utility engines has been conducted. The project studied (1) the extent of the deteriorationof the emissions as the engines age, (2) the causes of the deterioration, and (3) strategies forimproving the emissions. Thirteen undergraduate students have worked on this project over theyears. In comparison, only two M.S.-level graduate students (one of whom originally worked asan undergraduate student on the project) worked on the project over the same time. As a result,much of the research work was completed by these undergraduate students and their effortsplayed a large role in sustaining the project over its duration.Students who worked on this project benefited by performing engineering work in a modernresearch laboratory facility, thereby gaining
throughout the semester. The water facility design team worked at a consistent levelthroughout the semester.Curriculum Development Team A subset of the scholarship recipients are seeking to develop curricula that buildsstudents’ conceptual understanding of science while reinforcing these concepts throughinteractive and interdisciplinary laboratory experiments. The laboratory experiments are beingadapted from previous efforts at Colorado School of Mines to improve science instruction in theUnited States at the K-12 level4. All of the adapted materials must further be aligned withmandated Ugandan government science curriculum16 and utilize resources available in Uganda. Consistent with the government mandates, Table 3 provides the course
muscles work dynamically in the human body, physical therapystudents must be able to identify structures in the human skeleton and features of thosestructures. The course in which the student learns these things has a textbook with many picturesand also has a laboratory component in which the student spends time in the laboratory studyingbones (or models of bones) at great length. We were asked by our physical therapy departmentto consider design and implementation of a system that would serve as a virtual laboratory forphysical therapy students. The desired system would have a number of features found ininstructional software such as Blackboard or WebCT, but the application domain imposed somerequirements that appeared to go beyond what was
“inverted” course formats werecreated for two core computer engineering classes: a sophomore-level Introduction to DigitalSystems Design course, and a junior-level Microprocessor System Design and Interfacing course.Both of these are 4-credit hour courses that include an integrated laboratory. In the experimental formats, the basic lecture content was delivered asynchronously viastreaming video, while collaborative solving of homework problems accompanied by a detailedwalkthrough of their solutions was done synchronously (i.e., during scheduled class periods) –which we refer to as directed problem solving (DPS). Traditional assigned (outside-of-class)written homework was replaced by collaborative problem solving by students working in smallteams
Laboratory • Plant Systems OverviewIn addition to the Nuclear Engineering Technology core requirements, students must complete a3-credit Integrated Technology Assessment (ITA) requirement.The 3-credit ITA requirement consists of the submission of a comprehensive portfolio by the BS-Nuclear Engineering Technology students at Excelsior College. This portfolio consists ofinformation regarding students’ achievement of the learning outcomes of the given program ofstudy. The academic and professional portfolios are effective tools for academic programs to usein assessing program outcomes. All the desired outcomes for engineering education identified byABET Criteria are addressed by these portfolios.Integrated Technology AssessmentAll BS candidates in
even more dramaticresults using active-engagement methods coupled with inquiry-based laboratory modules. Themeaning of “inquiry-based” has many slightly different definitions [8], all of which share the keycharacteristic that students pose and answer questions through physical experience and directobservation rather than by listening to lecture or following a highly prescribed laboratoryprocedure. In this work, we define inquiry-based learning to be that which incorporates thedefining features shown in Table 1 [6]. Table 1: Elements of Inquiry-Based Activity Modules [6] (a) Use peer instruction and collaborative work (b) Use activity-based guided-inquiry curricular materials (c) Use
Tau Sigma and Tau Beta Pi. He worked for the Air Force Research Laboratories in Dayton, OH, during the summers of 2000 and 2001. He is currently a doctoral student at Polytechnic University. His research interests include control of mechanical and aerospace systems.Vikram Kapila, Polytechnic University VIKRAM KAPILA is an Associate Professor of Mechanical Engineering at Polytechnic University, Brooklyn, NY, where he directs an NSF funded Web-Enabled Mechatronics and Process Control Remote Laboratory, an NSF funded Research Experience for Teachers Site in Mechatronics that has been featured on WABC-TV and NY1 News, and an NSF funded GK-12 Fellows project. He has held visiting positions with
AC 2007-245: SIX YEARS AND THOUSANDS OF ASSIGNMENTS LATER: WHATHAVE THEY LEARNED, AND WHAT HAVE WE LEARNED?J. Shawn Addington, Virginia Military Institute J. Shawn Addington is the Jamison-Payne Institute Professor and Head of the Electrical and Computer Engineering Department at the Virginia Military Institute. He received his B.S., M.S., and Ph.D. degrees in Electrical Engineering from Virginia Polytechnic Institute and State University. He teaches courses, laboratories, and undergraduate research projects in the microelectronics and semiconductor fabrication areas; and, he remains active in curriculum development and engineering assessment. He is a registered professional engineer in the
for past grammatical expertise Page 23.676.8Junior ME 332 – Fluid Mechanics ME 371 – Machine Design IYear Laboratory Reports: (Approx. 9 @ 4-6 pages each) Short Technical Reporting Brief narrative of procedure, measured data, Design Analysis Reports (2 @ 4- deduced and analyzed data, plotted results with 6 pp. Individual); Technical discussion and conclusions. Analysis, Economic Analysis, Recommendation for Action
Technology, Sweden. 1Teaching of writing skills can be, arguably, the most difficult communication skill to teach.Engineering students need to master writer, genre, and reader-oriented composition, thoughnot necessarily to equal levels or at the same time. In Years 2 and 3, engineering studentsneed to master ‘genre-oriented composition’; in other words, they need to be able to matchthe expectations for diverse, yet specific, writing types: cover letters, laboratory reports,design reports, engineering drawings, and oral presentations. In Years 3 and 4, engineeringstudents, to varying degrees, need to focus more on reader-oriented composition andrecognise the
product and the final report, peer evaluations and faculty/industry finalpresentation evaluations.The decision to change the Capstone course from a “Production Laboratory” to a “Research andDevelopment Project”, to better meet the needs of the MET and ME students, was firstimplemented in the fall of 2010. This was possible because the course was split into two separateCapstones, an R&D based course for the MET & ME students and the traditional productionbased course for the Applied Technology students. During the 2010-11, the new R&D capstonecourse was taught to the MET students since none of the ME students were sophomores andjuniors. The switch to an R&D focus allowed the department to reach out to industry partners towork on
Paper ID #10272A Teaching Model for Teaching Deaf/Hard of-hearing and Hearing Studentswith Course Accessibility and Real World Product DesignMr. Gary W Behm, Rochester Institute of Technology (CAST) Gary Behm is an Assistant Professor of the Engineering Studies department and Director of the Center on Access Technology Innovation Laboratory at RIT/NTID. He is a deaf engineer who retired from IBM after serving for 30 years. He received his BS from RIT and his MS from Lehigh University. His last assignment with IBM was an Advanced Process Control project manager. He managed team members in delivering the next generation
classrooms and laboratories according to our vision of good practiceand needs. One of the ECE faculty temporarily based in the Physics department developed anapplied electrostatics laboratory from scratch to be used in the ECE program and taught thePhysics capstone course twice using the lab facilities. The Applied Electrostatics Laboratory wasthought to allow for great flexibility of projects related particularly to nanotechnology by meansof electrospraying, electrospinning, and gas discharges. The main available equipment consistsof a couple of high voltage power supplies (one high voltage amplifier), single syringe anddouble syringe pumps, a high speed camera system, a Keythley picoammeter, a modified Veecosystem for studying electrospray
education, and teacher professional development. For ten years she served on the Board of Examiners for the National Council for the Accreditation of Teacher Education. She was also at the University of South Carolina for 17 years where she taught undergraduates, had an active research program in paleo-oceanography, and numerous graduate students. She has a B.S. in Zoology from the University of Rhode Island and an M.S. and Ph.D. in Geological Sciences from the University of South Carolina.Lynn Charles Rathbun, National Nanotechnology Infrastructure Network, Cornell University Dr. Lynn Rathbun is the Deputy Director of the National Nanotechnology Infrastructure Network and the Laboratory Manager of the Cornell Nanoscale
, Proposed Solution Resumes, email, short engineering focused Paper, Justified Evaluation Paper, Writing Profile reports, engineering writing demands, problem Paper solving, speaking, ethics, and orientation to the university/college/majorsSoph. ME 201 – ThermodynamicsYear Student communication survey, refresher for past grammatical expertiseJunior ME 332 – Fluid Mechanics ME 371 – Machine Design IYear Laboratory Reports: (Approx. 9 @ 4-6 pages each) Short Technical Reporting Brief narrative of procedure
, business, and government. The important policy changein the ATE program was that the grantee institution would be either a two-year college, or otherassociate degree granting institutions, or a consortium of two-year colleges along with thepreviously mentioned partners. Thus, two-year colleges or associate degree offering institutionswere specifically targeted by the ATE program and, as a further consequence, community collegefaculty were being afforded greater opportunities for grant funding and the actual planning andadministration of the grant [1].The focus of ATE projects would be on curriculum development, faculty or teacher development,instructional materials development, or instrumentation and laboratory improvement. Also,considered for
, scholarship in ET has to achieve the following:• ET scholarship must improve our teaching, add value to the education of our undergraduate/graduate students, and involve our students in meaningful ways.• ET scholarship must be relevant to industry, and lead to improvement in the curriculum and in undergraduate laboratories• ET scholarship must be documented and disseminated to others and be open to critical examination by peers outside our department in order to ensure the quality of the scholarly activity and to facilitate continuous improvement in this area of faculty endeavor.9, 11Based on this premise, we propose the definition of ET scholarship to include the following: 1. Scholarship of discovery in applied research
limited to the itemized list in Table C. Page 25.833.7 Equipment Location Ablation machine Operation Room Defibrillator Emergency Department Heart Monitor Emergency Department Pacemaker Emergency Department 3 Analog weight scales Pharmacy 4 Electronic Weight scales Pharmacy 2 Suction Pumps Medical Ward 4 Oxygen Concentrators Medical Ward 2 Microcentrifuges Laboratory Otoscope Outpatient DepartmentTable C: List of equipment serviced and their location within
learning components. The innovative deliverymethods of the modules include: remote interactive delivery, synchronous online delivery,remote laboratory functions, asynchronous delivery, and delivery using virtual classroom withstudents having 24/7 remote access anytime, anywhere, and on any platform. This paper describes the progress made in the project’s first 16 months in terms ofinnovation, module development, level of participation, industry partnership, experientiallearning, and college credits for participants. It also describes the outcomes related to the projectgoals through formative measures, and subjective assessments. Page
, critical thinking, constructing new knowledge based on these answers, and problemsolving.5, 6 Studies conducted with science students found that inquiry-based science activitieshave positive effects on students’ science achievement, cognitive development, laboratory skillsand understanding of science content as a whole when compared with more traditional teachingapproaches.7, 8 Students participatingin hands-on activities, performingtheir own science experiments learnmore than those who do not.9, 10 Ahands-on inquiry-based approach isparticularly appealing to studentswith disabilities (special education),teaching them to use kinestheticmodalities, verbal modalities,pictorial representations andcreativity.11 Other studies have shownthat students in
pleasant setting. Virtual laboratories can be built with simulationtechniques to guide our students learning complex subjects. A major difficulty, however,concerns whether the simplicity may come at the expense of effectiveness of the learningsurroundings. One remedy to this problem suggests use of special equipments often used for e.g.pilot training. Another example includes use of digital gloves and head-mounted devices invirtual reality applications. Nevertheless, these equipments are expensive and often not availableto most students. In contrast, our solution suggests use of inexpensive tools like web-cameras asan interface to interact with the simulated objects in cyberspace, and WBS as a core buildingblock of the virtual laboratories.In this
by examining the nature and practices of creativecommunities. Why? Creative communities provide a synergistic environment thatencourages ongoing, informal (non-certified) learning experiences out of whichinnovation emerges predictably and organically. This conference paper examines severalcreative communities in a variety of fields, both historical and present-day, to learn whatthey can teach us about self-directed, lifelong learning. The specific communitiesdiscussed within this paper include the following: 1. Bell Laboratories, Murray Hill, New Jersey Page 15.1189.4 2. Silicon Valley 3. Paris, France (the Impressionists and Hemingway’s
thefundamental concepts of flight, mathematics, and science, as well as the most recent advances inaerospace technology22. Laboratories or special class projects are often incorporated to enhancethese lessons; however, this only constitutes a small portion of the class and curriculum. In factafter graduation, students still typically require substantial training in systems engineering beforethey can be fully effective within aerospace companies. Furthermore, while practicing engineerstypically have one or two areas of expertise, engineers who understand their specialty in thecontext of the entire system are considered to be the most effective11 and tend to advance towardleading positions in their company or institution.The Panel on Undergraduate
Director of the Balloon Payload Program at UMCP, which was initiated 6 years ago and has been sponsored by the Maryland Space Grant Consortium since then.Richard Henry, Johns Hopkins University Richard Conn Henry is a Professor in the Henry A. Rowland Department of Physics and Astronomy at The Johns Hopkins University, Baltimore, where he is also Director, Maryland Space Grant Consortium, and member, Principal Professional Staff,The Johns Hopkins University Applied Physics Laboratory. Henry is also President of The Henry Foundation, Inc., a 501(c)(3) incorporated in Maryland, devoted to the advance of education and career development for the American people. Dick is also President
. Of course, there were many other interactions, e.g., Proceedings of the 2004 American Society for Engineering Education Annual Conference &Exposition Copyright 2004, American Society for Engineering Education Table 1: Capstone Projects for 2003 Ten Projects Sponsored by Research Laboratories at the University of Houston Design of In-Vaccum Cold Sink A backside helium cooling system was designed to reduce stencil mask distortion due to overheating during x-ray lithography used for integrated circuit fabrication. Thermistors, placed on the membrane surface as carbon cement, were used to measure the temperature of the fragile membranes. The thermistors
different types of electronic warfare. 2. Analyze and design several antenna systems. 3. Analyze and predict RF propagation characteristics under various conditions. 4. Describe the function and operation of a range of military systems. 5. Apply a variety of EW techniques and characterize their effectiveness in different operating environments.Although there were several homework assignments and quizzes during the course, the toolsused for summative assessments were three midterm exams, a comprehensive final exam, and asubset of the laboratory exercises.Objective one was evaluated using questions from exam one and the final exam, with a classaverage of 82.3%. No changes were recommended. The second objective was assessed withboth exam
Society for Engineering Education, 2014 Paper ID #9959Prof. James Louis Tangorra, Drexel University (Eng.) James Louis Tangorra received the B.S. and M.Eng. degrees in mechanical and aerospace engineering from Cornell University, Ithaca, NY, in 1989 and 1990, respectively, and the Ph.D. degree in mechanical engineering from the Massachusetts Institute of Technology (MIT), Cambridge, MA in 2003. He was a Surface Warfare Officer in the U.S. Navy from 1990 to 1996, and served in the U.S. Navy reserves from 1997 to 2007. He was a Postdoctoral Researcher at the Bioinstrumentation Laboratory, MIT, from 2004 to 2007. Currently, he is
considerable effort to develop pedagogical techniques inorder to teach CTSS courses more effectively. Various pedagogical techniques have been tried,such as the "chalk-and-talk" lecturing style [1], teaching continuous-time concepts beforediscrete-time concepts [2], or vice versa [3], developing signals and systems concept inventories[4], using MATLAB ™ [5-7], instituting hardware-based signal processing laboratories [8], and P Pusing LEGO™ MINDSTORMS NXT platforms for signal processing experimentation [9].Despite all the efforts, conceptual learning of the course content still remains to be a challenge.Without a better understanding of the educational challenges associated with this course, anyattempts to improve student learning
beoptimized, usually through designed software packages for modeling, analysis and optimization.In the last two decades there have been significant advances in renewable energy technologies,as well as increased demands for engineers and technicians trained in these areas, requiringinnovative curricula, new courses and laboratories to educate students to work in this rapidlydeveloping industry and to help professionals become acquainted with these new technologies.However, the pace of change in education curriculum is growing exponentially due to legislativechanges, financial or administrative constraints. Engineering education moves into the twentyfirst century charged with an environmental agenda due to response to wider changes in thesociety