmental program. She led the Backpack
to formulate researchquestions as well as how to develop and modify research plans with the guidance of their researchmentors. Students will learn to work independently and to collaborate with other group membersas they conduct research in specific topics in energy research. This will enable them to understandtheir own levels of aptitude and interest in a career in science, technology, engineering, andmathematics (STEM) and give them the tools to prepare for the next stage in their education andcareer development. Students will report and present their research results in multiple settings. Inaddition to the hands-on collaborative research experience, technical and social activities will beincorporated into the program to provide students
students registering forthis course represent many engineering departments. Of the 80 students, 27.5% are ChemicalEngineers, 38.75% are Electrical and/or Computer engineers, 6.25% are Materials Engineers,and 27.5% represent other engineering departments including Biomedical, Mechanical andAerospace, Industrial, Computer Science and Nuclear Engineering departments.In order to evaluate the minor program and its impact on students, we will gather data related tostudent self-reported skill gain, attitudes, perceptions, and dispositions towards nanoscience andnano-related careers. This data will be collected in the form of anonymous and confidentialsurveys throughout students’ participation in the minor program. In addition, we will trackstudents
crucial to a successful career inengineering, many students, perceiving these skills as “non-technical”, attach relatively littleimportance to their development. This paper provides a brief overview of the nature and logisticsof the partnership between technical (engineering) and language content in Vantage College, andexamines the motivation of international engineering students in these courses to developtechnical communication skills and their perception of the importance of these skills for boththeir engineering studies and subsequent career. Based on the student responses collected, thelanguage enrichment activities that were deemed most useful and valuable by students areidentified, and their tangible benefits in terms of student
faculty and post-secondary professors in their communications about the opportunities inherent in applied engineering fields offered at Philadelphia University • Design, development, and delivery of Student Career and Educational Awareness Conferences established to support increasing the participation of Philadelphia high school students in STEM education in general and Applied Engineering in particular Page 12.80.4 • The Establishment of two successful Engineering Summer Camp at Philadelphia University, which has provided a college-level, scientific educational experience for Greater Philadelphia
increasingly important.Trends in engineering enrollment show that beyond the enrollment highs of the 1980s,the numbers of students entering and remaining in the field have either decreased orremained constant1. Positive perspectives of engineering help to increase thepersistence of students studying engineering2.Multidisciplinary approaches have been used recently as a method to increase bothrecruitment and retention3. Froyd and Ohland state that the multidisciplinary approachimproves retention by making explicit connections to engineering, engineering practiceand engineering careers. Second, it allows students to see connections between theirmathematics and science courses and their future careers in engineering. Third, facultywould also like the
Page 22.7.2the US workforce in general. Within the DoD, jobs associated with capability planning andrequirements definition, as well as much of the studies and analysis efforts that support pre-acquisition decision making, are typically not counted as part of the acquisition workforce, butthey often require individuals with STEM proficiencies. Within the STEM career fields, theDoD has singled out Systems Engineering (SE) as a critical need in order to improve the abilityto conceive , develop, sustain, modify and eventually retire its’ warfighting systems. Thosepersonnel identified as occupying critical positions (typically those in the acquisition workforce)receive training and certification on SE through a series of Defense Acquisition
websites to identify and select an engineering educationprogram that supports their diverse interests. Traditional disciplinary engineering curricula areoften perceived as limiting for some students. However, multidisciplinary engineering orinterdisciplinary engineering education programs provide opportunities for students to pursueengineering as a career that aligns with their interest, career goals, and a space to establish a senseof belonging. Prior studies have broadly examined what influences students to select engineeringas a major; however, little work has explored what influences students in their decision making totransition to an interdisciplinary engineering education program. In this work-in-progress paper,we describe our preliminary
that emphasizes student discovery. Scholars are selectedannually based on academic ability and financial need. Faculty mentoring, tutoring, peer studygroups, college survival skills training, career development, and undergraduate researchexperiences are all tools to help the scholars. Some MEP Scholars are actively participating inthe following research projects: 1) Design and Development of an e-Health System, 2) Designand Development of an Electronic Health Records program, 3) Study of the Field Effect onCharge Transport through Conductive Polymers Injected in Vascular Channels of AngiospermLeaves, and 4) A 3D-printed desk organizer. In this paper, MEP Scholars briefly present theirprojects and share their thoughts and reflections about the
real-world research projects with team members from multiple disciplines hashelped these undergraduates to gain experiences outside their own disciplines. This has aidedthem in developing diverse skill sets that are described in terms of: interdisciplinary experiences,links between their classroom learning and lab experiences, academic and professional skills,impacts of faculty and graduate mentoring, and impacts on academic and career decisions.1. IntroductionIn order to tackle the multifaceted problems of the 21st century, industries often engageemployees from multiple disciplines to solve a single problem. Although, industries haverecognized the need for interdisciplinary collaborations, the departmental structures in collegesand