supplement. They were encouraged to read the supplement before the first day of lectures. About sixty interactive models and six animated screen videos prepared the student for self-test exercises. About ten hours were required for a student to assimilate the material in the software supplement, and the paper discusses the value of this time commitment. 7) The role of virtual laboratory exercises included in the ePAC is briefly described.IntroductionImprovements in online learning tools, evolving student demands and universal computer access,prompt the initiation of course delivery methods that challenge the hegemony of traditionalpresentation formats. The courses described here were not offered by distance delivery, but
complex systems.13, 22-23Although some of these philosophies do appear to be mutually exclusive, an optimal first-semester course would benefit from adopting the best characteristics of each. By balancing thesedifferent philosophies, it may be possible to design a course that is more effective than any onephilosophy could have been. We have attempted to design such a balanced course, modeledafter work done at Purdue University 5, that helps students to learn the fundamentals of eachengineering discipline and build interdisciplinary connections among those disciplines, and wedo so through a balance of traditional lecture and hands-on laboratory and design experiences
(desk clocks).Departmental laboratories are organized as business departments within the enterprise includingengineering, manufacturing, assembly, and distribution.ALIVE is a set of about twenty web-based learning modules, essentially short internships indifferent functional areas of the VE. As with an internship, students are given objectives,introduced to the business function, shown how the function is integrated using IT, exposed toeconomic and other systems issues, tested individually for comprehension, then asked to work ona team to achieve some business purpose. Students perform one or two learning modules ofprogressive difficulty in each undergraduate Industrial Engineering class; sometimes inconjunction with other disciplines such as
Steven Beyerlein is professor Mechanical Engineering at the University of Idaho, where he coordinates the capstone design program and regularly participates in ongoing program assessment activities. For these efforts he won the UI Outstanding Teaching Award in 2001. Over the last three years he has assisted Dr. Odom in creating the Mindworks laboratory discussed in this paper. Currently he is collaborating on an NSF grant with other members of the Transferable Design Engineering Education (TIDEE) consortium to develop valid and reliable instruments for measuring student performance in design.Russ Porter, University of Idaho Russ Porter is the manager of the Mechanical Engineering Machine
Engineering 5 1,2,4,5,6,7,8,9,10,11 Civl 314 Engineering Administration 5 1,5,6 Civl 330 Measurements, Analysis & Modeling 7 1,2,3,4,5,10Jr. 2nd Civl 313 Hydrology & Water Resources 9 1,3,5,8 Civl 315 Fluid Mechanics 7 1,3,5Sr. 1st Civl 418 Fluid Mechanics Laboratory 4 1,2,3,5,6,7,8,11 Civl 408 Water and Wastewater Systems 7 1,3,5,10,11,12Sr. 2nd Civl 419 Environmental Engineering Laboratory 7 1,2,7,11,12 Civl 422 Environmental Engineering Capstone 9
2006-1904: SYSTEM DESIGN, DEVELOPMENT, TRAINING ANDIMPLEMENTATION OF A MIXED SIGNAL BROADBAND CHIP-TO-CHIPDIGITAL COMMUNICATION SYSTEMCajetan Akujuobi, Prairie View A&M University Dr. Akujuobi is the founding Director of the Broadband Access Technologies Program and Laboratory at Prairie View A&M University. He is also the founding Director of the Center of Excellence for Communication Systems Technology Research (CECSTR). Key areas of his research interests are in High-Speed (Broadband) Communication Systems, mixed signal systems and communication systems. He is also the founding Director of the Mixed Signal Systems Research Program at Prairie View A&M University. He has been
inCentral Florida, namely Florida Institute of Technology (FIT) in Melbourne and the Universityof Central Florida (UCF) in Orlando. In addition to the two host universities, there are two 2-yearCentral Florida colleges, Seminole Community College (SCC) in Oviedo and BrevardCommunity College (BCC) in Melbourne. Project EMD-MLR is a National Science Foundationfunded project under NSF grant CCLI-0341601 for the period of May 2003 to Arpil 2006 andunder the auspices of the Educational Materials Development track of the Course, Curriculumand Laboratories Improvement (CCLI-EMD) program. Page 11.544.3A key goal of Project EMD-MLR is to engage undergraduate
. Page 11.94.1© American Society for Engineering Education, 2006 A Power Systems Analysis ProjectAbstractThis paper describes a six-week laboratory project in which students analyze a small powersystem. The analysis is done with PowerWorld and is supplemented with MatLab calculations.The students were provided information concerning a small (seven bus, two generator) powersystem. They were required to assemble all of the information into tables, both in actual valuesas well as in per unit on a common base, before beginning the analysis. Since the system wassmall, students could manually calculate Ybus and Zbus values and compare them to thePowerWorld results. Any discrepancies had to be resolved in order to get the
the customer as the primary source ofinformation input4.The quality of education will not be met until a quality culture is developed. Success can only beachieved when everyone involved in engineering education has the commitment, the motivation,and the means to incorporate the culture of quality in every lecture, every laboratory work that issupervised, … , or every paper that is written3. Self-assessment of quality in classroom processesand systems is essential to promote continuous improvement and customer satisfaction. Forexample, the total quality management concepts were applied to improve the quality of highereducation in Lamar University10. The planning phase of PDSA (plan-do-study-act) has beenapplied for quality improvement. The
delivery tools aroundthe world. Currently, more than 3,700 world-wide higher education, K-12, corporate,government and commercial academic institutions utilize solutions offered by WebCT and itsparent company Blackboard4. In Tennessee Tech University, WebCT has been the only tool usedto deliver the web-based courses to its distance students. WebCT provides an environment fordeveloping and delivering web-based educational activities and materials. It permits instructorsto make tests, discussions, lecture materials, and sample solutions available via the world-wideweb. Some coursework such as homework, tests and laboratory reports, can also be submittedand controlled via WebCT.IDEA EvaluationsThe IDEA survey system takes a positive approach to
: Steering Committee: consisting of the three ETID program directors. Working committee: consisting of three ETID faculty members, one from each ETID program. Page 23.661.5 Faculty advisors: consisting of faculty members with expertise and interests that match particular projects. Student assistant: consisting of students from College of Engineering who are paid to work on PID Initiative projects. Instructors and students: consisting of instructors and students in relevant ETID courses. Parts of PID Initiative projects that are appropriate for certain ETID courses will be developed into laboratory
sheetspecimen testing confirmed the large accumulation of strain during the first 1,000 cycles.3While strain measurements in undergraduate laboratory experiments are commonly restricted tomechanical extensometry methods, the student had the opportunity to learn about opticalmethods used for strain measurements. A non-contact video extensometry method was employedto measure strain in polymers using LabVIEW. Algorithms performed pattern learning, patternsearching, and displacement measurement between two markers. This method proved to be acost effective method compared to laser extensometers. The error using the video extensometrymethod was less than 5% compared to a laser extensometer. The challenges on markingrecognition were due to inconsistent
Paper ID #5982Innovations in Nano Materials Education through International Collabora-tionsDr. Ajit D. Kelkar, North Carolina A&T State University Dr. Ajit D. Kelkar is a professor and chair of Nanoengineering department at Joint School of Nanoscience and Nanoengineering. He also serves as an associate director for the Center for Advanced Materials and Smart Structures. For the past twenty five years he has been working in the area of performance evaluation and modeling of polymeric composites and ceramic matrix composites. He has worked with several federal laboratories in the area of fatigue, impact and finite
students and a laboratory, offeraccess to real equipment. Web-based communication technologies enable students to sendcommands that then go through a server and execute the experiment on equipment in the real lab.This technique was applied by Marc et al. (2002) to Control and Robotic labs utilizingLABVIEW Web server.Web-based technologies have been used effectively to demonstrate theoretical concepts usingvirtual (simulation) experimentation equipment. Internet availability of experimental setups andrelated computational simulations allow for (1) efficient use of time and resources, (2) flexibilityin accessing information, and (3) convenience of self-paced learning with the aid of physicalmodels (Soh and Gupta 2000; Romero and Museros 2002). The
Paper ID #9831A STEM Transfer and Retention Program at Texas A&M International Uni-versityDr. Fernando Garcia Gonzalez, Florida Golf Coast University Dr. Fernando Gonzalez joined FGCU as an Assistant Professor in the Computer Engineering Program in the fall of 2013. Previously he was an Assistant Professor within the Engineering, Math, and Physics Department at Texas A&M International University in Laredo, Texas. Prior to that he was a Technical Staff Member (researcher) for the U.S. Department of Energy at Los Alamos National Laboratory in Los Alamos, New Mexico. Dr. Gonzalez was also a faculty member in the
the capability to lead teams in efficiently andeffectively delivering projects and products for their stakeholders. Yet a significant gap existsbetween this need and the output of the traditional engineering education system. This results ina lack of competitiveness for commercial entities, causes failed projects and failed companiesand prevents technologies and innovations from transitioning from the laboratory to customersand society.To bridge this gap innovative integrated approaches that develop not only the technical depth butalso the interpersonal agility essential to successfully lead engineering teams are neededi.The purpose of this paper is to examine a pedagogical technique employed in developingengineering leaders: the use of self
research and laboratory skills [8, 12, 16, 17] result in an improved understandingand interest for the discipline. However, in spite of a number of studies showing that earlyengagement offers the greatest benefits [9, 10, 18], the vast majority (91%) of REU participants arejuniors and seniors, as highlighted in a recent extensive evaluation of REU programs by SRIInternational [9]. The report recommends a shift in this balance through greater engagement of Page 23.487.2lower division students, as there is a strong correlation between longer research participation andpositive benefits for students, including improved student retention and
comprise three common fundamental sustainable power engineering educationcourses. The courses that have been currently planned to be added to the curriculum are: 1. Power Systems 2. Power Electronics 3. Electrical Machines and DrivesIII. The Power Systems CourseThe course entitled “Modern Power System Analysis” was designed to support electric powersystems basics and it is the first pilot implementation of Power Systems component. This courseis a four-credit-hour lecture course that has both lecture and laboratory sessions and is offered toElectrical and Computer Engineering Technology Students.The detailed course content for the two remaining power engineering courses in the curriculum,entitled “Power Electronics” and
Paper ID #7723A Study of Warping of Non-circular Shafts in TorsionProf. Somnath Chattopadhyay, Georgia Southern University Page 23.115.1 c American Society for Engineering Education, 2013 A STUDY OF WARPING OF NON-CIRCULAR SHAFTS IN TORSIONABSTRACTThis project is geared towards the study of warping as that takes place in non-circular shaftsunder torsion loading. For this purpose specimens of square cross-sections were used. .Thisactivity constitutes a laboratory unit in Mechanics of Materials course taught at the junior level.The students
, S.E., Hall, S.R., et. al., “Reform of the Aeronautics and Astronautics Curriculum at MIT”, ASEE Journal of Engineering Education, Vol. 83, No. 1, pages 47-56, January 1994.AcknowledgmentsThe balsa glider laboratory and the water rocket laboratory were phased in since 1998 withcontributions from Prof. Dan Frey, Prof. Jim Kuchar and Prof. Charles Coleman. TeachingAssistants that were particularly helpful in organizing the activities decribed in this paper areChris Graff, Danielle Adams, Andrea Fanucci, Tim de Mierry, Ryan Whitaker as well as GeoffReber and Damian Toohey. Mrs. Diane Soderholm assembled Appendix B. The online studentsurvey was conducted by Mrs. Doris Brodeur and Mr. Alf Kohler. Ms. Colleen Horin agreed tobe shown in Figure 9
Educationsuccessful.In the spring semester, the student teams work in the various PSU laboratories building theirprojects. No work is allowed without manufacturing process procedures. Consideration of qualitycontrol issues is also expected from each group. Each team member is expected to contribute tothe project. The final project is then evaluated to see if the objectives of the project have beenmet.The ProjectThe project chosen the past seven years for the PSU mechanical and manufacturing “Capstone”experience is for each team to design and build a Human Powered Moon Buggy. The idea ofbuilding a human powered moon buggy came from the NASA sponsored Great Moon BuggyRace held in Huntsville, Alabama each year since 1994. The race is modeled after the originalmoon
Chemistry: Organic Chemistry Mathematics: Introduction to Mathematics: Calculus Modelling Physics: Electricity and Magnetism Mathematics: Differential EquationsLevel Biochemistry: Biochemistry of Mathematics: Mathematical PhysicsIII Macromolecules* Medical Physics: Computational Biology: Cell Biology Medical Physics Mathematics: Mathematical Physics Physics: Quantum Mechanics Medical Physics: Radioactivity and Physics: Physical Optics Radiation Interactions Physics: Intermediate Laboratory Physics: Modern Physics Physics: Intermediate
University. The program is funded under the NSF Historically BlackColleges and Universities - Undergraduate Program (HBCU-UP). The first three yearsof the program have been highlighted by the achievement of stated goals for attractingmore students and raising achievement levels among participants. Recruitment andretention of underrepresented student groups within SMET disciplines and generalstrengthening of the educational and research infrastructure are among the primaryobjectives. Partnerships with high schools, academic institutions, corporations andindustrial/governmental laboratories have all played a vital role in the success of theprogram. Major components have been mentoring and monitoring programs, which keepstudents informed and well
measures of success for under-represented minority engineering students, including programs administered at the college levelthat include financial assistance, academic intervention, and graduate school preparation andadmission.These studies and resources all point to the need for a transition in engineering undergraduateeducation in the US from the traditional emphasis on the acquisition of technical knowledge tothe integration of innovative learning experiences that more accurately reflect current practiceand more effectively prepare students to meet these demands and to be successful practitioners1.Curricular settings that encourage cognitive and professional growth include hands-on learning,laboratory instruction, and authentic or relevant
implemented,stabilize the remaining manufacturing programs and may even contribute to their growth. Thispaper will explore four key aspects of manufacturing programs: student recruitment andretention, faculty professional development, curriculum development, and laboratory andprogrammatic costs. Among the many challenges facing manufacturing educators, studentrecruitment and retention, especially among underrepresented students, remains the most vexing. Page 25.676.3Student RecruitmentStudent enrollment is one of the key justifications to keep manufacturing programs open. Unlikeother disciplines that are more ―visible‖ to the public
25.775.4rigorously assessed9, 10; however, improvements to the assessment process were made this pastyear. The next information literacy modules developed were for Foundation Design (CEE 4801),Soil Mechanics Laboratory (CEE 3901), and Solid and Hazardous Waste (CEE 4331). Themodules for Advanced Transportation Engineering (CEE 3525) in 2010 and TransportationFacilities Design (CEE 4224) in 2011 are the most recently developed. Although the informationliteracy modules for Foundation Design, Soil Mechanics Laboratory, and Solid and HazardousWaste have been in existence for several years, the assessment process is still developing.Although there are often intermediate assignments in each class, there is a major work productassociated with each class.Table 1
strategies Chu was forced to devise are what eventually led him andseveral of his Bell Labs co-workers to win multiple Nobel Prizes. Says Chu: Page 25.798.6When most people think of industrial labs they think of, “Oh, you’re makingbetter widgets. You’re making something that’s going to be good for the phonesystem.” Now, ultimately, that’s true. But at Bell Labs in that time—this is in1978—allowed a small fraction of us—fifty, sixty, eighty—to do whatever wewanted; really to do whatever we wanted.So I joined Bell Laboratories. My department head said, “Steve, you can dowhatever you want. It doesn’t even have to be physics. All we ask is that youdon’t go to
evolutionary genetics in 2010.Dr. Adah LeshemDr. Michael R. Kessler, Iowa State University Michael R. Kessler is an Associate Professor of materials science and engineering at Iowa State Univer- sity and an associate of the Department of Energy Ames Laboratory. He received a B.S. degree from LeTourneau University, Longview, Texas, in 1996, and M.S. and Ph.D. degrees from the University of Illinois, Urbana-Champaign in 1998 and 2002, respectively. His research thrusts are focused on the pro- cessing and characterization of polymers and polymer matrix composites. Page 25.863.1 c American Society
PlusDynamic Process Simulation and Basic ControlsThis part of the study was conducted by a University of Houston master thesis student in theprocess automation laboratory of the University of Houston – Downtown in partial fulfillment ofthe master thesis requirements at the University of Houston.Using the steady state design mentioned in the previous section, a rigorous dynamic processsimulation was developed using Aspen Dynamics. The use of Aspen Engineering tools todynamically predict process behavior and evaluate control structures is not yet widespread inacademia even though such tools (at least the steady state ones) are extensively used by theprocessing industries. It was decided to use such tools because of the rigor of the resultsproduced and
provide examples of the curriculum,what is covered and how we cover it. We also provide examples of laboratory projectsthat are used to complement the class lecture sessions. We use MATLAB software in allthe lab projects.We also discuss possible implementations of the speech coding and processing usinghardware such as DSPs. In the future, we plan to introduce the use of FPGAs for thisapplication as well.Details of the course and our experiences in developing and offering them will bepresented at the conference.IntroductionPreviously, we have developed three graduate-level courses in the Multimedia area ofSpeech to teach the fundamentals of speech coding and voice-over-IP. They are a 3-course sequence (1) ELEN 421 (Speech Coding I) (2) ELEN 422