AC 2011-219: J-DSP/ESE LABORATORIES FOR ANALYZING CLIMATECHANGEKarthikeyan Natesan Ramamurthy, Arizona State UniversityProf. Andreas S Spanias, Arizona State University, ECEE, SenSIP Center and I/UCRC Andreas Spanias is Professor in the School of Electrical, Computer, and Energy Engineering at Arizona State University (ASU). He is also the founder and director of the SenSIP center and industry consortium (NSF I/UCRC). His research interests are in the areas of adaptive signal processing, speech processing, and audio sensing. He and his student team developed the computer simulation software Java-DSP (J- DSP - ISBN 0-9724984-0-0). He is author of two text books: Audio Processing and Coding by Wiley and DSP; An
crucial to provide advanced trainingto America’s future workforce [1-3]. In keeping with industry demands and the Wentworthtradition, hands-on nanotechnology laboratory experience is a central component of Wentworth’semerging nanotechnology and engineering course offerings. The impact on undergraduatescience and technology education is significant, and the project is generating new researchopportunities for undergraduate students. The nanotechnology laboratory allows students todevelop nanotechnology-related knowledge and skills through their coursework that can later beapplied to further research, improve design projects, and create solutions to improve the overallquality of life. The laboratory is used not only by undergraduate students, but
. Page 22.179.1 c American Society for Engineering Education, 2011 An Innovative Interdisciplinary Student Project: Engineering and NursingAbstract:Typical projects involving engineering students identified as „interdisciplinary‟ usually involvedifferent disciplines within engineering. Projects that are truly interdisciplinary can bediscovered when faculty from different areas of campus work together toward the developmentof a project involving students from outside their respective discipline. This paper presentsresults of one such arrangement.During a tour of a new nursing laboratory, engineering noticed possible design improvements invarious manikins (life-sized
AC 2011-421: INTEGRATION OF KNOWLEDGE IN ENGINEERING/SCIENCEVIA NANOTECHNOLOGY PROGRAMSMaher E. Rizkalla, Integrated Nanosystems Development Institute, Indiana University-Purdue University In-dianapolis, 723W Michigan Street SL160, Indianapolis, IN 46202-5132 Received his Ph.D in Electrical and Computer Engineering from Case Western Reserve University in 1985. He was research scientist at Argonne National Laboratory from January 1985 to September 1986 while he was an Assistant Professor at Purdue University Calumet. He joined the Department of Elec- trical and Computer Engineering at IUPUI in September 1986 where is now Professor and Associate Chair of the Department. His research interests include solid State devices
in the fieldof nanobiomedicine; and have been accepted into graduate medical physics programs. Based onthe new course Principles of Nanomedicine, a set of interdisciplinary laboratories has beendeveloped and offered for Rose-Hulman students by the Department of Physics and OpticalEngineering (PHOE) and Department of Applied Biology and Biomedical Engineering, whichcover the basic principles and practice of photonics, laser physics and nanoscience to addressfundamental questions in health science.We have organized and managed research on biophotonics and nanomedicine at RHIT for sixyears (2004-2010), during which time 40 undergraduate students have participated in a widerange of cancer-related projects. Currently, we are developing a
StateUniversity found that minorities, in particular, increased their laboratory performance in a hybridenvironment. Perhaps the most compelling argument can be made by Landers7 in his doctoralthesis where a large number and variations of hybrid courses were analyzed. He states (p. 61):“it appears that online instruction is more effective than traditional instruction when seekingknowledge and problem solving gains”. In creating a hybrid Senior Design offering, facultymembers would have more opportunities to make connections with the on-line material and theteam project.Many of the present lecture topics apply directly to the design and construction of an object orstructure and dissemination of knowledge (lists and facts). The teams that work on projects
do not leave enough room for interdisciplinary/cross-disciplinary courses that could be important for the future careers of the graduates. Further, thelack of facilities such as appropriate laboratories and trained faculty could markedly hamper theinclusion of well-structured cross-disciplinary topics in the curriculum. Nevertheless, effortsshould be made to somehow incorporate such activities in the program of study 5, 7, &8. Forexample, students could be engaged in cross-disciplinary projects or case studies at the juniorand senior levels.The survey of pertinent literature suggests an increased need to equip computing professionalswith interdisciplinary/cross-disciplinary skills and some solutions have been offered to theproblem
appropriatebackground for the project, and that, after learning more details about the project, the studentsare still interested.Once a project is staffed with the necessary student(s), the project officially begins. This isinitiated by a kick-off meeting at the company. The MEDITEC program pays for the students totravel to the company to meet their technical leads, learn all relevant information about theproject, obtain necessary parts or equipment, and see the facilities.FinancesThe donation from each company is used to support the MEDITEC projects. The moneyallocated per project is nominally $5,000. Any funds that are not used remain in the MEDITECfund. This covers student stipends, site visits and travel, project materials, laboratory usagecosts, and
Program Curriculum (starting from fall 2010):The Program’s aim is to meet the educational objectives and outcomes and to educate graduatesthat are well-rounded to enter the profession or to pursue graduate studies. This is achievedthrough a well-balanced set of courses to ensure the strength needed in basic science andengineering, basic architectural engineering, hands-on experience through laboratory andprojects, humanities and social sciences, senior level architectural engineering professionalexperience and major design experience through senior-level courses and the capstone designcourse. The courses required are versatile. Each course has a set of objectives that focuses onlearning the materials needed to ensure the level of competency
teamworking with the US Air Force developed Matlab models for thermal analysis of small satellitesunder high heat loads. The team presented their project at the 2010 Small Satellite Conference in(Do we know where this happened?). The team funded by Boeing worked at the Land Air andthe Space Robotics (LASR) laboratory. They developed calibration models for the Phasespacecamera and designed and manufactured hardware for testing Unmanned Air Vehicle (UAV)prototypes.The Multidisciplinary Experiences for Undergraduates (MEU) was established in fall 2010 withfocus to expand the SEI and offer undergraduates multidisciplinary team project experiences thatcover a wide range of engineering applications. Currently, two MEU projects have been offeredto students
involves more technical issues than those covered in a traditionalengineering analysis course, the teaching approach presented in this paper provides a broad, flexiblecontextualized alternative to cover technical competence that is different from traditional engineeringprograms which are made up of structured sequences of lecture-based and laboratory courses. Page 22.1389.2I. Introduction Project-based learning (PBL), or project-centered learning (PCL) to distinguish it from thepedagogy of problem-based learning1, was first adopted by Aalborg University in Denmark2. In a PBLcourse, students are given project assignments and they work in
AC 2011-23: AN MULTIDISCIPLINARY ENERGY BASED CURRICULUMC.S. Chen, Miami University Dr. C.S.Chen is a professor and founding chair of electrical and computer engineering (ECE) depart- ment at Miami University (Ohio). He was the electrical engineering department head and the interim engineering dean at the University of AkronSteven Elliott, Miami University Dept. of Economics Dr. Steven Elliott is an Associate Professor in the Department of Economics at Miami University. He has been a research associate at Oak Ridge National Laboratory before entering academics. His professional interests include energy and environmental economics and behavioral economics.Mark Boardman, Miami University
, R.C., & Kuo, L. (2007). Teaching and learning argumentation, The Elementary School Journal, 107(5), 449-472. 7. Caspersz, D.M., Wu, M., Skene, J. “Factors Influencing Effective Performance of University Student Teams,” in Proc. 26th Annual International HERDSA Conference, Christchurch, NZ, pp. N/A CD Rom. 8. Buckenmeyer, J.A. “Using teams for class activities: Making course/classroom teams work,” Journal of Education for Business, Vol. 76, No. 2, Nov. 2000, pp. 98-108. 9. E. Greco and J. Reasoner. (2010) Student Laboratory Skills and Knowledge Improved through Individual Lab Participation, Proc. ASEE Annual Conference, Lousiville, KY, June 2010. 10. R. Stout, J.A. Cannon-Bowers, and E
AC 2011-531: THE MONTANA MULE: A CASE STUDY IN INTERDISCI-PLINARY CAPSTONE DESIGNBrock J. LaMeres, Montana State University Dr. Brock J. LaMeres is an Assistant Professor in the electrical and computer engineering department at Montana State University (MSU). LaMeres teaches and conducts research in the area of digital systems and engineering education. LaMeres is currently studying the effectiveness of online delivery of engi- neering education including the impact of remote laboratory experiences. LaMeres is also studying the pedagogical impact of interdisciplinary capstone projects compared to traditional discipline-specific de- sign projects. LaMeres’ research group is also studying the effective hardware
a strong grasp of the basic physical principles underlying several medical imaging modalities. 2. Demonstrate a solid understanding of the concepts of medical image acquisition, image formation and display methods. 3. Apply the concepts learnt in class to solve problems in medical image reconstruction, image processing and analysis. 4. Demonstrate an appreciation for the strengths and weaknesses of various imaging modalities and what kind of anatomical and physiological information can be obtained from them.Each of the courses has a strong laboratory component to provide hands-on experience for thestudent in a realistic setting. The CIS department has a state of the art
andbiomimetics [2]. Creating a center where students can see ongoing robotics research projectsencourages innovation and is the first step to creating new projects. Page 22.674.8 Figure 6: Studio Laboratory layout for Robotics Lab sectionWhat Works Well and What Needs ImprovementThe lab exercises have been well received by students, and have generally been completed in thetwo hour lab period provided. Student teams are working well together and have been resolvingteam workload issues without instructor or TA intervention. Teams seem to appreciate choosingtheir own project, and very much enjoy the hands-on nature of the projects and the
. Page 22.74.1 c American Society for Engineering Education, 2011 A Multidisciplinary Senior Design Project – Redesigned to Increase Interdisciplinary InteractionAbstractAn interdisciplinary team design experience has been conducted successfully for severalyears as part of the senior engineering laboratory effort at Western New England College.Recent modifications have been made to the project to increase the amount ofinterdisciplinary interaction during the project. For the past several years, students havedesigned, fabricated, and tested a solar-powered vehicle. This vehicle designed totransport two one-liter bottles of water uphill using wireless hobby-servos for steeringcontrol. During the
expertise in modeling architectures for complex engineering systems such as transportation, infrastructure, water resources and energy distribution using computational intelligence techniques He is the founder and Boeing Coordinator of the Missouri S&T’s System Engineering graduate program. Dr. Dagli is the director of Smart Engineering Systems Laboratory and a Senior Investigator in DoD Systems Engineering Research Center-URAC. He is an INCOSE Fellow 2008 and IIE Fellow 2009. He has been the PI, co-PI, or director of 46 research projects and grants totaling over $29 million from federal, state, and industrial funding agencies Dr. Dagli is the Area editor for Intelligent Systems of the International Journal of
lecture hall and place it instead in the discovery environment ofthe laboratory, the design studio, or the experiential environment of practice.” Addressing thisneed and helping to define a path forward in determining how we should educate in the 21stCentury differently than was done in the 20th Century represents an over arching goal for the MDProgram.As an institution with strong emphasis on research, large student populations, and a graduate toundergraduate student ratio of approximately 1:2, this engineering program must address twoimportant challenges: (1) scalability: the CoE currently enrolls nearly 5500 undergraduatestudents, and (2) breadth of programs: the CoE currently offers 15 academic bachelor degrees.The Multidisciplinary Design
Communications (1979) (High Honors), Post- graduate Diploma in Electronics and Communications (1981) (High Honors) and M.Sc. in Microwave Communication Systems (1983) (High Honors) from the University of Mosul, Mosul, Iraq. From May 1983 to October 1987 he was working with the Electromagnetic Wave Propagation Department, Space and Astronomy Research Center, Scientific Research Council, Baghdad, Iraq. On December, 1987, he joined the Radiating Systems Research Laboratory, Electrical and Computer Engineering Department, University of New Brunswick, Fredericton, NB, Canada where he obtained his Ph.D. (1992) in Computa- tional Electromagnetics, Wireless Communications, and the Global Positioning System. For his various
] Komerath, N.M., "Flow Imaging and Control Laboratory: An Experiment in IterativeLearning". Journal of Engineering Education, 1994, Vol. 1, p. 737-743.[6] Komerath, N.M., "Progress Towards Iterative Learning". Annual Conference Proceedings ofthe American Society of Engineering Education, Session 3536, paper No. 2, June 1995[7] Smith, M.J., Komerath, N.M., Aerospace Engineering: Integrator for Cross-DisciplinaryLearning”. Proceedings of the ASEE Annual Conference, Albuquerque, NM, June 2001.[8] Komerath, N.M., Smith, M.J., “Integrated Knowledge Resources for Cross-DisciplinaryLearning”. Session D-7, Proceedings of ICEE 2001, the International Conference on EngineeringEducation, Trondheim, Norway, August 2001. International Network on Engineering
mapping courses and studentactivities to student outcomes3 and then selecting examples of student work in these courses oractivities. Direct evidence includes student work such as homework, laboratory reports,examinations, quizzes, and projects. These are graded, and in some cases evaluated usingrubrics, which define and describe the important components of the work and provide a moredetailed way to measure student outcomes4. Indirect evidence includes students’ self-assessmentof their learning using instruments such as survey. The scores students receive on their work orself-report on surveys are then related to a single numerical range with a threshold value that isconsidered to demonstrate achievement of the SO. Finally, the average cohort
. Laboratory techniciansupport could alleviate these problems, but surfaces another issue – resourcing interdisciplinaryprograms. Figure 3. Equipment supporting Multi-UAV Research at AFIT While the interdisciplinary teaming associated with the UAV projects improved thecollective performance of the students, there was no specific attempt to integrate the educationplans of the students. With one exception, only one AE student across three different projectstook one or more SE courses, and none of the SE students pursued deep specializations withinAE sub-disciplines. Certainly the AE students learned something about SE by working with thelarger group, but their learning in SE did not get much further than hardware integration
was established in 1992 at Wentworth Institute ofTechnology. Under EAC rules, the electromechanical engineering program had simultaneouslymet the accreditation criteria for electrical engineering and for mechanical engineering. Thegraduates of this program are true interdisciplinary engineers proficient in tacklinginterdisciplinary projects in all their electrical and mechanical complexity. In addition, thegraduates have excellent laboratory and machine shop skills. Recently1,2 a biomedical systemsengineering specialization was established in the form of a concentration within this wellestablished electromechanical engineering program.The addition of the concentration required only limited additional resources. The result is ahigh-quality
, results of which have been published in over 100 articles in journals and conference proceedings. Dr. Nemes has also held a number of positions in industry and government, including posts at the Kennedy Space Center and at the U.S. Naval Research Laboratory in Washington DC.Kirsten S. Hochstedt, Penn State University Kirsten S. Hochstedt is a Graduate Assistant at the Leonhard Center for the Enhancement of Engineering Education. She has received her Masters degree in Educational Psychology, with an emphasis in educa- tional and psychological measurement, at Penn State and is a doctoral candidate in the same program. The primary focus of her research concerns assessing the response structure of test scores using item
every student in the group, or by randomly selecting a group member (or members) to be tested and thus proxy for the group. • Sharing known skills- Students who possess certain knowledge or skills (examples: computer skills, laboratory skills, data reduction skills, presentation skills) should be willing to pass it on, and/or share it with their group members. • Collaborative Skills- Groups cannot function effectively if members do not have (be willing to learn) or use some needed social skills. These skills include leadership, decision making, trust building, and conflict management. • Monitoring Progress- Groups need to discuss amongst themselves whether they are