2006-1671: HIGH PERFORMANCE COMPUTING IN CLASSROOMENVIRONMENTFarid Farahmand, Central Connecticut State University F. Farahmand is currently with the Computer Electronics and Graphics Technology department at Central Connecticut State University, New Britain, CT. He is a recent Ph.D. graduate from the University of Texas at Dallas. He has several years of teaching and industry experience combined with research background in optical and sensor networks.Veeramuthu Rajaravivarma, Central Connecticut State University V. Rajaravivarma is currently with the Computer Electronics and Graphics Technology department at Central Connecticut State University, New Britain, CT. Previously, he was with
Design.Dr. S. Keith Hargrove, Tennessee State University c American Society for Engineering Education, 2013 Paper ID #6357 Dr. S. Keith Hargrove currently serves as professor of Mechanical & Manufacturing Engineering and Dean of the College of Engineering at Tennessee State University (TSU). He received his B.S. in Me- chanical Engineering from TSU, his M.S. from the Missouri University of Science & Technology in Rolla, MO., and his Ph.D. from the University of Iowa. He has worked for General Electric, Battelle Pacific Northwest Laboratories, NIST, Oak Ridge Laboratories, and General Motors. Dr
Paper ID #7588Integrating ’Design Challenges’ into a Freshman Introduction to MechanicalEngineering CourseDr. Gerald Sullivan, Virginia Military Institute Dr. Gerald Sullivan is a professor of Mechanical Engineering at the Virginia Military Institute. He earned his B.S. in Mechanical Engineering from the University of Vermont and his Ph.D. from Rensselaer Poly- technic Institute. He has held teaching positions at the University of Michigan-Dearborn and at the Uni- versity of Vermont. Prior to joining the faculty at the Virginia Military Institute in 2004, he was employed by JMAR Inc. where he was involved in research
. Because of the integrated multidisciplinaryapproach, the scope for innovation in product engineering is ever increasing. With rapidchanges in technology and more applications becoming real-time and embedded, teaching themechatronics course only through laboratories or course projects is not sufficient. The leapfrom the traditional sequential design approach to the mechatronics philosophy is very big.Added to this are the various definitions that have evolved and the various methodologiesdeveloped for the mechatronics system design. Mechatronics is at a stage of evolutionaryprocess of modern engineering design and involves systems thinking. “V-cycle” is aprescribed industrial process for mechatronics. It is a graphical construct used tocommunicate
expressedFor students, the DE staff offers training and help in everything from submitting assignments inWebCT and how to handle common problems to providing a Student Study Guide for OnlineLearning. The DE staff takes care of all technical problems that may arise as well as registration,record keeping, finding suitable proctors for testing, and mailing and receiving tests. Facultyneed only concentrate on teaching their course as they would almost any other course.Course Development:The Electrical Engineering Technology (EET) faculty designed, developed and implemented theonline courses for the junior and senior EET students. Faculty were offered the release from oneclass to develop a web-based course. A tremendous amount of individual learning, trial
Engineering, Physics multidisciplinary project) 28% • Specialties within related disciplines (for example Molecular Biology, Cellular Biology, Diagnostics, and Therapeutics in a combined project; or a program of Computer Science with Computer Information Systems and Computer) 28% • Science and/or Engineering and School of Education (for example Nanotechnology, Industrial Engineering, and K12 Teacher Preparation) 20% • Sensors and a science or engineering application (numerous biomedical projects partnering with electrical engineering through sensor technology; also many multidisciplinary engineering undergraduate laboratories with sensors) 7% • Engineering or science in
student. Itcan also be considered as a contract between a student and the course instructor.Assessment ActivitiesTypical classroom assessment activities include mid-term and final examinations, quizzes,homework assignments, laboratory exercises and reports, project work and reports, oralpresentations etc. However, assessment activities need not be confined to the classrooms. Thecourse instructor usually assigns % weights to each of these assessment activities (e.g. 15% each Page 10.923.2for each exam, 10% for laboratory reports etc.). Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition
underrepresented and unemployed populations advance their skills and training tobecome eligible for high-wage, high-demand positions in reconfigurable electronics systems.The participating community colleges serve large minority populations (Hispanic, NativeAmericans, and African-American) in the Southwest and Southeast regions of the United States.Major outreach activities will be de developed to provide high school/college dual enrollment toaccelerate student progression, summer bridge programs to strengthen student interest in seekingSTEM fields, summer institutes for enhancing the STEM teaching capabilities of secondaryschool educators, electronics career expos, and tours of electronics industries for secondary andpostsecondary students and educators
they join the workforce.The authors believe that modern teaching facilities supported with digital simulation tools andwell equipped laboratories, have a great impact in the development of engineering technologyprograms in power systems and energy technologies. A good example of this perception is thefact that the EIET program at UNI has recently completed its first year of operation with greatsuccess and increased enrollment. Part of this achievement was due to the fact that the facultyuses advanced software and hardware tools to educate the students that choose the EIET major.This in turn allows for the continuous improvement of the curriculum so that it is always modernand attached to the trends of the ever-expanding electrical engineering
wireless networking. Also required are hands-on laboratories that can beused by students for programming, development, and configuration of networks usingdifferent operating systems and hardware configurations. Similar programs, in Indianaand nationwide, are compared and contrasted. Also discussed are national, regional, andstate demand and employment factors that provided justification for the new degree.BackgroundIndiana-Purdue University, Fort Wayne1 (IPFW) offers over 175 degree programs, islocated in the 2nd largest city, and is the 5th largest university in Indiana. The newBachelor of Science in Computer Engineering Technology (CPET) degree, which wasapproved by the Indiana Commission for Higher Education in October 2003, has aninitial
. Facilities include classrooms, computer laboratories, faculty and staff offices,and dormitory facilities for students. ECE laboratory facilities are provided by FudanUniversity. IIIST currently enrolls about 200 freshmen, sophomores, juniors and seniors inComputer Science (CS) and about 70 ECE freshmen, sophomores, and juniors. Theundergraduate students at IIIST are primarily full-time students, who are recruited directlyfrom high school.PSUPortland State University has its roots in the G.I. Bill, and has since developed into avibrant urban university, with a mission of service to the city. In recent years PSU hasbecome the largest university in Oregon. The University has been nationally recognizedfor its innovative undergraduate curriculum
researchseeks an architecture that can be used by an instructor to make an online learning system for acourse the instructor wants to teach in classroom or online, rather than developing an in-depthtutoring system for any specific course. The Intelligent Interactive Tutoring System Shellintegrates mathematical tools and an expert-system-type logical analysis/synthesis tool in a web-based environment. The IITS consists of several components including an instructor interface, astudent interface, a student model, a student log, a reasoning system, and a mathematical toolinterface module, and guides the student through a monitored problem solving session.1. IntroductionStudents need academic support outside the classroom, which may be provided by a
side engineers in their research laboratories to get a clear idea of whatengineers do. The teachers, in addition to strengthening their math and science backgrounds, thenwould serve as spokespersons for engineering in their respective classrooms. During the fiveyears that this program was in operation a total of 67 teachers from throughout the United Statesparticipated. Of the approximately 100 engineering faculty at WSU 19 served as mentors (somemultiple times) during the teacher’s stay. After gaining some experience with this activity we settled upon the following procedurefor conducting the program. Advertisements for the program were disseminated in variouspublications from state and national science teacher’s organizations. The
can be replicated on other campuses that have staff with a desire to promote genderequity in technical training to teach the CAD modeling, available room and board on campus, asuitable computer laboratory, an established summer recreation program, and an organization tohandle administrative tasks.CAD CampThe CAD Camp was available to campers entering grades nine through twelve, and the span ofthe age group was represented at each camp. The first group of campers arrived on the afternoonof Sunday, July 22, 2002 and left on the afternoon of Friday, July 26. The second camp was heldthe following week, from July 28 to August 2. Upon arrival, resident campers met the staff andtheir counselors, were issued meal cards with daily spending limits to
to the changing, technologically enhanced world ofeducational institutions are pursued to extend the education toady. Some of engineering and technology courses and laboratory work will need Page 8.442.4to be developed in partnership with several Today’s students are demanding a change toinstitutions and/or with industry partners to provide traditional educational delivery methods, and wethe hands-on training and processing necessary. must respond. The time for action is now, and evenThese are not concepts of the future, but are actual with the
the water heater is ASME approved by an appropriate standard.Their automobile contains standard nuts and bolts (SAE), operates on standard gasoline (ASTM),and standard oil (SAE) is used (hopefully) to protect the engine during operation. As educators,we have an obligation to introduce our students to engineering standards. Laboratory courses areideal settings for teaching and demonstrating standards; however opportunity exists duringlecture courses as well. An example involving the first law of thermodynamics could contain areference to the ANSI approved residential water heater. In litigation matters, the first step uponreceiving questions about a product is to check for any applicable standards and whether or notthe product conforms to the
, which is in avionics, will be proposedthis year and implemented during the 2001-2002 academic year. A detailed discussion of thecurricular, instructional and laboratory requirements of both certificates programs will bepresented. EET with A Specialty: “The Coupling of an Associate Degree and A Certificate” William Gay, Cecil Beeson University of Cincinnati ClermontPicture a growing two-year branch campus of a major urban university. Overall studentenrollments since its inception have steadily, and at times dramatically, increased over a quarterof a century. It has constructed new buildings and facilities, developed and provided newtechnical and transfer
course. The trueessence of engineering practice and engineering spirit can have a meaningfuldevelopment with the presence of real-life tools-of-the-trade. The training of teachers tounderstand, use and teach the use of these tools is a major component of the program.The importance of this aspect of the program should not be underestimated. And theprocurement of needed infrastructure is secured by attending to the partnership of statedepartments of education, industry, universities, and, of course, local school systems.Project Lead The Way programProject Lead The Way has developed a curriculum of five courses for high schools andone course for middle schools. The high school affiliate must agree to offer all fivecourses. These courses are for any
AC 2011-1271: VIRTUAL IDEATION PLATFORM AND ENTREPRENEUR-SHIPRobert W Simoneau, Keene State College Robert W. Simoneau has 39 years of academic and industrial experience in manufacturing related dis- ciplines and plastics engineering specifically in the areas of product design and development. He is currently an Associate Professor at Keene State College in the Management Department. He recently served two years as a Program Director in the Division of Undergraduate Education at the National Sci- ence Foundation. Prior to Keene State College he taught in the Manufacturing Engineering Technology department at Wentworth Institute of Technology (WIT). Before teaching at WIT he gained considerable experience in
take several senior level classessuch as Design of Machine Elements, CADD, Fluid Power, Heating, Ventilation and AirConditioning (HVAC), Robotics, and Mechanical Vibration. We started teaching Vibration,which is a lecture/lab course, formally in the fall of 2006 and until this project, did not have‘hands-on’ activities beyond a ‘Helmhotz resonator project’ and an industrial visit. Common touniversities nationwide and worldwide, severe budget cuts limited the development of additionalhands-on activities and experiments crucial to a thorough practical understanding of vibration Page 25.430.2and noise analysis.Three years ago the author developed
the 8-semester engineering clinic sequence.As shown in the table, while each clinic course has a specific theme, the underlying concept ofengineering design permeates throughout 3. Table 1. Overview of course content in the 8-semester Engineering Clinic sequence. Year Clinic Theme Clinic Theme (Fall ) (Spring) Freshman Engineering Measurements NSF Competitive Assessment Laboratory Sophomore Quality Entrepreneurship Junior Multidisciplinary Design Project Multidisciplinary Design Project Senior Multidisciplinary disciplinary
Session 2525 Method and Experimental Based Design: An Approach to Freshman and Sophomore Engineering Design Projects Jeffrey R. Mountain The University of Texas at TylerAbstractThe benefits of group-based design activity in an engineering curriculum may be greatlyenriched by careful structuring of design activities into the freshman/sophomore introductorycourse sequence. Focal points of this approach include: teaching a design methodology,applying that methodology to unique, product development-based problems and guiding studentsthrough discovery based
computing is, who the major players in the industry are, and how it can be used tomonitor and control remote processes. Session attendees will also see a case study of remote-control computing software in operation, monitoring and controlling a plant floor productionsystem.IntroductionNetworking technologies, and especially the Internet, have become a major component ofapplication systems. As we teach the design and implementation of process control systems inthe Engineering curriculum, we must recognize that these systems will require capabilities forcontrol and support from remote locations. For example, the need for remote control may bedriven by the high cost of a particular process. The Oak Ridge National Laboratory uses remoteprocess control
industry are, and how it can be used to monitor and control remote processes. Acase study of remote-control computing software in operation is also presented, describing howone off-the-shelf package was setup to monitor and control a plant floor production system.IntroductionNetworking technologies, and especially the Internet, have become a major component ofapplication systems. As we teach the design and implementation of process control systems inthe Engineering curriculum, we must recognize that these systems will require capabilities forcontrol and support from remote locations. For example, the need for remote control may bedriven by the high cost of a particular process. The Oak Ridge National Laboratory uses remoteprocess control at its
mechanisms to teach engineering design across campus borders, utilizingwell-developed case studies. Gay and Lentini (17) further describe the advancedcommunication resources used by students engaged in collaborative design activity.The use of the Internet has enabled both teachers and students to lessen the burden ofdisseminating and acquiring knowledge, according to Young (18). Even laboratoryexperiences can be enhanced through electronic media. Karweit (19) has created a virtualengineering laboratory on the World Wide Web for the students in his introductoryengineering class and others. Experiments in this simulated laboratory include one thatmeasures the rate of a hot object’s heat radiation, and one that enables students to designbridges that
(IRB)approval for testing to begin.II. MethodsCurriculum Structure for DesignThe distribution of design credits throughout the curriculum is illustrated in Table 1. Thedesign teams continue on the same project from product conceptualization in theirfreshmen year to pseudo-product release right before graduation.Table 1: Lecture and Laboratory Curriculum Structure. Credits indicated in parentheses. Fall quarter Winter quarter Spring quarterFreshmen -- Lecture & Lab (2) --Sophomore Lecture (1) Lecture (1) Lecture (1)Junior Lecture (1) Lecture (1) Lecture (1)Senior
design our courses and properly prepare our students.What will the electrical engineering field be like in the future? What should our students preparethemselves for? What should we, as educators, be teaching the future engineers andtechnologists? An insight with leaders in the electrical engineering field presents a picture ofwhat the engineering profession will be like in the next five years. With this knowledge, we aselectrical engineering technology educators can improve our curriculum and better prepare ourstudents for a meaningful and prosperous career and future.IntroductionTake a step forward, into the 21st Century. Let us look at the beginning of a well-connected dayin the life of a systems engineer, starting with this teleconferencing
. The devicedoes indeed function and closely mimics this laboratory procedure. Testing beyond the functionalstage will be performed by placing it on a towed submersible instrument platform currently underdevelopment. Figure 1. - Exploded View of pH Measuring Device (internal Helical Mixer not shown)Reference[1] Byrne, R.H. & Clayton, T.D., "Spectrophotometric sea water pH measurements: total hydrogen ion concentrationscale calibration of m-cresol purple and at-sea results." Deep-Sea Research I 40, no. 10 (1993): 2115-2129.Biographical InformationSTUART WILKINSON is an associate professor of mechanical engineering at the University of South Florida inTampa. Since leaving England in 1984 he has been involved in teaching and researching in
subjective evaluation of the project by the students, the subjectiveevaluation of the project by the course instructors, and the objective results, including thestudents' performance evaluation, and a comparison of the students' overall course performanceas compared with previous semesters which did not include a project. Finally, continuing trendsin the application of teaming are presented.IntroductionDuring the summer of 1992 Motorola presented Purdue University with a Total QualityManagement (TQM) Challenge. The objective of the challenge was to integrate the principles ofTotal Quality Management into the university. This included both teaching about TQM, andteaching with TQM (using TQM principles and techniques to improve the quality of
Paper ID #42959Implementation of a Hands-On Aerospace Design Project During the COVIDPandemicProf. Rani W. Sullivan, Mississippi State University Rani W. Sullivan is Professor of Aerospace Engineering at Mississippi State University (MSU) and the holder of the Bill & Carolyn Cobb Endowed Chair. She has teaching and research interests in the area of solid mechanics, aircraft materials and structures, and engineering education. Her research spans structural health monitoring, composite manufacturing, and mechanical and non-destructive testing of polymer matrix composites and large-scale structures for aerospace