mechanicalengineering laboratories and leading the NSF Gateway Coalition's Materials Program Area team.JEFFREY MOREHOUSE is an Associate Professor of Mechanical Engineering at USC. His long-term researchinterests involve energy-related systems, including solar, automotive, HVAC and general power producing devices.Teaching is focused on the thermal sciences and their applications, plus the capstone design course. He is thefaculty advisor to the student chapters of SAE, Pi Tau Sigma, ASHRAE, and the collegiate auto racing team.DAVID ROCHELEAU is an Assistant Professor of Mechanical Engineering at USC. His primary research interestis in the area of applied mechanisms and robotics. Teaching responsibilities include courses in Computer-AidedDesign, Computer-Aided
in addition to using our traditional laboratory materials, when we teach in alaboratory environment today [1-4]. Traditionally, we have used simulation laboratories (using either OPNET by Mil3, orCOMNET by Compuware) in addition to using off-the-shelf network equipment such asrouters, bridges, and network cards. These laboratory settings gave our students an insight Page 7.1191.1 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ? 2002, American Society for Engineering Education”into how to design computer networks and run different scenarios under
andsimulated annealing, parallel supercomputing, engineering education.Teaching a broad range of engineering courses including machine design, materials science,engineering mechanics, manufacturing, and fluid mechanics.Professional experiences include 10 years of industrial and 17 years of teachingengineering and technology areas.NORMAN RUSSELLPhD in Chemical Chemical Engineering from Institute of Paper Chemistry in 1965.PE from Alabama.Research areas include paper chemistry, engineering education.Teaching a broad range of engineering courses including thermodynamics, fluid mechanics,and laboratory courses.Has 29 years of industrial and 17 years of teaching experience. 41 Development of a
aimed atundergraduate electrical engineering education.Requirements of a virtual laboratory To be effective in undergraduate education, a virtual laboratory must provide at least the samelevel of learning as does a physical laboratory. That raises a very important question: in engineeringeducation, is the goal to teach design and applications, or is it to teach the techniques of physicalconstruction such as soldering or welding? In the context of current engineering education, the answerappears to be the former: teaching design principles and application of those principles, including system 1 © American
some researchers11,22,6 question the value of lab experiments,there is no doubt that the lab experiment is a commonly employed teaching tool in industrialtechnology. The purpose of laboratory experiments in industrial technology is, as Gillet,Latchman, Salzmann, and Crisalle10 said, “…to motivate, illustrate, and enlighten thepresentation of the subject matter addressed in the lecture” (p. 190).A written report often follows the lab experiment in order to cause the student to reflect on,summarize, and quantify the laboratory experience. To learn by doing in the laboratory,followed by reflecting on that experience and writing about it in the form of a report, can onlyfurther enhance learning. Lederman16 stated that “the assumption that students
manufacturing processesin industries as diverse as microelectronics, automotive, aerospace, materials processing, biomedical,and energy conversion.8,9There is already a significant amount of course, curricular, and laboratory development workoccurring at U.S. universities and community colleges in an effort to introduce science, engineering,and technology students to nanotechnology concepts and applications. Also, there are currentlyprograms to teach engineering technology students various nanoscale research tools, such as atomicforce microscopy (AFM), scanning electron microscopy (SEM), transmission electron microscopy(TEM), and optical characterization, as used in R&D laboratories.10 However, very little in the wayof nanomanufacturing principles
Paper ID #14548Design of a Curriculum-Spanning Mechanical Engineering Laboratory Ex-perimentDr. Heather Dillon, University of Portland Dr. Heather Dillon is an Assistant Professor in Mechanical Engineering at the University of Portland. Her teaching focuses on thermodynamics, heat transfer, renewable energy, and optimization of energy systems. She currently leads a research team working on energy efficiency, renewable energy, and fundamental heat transfer. Before joining the university, Heather Dillon worked for the Pacific Northwest National Laboratory (PNNL) as a senior research engineer.Nathan Schmedake, University of
with faculty from his alma mater.Prof. Bradley C. Harriger, Purdue University, West Lafayette Brad Harriger has over 30 years of experience teaching automated manufacturing and has authored/co- authored several related articles. Professor Harriger has served in several leadership roles with Society of Manufacturing Engineers and the American Society for Engineering Education, and is a founding mem- ber of an international Aerospace Automation Consortium, serving on its steering committee for several years. He has invested over twenty-five years in the development and maintenance of a multimillion dollar manufacturing laboratory facility complete with a full scale, fully integrated manufacturing sys- tem. Professor
into analysis and “packaging” of the final product.The list of experiments is shown in Table I. A detailed laboratory and teaching assistant manualis available at http://www.eng.utoledo.edu/~ssharfst/bioe4500/LabHomePage.htm Page 6.240.2 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education Table I: Laboratory Schedule Week Lecture Laboratory Report 1 Introduction, sterile technique, Pouring
. Practical skills that help foster the understanding of conceptualknowledge. It allows for them to gain crucial skills in diagnosing problems on a conceptual andinstrumental level.3 Numerous studies have been conducted over the years on the significance of emphasizingpractical skills in the classroom/laboratory. Students are either placed in one of two categories:active or passive. For the students who are considered active, their dependency on engagement inexperimentation in the course laboratory is critical to their understanding of fundamentalconcepts.1 This imbalance, or gap, in the teaching education leads to several unprepared engineersmoving into the workplace without sufficient skills required to contribute right away
because of safetyissues, expenses, and lack of qualified teaching assistants. This paper presents the planning anddevelopment of a web-based application that can simulate a virtual laboratory for electricmachines. This Virtual Power Laboratory 1 (VPL) is developed on a universal web-basedplatform that can be accessed anywhere by most mobile devices and modern computers. As aproof of concept, nine virtual experiments have been developed for DC motors and generators.Machine concepts are summarized using text, 2D and 3D graphics as well as multimediaanimation. The animated graphical user interface (GUI) plays an important role as it enablesstudents to review and retain basic concepts by building a bridge from the virtual environment tothe real
AC 2009-2163: SIMULATION-BASED VIRTUAL AND HYBRID LABORATORIESFOR TELECOMMUNICATIONS EDUCATIONYakov Cherner, ATeL, LLC YAKOV E. CHERNER, Ph.D., is the Founder and President of ATEL, LLC. He combines over 25 years of teaching experience with extensive experience in writing curricula and developing educational software and efficient instructional strategies. Dr. Cherner develops new concepts and simulation-based e-learning tools for STEM education that use real-world objects, processes and learning situations as the context for science, engineering and technology investigations. He also proposed and implemented the pioneering concept of integrated adjustable virtual laboratories and designed
Paper ID #21922LED Timing Light Upgrade for Synchronous Machines Laboratory Equip-mentDr. Herbert L. Hess, University of Idaho Herb Hess is Professor of Electrical Engineering at the University of Idaho, where he teaches subjects in He received the PhD Degree from the University of Wisconsin-Madison in 1993. His research and teaching interests are in power electronics, electric machines and drives, electrical power systems, and analog/mixed signal electronics. He has taught senior capstone design since 1985 at several universities.Mr. Sean Gordon Daniel, University of Idaho I am an Electrical Engineering student at the
aboutthe experiment that made the experiment difficult to complete successfully. It is not possible forthe students to truly assess the consultant’s technical presentation until they have completed theexperiment.The consulting exercise and a formal presentation constitute the oral communications aspect ofthe laboratory course. Together, these count for 100 points out of a course total of 800, or about12% of the student’s grade.V. Benefits and PitfallsStudent feedback on the consulting exercise has been generally positive. Many like the idea ofbeing an “expert” and having the opportunity to explain and teach technical material related to anexperiment. They claim to enjoy and benefit from the informal, yet still somewhat structuredcommunications
AC 2011-710: INDIVIDUAL DATA ACQUISITION AND EXPERIMENTA-TION IN UNDERGRADUATE MECHANICAL ENGINEERING LABORA-TORIESDaniel Dickrell, University of Florida Page 22.861.1 c American Society for Engineering Education, 2011 Individual Data Acquisition and Experimentation in Undergraduate Mechanical Engineering LaboratoriesIntroductionUndergraduate teaching laboratories in mechanical engineering curriculum are traditionallygroup-oriented courses with activities centered on large, singularly-purposed experimentalapparatus. This is often caused by the cost and maintenance support of the experiments and
AC 2012-3392: DEVELOPMENT AND GROWTH OF AN UNDERGRAD-UATE MICRO/NANO ENGINEERING LABORATORY COURSEDr. Benita M. Comeau, Massachusetts Institute of Technology Benita Comeau is a Technical Instructor in the Department of Mechanical Engineering at the Mas- sachusetts Institute of Technology, where she teaches a laboratory course on nano/micro engineering. She is a Chemical Engineer and received her B.S.E. from the University of Michigan and her Ph.D. from the Georgia Institute of Technology. She was an NSF Research Fellow and a member of the Georgia Tech Student and Teacher Enhancement Partnership (STEP) GK-12 program. Before graduate school, she worked as a Product Engineer for Procter & Gamble and Agere Systems
demonstrators3, 4, 5, 6 to undergraduate research7 or summer researchprojects for undergraduates8. In Shirkhanzadeh,3 a thin-layer fuel cell is described that isparticularly useful for teaching and classroom demonstrations combining both an electrolyzerand a fuel cell. Lin4 and Fenton5 in the Chemical Engineering Department at the University ofConnecticut present a more comprehensive laboratory set up with a full set of experimentsdemonstrating the principles related to proton exchange membrane fuel cell. The fuel cell is setin a holistic environment that also includes solar panel, electrolyzer, and gas storage realizinggreat flexibility of topics supported. Ososanya6 presents a 10V hydrogen fuel cell built bystacking 10 1volt single fuel cell as an
of a Laboratory-Based Course in Lean Six Sigma NanomanufacturingAbstractWe are developing a laboratory- and project-based Lean Six Sigma Nanomanufacturing courseunder an NSF Course, Curriculum, and Laboratory Improvement Grant, Type 1. The laboratory-and project-based course will teach Applied Engineering Technology (AET) studentsnanomanufacturing by combining hands-on nanotechnology laboratory experiments and SixSigma analysis with lectures on Lean manufacturing principles and implementation. AETstudents will be introduced to nanotechnology principles, projects, and laboratory procedures byworking with leading faculty members through classroom instruction, guest lectures, and fieldtrips. During an 11-week term, the
Session 2002-784 Engineering and Technology Laboratory Experiments James A. Jacobs School of Science & Technology Norfolk State UniversityAbstractNEW: Update 2001 builds on 15 years of annual workshops aimed at improvingengineering, science, and technology. This Year’s workshop was a part of the NationalInstitute of Standards & Technology’s (NIST) 100th anniversary celebration. Thissession provides demonstrations of a sample of experiments presented at the workshop.The NEW:Update series has provided over 2560 materials educators with the latestdevelopments in
status was defined aseither of the following: African Americans, American Indians/Alaska Natives, and Hispanic,which are those formally recognized by NSF [22].At the end of every laboratory period, participants completed a 10-item survey composed of sixexperience-related items asking level of difficulty, degree of effort, satisfaction, degree ofcollaboration, frequency of help from teaching assistants and the degree to which the participantsfelt like an engineer while completing the DC. The final four-items included a three-item scalefor subjective task value and a single-item on confidence.Based on our hypothesis that the student experience would relate positively to motivation for aDC, we used the experience-related items as independent
Paper ID #30200Work in Progress: Hands-on Engineering Mechanics with aThree-Dimensional Laboratory UnitDr. Md Rashedul Hasan Sarker, University Of Indianapolis Md Rashedul H Sarker is an Assistant Professor at R.B. Annis School of Engineering at the University of Indianapolis (UIndy). Prior to joining at UIndy, he worked as a lecturer at The University of Texas at El Paso (UTEP). He also earned his Ph.D. at UTEP. His teaching and research interests include ac- tive learning, project-based learning, energy harvesting, and developing sensors using multi-functional materialsDr. Najmus Saqib, University Of Indianapolis
Paper ID #31981Design a cost-effective Bending/Compression educational laboratory testapparatusDr. Chandika Annasiwatta, Muskingum University Chandika Annasiwatta received his B.S. degree in Mechanical and Manufacturing Engineering from Uni- versity of Ruhuna, Sri Lanka, in 2008, and Ph.D. degree in Mechanical Engineering from Texas Tech Uni- versity, Lubbock Texas, in 2017. He is an Assistant Professor of Engineering in Department of Physics and Engineering, Muskingum University. His research interests include mathematical modeling, hystere- sis and mechatronics. He has over 10 years of experience in teaching engineering
2021 ASEE Midwest Section Conference Power Supply Design Project in Electrical Systems Laboratory Course Saffeer M. Khan, PhD, P.E. and Mohamed Ibrahim, PhD Arkansas Tech University, Russellville, ARKeywordsEngineering design, project-based learning, power supplies, testing and validation, faculty paper.IntroductionEngineering Design is an important element of engineering curriculum to prepare future engineersin implementation of engineering design cycle by creating a new product or process to meet adefined need under cost, practicality, and safety constraints. The primary goal is to train theengineers through a 7-step
in industry. The objectives of thisresearch are to explore the types of cognition and social interactions of student teams as theyengage in these virtual laboratories, to determine the role of instructional design in the responseof student teams, and to ascertain whether virtual laboratories can effectively promote types oflearning that are difficult or impossible to achieve from physical laboratories.Objectives The specific objectives of the NSF CCLI Phase 2 project are to: 1. Create the following learning materials and teaching strategies based on virtual laboratories: A. Enhance the Virtual CVD laboratory by including interactive reflection tools (e.g., interactive lab notebook, a virtual supervisor), improved
Session 1232 A VLSI Design Laboratory Implemented in a Simulated Corporate Environment Jennifer T. Ross University of the Pacific, Stockton CA 95211 Abstract This paper presents an innovative teaching method applied to a Junior/Senior level integrated circuitdesign course. The premise of this methodology is to help students prepare for the environment they willencounter in the workplace as well as teach the course material. Frequently the traditional laboratory forundergraduates consists of
Paper ID #23604Breaking Down the Silos with an Integrated Laboratory ExperienceDr. Barbara E. Marino, Loyola Marymount University Dr. Barbara E. Marino is an Associate Professor in the Department of Electrical Engineering and Com- puter Science at Loyola Marymount University. She also serves as the Undergraduate Director for the Electrical Engineering Program at LMU. Her current research interests include engineering design and K-12 STEM outreach. Dr. Marino received the B.S.E.E. degree in 1989 from Marquette University and the M.S. and Ph.D. degrees in electrical engineering from the University of Notre Dame in 1993 and
agricultural storage warehouses. He is a licensed Certified Building Contractor in the State of Florida and a member of the USGBC of Oklahoma.Dr. Rachel Mosier P.E., Oklahoma State University Dr. Rachel Mosier is an Assistant Professor at Oklahoma State University. Her research interest is the cost of sustainable construction and sustainable infrastructure. Other research interests include technology in the classroom. c American Society for Engineering Education, 2019 “A survey of undergraduate students utilizing an interdisciplinary laboratory building”AbstractUniversities with graduate programs typically focus on graduate research assistants seekingmaster’s and
remains asource of frustration for students of biology and the life sciences. The disconnect between thetopics students learn in introductory physics lecture and laboratory and the changing nature ofthe biological sciences has only grown worse in recent decades. Students do not see therelevance of what they learn in their physics courses to either their ongoing education in biologyor their future careers in the life sciences. Yet, biomedical researchers and medical practitionersare acutely aware of the critical role of physics in the study of living systems from themacroscopic to the cellular scales. The recognition that physics laboratories provide an idealspace to teach modeling, computational tools and modern technology, while training
lab data (available only to one of the nineassigned teams) is shown in Figure 6. Page 8.671.3 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education Figure 1: Student View of MET 211 link on WebCT™ with ten laboratory folders along with a lab group folder for raw data uploads and downloads. Figure 2: Student and Instructor view of WebCT™ login screen detail. Login Name andPassword are unique for each student and instructor (and Teaching Assistants), supporting secure course score
Obispo, CA.She received her bachelor's degree in Materials Engineering from Cal Poly in 2002. While completing her master's,she is teaching a survey materials engineering laboratory to undergraduates and training students to use the ScanningElectron Microscope. Page 9.1322.9 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education