Session 3613 24x7: Lab Experiments Access on the Web All the Time Jim Henry University of Tennessee at ChattanoogaAbstract24 hours a day and 7 days a week, engineering laboratory equipment at UTC is for usersvia the World Wide Web. Users can conduct systems lab experiments from remote sites,anytime day-or-night, any day of the week. Additionally, "local" laboratory users haveexperimental data and response graphs posted for Web access (viewing anddownloading). The hardware consists of distributed desktop computers connected to avariety of engineering laboratory equipment. The software is all
improving the digital design laboratory environment [1,2]. Theobjective of this laboratory development was to incorporate the computer-aided digitaldesign methodology along with sophisticated PLDs [programmable logic devices] into aseamless design environment that will keep pace with the rapid technological advances.Presently, we are expanding the initial funded grant to encompass additional institutionsand technologies. This paper explains the planning steps, the initial contacts, and thefuture enhancements that are underway. The paper will explain the laboratoryenhancements and map out the plans for the expansion to other institutions includingcommunity colleges.IntroductionNSF ILI grant provided a wonderful opportunity for the WSU engineering
Student Participation in EE Lab Teams as a Predictor of Acquired Skills and Knowledge E. Carl Greco, Jim D. Reasoner, Ronald E. Nelson Electrical Engineering Department – Arkansas Tech UniversityAbstractIn a fundamental electrical engineering laboratory course, the current model utilizing laboratory groupsof two or more students to perform assignments reduced the student's ability to learn rudimentarylaboratory skills and knowledge and the ability to apply them to a basic circuits analysis application. Thestudents' performance on the laboratory final exam provided an indicator of their individually acquiredknowledge and skills. Several factors were investigated as
work, she also has an interest in engineering education research. As a doctoral student, she led a project aimed at improving the under- graduate educational experience by systematically incorporating sensor technology into the curriculum as an engaged learning activity, for which she was awarded an ASME Graduate Teacher Fellowship.Prof. Phillip Deierling Dr. Deierling is an Associate Professor of Instruction at the University of Iowa. He holds BS, MS, and Ph.D degrees all from the University of Iowa. Prior to joining the faculty, he was a postdoctoral research associate with the Air Force Research Laboratory through the National Research Council and a design and analysis engineer in the commercial vehicle
introductory ECEclass. An appropriate laboratory exercise may support this concept and spark student interest inthe subject matter. A logical choice is to present a “wireless” project as it naturally includes theconcept of complex impedances.Building a basic radio receiver on the protoboard is a challenge due to instability of the RF low-noise amplifier within an unpredictable protoboard environment. Our numerous attempts to buildan AM station receiver on the protoboard have indicated the following difficulties:1. The circuit can be built by the instructor and by those skilled in the field from the class, but not by all class students.2. The design is difficult to debug; sometimes the flawless circuit simply does not function.3. One critical point
Integration of Lab Safety Training into the Undergraduate and Graduate Chemical Engineering Programs Karen S. Hays Ralph E. Martin Department of Chemical Engineering University of ArkansasAbstractThe Ralph E. Martin Department of Chemical Engineering is the University of Arkansas’campus-wide leader in the area of laboratory safety training for their undergraduate and graduatestudents. This paper presents an overview of the laboratory safety training program and how itwas integrated into the curriculum. It describes how students are educated about the basics
circuit board (PCB). All the services necessary to perform thislaboratory experiment will be provided with low-cost vendors available on the . The learningmodule is being developed so that it can be integrated into the existing electrical engineeringlower division courses that are required by all engineering students. The laboratory learningmodule will use operational amplifiers (op amp), resistors, capacitors and other commonelectronic components to study the theory of op am circuits, and to apply these circuits to theinterfacing of electronic signals with the physical world. The learning module will replace twoexisting laboratory experiments on op amps with a five week exercise. After lecture on thetheory, the five week exercise will consist of
Session 1526 Interactive Multimedia Labware For Civil Engineering Curricula Lizette R. Chevalier, James N. Craddock Department of Civil Engineering Southern Illinois University Carbondale Carbondale, IL 62901-6603 PH: 618-453-6648 FAX: 618-453-3044 e-mail: cheval@engr.siu.edu, craddock@ce.siu.eduAbstractA website and CD-ROM based laboratory manual for the Environmental Engineering andMechanics of Materials Laboratories is
Engineering Education, 2023 2023 ASEE Southeastern Section Conference Which is More Equitable: Hands-on Labs, Virtual Labs, or No Lab at All? Charles Newhouse and Matthew Swenty Professor Virginia Military Institute / Professor Virginia Military InstituteAbstractLast year, the Virginia Military Institute’s (VMI) Civil and Environmental Engineering (CEE)Department investigated the depth and breadth of engineering laboratory classes both at VMI andnine peer institutions in the Virginia Region as defined by the American Society of Civil Engi-neers (ASCE). The study concluded that engineering laboratory experiences were still valued
year.Efforts are described to develop and deliver a freshmen engineering course for all 1100+freshmen that incorporates most of the intrinsic features of the alternative courses; is firmlybased on the ABET 2000 outcomes; stresses integration with other first year courses; andcontains elements of written and oral communication, team building, critical thinking,multidisciplinary thinking, and problem solving. The structure of the course includes a weeklylecture in large groups, and a smaller team-based problem-solving laboratory which alternateswith a required first year course focused on introduction to the computing environments oncampus.The content of the course, selection of topics, texts, and assignments is described. The othercomponent of the
an integral part of almost every course offered. Most courses include aweekly three hour lecture and a two hour laboratory. Recently a laboratory componentwas successfully added to the department’s introductory electrodynamics course. Thepurpose of this paper is to illustrate how students used the design of microwavemicrostrip circuits to improve their grasp of theoretical electrodynamics concepts. Inaddition, students were exposed to the practical aspect of design including limitationsinherent in the simulation, design, fabrication and testing of high frequency circuits.This paper will explain the details of laboratory exercises developed for the course andthe supporting software, fabrication facility and test equipment. Additional
have been various efforts for effective teachingand learning in this virtual format. One of the key efforts is to deliver an individual essential versionof an embedded systems laboratory kit to each student so that the student can use it and study it attheir favorite location, such as their home. Students can obtain their own embedded system boardand use it with this essential laboratory kit. In the Fall semester of 2021, some of the highereducation institutions returned to the in-person format of the course delivery for most of the classes.Texas A&M University at College Station has offered in-person classes in the Fall semester of 2021.There have been several efforts in readjusting to in-person learning due to the several changes
Paper ID #38498Low-Cost DC Motor Control System Experiments for Engineering StudentsMs. Bhawana Bhatta, Youngstown State University Ms. Bhawana Bhatta is a graduate student in the Electrical and Computer Engineering department at Youngstown State University (Aug 2021 – May 2023). As a graduate assistant, she has been actively involved in developing the low-cost controls laboratory set-up at YSU. She also completed her BS in Electrical and Computer Engineering from YSU.Prof. Ghassan Salim, Youngstown State University Ghassan Salim is a lecturer in the department of Electrical and Computer Engineering at Youngstown State
Session FA2-1 A Course Sequence in High Frequency Electronics with Hands-On Laboratory Experiences Charles Baylis, Randall Jean Wireless and Microwave Circuits and Systems Program Department of Electrical and Computer Engineering Baylor University AbstractThis paper describes the development of a course sequence in High Frequency Electronics atBaylor University. This sequence has been designed to provide students with a balanced learningexperience consisting of
University, we have partnered with Xilinx, a leading manufacturer ofFPGAs and a leading provider of programmable platforms to develop a graduate level course forComputer Engineering curriculum to bridge the gap between computer engineers and softwaredevelopers. This course would allow students from engineering and computer science majors tobe able to develop and implement applications on FPGAs using Python programming languageand overlays that are similar to software libraries. In this paper, we describe the structure of thecourse along with the associated topics and laboratory exercises.I. IntroductionToday, Field Programmable Logic Devices (FPLDs) are considered as an alternative toApplication Specific Integrated Circuits (ASICs) in
Session 1526 Mechanics of Materials Interactive Multimedia Labware James N. Craddock, Lizette R. Chevalier, Kudzai Musumhi Department of Civil Engineering Southern Illinois University Carbondale Carbondale, IL 62901-6603 PH: 618-453-6648 FAX: 618-453-3044 e-mail: craddock@ce.siu.edu, cheval@engr.siu.eduIntroduction This paper concerns the development of a website and CD-ROM based laboratory manual fora Strength of Materials Laboratory. Similar work has been done for another
plasma, materials characterization, 3D printing, and student assessment. American c Society for Engineering Education, 2021 Transition to Virtual InstructionDuring the spring 2020 academic term, students and instructors were required to transition fromin-person instruction to a virtual learning mode. This transition occurred at the mid-point of thesemester, moving from an in-person student-teacher interaction to a virtual environment. Whilethis transition was unexpected for students and instructors, it was also an opportunity tounderstand how student learning outcomes were affected and how students reacted to thischange. Both lecture and laboratory
quality of undergraduate engineering students.Dennis Coon, University of Wyoming Dennis N. Coon received a BS in Ceramic Engineering from the New York State College of Ceramics at Alfred University in 1979, an MS in Ceramic Science from the Pensylvannia State University in 1984, and a Ph.D. in Ceramic Science from the Pennsylvannia State University in 1986. He was employed at the Idaho National Environmental and Engineering Laboratory from 1985 through 1988 where his primary interest was in the devlopment of advanced materials for high temperature engines. He was a member of the development team that was awarded a R&D 100 award by Research and Development Magazine for development of
AC 2011-582: LEARNING FROM REMOTE EXPERIMENTATIONS OVERTHE INTERNETAbul K. M. Azad, Northern Illinois University Abul K. M. Azad is a Professor with the Technology Department of Northern Illinois University. His re- search interests include mechatronic systems and structural control, remote laboratory, adaptive/intelligent control, mobile robotics, and educational research. In these areas, Dr. Azad has over 100 referred journal and conference papers, edited books, and few book chapters. So far, he has attracted around $1.5M of research and development grants from various national and international funding agencies. He is active with various professional organizations along with editorial board member for a number of
Hardware-Based Dynamic Systems Course for a Mechanical Engineering Undergraduate ProgramAbstractMany mechanical engineering undergraduate laboratory courses in dynamic systems and controlsare primarily software-based, with laboratory assignments involving computer simulationmodeling. While such simulation assignments may appeal to traditional mechanical engineeringundergraduate students, especially male students, laboratory exercises that are hardware-basedmay appeal to a wider variety of students. In particular, the addition of physical experimentationshould have an impact on male / female diversity, as there is some scientific evidence that femaleundergraduate students prefer kinesthetic learning to males, which involves moving the body
002 A Simple Current Controlled Lamp Dimmer Tuere Davis Electrical Engineering Department Southern University Baton Rouge, LA 70813 tuered@yahoo.comAbstract:The first electronic laboratory in the undergraduate curriculum is used to enhance thestudent ability to design simple electronic circuits. In this paper, we propose a simplecurrent controlled lamp dimmer that utilizes the knowledge gained in the first electroniccourse. The circuit provides a wide range of lamp light intensity. This idea may be usedin other circuits that require similar current
control of manufacturing systems such as machine tools and industrial robots.In this investigation, PCs with motion control cards were integrated with a milling machine and a robot. Projectsbased on the use of OACS in engineering education include: 1 )cutting force measurement and control; and2)motion command generation. This paper explains the basic structure and characteristics of an OACS as wellas engineering principles and laboratory experiments which can be demonstrated and incorporated. Introduction Progress in manufacturing automation relies on the development of CNC machine tools, robotics andother industrial automation devices. While the structure of machine tools and robotics
.— - . . Session 3215 . .. . . . USE OF PERSONAL COMPUTERS TO ENHANCE THE GEOTECHNICAL ENGINEERING EDUCATION l M. Zoghi , Ph.D.Abstract The integration of personal computers in teaching the geotechnical engineering courses including thesoil mechanics and foundation design, as well as soil mechanics laboratory will be described herein. Inaddition, the potential use of microcomputers in undergraduate and graduate special projects as part ofindependent studies will be
Award in 2005. Additionally, she is a member of the ASME Dynamic Systems and Controls Division Robotics Panel, the IEEE Robotics and Automation Society, and the program committee of the Haptics Symposium. Page 11.680.1© American Society for Engineering Education, 2006 Haptic Interfaces for a LabVIEW-based System Dynamics CourseAbstractToo often in undergraduate mechanical engineering courses, the content of laboratory exercisesis not well coordinated with course content, and the exercises are unrelated to each other. As aresult, students have a difficult time grasping the
Session 3157 Motion-Tracking Technology & Three-Dimensional Displays Provide Leading-Edge Research & Educational Tools to Industrial Engineering Students at Texas A&M University-Commerce Andrew E. Jackson, Ph.D. Texas A&M University-CommerceAbstract In the fall of 2002, a new Industrial Engineering program was established at Texas A&MUniversity-Commerce (TAMUC). A central component of this new undergraduate program is areconfigurable, modularized Human Factors & Ergonomics Laboratory (HFEL) that will providestudents
Paper ID #11423Virtual Simulations to Support Applied Fluid Mechanics Course: A Pilot Im-plementation OverviewDr. Gonca Altuger-Genc, State University of New York, Farmingdale Dr. Gonca Altuger-Genc is an Assistant Professor at State University of New York - Farmingdale State College in the Mechanical Engineering Technology Department. She is serving as the K-12 STEM Out- reach Research and Training Coordinator at Renewable Energy and Sustainability Center at Farmingdale State College. Her research interests are engineering education, self-directed lifelong learning, virtual laboratories, and decision-making framework
Disciplines George Prpich and Natasha Smith University of VirginiaAbstractEngineering Laboratory courses are used to teach many of the core professional developmentcompetencies that are required of engineering graduates. Safety is one competency that is highlyvalued by industries (e.g. petrochemicals, pharmaceuticals, aeronautical) that hire from a varietyof engineering disciplines, but is not commonly taught across the disciplines. In this paper, wediscuss a work in progress to transfer safety pedagogy from a Chemical Engineeringundergraduate laboratory to a Mechanical Engineering undergraduate laboratory. First, wepresent results from a baseline safety culture survey that
newInterdisciplinary Nanoelectronics Laboratory for the Engineering/Science UndergraduateCurriculum at the University at Buffalo (UB). This is one of the very first and unique teachinglaboratories in the area of nanoelectronics in the country for second and third year undergraduatestudents. Nine laboratory experiments as well as the manuals for these laboratory experimentshave been developed. The list of the laboratory experiments includes: Propagation of Errors;Introduction to Scanning Tunneling Microscopy (STM); Study of the Highly Oriented PyrolyticGraphite (HOPG) Surface Using STM; Introduction to Atomic Force Microscopy (AFM); Studyof the Morpho Butterfly Wing Structure Using AFM; Diffraction of Electrons from Graphite;Diffraction of Light by a Double
Session 1368 Online experimentation for study of stress and deformation in structural beamsAlamgir Choudhury, Jorge Rodriguez, Mitch Keil, Sam Ramrattan and Pavel Ikonomov Department of Industrial and Manufacturing Engineering Western Michigan UniversityAbstract Analysis of stress and deformation of beam elements are utilized in a wide rangeof curriculum. In most engineering and engineering technology programs, analyticalmethods are often augmented with computer applications and laboratory experiments. Inthe lecture only classes, theoretical learning can be complemented by
requires each group’s PLC to perform a specifiedtask along with transferring their data through an Ethernet network to each of the other PLCs inthe laboratory.This course is unique in that it requires the students to assemble, wire, and hardware debug theirPLC as new modules are added throughout the quarter. At the same time, they are designing anddebugging new ladder logic and stage programs on a weekly basis. The students give a shortoral presentation of their weeklong project at the beginning of each laboratory period beforestarting the next project. This course also includes a studio classroom environment. Often after20 or 30 minutes of lecture the students get out their laptops and program short example ladderlogic exercises that reinforce