Three-Dimensional Microelectromechanical Systems (MEMS) Structures Assembled from Polysilicon Surface Micromachined Elements Containing Continuous Hinges and Microrivets Matthew D. Ruff and Edward S. Kolesar* Department of Engineering Texas Christian University Tucker Technology Center TCU Box 298640 2840 Bowie Street, Fort Worth, TX 76129 USA PH: 817-257-6226 FAX: 817-257-7704 e-mail: e.kolesar@tcu.edu*Faculty Research Mentor
more tools and shows them where they can find support.Mastering EngineeringStudents often feel that they have a good understanding of the material in class. However, whenthey try to do the homework, they often encounter difficulties. They then have to wait to meet atutor or instructor to ask a question and so valuable study time and interest is lost. MasteringEngineering is an online component of the textbook that our university uses. Homework usingMastering Engineering has been a useful tool by giving immediate feedback and help to students.Leveling the Playing FieldIn this age of technology, everyone has access to solutions of homework problems. Some studentschoose to use the solutions when they can access it, while others don’t. To be fair
Paper ID #8144Image Analysis of Microfluidics: Visualization of Flow at the MicroscaleDr. Michael G Mauk P.E., Drexel UniversityDr. Richard Chiou, Drexel University (Eng.)Dr. Vladimir Genis, Drexel University (Tech.)Mr. Eric Carr, Drexel University Mr. Eric Carr is currently the laboratory technician for Drexel University’s Engineering Technology program. Carr assists faculty members with the development and implementation of various Engineering Technology courses, and enjoys finding innovative ways to use microcontrollers and other technologies to enhance Drexel’s Engineering Technology course offerings. Eric holds an M.S. in
Session 3420 Abstraction in Computer Network Education: A model based approach G. Kohli, S. P. Maj, G. Murphy & D. Veal Edith Cowan University, Perth, WA, AustraliaAbstractRapid developments in network technology have resulted in the inclusion of ACM/IEEErecommendations for Net-Centric computing as a part of the Computer Science UndergraduateBody of Knowledge. Accordingly ACM/IEEE networking curriculum now represents anincreasingly significant component of Computer Science curriculum. Furthermore, relativelyinexpensive equipment, such as switches and
used for class-oriented lab configurations and for various configurations required for researchprojects that use the same machines.IntroductionThe competitive world of information technology has placed postsecondary educationalinstitutions in a never ending battle to provide students resources needed in order to study theconstantly changing and evolving field of information technology. The pressures to keep up Page 9.1037.1with new technologies are seemingly unlimited, while the resources that are needed are not³. Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
integrating cutting-edge technologies into industrial automation. Inaddition, this project is designed to assist engineering technology students learn the integration ofmechatronic system components, robot programming fundamentals, articulated robotconfigurations and movements, and the evolution of human–robot collaboration in modernindustry.IntroductionThe integration of the electrical activities of the human brain with electromechanical devices todevelop mind-controlled systems has become one of the most cutting-edge research topics in thefields of neuroscience, biomechatronics, human-computer interaction, robotics, and fourthindustrial revolution known as Industry 4.0. This interdisciplinary effort brings together expertsfrom different domains to
AC 2012-5124: REAL-WORLD APPLICATIONS OF MATHEMATICALAND SCIENTIFIC PRINCIPLES IN THE CURRICULUM FOR COLLEGEAND CAREER SUCCESSDr. David I. Spang, Burlington County College David Spang is the Vice President of Academic Programs at Burlington County College in Pemberton, N.J. Prior to being named Vice President, Spang served as Dean of the Science, Mathematics, and Tech- nology Division. Spang holds a Ph.D. degree in materials science and engineering and a M.B.A. degree, with a concentration in innovation and technology management. Prior to joining academia, Spang spent nearly 20 years in R&D and business development.Dr. Kathleen Spang, Middlesex Boro High School Kathleen Spang has been a high school educator for
next challenge involved working on joint designprojects with another university. Here student teams from Loyola Marymount University (LMU)collaborated with students’ teams from East Tennessee State University (ETSU) on joint projectsfor a “New Product Development” graduate course. The ipTeamSuite software was used fordata exchange, information sharing, messaging, and group scheduling and design documentation.This paper represents the formation of joint courses and teams between LMU’s Engineering andProduction Management and MBA graduate programs and East Tennessee State University’s(ETSU’s) Engineering Technology Department. The courses also involved industrial consultantsfrom TRW and Boeing, who were experts in concurrent engineering and
foundation of many upper-level engineering courses. Dynamics, inparticular, is a challenging subject for many students, partly due to the difficulty of visualizingsome of the important concepts. With the explosion of digital technologies in recent years,computer simulation and animation have drawn great interest as a tool to teach and learnDynamics. The concepts and problem-solving processes are presented in a dynamic environmentthat allows interactivity. Students can observe and interact with computer representations ofphysical phenomena, and develop deeper understanding of critical concepts. This paperintroduces the so-called MechGames (Mechanics Games) project, which aims to blendsimulations and games together to teach important concepts, and
) laboratory." International Journal of Electrical Engineering Education 53.4 (2016): 331-340. 4. Guo, Liping, and R. Pecen. "Design projects in a programmable logic controller (PLC) course in electrical engineering technology." The technology interface journal 10.1 (2009). 5. Saygin, C., Kahraman, F. “A Web-based programmable logic controller laboratory for manufacturing engineering education.” AMT 24, 590–598 (2004). 6. Lindsay, Euan and Liu, Dikai and Murray, Steve and Lowe, David. “Remote Laboratories in Engineering Education: Trends in Students' Perceptions,” 18th Conference of the Australasian Association for Engineering Education, Dec 2007. 7. C. A. Chung, "A cost-effective approach
shrinks. With the rapid technology development,globalization, and intensified competition, to make the business transition smooth, there is anurgent need for our engineers, engineering students, and instructors to have direct interactionwith their international counterparts. A direct solution is for us to establish collaboration amongfaculties and students between U.S. and overseas partners.We initiated and established an international collaboration with institution in China. This is oneof the international programs that emphasizes on both research and educational aspects. Thisproject started by the Prof. Jin’s summer visit to Peking University (PKU), Beijing, China in2006 which is supported by Wang Faculty Fellowship at Peking University in
AC 2011-989: A DESIGN COURSE IN CHINA FOR US AND CHINESESTUDENTS INVOLVING AN AMERICAN CORPORATIONCarl F. Zorowski, North Carolina State University Carnegie Inst.of Technology, Associate Professor, Mechanical Engineering, 1956-1962; North Carolina State University, Associate professor, Mechanical and Aerospace Engineering, Associate Professor, 1962- 1965, Professor, 1964-66, Reynolds Professor, 1966-1997, College of Engineering, Associate Dean for Academic Affairs, 1978-1983, Institute for Manufacturing Systems Engineering, Director, 1985-1993, NSF SUCCEED Coalition, Director, 1993-1997, Reynolds Professor Emeritus, 1997- B.S. M.E., 1952, Carnegie Institute of technology M.S. M.E., 1953, Carnegie Institute of
Paper ID #242092018 CoNECD - The Collaborative Network for Engineering and ComputingDiversity Conference: Crystal City, Virginia Apr 29Designing and Implementing Teacher Professional Development that Con-nects Social Justice and STEM IntegrationDr. Gina Navoa Svarovsky, University of Notre Dame Gina Navoa Svarovsky is an Assistant Professor of Practice at the University of Notre Dame’s Center for STEM Education and the College of Engineering.Mr. Patrick K Kirkland, University of Notre Dame c American Society for Engineering Education, 2018 Designing and Implementing Teacher Professional Development
Copyright c 2003, American Society for Engineering Educationstudent misconceptions, that is, primarily whether the misconceptions should be “con-fronted, overcome, and replaced” or they should be “developed and refined”. In spite ofthis disagreement, there remains much that can be learned from this literature about howwidespread these misconceptions are and how persistent they are, even under what isgenerally considered “good” instruction. Although these studies list many student mis-conceptions, none offer good, reliable, valid assessment instruments that can be used byinstructors in a “production” mode to judge the adequacy of their instruction.One of the significant hindrances to reform in science, technology, engineering and math-ematics (STEM
Session 0458 Workshop on Web Access to Controls and Measurement Paul I-Hai Lin lin@ipfw.edu Indiana University-Purdue University Fort WayneAbstractThis workshop addresses technological issues in building a Web-based real-time systemfor instrumentation and control applications. A Web-based real-time system, in general,incorporates Internet, Web clients and servers, CGI scripts, and remote access devices.This workshop covers World Wide Web, TCP/IP applications, HTTP (HyperTextTransfer Protocol), Web clients and servers software, HTML (Hypertext
traditional group work, the benefits to students and teachers, and how it fits into thelarger picture of active learning.To Infinitv and Bevond --- Alisha A. Waller and Barbara OldsGiven such a rich history and active present, what does the future hold for ERM? What are thefrontiers of engineering education that are left to be discovered and explored? How can we best Page 2.181.2take advantage of the current changes in engineering education and the technology of the 2 1 stcentury? What additional services should we be providing to the engineering educationalcommunity? Come and explore these questions with ERM - an active, exciting, andadventuresome
of Mechanical Engineering (ME) seniors at Rochester Institute of Technology(RIT). Students commented that more hands on data acquisition and open ended projectsthroughout the curriculum would be extremely valuable in preparation for their capstone seniordesign course.Laboratory courses, which are often used simply to demonstrate theoretical material, are anexcellent opportunity for students to learn and practice problem solving skills. However, we mustmove away from traditional canned experiments, with step by step instructions and knownoutcomes, to open ended experiments that challenge students intellectually and encouragecreativity. This experience is consistent with the Kolby Learning Cycle, 3 which is completed byasking the questions
not been determined. A secondreason that sunflower oil is not now recommended for fuelis its high cost. Engineers at NDSU have initiated enginetesting programs using sunflower oil for fuel., and farmoperators will be advised when results of the tests areavailable. Technology for commercial extraction of oil from seedis well developed. Processes are largely mechanical andinvolve types of equipment familiar to farm people., so on-farm production of the oil is conceivable. A secondsuggested concept is to locate processing plants ascooperative or privately-owned businesses in communitiesclose to the region where the oil will be used. Approachesof this kind would keep transportation problems at aminimum. Most existing oil extraction plants
Paper ID #35511Partnering with Industry to Improve First Year OutcomesMrs. Jacqueline Faith Sullivan, University of Central Florida Since 2012, Jackie Sullivan (MSEnvE), has been an Adjunct Instructor at UCF (Orlando) in the College of Engineering and Computer Science (CECS) and has instructed the first year engineering students since 2015. Ms. Sullivan worked in consulting engineering and STEM program development prior to joining UCF.Mr. Mark Easley, Texas Instruments, Inc. The TI University Program is committed to engineering student success and supporting institutions of higher learning that will train the next
. Acknowledgments We would like to take this opportunity to acknowledge the participation in studentprojects by the following people, companies, and organizations: the members of Chapter 48 ofthe Society of Manufacturing Engineers, in particular Bill Werre; Joe McCabe (Energy Ideas,Inc.), the Center for Renewable Energy and Sustainable Technology (CREST), OncorCorporation, Bedford Reinforced Plastics, Dave Stieren (National Institute of Standards andTechnology), and the Solarex Corporation. References[1] McCabe, J. and Duffey, M. “Building Education/Industry Relationships: Assembly-BasedManufacturing for the Next Generation of Solar Products,” Solar Today, American Solar EnergyAssociation
faculty be truthful. The Chronicle of Higher Education, p. B13. Page 7.138.4“Proceedings of the 2002 American Society for Engineering Education Annual Conference and Exposition Copyright © 2002, American Society for Engineering Education”SAEID Y. EIDGAHY, Ph.D., is the Dean of the School of Mathematics and Natural Sciences at San DiegoMesa College, a large urban community college. Previously, he has served as dean of engineering andsciences as well as a faculty member in other institutions. He has widely published on administrative,minority and technology issues in both engineering and science disciplines
publishing in Teach Engineeringhas both local and national impacts on educational environments.AcknowledgmentsNational Science Foundation Grant: Engineering Education and Centers (EEC).Award Abstract # 1711543. RET Site: Engineering Workforce Development, Engineering forBiology, Multidisciplinary Research Experiences for Teachers in Elementary Grades.References[1] Olson, S., et al. Engage to Excel: Producing One Million Additional College Graduates with Degrees in Science, Technology, Engineering, and Mathematics, President’s Council of Advisors on Science and Technology. February 2012.[2] National Science Foundation, Research Experiences for Teachers (RET) in Engineering and Computer Science Active Awards.[3] Enderle, P., Dentzau, M
2006-1625: THE “BACK TO THE FUTURE” EXPERIENCE OF GRAPHICALANALYSISThomas Malmgren, University of Pittsburgh-Johnstown Thomas Malmgren, P.E. Associate Professor of Mechanical Engineering Technology at the University of Pittsburgh at Johnstown. B.S. Mechanical Engineering from Pennsylvania State University, M.S. Industrial Engineering from University of Pittsburgh. Registered professional engineer in Pennsylvania. Interests include CAD, design, thermodynamics, enjoying the outdoors (swimming, hiking, hunting, fishing, kayaking) and my family. Worked as a journeyman machinist for General Electric, U.S. Navy Machinery Repairman, and methods engineer for Elliott Company (manufacturer of turbo
the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering EducationBibliography1. Office of Industrial Technologies. 2002. Industrial Assessment Center. http://www.oit.doe.gov/iac/2. Muller, Barnish,and Kasten, 1998.3. University of Dayton. 2002. Industrial Assessment Center. http://www.engr.udayton.edu/udiac/4. The United States Department of Energy’s Industrial Assessment Center. 2002. Student DevelopmentProgram Guide5. Ray, Steve. Mechanical Engineering Graduate Student, University of Dayton Industrial Assessment Center.Interview. December 12, 2002.6. Nicholas, John M.,1998. Competitive Manufacturing Management. McGraw Hill, Boston
Hailey, Associate Dean in the College of Engineering,Christine Hult, Associate Dean in the College of Humanities, Arts and Social Sciences, RobertSchmidt, Associate Professor in Environment and Society, and Kim Sullivan, AssociateProfessor in Biology. Mary Feng serves as the ADVANCE project leader. Ryan Dupont is theleader of the Science and Engineering Recruitment Team (SERT).Initial ConditionsAs the ADVANCE team developed the Utah State ADVANCE project, we realized that weneeded to know the local issues concerning recruitment and retention that were important towomen faculty in the STEM fields (Science, Technology, Engineering and Mathematics) at UtahState. In 2002 and 2003, the ADVANCE team interviewed current and recent women faculty(n = 42
(NASA), Ms. Lisa Johnson (NASA), Mr.David Moltedo (NASA),Mr. Ted Miles (NASA), Ms. Susan M. Tull.Administrative support: Dr. Eddie Boyd Jr., Dean School of Business and Technology.AbstractUMES-AIR (Undergraduate Multidisciplinary Earth Science-Airborne Imaging Research) project waspartially funded by NASA Goddard Space Flight Center (GSFC) in the fall of 1999. The project hasprovided a platform for involving a group of more than twenty undergraduate students in mathematicsscience engineering and technology (MSET) curricula at the University of Maryland Eastern Shore(UMES) in an out of classroom active learning and exploratory research experience in the field ofremote sensing and its applications. UMES, an 1890 Land Grant historically black
Novak, G. and E. Patterson (1997). World Wide Web Technology as a New Teaching and Learning Environment.International Journal of Modern Physics, Vol 8, No. 1: 19-39.2 Novak, G., A. Gavrin, W. Christian and E. Patterson (1999). Just-In-Time-Teaching: Blending Active Learningwith Web Technology. ISBN 0-13-085034-9, 1/e. Prentice Hall.3 Rozycki, W. (1999). “Just In Time Teaching.” Research and Creative Activity. Office of the UniversityGraduate School at Indiana University. April.4 Cashman, E. C. and E. A. Eschenbach (2004), Designing a New Learning Environment for IntroductoryEnvironmental Engineering and Science Students: NSF Sponsored CCLI Grant No.DUE-0127139 Online:http://www.humboldt.edu/~eae1/CCLI02/, viewed January 6, 2004.5 Henry J.G. and
Using Learning Objectives for Course Design and Curriculum Improvement Donald D. Carpenter Civil Engineering Department Lawrence Technological University, Southfield, MI 48075AbstractLearning Objectives are statements of specific observable actions a student should be able toperform after an established period of time (a lecture, course, or curriculum). LearningObjectives, which are also commonly referred to as Instructional, Teaching, or EducationalObjectives, clarify the expectations of faculty in terms of measurable or observable studentperformance. In other words, these statements describe the ability of
paper.Students like using the laptops in class. The assignments allow them to make connectionsbetween engineering and computer applications. It is not uncommon to hear a student commentthat he/she sees how to apply some of these new computer skills to other courses or to apart-time job. Laptop use in class by students has definitely added to the technological literacyof our students.VII. References1. Callister, William D., “Materials Science and Engineering – An Introduction,” John Wiley & Sons, Inc., New York, 2000.2. Oakes, William C. et al, “Engineering Your Future,” Great Lakes Press, Wildwood, Missouri, 1999.3. Finelli, Cynthia J. et al, “Strategies for Improving the Classroom Environment,” Journal of Engineering Education, vol. 90 no. 4
probability of these students choosing a STEM major incollege is low. This ultimately will affect the production of U.S. scientists and engineers needed to solveour future technological and research challenges. 1To place the K-12 mathematics and science scenario in perspective, when compared to foreign countries,the U.S. significantly lags most with respect to performance. Table 1 presents a compilation ofmathematics scores of 15 year olds enrolled in secondary education institutions in OEDC (Organizationfor Economic Cooperation and Development) countries. This international comparison of mathematicsperformance by 15 year olds indicates that the U.S. falls almost at the bottom of the comparator