Electrical Engineering in 1995 fromArizona State University, Harvard University, and Purdue University, respectively. During the 2000-2001academic year, he was a visiting scholar at Massachusetts Institute of Technology-Lincoln Laboratory. He is amember of Eta Kappa Nu, Tau Beta Pi, IEEE (Senior Member), and ASEE. He is a registered ProfessionalEngineer in Colorado. His research interests include intelligent control, automatic target recognition, and robotics.Email: daniel.pack@usafa.eduBARRY E. MULLINS is an Associate Professor of Electrical Engineering and Chief of the Computer SystemsDivision at the U.S. Air Force Academy, CO. He received a B.S. in Computer Engineering from the University ofEvansville, a M.S. in Computer Engineering from the Air
graduate of the University of SantoTomas. He obtained his Master’s Degree in Electrical Engineering Education from the University of the Philippines,Diliman, Quezon City. He was a Visiting Fellow at the University of New South Wales in Sydney, Australia wherehe took courses on Optimization and Power Operation, Generation and Control. He attended ISTAS 00, Rome, Italyand presented papers at the ISTAS 01, Connecticut, USA, ICEE 2002, Manila, Philippines and SEC III, Dortmund,Germany. He is the Phyhsics Laboratory Supervisor of the UST Faculty of Engineering.Associate Professor CLARITA R. GUEVARA is a Chemical Engineering graduate of the University of SantoTomas. She obtained her Master’s Degree in Industrial Engineering from the University of the
Students”. Kimberly Kendricks and AnthonyArment. Ohio State University, Journal of College and Science Teaching Vol. 24, 2011.“National Science Foundation-Sponsored Colloquy on Minority Males in STEM”. NormanFortenberry, Catherine Didion, Beth Cady, Wei Jing, Simil Raghavan. Journal of AfricanAmerican Males in Education Feb/Mar 2011 – Vol. 2 Issue 1Boyer Commission in Educating Undergraduates in the Research Laboratory. (1998).Reinventing undergraduate Education: A blueprint for Americas research universities”. MenloPark, CA: Carnegie Foundation for the Advancement of Teaching. Page 25.523.10
are interested as many of them offermarket-oriented courses that almost guarantee them a job upon graduation. They save on salariesof the faculty by employing teaching staff on a part-time basis or by relying on teachers fromalready established public universities. The private universities are very often linked withuniversities abroad. This connection helps the students to move to USA, Canada, UK, Australia,Germany, Japan etc. for higher studies. Even though all the private universities startedfunctioning in hired premises for classrooms, laboratories and offices, they started buildingcampuses using the interest from the certificates of deposits (CD) of the profits3
proposed steps. 4. Private Tutors Available for student in need of a one-one tutoring experience. 5. Out of Class Students are exposed to scientific and non- Page 25.538.8 Experiences engineering lectures and attend field trips, all activities outside the classroom. 6. Study Laboratory (also Students are required to attend the Engineering known as Study Lab) Learning Center for at least 2 hours a week to
project assignment by providing additional depth across a range oftopics from all students.Site VisitsLastly, a key aspect we chose to integrate the Costa Rica experience into the learning objectivesis to schedule an itinerary that resembles a 3.5 week tour of the country. We will begin theprogram in the capital city of San Jose where we will meet with researchers and students at theUniversity of Costa Rica National Laboratory for Materials and Infrastructure (Lanamme) and atthe Institute for Sustainable Development. We will proceed to travel to six different locationsover 23 days, returning back to San Jose to conclude the study abroad and return to the U.S. Ateach location we have day trips planned to infrastructure sites including new highways
manifests itself aslower grades received on their various forms of assessment.Cooperative learning is an instructional approach in which students work together in groups on alearning task (e.g. assignment, project or laboratory) that is structured to have the followingessential elements1,2: 1. Positive interdependence. This refers to the need to have every team member involved in achieving the group task. This is implicitly encouraged, because if any group member fails to do their part, the whole group suffers the consequences. 2. Individual accountability. Each member will be held responsible for completing his/her contribution to accomplishing the group task and understanding the contributions of the other
. It was, therefore,tentatively assumed that the proposed new engine would most likely adhere to those parameterscharacteristic of air-cooled Gammas, the subject of the author’s earlier work. Some of thesewere constructed in the laboratory facilities at the author’s university. Utilizing their numbersguaranteed that the size of the machining equipment available would be sufficient for theproposed engine. These parameters included: power cylinder dimensions, phase angle, volumecompression ratio, displacer cylinder volume, and displacer dimensions. The power cylinderbore and stroke were 1.000” X .625” (volume = .491 in3). The phase angle was set at 90°, anangle also frequently cited in the Gamma literature. 6 The volume compression ratio was set
courses outside of the college of engineering that had a more liberal arts focus. Of theeight students who participated in the focus group, all commented that they had strong interest in Page 25.597.5traveling overseas again or working abroad in the future. Four of these pursued longer-termstudy abroad or international internship programs during the course of their undergraduatedegree, with two successfully completing programs. One spent a semester in Australia andanother participated in a six-week research laboratory course in Denmark. A third student hadapplied for a semester-long program but did not attend because of problems with course
MINDSTORMS. Apress, 2002.[5] Julie Rursch, Andy Luse, Doug Jacobson. “IT-Adventures – A Program to Spark IT Interest in High School Students using Inquiry-Based Learning with Robotics, Game Design, and Cyber Defense”. IEEE Transactions on Education, Vol. 53, Issue 1, pages 71-79, 2009.[6] Reconfigurable Computing Laboratory, Iowa State University, http://rcl.ece.iastate.edu/ Page 25.623.13
, andother cross disciplinary concepts. Students will gain hands-on experience with engineeringdesign, and will understand the value of collecting data to support conclusions. 5. Test your mettle:What are the “passing” criteria? What is the range of motion for a human arm? What can bepredicted using mathematical models? How do the predictions compare to the experimentalresults? What conclusions can be drawn from the data? What improvements could be made?Laboratory work associated with test your mettle includes the following: a. Construction of the bionic arm Students will bolt muscles to large wooden dowels that will serve as the bone structure for the bionic arms. The dowel rods will be connected using a clovis hinge which will serve as
. degree in electrical engineering and a Ph.D. in mechanical engineering from the University of Michigan, Ann Arbor, Mich., both in 2004. He also received B.S. and M.S. degrees in mechanical engineering from Brigham Young University, Provo, Utah, in 1996 and 1998, respectively. In 1998 and 1999, he spent 16 months as a Micromechanism Designer at Sandia National Laboratories in Albuquerque, N.M. He has performed research and published more than 60 papers in design topics, including microelectromechanical systems and compliant mechanisms, and he holds seven U.S. patents. His work has been recognized by several best paper awards, the 2009 BYU Young Scholar Award, and the 2010 Utah Engineers Council Educator of the Year
, pointers, and bit manipulationcode, such as bitwise AND, OR, and XOR. Here are two exercises that could be divided up intoone or two hour lab exercises. These exercises will require the use of Xilinx’s EDK softwarethat is made available through the Xilinx University Program6.With the given background above FPGArcade could be used for several exercises in a freshmanor sophomore computer engineering course in embedded systems. A set of exercises could bedeveloped for use in the laboratory or if the students have their own boards, they could take themhome. Here are two such possible exercises for early in a computer engineering curriculum.1) Exercises for building the architecture of a game. a) Generate a sprite and place it on the screen in a
Engineering Edu- cation at Purdue University. He received his B.S. and M.S. degrees in electrical and computer engineering from the University of Illinois. He has published conference papers on cooperative learning and team innovation. His research focuses on teamwork, innovation, and laboratory education. Page 25.664.1 c American Society for Engineering Education, 2012 Gender Differences in an Energy Conservation Idea Generation TaskAbstractEngineering student teams are often formed under the assumption that diversity will increaseteam innovativeness. Rather than approaching the problem from an
, Analog Devices - Germany,Trenz Electronic - Germany, ESG Elektroniksystem und Logistik - Germany, Mirifica - Italy andComputer Measurement Laboratory - USA.Sixteen teams from the four regions have competed in the finals: seven teams representing Page 25.671.8Europe region, four teams from United States region, one team from India and four teams fromChina regionals. Three of the winning teams represented Europe region and two other the Chinaregion. The winners of the worldwide finals are listed in the table below:Table I: The winners of the 2011 Munich Worldwide Finals Project Description
module helps students physically visualize the process to better understand thedirectionality and magnitude of the force components and the moments generated.Guided Discovery is a novel methodology that borrows aspects of challenge-based instructionand discovery learning. The method is designed to facilitate students’ paths to discovery of keyconcepts that are often misinterpreted or not readily mastered. The method is optimized forshort, in-class activities. It is a low-cost, active-learning method intended to bring laboratory-like experiences into the classroom to improve concept mastery and elucidate commonmisconceptions. The intent is to target concepts that students commonly fail to master and thatnegatively impact learning outcomes in
acquisition.This paper presents a framework that is applicable in the laboratory development and approach.IntroductionThe challenge of teaching freshman engineering classes has always been one of the mostinteresting aspects of engineering education in the last decade1-6. Traditionally these classeshave been the way into engineering thinking and problem solving. The problems that theengineering education community is facing is how to make these classes more interesting,expand students’ thinking process, bring in a more systems level thinking, and help studentsappreciate what is engineering all at the same time. The above challenges together with thetypical characteristics, behavior, and attitudes of the new students actually increase theimportance of the
technology in energy efficientmotion control and vehicle design, Parker Hannifin Corporation collaborates with a group ofuniversities across the nation. They helped to incorporate fluid power practices in engineeringand engineering technology curriculum and establish laboratories in these universities. Since2004, Parker is sponsoring a hydraulic bicycle design competition among those universities. Thepurpose of the competition was to challenge undergraduate engineering and engineeringtechnology students for innovative design and development of a bicycle that would transfer arider’s manual power to the driving wheel through a hydraulic media without using any chain ordirect drive mechanism. In a one year time frame, students of engineering and
the end of the semester, a general courseevaluation was given. This survey included the open ended question: Do you think that you learned engineering design in this course? If yes, HOW (through what classroom readings, activities, discussions, etc.?)Without prompting 35% of students mentioned the impromptu design projects. This may notseem like a huge percentage, but in a class where there are numerous ways to learn the designprocess (hands-on laboratories, homework, Beetlebot competition discussed above, impromptudesign, other in class projects, etc.), a 35% share of responses is actually quite significant. Thisshows that students were indeed interested in the projects, but also that they perceive them asbeing a good education
retrieval in the second half of the semester, where students are expected to applysimilar ideas in team settings as they conduct experiments of their own design. Each week of labbrings feedback from the previous week and a new assignment for more practice building onexperimental design, statistical analysis, and communication skills. These skills are further testedin the senior level laboratory and design courses, which require the same reference texts.Clemson University is a medium-sized, Southeastern, public land-grant state institution with aunique governance system: of the 13 members on the Board of Trustees, seven are life trusteeswho select their successors, and six are appointed by the State Legislature. The overall studentpopulation is 54
enrollment ofunderrepresented students with a goal of retaining them through graduation.Future ConsiderationsRefinement of the Robotics in Manufacturing course will be allowed for given the introductionof POGIL into the robotics laboratory. The Lego Mindstorms will be used in POGIL teams andto complete POGIL exercises. As the second quarter is closing out, the author of this effort iscurrently contemplating this summer in terms of research and advising students. Proposals forLSAMP will be submitted in March. Recruitment of another student for TUES will be ongoing.AcknowledgmentsThe author would like to thank Mr. Tyrone King and Mr. Yaw Donkor for their enthusiasm inperforming summer research and serving as role model for underrepresented students
building energy efficiency. Guest speakers from the HVAC contractor for thebuilding were invited to lecture the class. After conclusion of the lectures, the building itself wasused as a large laboratory to reinforce many of the LEED design principles. The building itselfwas completed in 2010. Although it is not a LEED certified building, it was originally intendedto be and many of the LEED design principles are readily evident. Of particular note, the HVACperformance of the building can be monitored via a software installation in one of ourengineering laboratories.The LEED block of instruction concludes with a computer based examination intended toprepare the students for the types of questions and pacing that they will experience on the LEEDGreen
realized as the College replaces 1,428 light fixtureswith those containing LEDs. Recently, there have been many attempts to incorporate solar powerwith LED indoor and outdoor lighting due to its low power consumption. Researchersinvestigated feasibility of such projects especially focusing on economic feasibility and siteassessments [13-16].Faculty, students, and staff in the Industrial Technology program at Sam Houston StateUniversity took the initiative to replace current security night lights for one of the biggestlaboratory facilities, a large metal building remotely located to the main campus and surroundedby residential properties. This laboratory houses a large classroom, tool cabinets, productionequipment, and training resources for wood
) is extremely fast-paced. Traditional manufacturingtechnologies such as CNC milling, turning, metal casting, and welding used to be thecornerstones of the program. With the rapid advance of technology, a number of new subjectshave been added to the program. Electronics and automation, strength of materials, and rapidprototyping are just a few of the courses added to the program in recent years. The addition ofthese new courses has required consolidation of traditional manufacturing courses. Students nowlearn the same material in one course that used to be taught previously in two to four courses.Homework assignments, laboratory assignments, mid-term, and final exams are the typicalassessment methods instructors would use in these courses
each level ofteaching depending on teaching style. It was determined that formal lecture, hands-on laboratory,guest speakers, and comprehensive/intern projects are employed in order to achieve active andcooperative learning, along with the nature of each course and instructor’s preference.First, students must know the BIM basics before they can use BIM for project applications. Page 25.794.4Similar to many construction curricula, our construction engineering and management programshave a course of Graphic Communication (CAD). In the past, the focus of this course was usingAutoCAD to produce 2D drawings with basic sketching skills and graphic
the vehicles with the highest sales figures were done elsewhere.In fact, less than 10% of hybrid-electric vehicle sales went to US manufacturers in the years2005–20098. To regain the lead in such cutting-edge technologies, US engineering students mustbecome more proficient in the kind of multidisciplinary design that created hybrid-electricvehicles.The hybrid-electric powertrain project is divided into six discrete modules, each of which can becompleted in a few regularly-scheduled laboratory periods. A simplified diagram of a hybridpowertrain is shown in Figure 1. The powertrain is very similar to the one used in a first-generation Toyota Prius. In this design, power is supplied to a load using an air motor andmotor/generator. The
multidisciplinary design that created hybrid-electricvehicles.The hybrid-electric powertrain project is divided into six discrete modules, each of which can becompleted in a few regularly-scheduled laboratory periods. A simplified diagram of a hybridpowertrain is shown in Figure 1. The powertrain is very similar to the one used in a first-generation Toyota Prius. In this design, power is supplied to a load using an air motor andmotor/generator. The contributions of the air motor and motor/generator are combined in theplanetary gearset, which is in turn regulated by a second DC electric motor. The strategyemployed by the controller is to keep the output shaft turning at a constant speed, despitevariations in load. It does this by regulating the 1) air flow
. Typically, engineering students arenot exposed to engineering drawing or CAD until their first or second year in an engineeringuniversity. The campers get very excited when they realize that they can design aircraft thatengineering students, who are much older than them, design at a later stage. This is a valuablelearning experience for the students.4. Flight SimulationsThree different flight simulators are used during the camps. These include radio controlled modelaircraft flight simulator, a fixed wing aircraft flight simulator, and a rotary wing flight simulator.The fixed wing flight simulator is part of the visualization and simulation laboratory at SPSU. Itprovides an immersive environment for the students. They learn the basic flight
watching them completethe exercises has a positive effect8. Second, students do not feel that they had enough access tohelp. While they were encouraged to email the instructor with questions, this was not enough.These problems will be addressed by offering video chat sessions several times a week. Studentswill be required to attend a minimal number of these sessions. The video sessions will be used toanswer student questions and force them to think about their assignments. Page 25.897.9AcknowledgementThe authors would like to acknowledge the support of the National Science Foundation throughthe Course, Curriculum, and Laboratory Improvement
).2. S. Coradeschi and J. Malec “How to make a challenging AI course enjoyable using the RoboCup soccer simulation system, in RoboCup-98: Robot soccer world cup II: Lecture notes in artificial intelligence, vol. 1604, pp.120-124, ed. M. Asada and H. Kitano. Berlin: Springer, (1999).3. M. Goldweber, et al. “The use of robots in the undergraduate curriculum: Experience reports,” Panel at 32nd SIGCSE Technical Symposium on Computer Science Education, Charlotte, North Carolina..4. G. Droge, B. Ferri, and O. Chiu, “Distributed Laboratories: Control System Experiments with LabVIEW and the LEGO NXT Platform,” submitted to the ASEE Annual Conference and Exposition, San Antonio, (June 2012).5. F. Klassner, K. Lehmer, J.C. Peyton Jones