Engineering Education OR Just Education Keith M. Gardiner Lehigh UniversityCenter for Manufacturing Systems Engineering200 West Packer Avenue, Bethlehem, PA 18015 kg03@lehigh.edu 1-610-758-5070 298 Engineering Education OR Just Education KEITH M. GARDINER Lehigh University Center for Manufacturing Systems Engineering 200 West Packer Avenue, Bethlehem, PA 18015 kg03@lehigh.edu 1-610-758-5070Abstract“Engineering Education for the Next Decade,” but let’s stretch and think farther out.Various national and international projections address
STEM Education with Innovation and Entrepreneurship Ravi Shankar, Center for Systems Integration, College of Engineering and Computer Science, Florida Atlantic University, Boca Campus, Boca Raton, FLFrancis X McAfee, School for Communication and Multimedia Studies, College of Arts and Letters, Florida Atlantic University, Broward Campus, Ft. Lauderdale, FL Michael Harris, Anthropology, College of Arts and Letters, Florida Atlantic University, Boca Campus, Boca Raton, FL Norman Silva, Founder and Art Director, Silva Animation Studio, Inc, Ft. Lauderdale, FL Georgiana Carvalho, Assistant Professor
Engineering For AllThe Temple University Department of Mechanical Engineering General Education Courses PAUL FAGETTE Department of Mechanical Engineering, Temple University, Philadelphia SHIH-JIUN CHEN Department of Mechanical Engineering, Temple University, Philadelphia GEORGE R. BARAN Department of Mechanical Engineering, Temple University, Philadelphia SOLOMON P. SAMUEL Department of Orthopedic Surgery
carefully balanceengineering science, information technology and multidisciplinary studies. This willinclude how to use information technology more effectively to learn, and to manageknowledge. Engineers will need more exposure to learning experiences involvingopen ended problems requiring collaboration of diverse multidisciplinary teams.Addressing America’s innovation concerns will also require engineering schools toinnovate. At SPSU, we have used an honors course focused on bringing a new productto market to introduce students to working on diverse multidisciplinary teams andto learn the body of knowledge of new product design and development. Theinnovations that are being called for in engineering education may prove to bedisruptive if only
Education and the Hanger Orthopedic Group. When looking for patient reimbursements to offset the cost of purchasing our device(s) examine applicable Center for Disease Control and Prevention (CDC) codes, collaborate with the Veterans Association to recruit their patients and establish a medical necessity on their letterhead. Under Pub Med, carefully examine the ‘first paragraph’ and not the abstract to see if the information you seek is available in the document. 450 Under Institutes, look for ‘neuro’ and stroke to locate related organizations. Cross referencing tools: Review engineering- BME- FDA- regulations- CFR- CDC- Traumatic Brain Injury (TBI
. SIAM Working Group on CSE Undergraduate Education, Peter Turner and Linda Petzold Co-Chairs, Undergraduate Computational Science and Engineering Education, SIAM Review, Vol 53, No. 3, pp 561-574. 2. Little, Leigh J., The Computational Science Major at SUNY Brockport, Future Generation Computer Systems, Vol 19, 2003, Pp 1285-1292. 3. Davis, Timothy A., MAtlab Primer 8th ed., CRC Press, 2010. 4. Turner, Peter R., Teaching Scientific Computing Through Projects, J of Eng Ed. 90 (2001), PP. 79-83. 23
civil engineering infrastructure. Lately, ASCE has been developing a sustainabilityrating system. It is intended to address the widening gap between actual infrastructure needs andavailable funds to tackle these needs. ASCE has embarked on a mission to educate civilengineers about the new Sustainable Infrastructure Project Rating System spearheaded by theASCE Committee on Sustainability. Partners in this effort are American Council of EngineeringCompanies (ACEC) and American Public Works Association (APWA). It is also anticipated thatthe Federal Highway Administration (FHWA) and the U.S. Army Corps of Engineers will play apivotal role in refining current efforts into a comprehensive rating system to address widersustainability goals.In its
energy being used real-time. This project wasdisplayed in the recent UG Symposium and reviewed by the Provost who was very pleased withthe results.We can effectively meet the needs of student and industry by providing the engineeringtechnology student with a comprehensive design experience that closely matches thatencountered by professional design engineers. We can seek to develop the communication andteaming skills that are an inherent and vital part of design activity and address the need topromote the creative capabilities of the entering student 3.Bibliography 1. Wojciechowski, m., PT in Motion, Bright Ideas: PT’s as Inventors, p.22, February, 2011. 2. Lyons, H., Engineering Technology Collaboration with Industry. ASEE Mid-Atlantic
." College And University 59(1): 74-86.7. http://engineering-innovation.jhu.edu/8. Gore, P. A. (2006). "Academic self-efficacy as a predictor of college outcomes: Two incremental validity studies." Journal of Career Assessment 14(1): 92-115.9. Kirst, M. W. (2004). "The high school/college disconnect." Educational Leadership 62(3): 51-55.10. Urrestarazu, L. P., A. F. Salas, et al. "Multidisciplinary Education for New Landscape Engineering Concepts using Problem-Based Collaborative Learning. A Case Study in Spain." International Journal Of Engineering Education 27(1): 138-145.11. Kathleen Dowell, 2011, “Evaluation of the engineering innovation program” report prepared for Whiting School Engineering, Johns Hopkins University
Understanding Globalization for the 21st Century Engineer Dr. S. Jimmy Gandhi, Stevens Institute of Technology Dr. Michael McShane, Old Dominion UniversityDR. S. JIMMY GANDHIHe is a faculty member in The School of Systems and Enterprises at Stevens Institute ofTechnology in Hoboken, NJ. His research interests include risk management, globalizationand engineering education. Currently he is co-authoring a book on Systemic RiskManagement and another one on Case Studies in System of Systems Engineering (SoSE). Dr.Gandhi got a PhD in Engineering Management at Stevens Institute of Technology, a Mastersin Engineering Management at California State University, Northridge and a Bachelors
science from the University ofMissouri, Columbia. Email her at: sduggins@spsu.edu.VENU DASIGIVENU DASIGI is currently professor and department chair of Computer Science andSoftware Engineering at Southern Polytechnic State University (SPSU) in Marietta, Georgia.He has Ph.D. and M.S. degrees in computer science from the University of Maryland, CollegePark. He has taught for about 25 years in higher education, which includes developing andteaching online courses in data structures and mathematical structures for computerscience at SPSU. Dasigi is a Commissioner with the Computing Accreditation Commissionof ABET, Inc. 138 Teaching Software Engineering and ComputerScience Online Using Recent Instructional
, researches, and publishes on design education, withcurrent interests in using the Cloud computing, global design, and rapid prototyping. 404 Self-Replicating Open Source Rapid Prototyping in the Engineering Classroom From its genesis as a lark in the home basement lab of the senior author in the fall of2010, the [Area] Reprap Project grew rapidly. It was offered a a group research project inSpring semester 2011 and 10 students quickly signed up and spent the semester buildingthree functional RepRap fused-filament printers. In Fall 2011, it has evolved into aninnovative course using a wiki as its textbook, a grading system based in “experiencepoints” (XP
Expanding access to engineering, science, and technology with an online pre-matriculation program VALERIE LUNDY-WAGNER New York University IRAJ KALKHORAN MELINDA PARHAM YONA JEAN-PIERRE HAANG FUNG LINDSEY VANWAGENEN Polytechnic Institute of New York UniversityVALERIE LUNDY-WAGNERDr. Valerie Lundy-Wagner is an Assistant Professor and Faculty Fellow in the HigherEducation Program at New York University. Her research focuses on student- andinstitution
by theAmerican National Standard Institute (ANSI) in collaboration with the International StandardOrganization (ISO). In their everyday practice, engineers use a variety of software products as users andalso as developers of specialized software systems. This is the reason SE represents an indivisible part ofthe engineering projects [5, 9]. 708 Figure 1. Steps in developing engineering projectsResearching Engineering curricula, which are different than Computer Engineering (CE) curricula, itwould be interesting to understand if the computing courses included in them provide students with theneeded computing knowledge and skills [6, 14].2. Computing Courses in
Computational Project-Based Learning”, Latin American and Caribbean Journal of Engineering Education (LACJEE), Vol. 4, No. 2, pp. 31-38, 2010. © LACCEI, ISSN 1935-0295.[4] Bolton, William, Mechatronics: A Multidisciplinary Approach, 4th Edition, Prentice Hall, 2008.[5] He, Shouling, “A hardware platform for implementing control system designs on the Quanser DC motor control trainer”, Proceedings of the ASEE St. Lawrence Section, Excelsior College, March 18- 19, 2011, Albany, NY.[6] Daryl Gruar, “Automation Process of “King Air” Aircraft-Cargo Door Design”, presented at the ASEE Conference for Industry and Education Collaboration (CIEC), February 3-5, 2010, Palm Springs, CA.[7] Brian Linhares, Sharifa Happy, “Agricultural Improvements
component addresses the issues on how to form effective concurrentengineering team, what organization forms best support the innovative needs of concurrent engineering, timemanagement, how to select team leaders and team members.This research collaborative work in concurrent engineering among the faculty members in the MechanicalEngineering Technology and Computer Engineering Technology departments is funded by the NationalScience Foundation Advanced Technology Education Division (Award No. DUE-1003712) recently awardedto New York City College of Technology.IntroductionOver the past twenty years, concurrent engineering has emerged as the preferred systematic engineeringapproach and the de facto business strategy to solve engineering problems by
industrial engineering,engineering quality management, project management, concurrent / simultaneous greenproduct / process design, visual lean factory management, and continuous professionaleducation. 557IntroductionMillennial generation students are interested in an integrated, simultaneously analytical,computational, interactive, as well as practical, real-world-focused, customized education.They expect a large number of choices, because they understand the power of simulation.They are very visually focused, because this is the video gaming generation. They wantpersonalized, customized products, processes and service, and their education process isnot an exception. They look for technical details, and want
expertise is in Manufacturing, Robotics andComputational Mechanics.NIEVES ANGULO, ED.DMathematics Dept. Hostos Community College, Bronx, New York is an Associate Professorin the Mathematics Department and the Coordinator of the Engineering Program in thedepartment. She has a pure B.A. and M.A. in Mathematics from Hunter College of CUNY, andan M.S and Ed.D in Mathematics Education from Columbia University. She has been veryactive in externally funded initiatives dedicated to improve proficiency in STEM educationincluding collaborative projects with NSF, DoE and NASA. 101 Undergraduate Research Through NASA InitiativesAbstractThere was a common belief that research should only be introduced
(Powerpoint). Working in collaboration with a visual artsfaculty member in the department of Fine Arts a review of first year problem solving designpresentations was conducted. A side by side comparison of the original and revised presentations ledto some conclusions about best practices and elements of visual presentation design to teach toengineering students. This was presented to a subsequent year’s class of students to improve theirpresentations. An evaluation rubric is being developed for this year’s class as a baseline for refiningthe education of students in visual literacy. This is a crucial but often neglected element for everystudent, but especially in an engineer’s education.INTRODUCTIONA version of a first year introduction to
School ofEngineering Mathematics and Science (SEMS) energy curriculum. In the fall semester of the2010 school year at Robert Morris University, SEMS began laying the groundwork for whatis now an alternative energy minor. This is an interdisciplinary minor that was developedthrough the combined efforts of engineering and science faculty. The curriculum was basedon the currently available expertise in environmental science and engineering. Theinitiative began as a collaborative effort and after multiple meetings and the consent of theuniversity registrar; the minor was offered to the students and has achieved a verypromising enrollment in the first semester of its offering. The alternative energy minor iscomprised of three capstone courses and two
Development of a Computer Skills Class for Older Adults Using a Service Learning ModelDIANA SCHWERHA, PhDDiana J. Schwerha is an Assistant Professor in the Department of Industrial and SystemsEngineering in the Russ College of Engineering and Technology at Ohio University. Dr. Schwerha’sresearch interests focus on applying ergonomics to retain older workers and designing usabletechnologies. She teaches courses in ergonomics, statistics, and quality control and is a trained SixSigma Black Belt.AARON JONESMr. Jones is a graduate student in the master’s degree program in Industrial and SystemsEngineering in the Russ College of Engineering and Technology at Ohio University. He researchinterests
and Engineering Educators Association(ITEEA), technology is defined as human innovation in action that involves the productionof knowledge and progressions that will develop systems to solve problems and lengthenhuman competencies. Technology also involves advancements, transformations, ormodification of the natural environment to satisfy professed requirements and desires(http://www.iteaconnect.org). With continuous advancements, transformations, andmodifications, the community stands at the vanguard of constant need for technologicaltraining and assistance. This renders a need for service. To assist in fulfilling this need,technology students should participate in service learning activities to enhance theirawareness of societal needs, and
of nuclear engineering concepts tailor thelaboratory experience to cadets beginning with little understanding of the behavior of nuclear reactors tosuccessfully equip them with more advanced knowledge and a fuller understanding of nuclear reactors.ConclusionsThe collaborative effort between USMA and RPI proved to be successful. RPI’s pilot program to createand export blended learning laboratory modules proved to be very beneficial to the cadets’ learning andgave them experience that they would not have had otherwise. NE Faculty at West Point also gainedvaluable insights into the educational benefits of blended learning laboratories and learning in a virtualenvironment.The survey results offer a valuable assessment of the nuclear reactor
the following reasons: 1. To ascertain the relative benefit of using a peer-to-peer active learning technique with a first semester freshman class. 2. To encourage students to communicate, provide teamwork practice and encourage learning techniques for self-directed continuing professional development − all of which are criteria of the “Program Outcomes for Engineering Technology Programs” by the Accreditation Board for Engineering and Technology (ABET)15 and part of the American Society of Engineering Education (ASEE) Green Report – “Engineering Education in a Changing World.” 3. To add variety to a nearly 3 hour lecture class that does not have a laboratory component beyond soil sieve testing, thus
in theCollege of Engineering. Dr. Schuhmann’s industry experience includes offshore geophysicalexploration and onshore work as an environmental consultant. His teaching reaches acrossthe engineering, entrepreneurship and leadership curricula, with a focus on sustainability& global collaboration. 188 Conflicting Models of the Product Life Cycle: Worldviews and the Design of Technology AbstractIn teaching engineering design we often use an ecosystem perspective on the product life cycleof extraction through disposal. Yet other views of the product life cycle exist, such as thebusiness model, the diffusion model, and various