change significantly to reflect the profusion of technical advances in the last two decades ofthe twentieth century. Pertinent manufacturing technology changes include implementation ofnew and more diverse materials, improved and more varied and more precise processing,automation and controls, and computer aided manufacturing (CAM). This progress requireschanges in training materials and program curriculum to reset and then renew the basic technicalskills required of manufacturing technologists and technicians. In addition, more radical changesare being implemented in many industries that have little to do with technical skills required forplant operations. Quality management has been introduced into many facilities worldwide eitherunder the
balances with recyclethat the PLA-based cooperative learning structure, developed at WPI, increases studentlearning and faculty productivity 6, 7.Computer-aided learning tools are used where possible to help deliver the newcurriculum. We utilize the software developed at the University of Michigan for learningchemical engineering fundamentals 8. We are also developing some interactive learningtools specifically for the spiral curriculum 9.In addition to the projects, each level includes some traditional homework problems andtests taken individually. The project work, together with supplemental lectures andworkshops, provides students the opportunity to prepare for the tests. Assessment Program and Preliminary ResultsWe are
1 A Model for a Bi-lingual Curriculum Abdelrahman M Rabie, Associate Professor, ISAT Department, James Madison University, Harrisonburg, Virginia, USA Rahman Haleem Assistant Professor and Director, Institute for Technological Innovations (ITI), Zayed University, Dubai, United Arab EmiratesAbstractThere has been an increasing demand for multilingual professionals, in various fields includingengineering, which in turn which in turn lead to the increased demand and
1 A Model for a Bi-lingual Curriculum Abdelrahman M Rabie, Associate Professor, ISAT Department, James Madison University, Harrisonburg, Virginia, USA Rahman Haleem Assistant Professor and Director, Institute for Technological Innovations (ITI), Zayed University, Dubai, United Arab EmiratesAbstractThere has been an increasing demand for multilingual professionals, in various fields includingengineering, which in turn which in turn lead to the increased demand and
1 A Model for a Bi-lingual Curriculum Abdelrahman M Rabie, Associate Professor, ISAT Department, James Madison University, Harrisonburg, Virginia, USA Rahman Haleem Assistant Professor and Director, Institute for Technological Innovations (ITI), Zayed University, Dubai, United Arab EmiratesAbstractThere has been an increasing demand for multilingual professionals, in various fields includingengineering, which in turn which in turn lead to the increased demand and
contributing directly orindirectly to the concentration as a core class or a general ET class. This includes the 2 3-hour seniordesign classes, a 3-hour project management class, and a 1-hour seminar class. The two technical electiveclasses may contribute to the concentration but most probably will be from other concentrations, or evendifferent program (such as Industrial Technology, Math, or Computer Science), based on the availabilityof the classes. 2/16Figure 2 Mechanical Engineering Technology curriculum sheet 3/16 Figure 3 Mechanical Engineering Technology
Paper ID #22303Standardizing the Statics Curriculum Across Multiple InstructorsDr. Kimberly B. Demoret P.E., Florida Institute of Technology Kimberly B. Demoret, Ph.D., P.E., teaches Statics and Aerospace Engineering Capstone Design at the Florida Institute of Technology. Prior to joining Florida Tech in 2015, she worked for eight years at Kennedy Space Center on development of launch systems in support of NASA’s space exploration goals. Before that she was a US Air Force officer for 20 years, supporting several aerospace programs as a developmental engineer and manager.Dr. Jennifer Schlegel, Florida Institute of
modules that introduce scientific principles commonly taught in aerospace,biomedical, chemical and mechanical engineering through their application to sports equipmentand sports performance. The modules will be used in a new senior elective course that will alsobe developed as part of this project and taught at Rowan and Drexel Universities, an introductoryengineering course required of all engineering freshmen at Rowan, and a second yearengineering courses at Gloucester County College. Effort will also be devoted to the integrationof the modules throughout the engineering curriculum at Rowan and Drexel Universities,outreach activities and promote a pipeline for students at the two-year county college to transferto four-year universities. This
2006-1792: CURRICULUM DEVELOPMENT IN NANOTECHNOLOGY: TWOCASE STUDIESDavid Hata, Portland Community College David M. Hata retired from full-time teaching at Portland Community College (PCC) in Oregon after 32 years. During his tenure at PCC, he taught in the Electronic Engineering Technology Program from 1971 to 1993 and the Microelectronics Technology Program from 1993 to 2003. He also helped design and implement PCC's Computer Software Engineering Technology and Computer Field Service associate of applied science programs. Professionally, Mr. Hata is a member of IEEE, ASEE, and AVS. He has served as a TAC of ABET program evaluator and on the IEEE Committee for Technology Accreditation
Paper 2005-2156 A Pilot Study for a “Course-less” Curriculum R. L. Kolar, R. C. Knox, K. Gramoll, T. R. Rhoads University of Oklahoma, Norman, OK 73019AbstractIn 2002, we received an NSF planning grant (NSF EEC 0230681) that builds upon our SoonerCity project, which was funded through the Action Agenda program (NSF EEC 9872505).Briefly, Sooner City is a comprehensive, integrated, infrastructure design project that is threadedthroughout the OU civil engineering curriculum, beginning in the freshman year. For practicalpurposes, the original Sooner City project was implemented in the
maximum effectiveness, this integration oftenrequires development of higher education institutions offering educational programs orcoursework. A growing number of institutions have started investing on 3-D printers of variouskinds and integrate them into their engineering or technology education curriculum throughoutsystematic coursework that focuses on the main principles of the technology, so that theirstudents can receive instruction and experience on the design principles for 3-D printing, properselection of printing materials as well as proper operation techniques of the 3-D printingmachines and corresponding modeling and slicing software tools [5].This paper presents one such effort of integrating 3-D printing technology into
Session 2-1 Developing an Energy Literacy Curriculum at Baylor University Ian A. Gravagne Department of Electrical and Computer Engineering Baylor University Kenneth W. Van Treuren Department of Mechanical Engineering Baylor University AbstractAs part of the Southern Association of Colleges and Schools (SACS) accreditation effort at BaylorUniversity this past year, the authors proposed a unique course
59.2 % 2004 293,271,500 201,661,159 68.8 % 2005 299,093,237 203,824,428 68.1 % 2007 301,967,681 212,080,135 70.2 % 3 Table 1 Internet Usage and Population GrowthThe research done for this paper was a part of a National Science Foundation (NSF) CCLI Grantentitled, “MEMS Experiments With Web-Based Material for Solid Mechanics Courseware andLabs Nationally”. The main objective of the NSF grant was to develop and provide through theInternet an all MEMS Experimental Lab with web-based curriculum for an
. Page 26.431.1 c American Society for Engineering Education, 2015 Curriculum design for sustainability of global integrated macro- nano manufacturingAbstract:Integrating the scalable nanotechnologies into existing industrial systems is highly beneficial forimproving the quality, capability and performance of almost all kinds of industrial sectors.However, significant sustainability issues and challenges exist in the practical integration andsubsequent operations of the integrated macro-nano industrial systems, including increased wastegenerations, extra energy consumptions, additional greenhouse gas emissions, novel nano-particle emissions for occupational and public exposure
Session 1639 Integrating Engineering Economic Analysis Across the Engineering Curriculum Karen M. Bursic, Kim LaScola Needy, James P. Wilson University of PittsburghAbstractA three-phased project is underway in the School of Engineering at the University of Pittsburghthat is aimed at integrating engineering economic analysis across the curriculum. In the firstphase, an engineering economic analysis needs assessment was done. During the second phase ofthe project, the course content for the engineering economic analysis courses is being modifiedbased on the needs
Engineering Education” Session 3486EDWIN GOOLSBY is one of three Instructional Program Managers for the Florida Consortium for BiotechnologyWorkforce Development representing Hillsborough Community College (HCC). Ed’s responsibilities for theconsortium include overseeing HCC’s share of the curriculum development, module reviews and Beta Testing of thebiotechnology program development. Ed holds a BS in Management Information Systems (MIS) from the Universityof South Florida (USF) and an MBA and MS in MIS from USF. He is also an adjunct instructor in Computer Scienceat HCC. Ed has served on the Baldridge Steering Committee and the District Advisory Board
Curriculum Implementation of Biotechnology Minor in Industrial Technology Kari Clase Purdue University Abstract- Indiana’s health industry is an extremely important and growingeconomic engine1. Tremendous advances are being made in pharmaceutical andbiotechnology discoveries and their applications (including manufacturing), as well as inhealth care services. As a result, there is an increasing sophistication of the productsand services available and being developed, with an ever-widening scale of applicationsand marketing. The growth of biotechnology results in ever-expanding needs for collegegraduates who have knowledge of
and Computer Science (faculty) Curriculum Committee Freshman Mechanical Senate Educational Engineering Engineering Policy Committee Curriculum Curriculum Committee Committee Faculty of the Department Fig. 1. Curriculum development process Page 7.626.3 Proceedings of the 2002 American Society for Engineering Education Annual Conference &
AC 2010-218: INFUSING COMMUNICATION SKILLS IN AN ENGINEERINGCURRICULUMKristen Eichhorn, SUNY OswegoCara Thompson, SUNY OswegoDavid Vampola, SUNY OswegoFritz Messere, SUNY OswegoRachid Manseur, SUNY-Oswego Page 15.736.1© American Society for Engineering Education, 2010 Infusing Communication Skills in an Engineering CurriculumAbstractThe development of a new electrical and computer engineering program offers a rare opportunityto design an innovative and modern curriculum that incorporates important skills and content.The envisioned program is project-based and includes innovative and multidisciplinary aspectsin its curriculum, organization and its operation. This work
Nanotechnology Applications: Issues in Implementing Engineering Technology Curriculum Venkitaswamy Raju and Prema Muthuswamy School of Engineering Technologies State University of New York-Farmingdale Farmingdale, NY 11735A. IntroductionNanotechnology deals with working on matter at the molecular scale. It promises torevolutionize the way in which we live and change our world for ever. From the designand manufacture of electronics products to production of medicine and treatment ofpatients, nanotechnology offers enormous advantages over other technologies employedthus far. Educational institutions can help shape
tobe robust, repeated, and experienced over the course of the student’s college career.Another approach – Embedded technical writingIn 2016, the Mechanical Engineering curriculum at University of Detroit Mercy moved from thetraditional one-semester Technical Writing class offered through the English Department to anEmbedded Technical Writing approach. Among other “soft” or “people” skills, teamwork isdiscussed and practiced from day one through graduation. Over a series of five technical writingclasses from first through third year, students grow in their understanding of the value teams canbring to problem solving, project management and relationship development. Hands-on practiceand reflections help them internalize a teamwork approach to
the paper. The investigation includes the student’s initial opinionsregarding the impact of the new focus in the development of their professional skills andabilities.Keywords - Active Learning, ABET, Skills Professional, Skills of awareness, education, I. INTRODUCTIONThe Arequipa region of Peru has three universities with professional degrees in InformationSystems and Computer Sciences. A national and international analysis of current trends in thecomputing industry, the computing employment market, and the academic arena yield the needfor professionals in the field of Software Engineering. Over the past few years our San AgustinUniversity chose to change the scope of the educational degree to Software Engineering. Thechange to Software
Paper ID #5950Infusing Mechatronics and Robotics Concepts in Engineering CurriculumDr. Anca L. Sala, Baker College of Flint Dr. Anca L. Sala is Professor and Dean of Engineering and Computer Technology at Baker College of Flint. In addition to her administrative role she continues to be involved with development of new engineering curriculum, improving teaching and assessment of student learning, assessment of program outcomes and objectives, and ABET accreditation. She is an active member of ASEE, ASME, and OSA serving in various capacities
engineering projects, professionalism and reflection (metacognition). His research in the area of engineering education is focused on project-based learning, design and innovation, professionalism and self-directed learning.Mr. Ronald R Ulseth, Iron Range Engineering Ron Ulseth directs and instructs in the Iron Range Engineering program in Virginia, Minnesota and he teaches in the Itasca Community College engineering program in Grand Rapids, MN. He was instrumental in growing the Itasca program from ten students in 1992 to 160 students in 2010. In 2009, he worked with a national development team of engineering educators to develop the 100% PBL curriculum used in the Iron Range model. He has successfully acquired and
AC 2012-4186: LEARNING SCIENCES GUIDED HIGH SCHOOL ENGI-NEERING CURRICULUM DEVELOPMENTDr. Leema Kuhn Berland, University of Texas, Austin Leema Berland is an Assistant Professor of science education at the University of Texas, Austin. She earned a Ph.D. in the learning sciences from Northwestern University in 2008 and was a Doctoral Fellow with the NSF funded Center for Curriculum Materials in Science (2003-2008). Berland is broadly inter- ested in facilitating and studying students as they engage in complex communication practices. She is currently focused on exploring the dynamics of how and why students are able (or unable) to productively communicate in engineering classrooms, in the context of UTeachEngineering
University of Texas at Brownsville (UTB). Prior to join- ing the faculty at UTB he was a visiting professor at the Rochester Institute of Technology, Rochester, NY. Also, an Associate Professor of Production Engineering Technology at PSG College of Technology Bharathiar University, India, where he served as the Director of Computer Vision Laboratory and National Cadet Corps – Engineering Division Director. With over 26 years of teaching and research experience in manufacturing/mechanical engineering and engineering technology, he currently teaches in the areas of CAD/CAM/CIM, Robotics & Automation, Product and Process Design, Materials and Manufacturing processes, Machine Design, Renewable Energy and Micro
Session 1566 Implementation of a Systems Approach For Curriculum Design Ruben Rojas-Oviedo, Z.T. Deng, Amir Mobasher, A. Jalloh Mechanical Engineering Department Alabama A&M University, Huntsville, AL 35762 E-Mail: rojaso@asnaam.aamu.edu; aamzxd01@asnaam.aamu.edu; amobasher@aamu.edu; ajalloh@aamu.eduAbstractNowadays, engineering professional practice has reached a substantial level of sophisticationdistinct from the old practices, that reflected compartmentalization . This progress has cameabout by a better understanding of a
Paper ID #12933Curriculum Exchange: Integrating STEM with Local Community NeedsDr. William ”Bill” C. Oakes, Purdue University, West Lafayette William (Bill) Oakes is the Director of the EPICS Program and one of the founding faculty members of the School of Engineering Education at Purdue University. He has held courtesy appointments in Mechanical, Environmental and Ecological Engineering as well as Curriculum and Instruction in the College of Education. He is a registered professional engineer and on the NSPE board for Professional Engineers in Higher Education. He has been active in ASEE serving in the FPD, CIP and ERM. He
professor in the Engineering Education Department and an adjunct faculty in the Civil and Environmental Engineering at Virginia Tech. His research interests are in the areas of sustainability, computer-supported research and learning systems, hydrology, and water resources. In a major ($1M+, NSF) curriculum reform and engineering education research project (2004-09), he led a team of engineering and education faculty to reform engineering curriculum of an engineering department (Biological Systems Engineering) using Jerome Bruner’s spiral curriculum theory. Currently, Dr. Lohani leads an NSF/REU site on ”interdisciplinary water sciences and engineering” which has already graduated 45 undergraduate researchers since 2007
Session 1657 Implementation and Assessment of Industrial Engineering Curriculum Reform Sigurdur Olafsson, Kevin Saunders, John Jackman, Frank Peters, Sarah Ryan, Veronica Dark, and Mary Huba Iowa State UniversityAbstractWe describe a curriculum reform project that aims to improve the industrial engineeringcurriculum through a web-based learning environment that engages students in active andcollaborative learning. This environment focuses on engineering problems solving, increasedinformation technology content, and the higher order cognitive skills