a cutting edge business plan for the Mesir product. • Turkish and American cultural interaction was another great outcome of this initiative. Both student and faculty teams worked and collaborated jointly for the full success of the project.ISL course was a new initiative successfully organized and operated by TTU. Students andfaculty jointly worked with their counterparts in CBU. The Mesir Paste research groupsuccessfully completed its tasks and deliverables in the Spring 2012 semester. Then, a studentand faculty team from CBU came to TTU in June of 2012. The team completed volunteer workon the Free Hill Community Center’s on-going maintenance projects. The center is a century oldand a historically black community’s
rather than collaborative teamenvironment.IntroductionA method of assigning credit for group work that accurately represents individual effort within agroup has been long sought out by instructors. Students also desire an equitable method of Page 24.66.2assigning group grades. Having a teammate that is a “hitchhiker” is one of the major reasons forstudents’ dissatisfaction with group work1. The College of Engineering at the University ofNevada, Reno offers a first-year general engineering course that contains a large group workcomponent. Individual grades are a reflection of a student’s actual understanding of the coursematerial, whereas the
Paper ID #9218A versatile platform for programming and data acquisition: Excel and VisualBasic for ApplicationsDr. Harold T. Evensen, University of Wisconsin, Platteville Hal Evensen earned his doctorate in Engineering Physics from the University of Wisconsin-Madison, where he performed research in the area of plasma nuclear fusion. Before joining UW-Platteville in 1999, he was a post-doctoral researcher at the University of Washington, part of group that developed automation for biotechnology. His recent research includes collaborations in energy nanomaterials
active learning. It isfound that there is broad but uneven support for the core elements of active, collaborative,cooperative and problem-based learning. Experimental-learning7 is another approach gainingmuch attention recently for engineering education. Constans and Kadlowec8 used a long-termgreen design project to integrate the mechanical engineering curriculum.The teaching-learning model adopted by the author and presented by this paper is a combinationof several aforementioned engineering pedagogical models, including PBL, SBL, andexperimental-learning. There is a major ECE curriculum revision taking place in the author’s Page 23.280.2school
of the makercommunity. This is different than the common perception of a hacker as a malicious computeruser. Honey and Siegal4 describe hacking activities: “[I]nformal groups are collaborating to create innovative software and interactive devices, many of which are freely shared through open source licensing agreements” 4Hackers innovate or modify for some purpose and then share the ideas with the community.Hacker also appears in the context of do-it-yourself manufacturing, where individuals createdevices to suit their own unique purposes. Sangani7 talks about a new modular electronicsproduct that would allow users to customize their own hardware similar to what those who tookpart in the open source software movement had done. It
in the elds of engineering mechanics, robotics and control systems; precision agriculture and remote sensing; and biofuels and renewable energy. Dr.Nagchaudhuri received his bachelors degree from Jadavpur University in Calcutta, India with a honors in Mechanical Engineering in 1983, thereafter, he worked in a multinational industry for four years before joining Tulane University as a graduate student in the fall of 1987. He received his M.S. degree from Tulane University in 1989 and Ph.D. degree from Duke University in 1992.Dr. Corinne Johnson Rutzke, Corinne Rutzke Dr. Corinne Johnson Rutzke is a Senior Research Associate in the Department of Biological and Envi- ronmental Engineering at Cornell University
University) have been collaborating with several elementary schools inan urban school district to infuse engineering into their second, third, the fourth gradecurriculum. The support we provide includes teacher professional development, books, lessonplans, and staff support. The elementary teachers come to a week-long professional developmentworkshop in the summer to learn about what engineering is, what engineers do, and howengineers use design process to solve real-world problems. Teachers learn to incorporate scienceand mathematics standards into the engineering curricula. They are also given opportunities topractice teaching engineering design process to young students at summer camps before usingthese new skills in their own classrooms
Paper ID #7973A Multidisciplinary Hydroelectric Generation Design Project for the Fresh-man Engineering ExperienceDr. Michael W. Prairie, Norwich University Dr. Prairie is an Assistant Professor of Electrical and Computer Engineering at Norwich University in Vermont where he teaches electrical engineering courses and guides undergraduate student research in electrical system design. Prior to joining Norwich he spent 10 years in industry developing sensor systems after serving as an officer managing Science & Technology development programs for 15 years in the United States Air Force (USAF). He holds a PhD in
responsibility in the context of an engineering graphics class. The goal ofthe project is to cement the course content and assist students early in their school career todecide if engineering is a good choice for them. The project is to reverse engineer, from ageometry perspective, a real assembly of significant complexity. The course has developed overtime to make the project very memorable and successful. Examples of projects includeinstruments, computer systems and peripherals, toys and industrial equipment (Fig. 3). This onesemester course is the student’s only formal engineering graphics training. The topics coveredinclude hand sketching, dimensioning, projections and use of the computer aided design (CAD)package to generate parts, assemblies and
worked as an Engineer and Research Intern at Burelbach Industries, Hewlett-Packard Corporation, and Mitsubishi Silicon America. From 1997 to 1998 he worked as a full-time Instructor of Electronics Engineering Technology at Linn-Benton Community College in Albany, OR. From 1998 to 2006 he worked as a full-time Instructor at Heald Institute of Technology in Portland, OR where he taught classes in Electronics Engineering Technology, General Physics and Mathematics. He went on to join the faculty at George Fox University in 2006 where he became an Assistant Professor in the Department of Engineering. In 2008 he received the Ph.D. degree in Applied Mathematics and Mathematics Education Research from Oregon State University
,” Journal or Engineering Education, July 2001, pp. 389-395. 14. Dutson, A.J., “A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses,” Journal of Engineering Education, v. 86, no. 1, 1997, pp. 17-28. 15. Pimmel, R., “Cooperative Learning Instructional Activities in a Capstone Design Course,” Journal of Engineering Education, July 2001, pp. 413-421. 16. Shirland, L. E., “Collaborative Teaching of Integrated Product Development: A Case Study,” IEEE Transactions on Education, v. 43, no. 3, August 2000, pp. 343-348. 17. Davis, D.C., et. al., “Engineering Design Assessment Processes and Scoring Scales for Program Improvement and Accountability,” Journal of
, operate it, and reason as to whether or not the solutions make sense. The authors believe thatthe project will bring excitement to the introductory dynamics course and renew the student’s interest inthe subject and engineering in general. Anyone who is interested in obtaining the student assignmentsand solutions can contact any of the authors through e-mail.Bibliography1. Magill, M.A., "Classroom Models for Illustrating Dynamics Principles, Part I - Particle Kinematics and Kinetics," CD- ROM Proceedings of the 1997 American Society of Engineering Education (ASEE) Annual Conference and Exposition, Milwaukee, WI, June 15-18, 1997.2. Constanzo, F. and Gray, G.L., "Collaborative Learning in Undergraduate Dynamics Courses: Some Examples
program at the University of Arkansas at Little Rock. A recent web-based surveyreported a decline of as high as fifty percent in past ten years in the enrollments of electronicstechnology1. The drop in enrollments may fall below economic viability leading to downsizing orcancellation of programs. At the same time, industry personnel want us to produce more qualitygraduates. The university administration wants to see a reversal in the declining trend and ispushing the department to be actively engaged in student recruiting. The engineering technologyfaculties have taken an active role in this effort and they have been accompanying the university’srecruiting personnel on a regular basis to ‘college nights’ at high schools for recruiting purpose.On
be chosen from many possibilities: a three-levelor five-level Likert scale, a zero-to-10 scale, or (as in this work) a 0, 1, 3, 9 scale typically used inQuality Function Deployment Diagrams.4Results of Using the MatrixWe implemented this approach in an introductory general engineering class for transfer students(ECE 200). The students represented aerospace, biomedical chemical, civil, computer systems,electrical, materials, mechanical, and industrial, engineering majors, as well as computer scienceand construction majors. The first two authors had each taught this course several times, andhad collaboratively developed all course materials and learning activities. The authors eachevaluated all of the learning activities against each of the
college coursework according to a 2011 ACT study The Bureau of Labor Statistics projects a need for 178,000 more engineers in the next decade with the fastest growth in biomedical, civil, environmental, industrial, and petroleum engineering While there are about 70,600 engineering bachelor degrees awarded annually in the US, only 4.3 percent are awarded to African Americans (12 percent in the U.S. population) and 7.8 percent to Hispanics (16 percent in the U.S. population) 1Given the confluence of the rapid demographic changes that are occurring in America, theimpending retirements of a significant portion of our exiting STEM workforce, and the necessityto blunt the slide in science and technology leadership and competitiveness
qualified nanotechnology workers for the next two decades is estimated to be in the millions.Broad impact can be achieved by curricular enhancement and reform at the undergraduate level.Curricular enhancement, if it aims to be comprehensive, needs to ensure that students areexposed to the technical aspects as well as social, economic and ethical impacts ofnanotechnology that numerous researchers are exploring seriously. This paper reports activitiesand findings of a team of engineering, science, and education faculty members, who are activelyinvolved in nanomaterials-based research and have been collaborating with each other for thepast several years to enhance undergraduate nanoscience and engineering education in the areaof devices and systems
AC 2012-3350: IMPLEMENTATION OF AN UNDERGRADUATE RESEARCHCOURSEDr. Adrian Ieta, Oswego State University College Adrian Ieta received a B.Sc. degree in physics from the University of Timisoara, Timisoara, Romania, in 1984, a B.E.Sc. degree in electrical engineering from the Politehnica University of Timisoara, Timisoara, in 1992, and a M.E.Sc. degree and a Ph.D. degree in electrical and computer engineering from the University of the Western Ontario, London, ON, Canada, in 1999 and 2004, respectively. He was with the Applied Electrostatics Research Centre and the Digital Electronics Research Group, the University of Western Ontario, where he worked on industrial projects and taught. He is currently an Assistant
Ph.D.M.E. in 2006 from Texas A&M University. His research interests include computational fluid dynamics, rotor dynamics and turbo machinery, industrial power generation and refrigeration, heat transfer, fluid power, education, and the use of technology in education. He teaches courses in the area of thermal and fluid sciences, such as fluid power, applied fluid mechanics, thermo- fluid laboratory, and wind power systems. He holds memberships in ASME, AIAA, and ASEE.Dr. Rob Garrick, Rochester Institute of Technology Robert D. Garrick, Ph.D., P.E., is Associate Professor in the Department of Manufacturing and Mechanical Engineering Technology at the Rochester Institute of Technology (RIT) and thermo-fluids curriculum Co
AC 2012-3484: INTEGRATING THE MECHANICAL ENGINEERING CUR-RICULUM USING A LONG-TERM GREEN DESIGN PROJECT PART 1:THE HYBRID POWERTRAINDr. Eric Constans, Rowan University Eric Constans is Chair of the Mechanical Engineering program at Rowan University. His research interests include engineering education, design optimization, and acoustics.Dr. Jennifer Kadlowec, Rowan UniversityProf. Krishan Kumar Bhatia, Rowan UniversityDr. Hong Zhang, Rowan UniversityDr. Tom Merrill, Rowan University Tom Merrill is an Assistant Professor in mechanical engineering. He teaches thermal fluids courses. Prior to coming Rowan University, he worked in the air conditioning and medical device industries. Currently, he works on developing new ways
designed several models of high frequency oscilloscopes and other electronic test and measuring instruments as an entrepreneur. He has delivered invited short courses in Penang, Malaysia and Singapore. He is also the author of a textbook in power electronics, published by Prentice-Hall, Inc. His professional career is equally divided in academia and industry. He has authored several research papers in IEEE journals and conferences. His current research is focused on renewable energy technology, smart energy grid.Prof. Ashfaq Ahmed, Purdue University, Calumet Ashfaq Ahmed is a professor of the Electrical and Computer Engineering Technology Department at Purdue University, Calumet. Ahmed received his bachelor’s of science
Assessment Research for the Institute for P-12 Engineering Research and Learning (INSPIRE) at Purdue University. Prof. Cardella earned a BSc in mathematics from the University of Puget Sound and a MS and PhD in Industrial Engineering from the University of Washington. Her research interests include: K-12 engineering education, engineering design, the role of parents in engineering education, assessment, learning in informal environments, and mathematical thinking.Senay Purzer, Purdue University Senay Purzer is an Assistant Professor in the School of Engineering Education at Purdue University. She is also the Co-Director of Assessment Research for the Institute for P-12 Engineering Research and
Institute for P-12 Engineering Research and Learning (INSPIRE) at Purdue University. Prof. Cardella earned a BSc in mathematics from the University of Puget Sound and a MS and PhD in Industrial Engineering from the University of Washington. Her research interests include: K-12 engineering education, engineering design, the role of parents in engineering education, assessment, learning in informal environments, and mathematical thinking.Senay Purzer, Purdue University Senay Purzer is an Assistant Professor in the School of Engineering Education at Purdue University. She is also the Co-Director of Assessment Research for the Institute for P-12 Engineering Research and Learning (INSPIRE). She
and vestibular systems through development of focused electrical stimulators and novel sensors. Before completing her Ph.D. she researched the detection of breast cancer with ultrasound imaging at the University of Michigan’s Department of Radiology (1997-1999). Her industry experience includes embedded systems software development at Microware Corporation, Des Moines, IA (1996-1997), local operating network applications development and support at Motorola Semiconductor in Austin, TX (1994-1995), and research and clinical fabrication of controlled-release drug delivery systems at Alza Corporation in Palo Alto, CA (1986-1990). Dr. Bhatti is also a program faculty member of the Interdisciplinary
people and nations; in thecourse of two generations the gap between the industrial and the developing regions narrowedsubstantially everywhere; the overall poverty, when defined by health of population and lifeexpectancy, as well as by income has diminished [06]. By the other hand the results ofglobalization have not been what was predicted when the attempt to increase free trade began,and many institutions involved in the system of globalization have not taken the interests ofpoorer nations, the working class, and the environment into account; developed countries are thelargest beneficiaries of this system and they are becoming richer while the developing countriesare becoming poorer.The discussions about Globalization in general show a bad
contemporary products and services thatmeet societal needs 1. As Ireland endeavours to be a “Top 5 global economy by 2020”a joint task force of the Irish Academy of Engineering and Engineers Ireland proposea vision for a knowledge-based economy which would place the island of Ireland tothe forefront of global economics. Achieving a growth rate of 4.5% annually is Page 15.273.2predicated by close collaboration between government and relevant educational andprofessional institutions to foster innovation2.The response by this task force also highlights that the entire island (both north andsouth) has fallen behind leading economies in terms of research and
. Page 10.107.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationMcManus, and Segner (1991), are of the view that visualization will take many forms in theconstruction industry. The generation and manipulation of three dimensional models of aproposed project using sophisticated three dimensional modeling techniques to hypotheticallybuild and test a facility while it is still in the design development stage is one of the importantuses of visualization. Senior designers, construction managers, and client specialists use themodel to "visualize" both the construction and operation of the facility. Critical
of Business and Management, Meiho Institute of Technology, Taiwan(2) Department of Industrial Technology Education, National Taiwan Normal University, Taiwan(4) Department of Computer Science and Information Management, Hungkuang University, Taiwan(5) Department of Engineering Science, National Cheng Kung University, Taiwan ABSTRACT The purpose of this study was to explore students’ learning satisfaction when applyingconcept mapping with computer assisted teaching tools and to reveal students’ learningprogress in Nanometer course. The research method adopted in depth interviews. A total of sixparticipants from the Nanometer course at National Kaohsiung University of Applied Sciencesin Taiwan
Design), and Industrial Design.These student groups were clearly our target audience.6. Re-Stating the student learning objectives To rephrase Byars’ technology literacy compounds in terms more responsive toour NCSU undergraduate distribution requirements, the following statement appears inour current new course description:“Students in this course will: (1) Develop a basic conceptual framework and vocabulary for describing thetechnical and historical origins of modern technological devices (2) Explain the conceptual operating bases of current and prior technologieswhich address similar societal needs (3) Develop an understanding of the relationships between technical subsystemsof a device (e.g., the optical
. Currently, the course is taught without industrial sponsorship, to provide teamswith more flexibility for brainstorming product ideas.The course is separated into 6 main subject areas: • Project proposal o Team creation o Brainstorming o Market survey o Competitive and patent analysis • Specification development o Identifying marketing and engineering requirements Page 9.859.1 o House of Quality “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American
uncoordinated, to the wrong level and/or in the wrong direction. The challenge then has been to find approaches that to some meaningful degree improve theability of engineering and engineering technology students to solve increasingly complex andopen-ended technical problems. Two general approaches are recognized for the post-secondaryinstitutions: First, colleges can seek effective ways to collaborate with the K-12 systems to improvepreparation of students. Some initiatives are taking this arguably long-term, yet foundationallywise, approach.[1,2,3,4] Better problem solving abilities can help all students too, not just thosewho might enter science, engineering or technology fields. Second, colleges can seek better approaches to