technical competence. As engineers progress in their undergraduate career, theirtechnical knowledge grows substantially. Hence, it becomes more practical to use these skills towork in a group setting. Moreover, this growth enables groups to address truly useful andinteresting problems by dividing expertise amongst various group members, thereby providing avenue to practice professional skills.StructuralParticipants also spoke at length regarding structural components found commonly in a well-designed and executed curriculum, per Figure 2. Participants often reported that group projectexperiences were instrumental in their development, especially when working towards atechnical solution. It may be that one is seeing that experience-based education
Session 2548 Internship Development for a New Baccalaureate Degree Program: Student Preparation, Sponsor Development, and Internship Follow-Up Sohail Anwar, Frances Winsor The Pennsylvania State University, Altoona CollegeAbstractPenn State Altoona College is in its third year of offering a Bachelor of Science program inElectro-Mechanical Engineering Technology (BSEMET) which is a 2+2 engineeringtechnology program. Students matriculate to the BSEMET program from the ABET-accreditedassociate degree program in either electrical or mechanical engineering
9 10 7 5 6 4 4 5 0Figure 1: Number of ASEE FPD Sessions Related to First-Year Engineering Education Themes Several themes emerge when comparing ASEE session topics in Figure 1 and FYEEsession topics in Figure 2. Student outcomes and classroom strategies are the most commonsession topics. Both of these themes have the potential to be broken down into subcategories.Retention, curriculum development, design, K-12 transition, and experiential learning were alsofrequently
education provides all graduates with an appropriate working knowledge and understanding of sustainable development. The purpose of this paper is to outline the role civil engineers can play and some opportunities for faculty members to contribute to achieving the goals as engineering educators preparing the next generation of civil engineers and as engineering professionals. Civil Engineering Higher Education Curriculum Opportunities ASCE has a Committee on Sustainability and one of its subcommittees deals with formal engineering (universitybased) education. The Formal Engineering Education Committee (FEE) believes that education on sustainability should be integrated throughout a program with both breadth and depth. The following
, professional engineering development and other topics in civil and environmental engineering. He was an Associate Editor for the international research journal Waste Management from 2003-2009, and has been Associate Editor for Civil Engineering and Environmental Systems since 2014. He has a BSc from Harvey Mudd College, a MSc from Univ. Wisconsin—Madison, and a PhD from Carnegie Mellon University, and he is a New Zealand Chartered Professional Engineer. From 2009-2015 he has led the curriculum review process in his department, and has been a leader in curriculum innovations by developing new courses in engineering design, communication skills portfolio, and professional engineering development.Dr. Norb Delatte P.E., Cleveland
. Daniel J. Robertson, University of Idaho, MoscowDr. Sean Michael Quallen, University of Idaho, Moscow Dr. Sean M. Quallen is an instructor in the Mechanical Engineering department at the University of Idaho– Moscow. He teaches dynamics, fluid mechanics, and heat transfer. His interests include improving the representation of young women in engineering fields and the integration of personal/mobile technology into the classic lecture period. c American Society for Engineering Education, 2018 Development and Implementation of a Longitudinal Design AssessmentAbstractAn assessment tool has been developed to measure and track student design skills longitudinallythrough the curriculum. The rubric
Board, and others employed in the Biomedical EngineeringTechnology field.References[1] Biomedical Engineering Society Web Page: http://www.bmes.org[2] URL: http://ecet.spsu.edu/home/Programs/Programs.php[3] Austin B. Asgill, “Curriculum Development for an EET Degree Option in Biomedical Engineering Technology,” ASEE annual conference, Chicago, IL, June 2006.[4] Austin B. Asgill, “Biomedical Engineering Technology as an Option under EET”, ASEE-SE annual conference, Tuscaloosa, AL, April 2006.[5] URL: http://ecet.spsu.edu/home/Advisory-Board/Advisory-Board.php[6] ABET Inc. Web Page: http://www.abet.org[7] NI measurement and Automation Experiments developed by Dr. Wei Lin, Stony Brook
Session 2533 Thermal Science Course Development Using Industry Input Heather L. Cooper Purdue UniversityAbstractThis paper discusses the use of an industry survey as a tool for course development in thermalsciences. The thermal science portion of the Mechanical Engineering Technology curriculum atPurdue University includes two core courses, both of which have traditionally included topics inapplied thermodynamics only. In recent years, a minimal amount of heat transfer content has beenadded to the introductory course to help offset the removal of a heat transfer
student learning improvement processes we had been doing forseveral years. Each loop is a complete PDCA process, carried on at different repetition rates,with different goals and quality targets in mind, as shown in Figure 3. For purposes of this paper,Figure 3 is shown too small to properly read, and each loop is broken out, in a larger scale,following.Figure 3. Complete Three-Loop Continuous Improvement Process18The top loop, shown in Figure 4, at a larger scale to allow detail to be read, applies to the ABETCriterion 2 PEOs only. The figure illustrates that we are using input from our constituents,developing the objectives statements, setting a curriculum to meet the objectives, conductingsurveys to check if the objectives were met, and then
INTRODUCTIONSince 1992, students in our undergraduate mechanical engineering program have been carryingout major design projects. The process of integrating major design project activities was spreadover three phases. The first phase, which took place between 1992 and 1994, consisted of a pilotprogram with forty students. The implementation of an engineering design option between 1995and 1999 constituted the second phase. The last phase embraced the complete reform of theundergraduate curriculum based on the development of competencies and the horizontal/verticalintegration of engineering sciences and engineering design.One of the principal objectives of the major design projects is to allow the students to live amajor design experience within the
technicallycomplex, highly significant scientific programs. Even though these professionals are highlyproficient in traditional analytical competencies, there is a unique opportunity to offer continuingeducation that further enhances their overall scientific minds. With a goal of maintaining theAgency’s passionate, “best in class” engineering workforce, the NASA Academy ofProgram/Project & Engineering Leadership (APPEL) provides educational resourcesencouraging foundational learning, professional development, and knowledge sharing. NASAAPPEL is currently partnering with the scientific community’s most respected subject matterexperts to expand its engineering curriculum beyond the analytics and specialized subsystems inthe areas of: understanding NASA’s
Session 2561 Sustainable Technology / Development and Challenges to Engineering Education Richard Barke Georgia Institute of TechnologyNew ideas may require decades to find mature adoption. The organizations that implementinnovations often must undergo painful restructuring before their benefits can be applied innovel and appropriate ways. For the electric dynamo significant productivity gains required asmuch as forty years, during which old manufacturing systems based on steam and water powerhad to be discarded and new ways of using electricity in
Paper ID #25537Development of an Ethics Survey Based on the Four-domain DevelopmentDiagramDr. Nathan E. Canney, CYS Structural Engineers Inc. Dr. Canney conducts research focused on engineering education, specifically the development of social responsibility in engineering students. Other areas of interest include ethics, service learning, and sus- tainability education. Dr. Canney received bachelors degrees in Civil Engineering and Mathematics from Seattle University, a masters in Civil Engineering from Stanford University with an emphasis on structural engineering, and a PhD in Civil Engineering from the University of
foresight towards the future challengesassociated with the exponential growth of demand for finite resources. This outlook should notbe surprising, as any company that has thrived for more than 200 years has clearly demonstrateda strong culture capable of long term sustainable growth.As the importance of sustainability continues to increase in the modern economy, educationalinstitutions at various levels have attempted to integrate its concepts into their curriculum. At the Page 23.84.3graduate level, courses in Environmental Policy and Sustainable Development have long existedin various Engineering and Engineering Management programs
Session 2532 Innovations in Curriculum Integration, Delivery, and Assessment For Engineering and Technology Education Saleh M. Sbenaty, Ph.D. Middle Tennessee State UniversityAbstractThe current paper outlines an innovative approach to curriculum integration, development, anddelivery that improve engineering and technology education and revive student interests inpursuing these programs. This is one of the objectives of the three-year NSF-funded grant titled“The South-East Advanced Technological Education Consortium, SEATEC.” The consortium isa collaborative effort of
introducingsustainable engineering concepts in the teaching of specific existing courses anddeveloping a sustainable engineering certification program. This paper reviews the needfor sustainable engineering being taught across the curriculum and how that is beingaccomplished at UTEP.I. BackgroundÃProbably one of the best-known efforts to incorporate sustainability/green design intoengineering is the Carnegie Mellon program. Carnegie Mellon began a campus-wideGreen Design Initiative in 1992 to promote environmentally conscious engineering. Theinitiative has formed partnerships with industry, foundations, and government agencies todevelop research and education programs that encourage sustainable economicdevelopment. The initiative developed educational modules
the last day of class show a trend towards increasedstudent understanding of fuel cell science as well as the political, economic, social andenvironmental impacts of fuel cell technology. Hands-on experience during laboratoryexperiments as well as the fuel cell system design project helped promote T-shaped professionaldevelopment of the students.Introduction Technology innovation moves at an exponential rate making it extremely difficult forengineering curriculum to educate students on all current developments. All over the nationinstructors are given a limited set of time to cover a wide variety of topics while ensuring thenext generation of professional engineers1-3. This constraint forces instructors to teach adiscipline based
Division of Engineering Science at the University of Toronto. In this position, Lisa plays a central role in the evaluation, design and delivery of a dynamic and complex curriculum, while facilitating the development and implementation of various teaching and learning initiatives. Lisa is cross-appointed with the Department of Curriculum, Teaching and Learning at OISE/UT, and teaches undergraduate courses in engineering & society, and graduate courses in engineering education. Lisa completed an Undergraduate Degree in Environmental Science at the University of Guelph, and a Master’s Degree in Curriculum Studies at the University of Toronto. Research interests include teaching and assessment in engineering
the partnering universitiesor colleges. Partnership programs address global human need while creating socially aware andresponsible students, faculty and administrators at partnering institutions of higher education.The first step in this process is the gaining of support from the humanitarian organizations andthe institutions of higher education. Partnerships are generally accompanied by fundingprovided to the partnering institutions to develop and administer a training curriculum oreducational program in a host country. The flowchart below (Figure 1) provides a basicframework by which these partnership and program can exist. Figure 1: Partnership and Benefit ModelFrom a humanitarian aid perceptive, one of the
educator, curriculum developer and implementer of innovative instructional programs for students of all ages. She has taught English at the University of Texas at El Paso, and in high schools in New York and California public schools. Ms. Burnahm is founder of the School for Educational Enrichment, a private school that is known for customiing instructions for different learning styles. As Founder and Board Memeber of the Texas Alliance of Accredited Private Schools, Ms. Burnham has consulted with and accredited dozens of private schools throughout the Texas. She holds an MA from California State University in Los Angeles and a BA from Hunter College of the City University of New York .Virgilio Gonzalez, The University
Developing a Successful NSF Science & Technology Center; CLiPS David A. Schiraldi Peter A. Asseff Professor & Chair Dept. of Macromolecular Science & Engineering Case Western Reserve University Associate Director for Education & Diversity, CLiPS March 2016 ASEE ERC Background• STCs (and ERCs) sit atop the NSF hierarchy of programs• 5 + 5 years, $4M/yr• Renewal is common, but requires diligence• STCs emphasize science, some technologies, not so much device-oriented• STCs have significant expectations for education and outreach Getting Started (2002 – 2003)• A group of five CWRU faculty met weekly for ~12 months, often over offsite lunches, to
AC 2012-3287: INFUSING PROFESSIONAL SKILLS DEVELOPMENT INTOCO-OP STUDENTMr. John (Jack) Anthony Selter, University of Central Florida Jack Selter has 30+ years of experience developing and managing partnerships between industry, govern- ment, and higher education. Past organizational affiliations include Clemson, University of Pittsburgh, and Carnegie Mellon University. Currently, Selter is a Senior Research Associate at the Institute for Sim- ulation and Training, Research in Advanced Performance Technology and Educational Readiness, at the University of Central Florida. Page 25.777.1
Session 1566 Experiential Engineers: Developing an Integrated Mechanical Engineering Laboratory Charles D. Van Karsen, Paula F. Zenner Michigan Technological UniversityAbstractThe Department of Mechanical Engineering-Engineering Mechanics at Michigan TechnologicalUniversity has developed a required undergraduate laboratory that is a practical and relevantcomponent of an engineer’s education. The purpose is to provide a combined mechanicalengineering experience that reinforces the traditional elements of a curriculum. Solid Mechanics,Dynamics, and Heat
novel topics such as AI and IoT related to AM. Second, manyunderserved students are not aware of the opportunities, benefits, and job security related to theAM field. Providing underserved students with access to relevant resources and activities maybenefit them in fostering awareness of AM jobs and developing career interests in pursuing an AMcareer at their early ages.MethodologyNeeds assessmentTo identify the specific gap in what needs to be taught and what has been taught in the currentmanufacturing curriculum, our team reviewed the curriculum for the cluster of manufacturing inlocal schools and school districts, Project Lead the Way (PLTW) courses on manufacturing (e.g.,Principles of Engineering for Grades 11-12, Digital Electronics for
habit of a practicing engineer.However, we have learned by experience that even when students are provided with the rubric,they seldom evaluate their own work effectively. In an effort to counter this, students in asophomore-level “Energy Balances” course are asked to help develop a rubric that will be usedto grade and assess a team project in the course. The mechanism for including student input inrubric development and assessing the ability of the students to use the resulting rubrics for selfevaluation will be discussed.IntroductionThe chemical engineering curriculum at Ohio University requires students to complete open-ended assignments in a team environment at the sophomore, junior, and senior levels. Thedeliverable in these assignments is
Paper ID #17192Utilizing an Innovative Engineering Skills Curriculum and Technology to Ex-pand Classroom Learning in Low-Resource SettingsMr. Dhinesh Balaji Radhakrishnan, Purdue University Dhinesh Radhakrishnan is a doctoralstudent in the School of Engineering Education at Purdue University. His research includes utilization of technology in education, and socially constructed education in low- resource settings. His current work is on developing engineering skills curriculum for out-of-school youth in Africa utilizing digital learning materials. He is the Global Student Forum Chair for 2016 in SPEED. He is also the
communications and network security, sensor integration, publicpolicy, and software development. The ECE department heads have recognized the need toupdate and upgrade programs in power engineering and closely related fields. The workshopdescribed in this paper brought together a diverse set of academic, government/NGO andindustry participants to address a range of issues including curriculum changes, facultydevelopment and student recruitment. Participants also discussed the role of power electronictechnologies, planning, automation and control to achieve smart grid performance goals.INTRODUCTIONThe first ECEDHA Energy and Power Educational Programs Development Workshop funded bythe National Science Foundation with additional support from the
can be completedin one year. Typically, these degree programs emphasize coursework, and advanced trainingin an area of technical specialty. Typical graduate engineering curriculum consists of a set ofcore courses which address critical competencies needed to enhance technical skills, followedby course technical electives in a concentration area. However, most of the programs aredeveloped without any direct involvement or collaboration of an external industry. As a result,the specialized programs are not effective.Curricula structured around traditional disciplines can be easily developed without anyindustry involvement. However, trans-disciplinary programs in specialized fields can beenhanced by harnessing industry collaboration. By bringing
tool courses, EngineeringGraphic Communications (ME 180) and Technical Computing and Problem Solving (CSE 131),for the new freshman program. ME 180 is a 3 credit course taught in a one hour lecture and two Page 11.1272.22-hour lab periods per week format. It focuses on the teaching of NX® as a mechanical designtool. CSE 131 is a 3 credit course taught in a one hour lecture and two 80-minute lab periods perweek format. It focuses on the teaching of Excel® and MATLAB® as analysis tools.Two new courses have been developed to serve as the core of the Freshman Program that willreplace ME 180 and CSE 131 in the ME curriculum. The two courses are:ME
internationalization of higher education, faculty engagement, and global curriculum development.Elizabeth M. Tront, Virginia TechProf. Joseph G. Tront, Virginia Tech Page 25.597.1 c American Society for Engineering Education, 2012 Examining the Development of Global Competencies Among Engineering Undergraduates Social, political, and economic factors are making it necessary for engineeringundergraduates to be proficient in content knowledge but also acquire a set of skills that willenable them function seamlessly in a work environment that has both national and