technologies based on Virtual Instrumentation, it is now possible toimplement multidisciplinary labs that span different facets of engineering from control and signalprocessing to embedded design, from chemistry and physics to electrical and computerengineering. In this paper, we will explain how Virtual Instrumentation helps to establishmultidisciplinary labs. We will also examine a modular, cost-effective, laboratory platform, NIELVIS (Educational Laboratory Virtual Instrumentation Suite) from National Instruments thathas gained acceptance in academia as platform to teach concepts in sensors & transducers,circuits, electronics, microcontroller programming, control, signal processing and embeddeddesign and test.1. IntroductionThe recent years
modes of thought of their profession, inSpanish, and to demonstrate the lab to be an effective teaching tool in the class: Spanish:Language, Technology, and Culture”Following the format of our original product and process laboratory for engineeringstudents1 our language students worked in teams of four, beginning by researching thehistory and principles of their device, both in English and Spanish. They used the deviceto evaluate its functionality and disassemble and reassemble it to study its optics,mechanics, and circuit boards. Subsequently, they presented their device to otherstudents, in Spanish. Thus, they furthered their knowledge of device, language, andculture. In doing so they derived all the benefits of the original language program
Engineering(ECE) topics a rough draft of a second2 book was used. Other books were considered4,5,6, andmay be reconsidered for future offerings. Whenever possible these topics were interwoven withtutorials or laboratory experiences to reinforce the material. Aug 28 Jack2, Ch. 2 – Drafting Jack, Ch. 3 - Metrology Jack, Ch. 4 - Cutting Jack, Ch. 5 - Joining Jack, Ch. 6 - Rotations Sept 12 Jack, Ch. 7 – Feedback Control Page 12.71.3 Jack, Ch. 8 – Mechanical Transmissions Jack, Ch. 9 – Mechanical
AC 2007-701: LEARNING THROUGH THE DESIGN OF A FISH HATCHERY FORA COMMUNITY ON THE CHEYENNE RIVER RESERVATION – AN EWBSERVICE-LEARNING PROJECTYusuf Mehta, Rowan University Dr. Mehta is an Associate Professor at the Department of Civil and Environmental Engineering at Rowan University. Dr. Mehta has extensive experience in teaching transportation and in service learning through Engineers-without-borders. Dr. Mehta has published several technical and educational papers in leading professional organizations and journals.Peter Mark Jansson, Rowan University Dr. Peter Mark Jansson, PP, PE, is presently Associate Professor of Electrical and Computer Engineering at Rowan University. His current research
. Autonomising3. Building Alliances Page 12.654.74. Creating Public Representation5. Linking and Knotting1. Mobilising (logistics)This stage defines how things happen. This requires a movement towards the world – in thephysical sciences, it implies physical instruments, in anthropology, expeditions, in sociology,surveys and questionnaires. It includes the fabulous resources available on the Internet.It also means articulating the argument. This process involves plans, project management, andfinances, including funding. It includes resources such as teaching spaces, laboratories, fieldtrips and technology organisations like Australian National Science and
interests are laboratory/project-driven learning and integration of research into undergraduate education. Dr. Yao is a member of the American Society of Engineering Education.Loren Limberis, East Carolina University Loren Limberis is an Assistant Professor of Engineering at East Carolina University. Prior to joining ECU, he was a faculty member in the Electrical and Computer Engineering Department at The College of New Jersey. He received both his BS degree in Electrical Engineering and PhD in Bioengineering from the University of Utah. His research interests include the study of motor protein motility mechanisms and the incorporation of motor proteins and their associated tracks into bio
, statutes, and technology e. Develop new skills in the use of modern engineering tools4. Current in their field a. Able to design using current standards, statues, codes b. Society membership, regular chapter meeting participation and attendance As may be typical with a new engineering program, we initially focused on our missionand creating a list of courses to teach rather than on our Educational Objectives. We “compiled”a curriculum using “off the shelf” courses from civil, mechanical, and electrical engineeringrather than building a curriculum that supported our objectives. In fact, we ended up creating ourinitial objectives and Mission Statement after the curriculum was designed. Having beenthrough one
educational intervention modules for SMEs as well as for engineering and design undergraduates for Interregional EU application. He lectures in design for sustainability across a number of courses in UL, and endeavours to link academic research with industry, through seminars and onsite coaching. He believes that the application of sustainability strategies is not just a moral obligation in manufacturing, but also helps secure competitive advantage. He holds a PhD in Design and Ergonomics from Brunel University.Stephen Burke, University of Limerick Stephen Burke graduated from the University of Limerick with a 1st Honours in Technology Education in 2002. He has served for two years as a teaching
thesequence is a new laboratory focused on design, fabrication, and characterization of microfluidicbiochips, introduced in spring 2006 with support from the National Science Foundation.Many undergraduate and most of the graduate students take the “BioMEMS sequence”concurrently with the “MEMS sequence,” which includes courses focused on principles ofmicrofabrication and microsystem design. Thus, for most students, the ECES607: Introductionto Biomedical Microsystems course is not only the first exposure to BioMEMS, but also toMEMS.The “Introduction to Biomedical Microsystems” CourseThe objective of the course is to expose students to biomedical microsystems and to teach themfundamental principles of MEMS applications in biology and medicine. Topics
AC 2007-2527: MULTIDISCIPLINARY EXPERIENCES FOR UNDERGRADUATEENGINEERING STUDENTSFred DePiero, California Polytechnic State University Dr. Fred DePiero received his B.S. and M.S. degrees in Electrical Engineering from Michigan State University in 1985 and 1987. He then worked as a Development Associate at Oak Ridge National Laboratory until 1993. While there he was involved in a variety of real-time image processing projects including a high-compression video transmission system for remote driving and several laser-based ranging systems. Fred began working on his Ph.D. at the University of Tennessee while still at ORNL, and completed it in May 1996. His research interests include
Cyberinfrastructure Course through Project-Centric BioinformaticsAbstractIt is increasingly difficult for teaching to keep pace with rapid advances in technology, especiallyat the interface of several disciplines. We describe here the development and implementation ofan interdisciplinary bioinformatics course focused on preparing the future scientific workforce.Central to the course is a project-centric teaching paradigm to engage students in applying theconcepts of cyberinfrastructure through the integration of the disciplines of biology, computerscience, mathematics, and statistics in the field of bioinformatics. In this project, Bluefield StateCollege (BSC) professors and their students were introduced to the concepts ofcyberinfrastructure
issues, it makes sense to provide them with a conceptual-basedtechnology education. This paper covers the major premise of our efforts, the way it is planned,the way we include all majors in the college, and the way we work together to make it happen.This is a collegewide effort that includes all levels from the dean and the dean’s office to theindividual departments, as well as some of our graduate and undergraduate students. The bigchallenge is how to teach the classes—i.e., who the audience is. This paper shows the detailedplanning, implementation, and early results and challenges of our first course developments andimplementations. The paper provides examples of classes, the material that we cover in the firstclass for non-majors, and the
perceived as the onlysignificant gateway to career opportunities in math and science – and academics as the onlycareer path. Therefore the PSM represents a shift towards programs that prepare graduates fornon-teaching careers. It also offers an alternative model to combat the common perception of aMaster of Science as the “default” degree of a failed Ph.D. attempt. PSM degrees are recognized by the American Council of Graduate Schools. An excellentguide to professional master’s education is available from the Council. 7 This guide addresses thetwo main areas of a professional degree, the professional science master’s (PSM) degree and theprofessional master’s degree in the humanities and social sciences. This trend in academics ofthe last ten
Hellmuth, LeTourneau University Dr. Tom Hellmuth is Dean of the School of Engineering and Engineering Technology at LeTourneau University in Longview, Texas. He obtained a B.S.M.E. from Rice University in 1978, an M.S.M.E. from Colorado State University in 1980, and a Ph.D. from New Mexico State University in 1995. He worked in industry in the area of machine and thermal system design for about five years before beginning his teaching career. He has taught for 20 years in mechanical engineering and engineering technology programs. Current interests are in modeling of thermal systems and engineering design. Email: TomHellmuth@letu.eduRoger Gonzalez, LeTourneau University Dr. Roger V. Gonzalez
students to graduate education who otherwise wouldnot be interested. The emphasis on solving a pressing societal problem may be particularlyattractive to students from minority groups and women, as well as to individuals, who havedisabilities themselves. Page 12.72.7References1. Bargerhuff, M. E., Wheatly, M, “Teaching with CLASS: Creating Laboratory Access for Science Students withDisabilities”, Teacher Education and Special Education, Volume 27, No. 3, 2004.2. Bautista, M., “Technology-based Learning with Disability PhD Program at Wright State University”, PosterPresentation at the 6th Annual Multiple Perspectives on Access, Inclusion, and
began taking a course called Introduction toEngineering Design during the sophomore or junior year. One credit of that four-credit coursewould be entitled Professional Development I and would be taught by the Archer Center. Inaddition, the Archer Center would teach a culminating course, Professional Development III,for students who were simultaneously enrolled in the Capstone Design Course. Theresponsibility for a third course, Professional Development II, was assumed by the School ofHumanities and Social Science; it was organized to be completely independent of the ArcherCenter sequence. All three of these experiences are described below in greater detail.The addition of these curricular components to the School of Engineering did not occur
management, inventory management, service parts logistics, emergency logistics and engineering education. He is funded by the National Textile Center.Muthu Govindaraj, Philadelphia University Dr. Muthu Govindaraj is a Professor of engineering at Philadelphia University. He has graduate degrees in mechanical and textile engineering from India and a PhD from the Technical University of Liberec, Czech Republic. Before joining Philadelphia University, Professor Govindaraj was an assistant professor at Cornell University. His research interests are in the areas of deformable material modeling and he is funded by the NSF, National Textile Center and the Laboratory for Engineered Human Protection at Philadelphia
, a new multidisciplinary teamassessment instrument was piloted during the Fall, 2006 semester with additional measures. Thisapproach allowed for a thorough assessment of the reliability and validity of the new instrument.The multidisciplinary assessment instrument data was also compared with independent measuresof the outcomes of the project to determine the effect of multidisciplinary team work.IntroductionIt is well known that multidisciplinary teamwork is a valuable part of engineering education andthat ABET requires engineering programs to document that their graduates demonstrate “anability to function on multi-disciplinary teams”2. Western New England College has a longhistory of incorporating engineering design into its laboratories
joined East Carolina University as an Assistant Professor in August, 2005. Prior to this appointment, he served as a Research Engineer in China from 1995 to 2001. His research interests include wearable medical devices, telehealthcare, bioinstrumentation, control systems, and biosignal processing. His educational research interests are laboratory/project-driven learning and integration of research into undergraduate education. Dr. Yao is a member of the American Society of Engineering Education.Paul Kauffmann, East Carolina University Paul J. Kauffmann is Professor and Chair in the Department of Engineering at East Carolina University. His industry career included positions as Plant Manager
received his BS and MS degress in Mechanical Engineering from Rochester Institute of Technology. Jeff has also worked for the Bettis Atomic Power Laboratory, Southco, Pall Filtration, and as a Teaching Assistant at RIT. His thesis and duties at RIT focused mainly in the area of Robotics. He can be reached at coolwebb@gmail.com.Mark Smith, Rochester Institute of Technology MARK SMITH is Director of the Multidisciplinary Design (MSD), Product Development (MPD), and Manufacturing Leadership (MML) programs at the Rochester Institute of Technology. Prior to joining RIT, he spent nearly 20 years in medical electronics R&D. Mr. Smith has an MS in Electrical Engineering from the University of
. • Topics: design process, creative design, project management, team work, business basics, product / project lifecycles. (possibly could have ethics and oral/written communication) • Multi-disciplinary project assigned. D. Freshman course • “How Things Work” – show the interdisciplinary nature of engineered products, engineering projects, and their manufacture/construction. • Hands-on laboratory (product teardowns, field trips) E. Suite of Design • Create a suite of design electives organized
chemistry component was introduced in terms of issues, as process engineering,involving energy and mass balances. The material science component was less problematicand though delivered in a traditional way, it required students to participate, in small teams, inboth laboratory and library investigative projects.In 2005, with a prevailing school’s stance towards PBL (Problem-based learning) coursedelivery, there was an opportunity to further fine-tune phenomenological approaches inengineering education. As a result, the subjects of chemistry/process engineering andmaterials science were to be merged into a single one semester subject with an allocation of 5hours per week. The course developed and introduced in 2007, further integrated
"track" is a general category of projects to which a student project may belong.Tracks are helpful for students seeking project membership in that they provide a way to look fora project in an area without knowing what the specific projects necessarily are. Tracks of projectsare generally correlated with the various concentrations and options offered through thedepartments in the Kate Gleason College of Engineering at RIT.Some of the key learning objectives of the MSD program that the projects most contribute toinclude the: (2) Ability to perform a critical analysis of requirements, engineering specifications,and the relationship between them. (3) Ability to integrate theory from a broad range of courses,laboratory exercises and co-op