(whether or not in joint cavity) by measuring flow impedance of thetissue.Over the senior year, the students went through a typical engineering design cycle and delivered a demosystem to their client. The design and development process is briefly introduced next.Understand the ProblemAfter they accepted the project, the student went to Dr. Bartlett’s laboratory twice to learn about theapplication. Before the first field visit, the students prepared a long list of questions, expecting to obtainanswers for all of these questions after the trip. They came back with some understanding of orthopedicinjection, but did not find satisfactory answers to all the questions. A second trip was then arranged andthe students were able to find answers for those
AC 2009-1711: ARE SIMULATION TOOLS DEVELOPED AND USED BYEXPERTS APPROPRIATE EXPERIMENTATION TOOLS FOR EDUCATIONALCONTEXTS?Alejandra Magana , Purdue UniversitySean Brophy, Purdue UniversityGeorge Bodner, Purdue University Page 14.231.1© American Society for Engineering Education, 2009 Are Simulation Tools Developed and Used by Experts Appropriate Experimentation Tools for Educational Contexts?Abstract Simulations and visualizations can lead to significant improvements in students’conceptual understanding. This increased understanding may be due to the formation of expert-like dynamic mental models. Laboratory simulations have been used in
AC 2009-2278: DEVELOPMENT OF UNDERGRADUATE NETWORK SECURITYLABS WITH OPEN-SOURCE TOOLSArif Uluagac, Georgia Institute of Technology Arif Selcuk Uluagac is a Ph.D. student in the School of Electrical and Computer Engineering at Georgia Institute of Technology, Atlanta, GA as a member of the Communications Systems Center Laboratory. He received his B.Sc. in Computer Engineering from Turkish Naval Academy and M.Sc. degrees in Electrical and Computer Engineering from Carnegie Mellon University in PA, in 1997 and 2002, respectively. He is a member of IEEE, ACM, and ASEE. He is currently teaching the undergraduate level network security class as an adjunct instructor at Southern Polytechnic
environment. Others simply left for jobs in industry. Each DoD activity had itsown BRAC experience.The Navy Metrology Engineering Center and Gage and Standards Laboratory (now consolidatedinto the Measurement Science and Technology Laboratory) are located at the Naval SurfaceWarfare Center, Corona, CA (NSWC Corona Division). This Metrology Engineering Center andassociated Laboratory provide for all of the Navy and Marine Corps Test and MeasurementSystems (TAMS) research, development and engineering support. The engineering capabilitiesrequired to be sustained in order to perform this important function span a multitude ofdisciplines from electronic/electrical (both high and low power), mechanical, microwave,chemical, pressure, temperature, and
AC 2009-2430: NCSLI'S METROLOGY AMBASSADOR OUTREACH PROGRAMGeorgia Harris, National Institute of Standards and Technology Georgia Harris is the Group Leader for the Laboratory Metrology Group in the Weights and Measures Division of the National Institute of Standards and Technology. She is responsible for the Laboratory Recognition, Training, and proficiency testing of State Weights and Measures Laboratories and has been involved in metrology for more than 25 years. Prior to her work at NIST, she was a metrologist with the State of Minnesota. Ms. Harris is also the Vice President of Learning and Development in the National Conference of Standards Laboratories, International. She
AC 2009-820: TEACHING SUSTAINABILITY CONCEPTS THROUGH ANAPPLIED ENVIRONMENTAL ENGINEERING LABORATORY: STUDYINGSTORM-WATER PONDS AT THE UNIVERSITY AND IN LOCAL COMMUNITIESMaya Trotz, University of South FloridaKen Thomas, University of South Florida Page 14.1155.1© American Society for Engineering Education, 2009 Sustainability concepts through an applied environmental engineering laboratory: studying stormwater ponds at the University and local communitiesAbstractStormwater ponds are vital for the control of floodwaters and the reduction in pollution loadsreaching larger water bodies. Community awareness programs aim to reduce
been the Undergraduate Laboratory Manager in the Department of Electrical and Computer Engineering at Duke University, Durham, NC. His interests include undergraduate engineering education, power electronics, plasma physics, and thin films.Martin Brooke, Duke University Martin A. Brooke received the B.E. (Elect.) Degree (1st. Class Hons.) from Auckland University in New Zealand in 1981. He received the M.S. and Ph. D. in Electrical Engineering from The University of Southern California in 1984, and 1988, respectively. He is currently an Associate Professor of Electrical Engineering at Duke University. Professor Brooke was an Analog Devices Career development award recipient from 1988-1993
environment. Project activities started withavailable CLABS lab manuals in freshman ELET 1100 AC/DC Circuit laboratories. Mentorshave been trained to use concept maps and also informed during a workshop on how to conductpeer-led team learning session. The training on concept maps has been conducted by thegraduate research assistant (GRA). Workshop has been given by project faculty. The project hasalso provided the mentors with Peer-Led Team Learning workbooks as a reference. The mentorshave been scheduled to meet with assigned students to meet every week for an hour. In addition,they met with the GRA weekly to discuss challenges and report their activities.Training and development section of this report summarizes the training for concept
109 A Conceptual Approach to Developing a Universal Remote Laboratory for Education and Research in Electrical Power Engineering Hassan Mohamed-Nour Department of Electrical Engineering, California State University, Long Beach Long Beach, CA 90840, nour@csulb.eduAbstractOne crucial element of education in electrical power engineering is the laboratory component.The laboratory instruction may be delivered in physical laboratories using real equipment orthrough simulation software tools, and in many cases utilizing
273 Development of a Student-Centered Hands-on Laboratory Experiment of Chemical Detection using Micro-cantilever Sensor and Optical Lever Amplification Technique * Geon S. Seo Department of Aerospace and Mechaical Engineering University of Arizona Eniko T. Enikov Department of Aerospace and Mechaical Engineering University of Arizona
AC 2009-1159: THE DEVELOPMENT OF A PORTABLE FLUIDS LAB FOR CIVILAND ENVIRONMENTAL UNDERGRADUATESDavid Torick, University of PittsburghDan Budny, University of Pittsburgh Page 14.1198.1© American Society for Engineering Education, 2009 Adjusting the Curriculum in the Fluid Mechanics Course by Modifying the Laboratory SettingAbstractMany fluids laboratory facilities and their associated student laboratory experiences were builtback in the 1960-1970 time frames. They typically consisted of large facilities that included windtunnels, flumes, wet wells, pump stations, etc. Today these laboratories are physically andpedagogically out dated and the
with two children.Paul Golter, Washington State University Paul B.Golter obtained an MS from Washington State University and is currently pursuing his PhD while working as the Laboratory Supervisor in the Chemical Engineering Department at WSU.He is married with two children.Gary Brown, Washington State University Gary R Brown obtained a PhD in Education from Washington State University in 1994 and is currently the Director Centre for Teaching Learning and Technology at Washington State University. He is happily married.David Thiessen, Washington State University David B.Thiessen received his PhD in Chemical Engineering from the University of Colorado and has been at
AC 2009-1312: WEB-BASED CLASSES FOR ENHANCEMENT OFPRELABORATORY LECTURESTiffany Hesser, University of New Haven Tiffany Hesser is currently a Visiting Instructor and Organic Laboratory Coordinator at the University of New Haven in Connecticut. She is also involved with the The Summer Institute for Young Women in Science and the Chemistry and Math Enrichment Program.Michael Collura, University of New Haven Dr. Collura, Professor of Chemical Engineering at the University of New Haven, received his B.S. Chemical Engineering from Lafayette College and the M.S. and Ph.D. in Chemical Engineering from Lehigh University. His professional interests include the application of computers to
AC 2009-187: TECHNICIAN EDUCATION MATERIALS IN PLASMATECHNOLOGY: A TEMPLATEDavid Hata, Portland Community CollegeJames Dockendorf, Normandale Community College Page 14.1165.1© American Society for Engineering Education, 2009 TEMPlaTe: Technician Education Materials in Plasma-Aided ManufacturingAbstractNormandale Community College (NCC) in Bloomington, MN, has developedtechnician-level, educational resources in plasma-aided manufacturing. Theseresources include instructional modules, laboratory exercises and demonstrations,and faculty-enhancement workshops. The instructional modules range from anintroduction to plasma physics to RF power delivery to sputtering
power electronics is the problem-oriented and project-basedlearning approach. Students are often unaccustomed to assimilating materials from manyareas at one time, thereby making it difficult for them to simultaneously bring togetherthe circuit, signal and system analysis, electromagnetics and control theory topics whichare required to fully describe the operation of a power electronic converter. The project-based course and laboratory described in this paper directly addresses these difficulties byhelping students to reduce theory to practice. This approach supports the prerequisitelecture material and allows study of some practical issues which are best handled in alaboratory setting. The course format makes the students gradually more
Page 14.537.2enterprise, the rise of industry that reshapes regions, and the conflict between publicenvironment and private profit. The course is offered at Princeton University toengineering students as a history/social science course and to non-engineering students asa technical course that requires a lab component. The underlying thought being thatengineering students will have numerous laboratory experiences within their engineeringacademic career and being able to get a course on the history of modern engineeringwhich counts toward a core humanities requirement early in their career will providethem a unique insight into engineering. Additionally, the creative hands-on laboratoryexperiences with structures: Eiffel Tower and Menai Straits
metallurgicalengineering curriculum as a kinesthetic teaching tool will be implemented in several levelsstarting at the sophomore level. The first metallurgical/materials engineering courses availablefor SDSM&T undergraduates are sophomore level courses and they include two concurrentcourses: a 3 credit hour lecture “Properties of Materials” (MET-232) and a 1 credit hourlaboratory “Structure and Properties of Materials Laboratory” (MET-231). The next set ofcourses in the undergraduate curriculum sequence are “Physics of Metals” (MET-330) and the“Physics of Metals Laboratory” (MET-330L), and finally “Mechanical Metallurgy” (MET-440)and the “Mechanical Metallurgy Laboratory” (MET-440L). The curriculum modifications tothese lectures and laboratories are
engineering with emphasis on robotics.Patrick Hager, Georgia Institute of Technology Patrick S. Hager is currently an undergraduate student at the Georgia Institute of Technology, and is working on obtaining his B.S. in civil engineering. His current area of interest is in bridge design, and restoration. As a structural engineer he hopes to be an integral part of the nation’s transportation infrastructure rehabilitation. Page 14.26.1© American Society for Engineering Education, 2009 A Different VIEW: Virtual Interactive Engineering on the WebAbstractVirtual laboratories and modules are used in most universities to reinforce concepts from lecturematerial
Capstone Woodwind Quintet as well as Principal Hornist of the Tuscaloosa Symphony. Page 14.956.1© American Society for Engineering Education, 2009 Picasso’s Clarinet: When Art and Engineering CollideAbstractA pilot-scale laboratory was explored in an introductory electrical and computer engineering(ECE) course designed to exercise creativity. The idea for this laboratory was initiated by themusic department as a way to promote collaboration and as part of a fund raising activity. In thislab, students built lamps from retired musical instruments. The creative process was marked byprogression through various stages including
through a big transition of the programwith one professor retirement (founder of the program) and two new faculty members arriving.Our recent activities comprise following three major parts: 1) Expanded teaching laboratory, 2)Strong faculty/students research projects, and 3) Active SPIE student club. We are presenting theabove three efforts in this paper.1. IntroductionCalifornia Polytechnic State University (Cal Poly) has one of the nation's largest primarilyundergraduate engineering colleges. The photonics program within the EE department began in1985. Currently, there are two senior elective lecture courses and one graduate-level lecture inthe photonics area. A 700 ft2 fiber-optics laboratory was introduced in 1986. This laboratoryserves dual
. Page 14.703.1© American Society for Engineering Education, 2009 Improving Construction Management Course Comprehension through Experiential LearningAbstractWhile lectures are the most common way to teach students, they are not necessarily the best wayto convey some types of information. Consider the famous quote by Confucius: “I hear and Iforget. I see and I remember. I do and I understand.”This paper discusses a hands-on experiential learning laboratory, which complements the lecturein a Construction Management (CM) materials and methods course. Many CM programs avoidhands-on experiences due to the vocational/technical stigma. However, experiential learningtransforms construction concepts that are often
Project. Page 14.1215.1© American Society for Engineering Education, 2009 The Engineering of Everyday Things: Simple Experiments for the Thermal and Fluid SciencesAbstractA series of demonstrations and laboratory exercises have been developed to teach fundamentalconcepts in the thermal and fluid sciences of the undergraduate engineering curriculum. Thismaterial is part of an educational research project called the Engineering of Everyday Things.The title reflects the use of common technology like hair dryers, blenders, toasters and bicyclepumps, which are used to demonstrate principles of thermodynamics
AC techniques.The new curricula combine the DC circuit analysis materials with part of the AC circuit analysismaterial to become a course covering the fundamental circuit analysis materials. The secondcourse focuses on advanced AC circuit topics and power systems. It starts with an introduction tothe power generation and transmission. The principles of motors and generators are introduced.AC power and power factor correction are discussed next, followed by resonance, filter,transformer, and polyphase systems. The laboratory classes are also redesigned to include moremotor, generator experiments. Software packages such as MultiSIM and MATLAB areintroduced to help the students better understand the theory and laboratory experiments. Whilethe
collaborative activities. Some of the ongoing projects have additional researchobjectives, such as the analysis of patterns of human behavior and the study of the collaborationbetween users and their interaction with virtual environments. A few other developments areaimed at utilizing computer game technologies as a platform for personnel training andeducational laboratory simulations. This paper provides a review of the current state of computergame applications, with a special focus on education and training implementations.IntroductionToday's students have been described as preferring learning experiences that are digital,connected, experiential, immediate, and social1. They appear to prefer learning by doing ratherthan learning by listening and
AC 2009-530: AUTOMATED DATA ACQUISITION AND DATA ANALYSIS FORPLASMA DIAGNOSTICS IN PUPR-MC PLASMA MACHINE WITH WEBCAPABILITIESAngel Gonzalez-Lizardo, Polytechnic University of Puerto Rico Born in Maracaibo Venezuela in January, 1958. Bachelor degree in Electrical Engineering from Universidad del Zulia in 1984. Master in Science in Electrical Engineering from University of Puerto Rico, Mayaguez Campus, 1994. PhD in Engineering, University of Dayton, 2003. Assistant Professor at Polytechnic University of Puerto Rico from 1995 to 1999. Associate Professor at Polytechnic University of Puerto Rico from 2004 to present. Director of the Plasma Engineering Laboratory since 2007. Director of the Sponsored
AC 2009-2461: COMPUTER-AIDED PHYSICAL EXPERIMENTATION FORINSTRUMENTATION AND MEASUREMENTS CLASSES IN ANUNDERGRADUATE MECHANICAL ENGINEERING PROGRAMJerry Keska, University of Louisiana, Lafayette JERRY K. KESKA, Ph.D. Dr. Keska is an Associate Professor and a member of the Graduate Faculty in the Department of Mechanical Engineering at The University of Louisiana, Lafayette. Although most of his professional experience is from academia, he has been employed in both the private sector (Copeland Corporation and Technicon Instruments Corporation) and in government laboratories (Pacific Northwest Laboratory and Argonne National Laboratory). His primary research interests are in
systems), Computer Networks, and Operating Systems. Page 14.738.1© American Society for Engineering Education, 2009 Innovative Network Security Course DevelopmentAbstractNetwork security courses become increasingly popular in colleges (including communitycolleges) and universities. This paper discusses about developing the novel course of networksecurity using laboratory activities. It elaborates innovative projects that are suitable forlaboratory work in network security curriculum. It explores both hardware and softwarecomponents that are now being used for practical exercises in network security courses. Mostoften these
. By engaging a total of sevenuniversities in the development and assessment of software and course content, we extend theutility of J-DSP to several disciplines including Electrical Engineering, Earth Sciences,Biomedical Engineering, Power Engineering, and Arts and Media. The key outcomes of theCCLI phase 2 project included a) upgrades to the J-DSP GUI, b) extensions in the signalprocessing functionality of J-DSP, c) on-line laboratory exercise development, and d)dissemination and assessment and a pilot test of a new multi-site laboratory concept that allowsstudents in the five universities to run real time distributed on-line simulations. Results of thePhase 2 project have been published mainly for Electrical Engineering courses