environment for research learning to occur. The learners’ knowledgeconstruction process is aided by an environment of distributed cognition in which participants atall levels—experts, mentors, accomplished novices, and novices—teach and learn from eachother.4 The RCS addresses the development of communications abilities in a system ofdistributed cognition.Survey results of RCS participants are presented to provide an example of a way to incorporatecomplex systems study into the existing undergraduate engineering curriculum. Complexsystems study is defined as a new field of science that studies the collective behavior of a systemand how this system interacts with its environment. Complex systems study is laying thefoundation for a revolution of all
Session 1150 Teaching Engineering Fundamentals with a Project-Based Learning Approach B. S. Sridhara Middle Tennessee State UniversityAbstract Recruiting and retaining students in the Engineering Technology area has been a majorchallenge to many of us in the Engineering Technology and Industrial Studies (ETIS)Department at Middle Tennessee State University (MTSU). In the Fall of 2004 the authoroffered ET 1840 – Engineering Fundamentals and teaching this class was a lot of fun. Topicssuch as total quality, engineering design
Paper ID #27193An Online Approach to the Analog Electronics LaboratoryMr. Kenneth Ray Hite, West Virginia University Kenneth Hite is a Graduate Student and Lab Manager/Instructor in the Lane Department of Computer Science and Electrical Engineering. His BS is in Electrical Engineering with a focus on Electronics. He has worked as Graduate Assistant for two Solar Decathlon competitions and several undergraduate senior design groups. He has been instructing labs and summer courses since 2012, covering much of the un- dergraduate core Electrical Engineering curriculum. The past several years he has also served as the Lab
into a cohesive approach for advancing their professional careers.Industry Speakers Table 5. Speaker TopicsStudents are eager to learnfrom practicing engineers. Speaker 1: Role of Engineering in BusinessLikewise, many successful Speaker 2: Project Managementengineers want to “give back” Speaker 3: Ethics in the Corporationto the profession by sharing Speaker 4: Renewable Energy Challengestheir knowledge and Speaker 5: Financial Planning for the New Graduateexperiences with those seeking Speaker 6: Systems Engineering in the Automotive Industryto enter the profession. The use Speaker 7: Lean Engineering in the Aerospace
Session 2249 An Innovative Approach to Curriculum Development for Engineering Technology Programs Saleh M. Sbenaty, Melvin J. Montgomery Middle Tennessee State University/Jackson State Community CollegeAbstractThis paper describes a curriculum development and delivery approach that improves engineeringand technology education and increase student interests in pursuing these programs. This is oneof the goals of the three-year NSF-funded grant ($1.8 million) titled “The South-East AdvancedTechnological Education Consortium, SEATEC.” The consortium is a collaborative effort of fivedifferent teams
assessment exercise is really a validation exercise whose results can be usedto either confirm your initial set of program objectives or make some adjustments to them, basedon input received from an independent set of reviewers. We followed this process in theestablishment of the program objectives for our new architectural engineering program, and werepleased to see that our ABET review team deemed it to be an acceptable approach for a newprogram to follow. Page 22.104.10 Department and Program Assessment Survey Missouri S&T – Engineering Management B.S. Degree
Making in the Engineering Classroom,” Journal of Engineering Education, October 1997. 6. Gentner, D. and A. L. Stevens (Editors), Mental Models, Erlbaum, Hillsdale NY, 1983. 7. Capra, Fritjof, The Web of Life: A New Scientific Understanding of Living Systems, New York, NY: Anchor Books, 1996. 8. Cheek, Dennis, Thinking Constructively About Science, Technology, and Society Education, State University of New York Press, Albany, NY, 1992, page 63. 9. Joseph D. Novak and D. Bob Gowin, Learning how to Learn, Cambridge University Press, New York, Chapter 2. 10. Hyerle, David, Visual Tools for Constructing Knowledge, Association for Supervision and Curriculum Development, Alexandria, VA, 1996. 11
AC 2007-3128: IMPLEMENTING A NEW APPROACH TO TEACHING THEETHICS OF EMERGING TECHNOLOGYDoug Tougaw, Valparaiso UniversityMichael McCuddy, Valparaiso University Page 12.837.1© American Society for Engineering Education, 2007 IMPLEMENTING A NEW APPROACH TO TEACHING THE ETHICS OF EMERGING TECHNOLOGY Douglas Tougaw1 and Michael K. McCuddy2 1 Valparaiso University, Valparaiso, IN; Email: Doug.Tougaw@valpo.edu 2 Valparaiso University, Valparaiso, IN; Email: Mike.McCuddy@valpo.edu 1. INTRODUCTIONEmerging technology holds great
, DC: The National Academies Press, 2000.[4] D. Perkins, Making Learning Whole: How Seven Principles of Teaching Can Transform Education, First edit. San Francisco, California: Jossey-Bass, 2009.[5] R. Streveler, K. Smith, and M. Pilotte, “Aligning Course Content, Assessment, and Delivery: Creating a Context for Outcome-Based Education,” in Outcome-Based Education and Engineering Curriculum: Evaluation, Assessment and Accreditation, M. Khairiyah Mohd Yusof (Universiti Teknologi Malaysia, Malaysia), Naziha Ahmad Azli (Universiti Teknologi Malaysia, Malaysia), Azlina Mohd Kosnin (Universiti Teknologi Malaysia, Malaysia), Sharifah Kamilah Syed Yusof (Universiti Teknologi Malaysia, Malaysia, Ed
currently a Professor of Engineering Technology at Middle Tennessee State University. He received the BS degree in EE from Damascus University and the MS and Ph.D. degrees in EE from Tennessee Technological University. He is actively engaged in curriculum development for technology education. He has written and co-authored several industry-based case studies. He is also conducting research in the area of mass spectrometry, power electronics, lasers, and instrumentation. Page 12.1233.1© American Society for Engineering Education, 2007 Reinventing Home Automation
work in progress paper describes a new program that integrates business and engineeringcurriculum. Investments in science, mathematics, and engineering education have increased as amatter of national economic competitiveness [1]. Engineering and business are increasinglyconnected in today’s technological and global workplace and there is a need for graduates whosecompetencies span these fields [2]. Educators have been developing approaches that linkbusiness and engineering curriculum within traditional classes [ 3,4] as well as programs thatprovide minors and degrees for students crossing traditional disciplinary boundaries of businessand engineering [6-8]. Blended engineering and business baccalaureate programs have beendeveloped by at least
2006-1091: A WELL TO WHEELS APPROACH TO THE DEVELOPMENT OFAUTOMOTIVE CURRICULA IN APPLIED ENGINEERING PROGRAMSDale Palmgren, Arizona State UniversityBradley Rogers, Arizona State UniversityNathan Everett, Arizona State University Page 11.147.1© American Society for Engineering Education, 2006 A Well-to-Wheels Approach to the Development of Automotive Curricula in Applied Engineering ProgramsIntroductionHistorically, many seemingly promising alternative energy technologies have failed tosignificantly penetrate the market, often because of economic realities or the difficulty ofintegrating these technologies into the existing worldwide energy infrastructure
2006-1355: DESIGN YOUR OWN THERMODYNAMICS EXPERIMENT, APROBLEM-BASED LEARNING APPROACH IN ENGINEERING TECHNOLOGYJorge Alvarado, Texas A&M University Dr. Jorge Alvarado is an assistant professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. He teaches courses in the areas of thermal sciences, fluid mechanics and fluid power. Dr. Alvarado’s research interests are in the areas of nanotechnology, micro-scale heat transfer, electronic cooling and phase change materials, solid and liquid desiccant regeneration, energy conservation and use of renewable energy in buildings
Session 2793 SEATEC-An Innovative Approach to Engineering and Technology Curriculum Development Saleh M. Sbenaty, Claudia House Middle Tennessee State University/Nashville State Technical InstituteAbstractThe South East Advanced Technological Education Consortium, SEATEC, provides a creativeapproach to curriculum development and delivery that improve engineering and technologyeducation and revive student interests in pursuing these programs. This is one of the mainobjectives of this three-year NSF-funded grant (about $1.8 million). The consortium is acollaborative effort of five different
spiralcurriculum approach implemented across several engineering disciplines for the first two years. 9Other aspects of the pedagogical principles underlying this curriculum reform are discussed ingreat detail in an earlier publication. 103 Implementation of New CurriculumThe roll-out of this curriculum, diagrammed in Fig. 1, began in the 2005-06 academic year, with arobotics module for the Engineering Design and Graphics course that all engineering studentstake in their first year. In the 2006-07 academic year, a new course/laboratory sequence inFundamentals of ECE was offered to sophomores. These courses include instruction in circuits,electronics and DC motors, aiming to integrate the treatment of all these areas through the use ofhands-on projects
Session 2561 Integrating Ethics into the Freshman Curriculum: An Interdisciplinary Approach Elisabeth Alford, Tom Ward University of South CarolinaAbstractTo ensure that undergraduate engineers have a deep and practical understanding of professionalethics, engineering colleges are developing ways to integrate ethics throughout their curriculum.The freshman engineering course is the logical and appropriate time to begin discussion ofprofessional ethics, long before students are confronted with the tough decisions they may haveto make later. The
., Volk, T.L., Ramsey, J.M. (Eds.), Essential Readings in Environmental Education, 2nd Ed. (pp. 33-35). Champaign, Ill: Stipes Publishing L.L.C.4 Kucharski, G.A., J.O. Rust, T.R. Ring (2005). Evaluation of the Ecological, Futures, and Global (EFG) Curriculum: A Project-Based Approach. Education, 125(4), 652.5 DeWaters, J.E., S.E. Powers (2011). Energy Literacy of Secondary Students in New York State. Energy Policy. 39, 1699–1710. doi:10.1016/j.enpol.2010.12.049.6 Bednarz, S.W. (2000). Connecting GIS and problem based learning. In: Audet, R. & Ludwig, G. (Eds.), GIS in Schools. Redlands, CA: ESRI Press.7 Lambros, A. (2004). Problem-Based Learning in Middle and High School Classrooms: A Teacher's Guide to
seeking students with powerengineering background. These companies include power equipment manufacturers, consultants,chemical companies, automotive companies and more.A new set of companies looking for power engineers are naval ship builders and other shipbuilding support industries. The new all-electric ship program provides a platform for increasedcontrol and utilization of electric power systems to improve ship features of reconfiguration andsurvivability. The industry now needs more electrical power engineers to solve its futurechallenges.This paper will describe efforts at our university to integrate more shipboard power system topicsinto the undergraduate and graduate curriculum. The shipboard power system provides someunique challenges
maximize student interest and understanding. Data will becollected to evaluate how interactive, authentic, problem-solving simulations impact andfacilitate student learning. In-service training with the curriculum for Technology Educationteachers will be provided prior to classroom use. In addition, a specific objective of the projectis to increase the involvement of women and other underrepresented groups in engineering andtechnology by providing female and minority role models in the classroom and developing casestudies that encourage interest and participation by all groups. Therefore, interest in andawareness of engineering and technology-based careers will also be assessed prior to and afterexposure to the new curricula.The first module
specializations are computerscience, software engineering, networking, and computer engineering. In this curriculum, thestudents matriculate into the CNS department after successfully completing the requirements of30 hours of core courses common to all computer science students. The students continue takingcore courses until the first semester of their junior year, when they begin choosing their electivesfrom different specialization areas.Digital logic design courses are fundamental core requirements in both computer engineering aswell as computer science departments, in which students get their first exposure to hardwaredesign. It is important that the content of such courses reflect the current design styles used inindustry.This paper describes a
Media at Polytechnic University (now NYU Polytechnic School of En- gineering), and her Ph.D. in Educational Communication and Technology at New York University. Her mixed methodology research, focusing on interdisciplinary studies, has been presented at numerous na- tional and international conferences and published in peer-reviewed book chapters and journal articles on varied topics such as technical writing, the future of science education, game design, virtual reality, and problem solving. Her book is entitled Cases on Interdisciplinary Research Trends in Science, Technology, Engineering, and Mathematics: Studies on Urban Classrooms (Information Science Reference, 2013).Dr. Candido Cabo, New York City College of
necessary for the new engineer represent a difficult challenge forengineering education.The cross-fertilization of many engineering disciplines and the trend of multidisciplinary educationis another issue that needs to be implemented in an engineering curriculum. If changes need to bemade in engineering education, it might be suitable to rethink of the philosophy of education ingeneral, and engineering education in particular. In this respect, we need to answer the followingquestions: Is there a philosophy of engineering education that many institutions of highereducation implement, develop curriculum based on it, and monitor its dynamics? If this philosophyexists what is the role this philosophy has played and will play in the creation of
AC 2012-5220: STUDENT SOFTWARE ENGINEERING LEARNING VIAPARTICIPATION IN HUMANITARIAN FOSS PROJECTSDr. Heidi J.C. Ellis, Western New England University Heidi Ellis is Chair and Associate Professor in the Computer Science and Information Technology De- partment at Western New England College. She has a long-time interest in software engineering education and most recently has received NSF funding to investigate the use of humanitarian free and open source software to educate computing students. She is also currently participating in an NIH grant for developing database-driven software for biological NMR analysis.Dr. Gregory W. Hislop, Drexel University Gregory Hislop is a professor of information science and
teaching and learning methods to power engineering education. c American Society for Engineering Education, 2016 An Introductory Laboratory in Power Engineering Technology: A Systems Approach Matthew TurnerAbstractThis paper presents the design of a curriculum and the associated hardware for the laboratory componentof an introductory power engineering technology course for sophomore students. The content wasdeveloped to implement a systems approach that uses the modern electric power network as aninterconnected system to be designed, analyzed, and tested. The major hardware components of theelectrical power system are studied and analyzed in individual laboratory
E-mail: fnaja@ce.ufl.edu And Alex E. S. Green Graduate Research Professor Emeritus ICAAS, CLEAN COMBUSTION TECHNOLOGY LABORATORY (CCTL) College of Engineering, University of Florida Weill Hall Rm 577 PO Box 116550, Gainesville, Florida 32611-6580 Phone: (352)392-2001 E-mail: aesgreen@ufl.edu Natural gas prices have increased significantly in the past four years. Natural gasaccounts for almost a quarter of the United States’ energy consumption. The increase in naturalgas prices may create an economic problem in the U.S. economy and the university’s budgetdeficits. The
thinking can be uncomfortable for both student and instructor, but it often leads tosubstantial creative content in a project. As noted in Sheppard et al (1997) in describing thefreshman engineering design and product design program at Stanford, one of the instructors(Faste) noted: “some of the best ideas were initially labeled ‘stupid’.”9 There is a clear need tocreate a classroom environment that encourages divergent thinking and permits new ideas to beexplored.There are numerous examples of cornerstone (freshman/sophomore) design classes inengineering programs. Three examples highlight some of the characteristics needed to provide anengaging engineering experience for freshman students. As part of a curriculum overhaul, MITimplemented CDIO
AC 2007-654: AN INTEGRATED APPROACH TO MANUFACTURING DESIGNRobert Creese, West Virginia University ROBERT C CREESE is a professor in the Industrial and Management Systems Engineering Department in the College of Engineering and Mineral Resources at West Virginia University in Morgantown, West Virginia. He obtained his BS, MS, and Ph.D. degrees from The Pennsylvania State University, The University of California-Berkeley, and The Pennsylvania State University. He is a member of ASEE and also a member of AACE International, ASM, AWS, AIST, ISPA, SCEA, AFS, and SME.Deepak Gupta, West Virginia University DEEPAK GUPTA is a graduate student in the Industrial and Management Systems Engineering
AC 2008-322: ENHANCING THE UNDERGRADUATE CHEMICALENGINEERING CURRICULUM WITH AN INDUSTRIAL PROCESS SAFETYAPPROACHBruce Vaughen, Rose-Hulman Institute of Technology Visiting Assistant Professor Chemical Engineering Department Rose-Hulman Institute of Technology, CM55 Terre Haute, IN 47803 812.877.8813 Page 13.556.1© American Society for Engineering Education, 2008 Enhancing the Under gr aduate Chemical Engineer ing Cur r iculum with an Industr ial Pr ocess Safety Appr oachAbstractThis paper summarizes the industrial process risk analysis approach that was used to enhance achemical engineering unit operations
2006-1310: UNDERGRADUATE STUDENTS TEACHING CHILDREN: K-8OUTREACH WITHIN THE CORE ENGINEERING CURRICULUMAyyana Chakravartula, University of California-BerkeleyBarbara Ando, Lawrence Hall of ScienceCheng Li, University of California-BerkeleyShikha Gupta, University of California-BerkeleyLisa Pruitt, University of California-Berkeley Page 11.1362.1© American Society for Engineering Education, 2006 Undergraduate Students Teaching Children: K-8 Outreach within the Core Engineering CurriculumAbstract Outreach teaching is successfully implemented as a final project in core courses at UCBerkeley within the Bioengineering and Mechanical Engineering
Engineering Education, 2014 A Mature Approach to AssessmentAbstractEducators can tend to focus on teaching rather than student learning. As such, assessing studentoutcomes is perceived as additional work not directly related to their craft and is an occasionalexercise required to meet the demands of program accreditors. This attitude parallels that ofsoftware developers who see the need to deliver a software project on time and on budget assomething that constrains their creative work. The Capability Maturity Model has been adoptedby many software organizations as a framework to help change attitudes and improve thesoftware development process. In this paper we show that the same principles can be applied tothe assessment