Project-Based Approach to Intensify STEM Education Experience – A Case Study * Kishore K. Chidella, Srikanth Kumar Gampa, Abdulrahman Almohaimeed Department of Computer Science University of Nevada Las Vegas, 4505 S. Maryland Pkwy, Las Vegas, NV, 89154 *E-mail: kishore.chidella@unlv.eduAbstractThe evolution of engineering made an impact role in technology. Innovations with recenttechnologies brought a new lifestyle and wide variety of benefits. The engineering is animportant drive to bring the technological innovations, which raised the growth and prosperity ofUnited States (US). To obtain the scientific approach and to
AC 2012-3001: BACCALAUREATE DEGREE COMPLETION: STUDENTRECRUITMENT, OUTREACH, AND RETENTIONDr. Hamid Y. Eydgahi, Bakersfield College Hamid Y. Eydgahi is the Dean of Instruction (CTE) at Bakersfield College in Bakersfield, Calif. He has an undergraduate degree in mechanical engineering technology, n M.B.A., and a Ph.D. in operations and technology management. He held a number of engineering and project management positions in private industry for more than 10 years, before joining higher education.Dr. Julio R. Blanco, California State University, Bakersfield Julio R. Blanco is the Dean of the School of Natural Sciences, Mathematics, and Engineering and As- sociate Provost for Grants, Resource Management, and
problems that are unique to offering a senior project course in a distance learningenvironment are explored and solutions are described.II. IntroductionThe senior design project, which has become a popular addition to many engineering andengineering technology programs, provides a number of challenges for both the student andfaculty supervisor. These challenges include selecting an appropriate project by the student,creating and meeting a schedule agreed upon by the student and the faculty supervisor, anddeveloping a suitable presentation of the completed project. Further complicating the process isthe administration and execution of the senior project in a distance learning environment.A senior design project requirement was introduced to the
and honest. It is impossible todevelop a cooperative learning process using authoritarian evaluation. With the democraticapproach, students must be involved in the decisions about evaluation content.” Other work shows that study groups6 (with two students each) improve learning becausefrequently a student is better prepared to identify the doubts of his classmate than the professor. Page 7.590.2 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education” C. How technology can work with
supplychain management and logistics with different focus areas, where engineering focuses on approacheswith mathematical models and business focuses on management and business approaches6. As moreand more information and communication technologies are used in supply chain management,industry and government supply chains are not simple and visible sets of links from point of originto point of consumption7. Cybersecurity is becoming a critical issue and a priority area within mostof global supply chain and logistics systems. While global supply chain risk management requirescooperation and collaboration among different specialty areas, it also brings new challenges fortraining qualified workforce8. As pointed out by the National Initiative for
the Journal for Engineering Education, an Associate Editor of the IEEE Transactions on Education, and past chair of the Educational Research and Methods Division of ASEE. She founded the Center for Research on Learning and Teaching in Engineering at U-M in 2003 and served as its Director for 12 years. Prior to joining U-M, Dr. Finelli was the Richard L. Terrell Professor of Excellence in Teaching, founding director of the Center for Excellence in Teaching and Learning, and Associate Professor of Electrical Engineering at Kettering University. Dr. Finelli’s current research interests include student resistance to active learning, faculty adoption of evidence-based teaching practices, and the use of technology
andprovide ample opportunity for them to learn in an environment that allows them to fail safely.Educators and researchers have looked at using computers to enhance classroom instruction eversince the technology made it feasible to do so. It is now widely accepted that computer aidedinstruction can help students gain a better understanding of the subject matter if implementedappropriately15. This is particularly true for topics that involve motion of objects, three-dimensionalstructures or other significant visual components that are not easily represented on a black board.For example, engineering dynamics is the study of motion but this motion cannot be showneffectively using traditional teaching tools, including mechanical models, which are
. Kellogg is a Professor of Industrial Engineering at the South Dakota School ofMines & Technology where he currently serves as coordinator of the Industrial Engineering and TechnologyManagement programs. In addition to pedagogical issues related to engineering education, his research interestsinclude applied and numerical probability models in the industrial environment. He has published worksMathematics and Computers in Simulation, Proceedings of IIE Research Conference, Quality Engineering, andProceedings of the Joint Statistical Meetings. Dr. Kellogg is a member of the Institute of Industrial Engineers andthe American Society for Engineering Education
-pencil to a fully immersive virtual reality experience. Wide-rangingdata in this course was collected, and its analysis is here presented. A framework for analyzingvirtual reality media for applications in education is included. Special effort is directed towardspracticality in the field of engineering education, i.e., analyzing the cost to benefit ratio of usingdifferent teaching technologies. Lessons learned from this experiment are included. A key factor in the utility of this work is that only recently have virtual reality hardwaresystems become financially available to primarily undergraduate institutions. A new kind ofstripped-down virtual reality display has emerged that makes the technology affordable to most.Thus, bringing
., and Nakiboglu, G., 2007, "Use of computational fluid dynamics (CFD) in teaching fluid mechanics," 114th Annual ASEE Conference and Exposition, 2007, June 24, 2007, American Society for Engineering Education, Honolulu, HI, United StatesTannehill, J.C., Anderson, D.A. and Pletcher, R.H., 1997, Computational Fluid Mechanics and Heat Transfer, Second Ed., Taylor and Francis, Philadelphia, PA.Towers, C.E., Bryanston-Cross, P.J., and Judge, T.R., 1991, "Application of particle image velocimetry to large-scale transonic wind tunnels," Optics and Laser Technology, vol. 23, no. 5, pp. 289-295.Wernet, M.P., and Edwards, R.V., 1990, "New space domain processing technique for pulsed laser velocimetry," Applied Optics, vol. 29, no. 23, pp
and in conference proceedings in his areas of the research interests. He has also been PI or Co-PI for various research projects United States and abroad in power systems analysis and protection, load and energy demand forecasting, renewable energy, microgrids, wave and turbulence, radar and remote sensing, instrumentation, atmosphere physics, electromagnetic compat- ibility, and engineering education. c American Society for Engineering Education, 2019 Project-based Teaching Approach of a Combined Undergraduate and Graduate Course in Power ElectronicsAbstractPower electronics, a fast-developing technology within the engineering fields is multidisciplinary andcomplex subject
Developing a Nano-electronic fabrication Laboratory to enthuse Entrepreneurship Pradeep K. Bhattacharya, Department of Electrical Engineering, Southern University, Baton Rouge, La-70813 bhattach@engr.subr.edu Abstract Manifestations of the famous bathtub curve effect have shown that in the field ofelectronics, miniaturization makes the cost of electronic technology reduce dramatically. In thefirst few years, on the introduction of a new technology, it costs more than usual till when it getsinto a manufacturing phase, and after that
Service learning as a catalyst for sustainable change in Ecuador B.M. Wright, C.W. Swan, and D.M. Matson Tufts UniversityAbstractThe student chapter of Engineers Without Borders at Tufts University allows students the opportunity ofservice learning while exploring sustainable solutions to real world problems. Interdisciplinary teamsresearch potential technologies and propose implementation strategies, conduct laboratory research at theuniversity on performance trade-offs, and then gain field experience by traveling to the target communityto develop personal relationships which support sustainable social change. One such investigation hasfocused on water quality
experience utilizing relevant computational software tools that provide students anequivalent or complementary learning opportunity as a face-to-face laboratory activity. The conceptof a remote laboratory suggests the utilization of the Internet and a system of hardware and softwarecontrol technologies that the user can remotely access and conduct real-time experiments5.The goal was to develop and implement a laboratory-scale thermal fluid system, which will beaccessible both physically and online with a user interface. This interface would allow for simulatedor physical data acquisition and remote access to thermal fluid laboratory equipment such as a heatexchanger. This allows engineering students to carry out laboratory activities on simulated
Teaching Capstone Design in Globalization Environment Yuyi Lin, Donald Harby University of Missouri, Columbia, MO 65211 LinY@missouri.edu Dong Jang, Seoul National University of Technology, Korea Wei Zhen, Xiamen University, China AbstractIn an effort to improve the mutual understanding and communication among future engineers in aglobalization environment, the authors have started to establish a set of common course material anddesign tools for capstone design education. Internationalized course material will be web
world. 7. Demonstrate competence in selection,modification, and operation of appropriate engineering tools and resources. 8. Recognize health,safety, and environmental issues related to technological processes and activities and deal withthem responsibly. 9. Communicate effectively with a specific audience, both orally and inwriting, ranging from executive summaries to comprehensive technical reports. 10. Demonstratethe ability to work in teams, including structuring individual and joint accountability, assigningroles and responsibilities, partitioning work, monitoring progress, meeting deliverable deadlines,and effectively integrating individual contributions into a final deliverable. (ABET
requiredcapstone design skill sets. In this paper, we examine theories accepted among the K-12 andcollege educational literature for educating diverse teams and suggest solutions that have foundcommon ground within both groups. Quality Function Deployment, Engineering MajorCommonalities and Design Iteration techniques are explored within these contexts in conjunctionwith instructor experience. We argue these modified methods have a high probability of successbased on their proven success at the K-12 level, when properly implemented.IntroductionInterdisciplinary senior design capstone projects have been introduced in numerous engineeringschools and colleges over the last few decades. As rapid technological advancement has proventhat various engineering
Virtual Laboratory Feasible? Part I," in Proceedings of IEEE Power Engineering Society Summer Meeting (Volume 3), 2000.[2] G. G. Karady, M. Reta-Hernandez and A. Bose, "Role of laboratory education in power engineering: is the virtual laboratory feasible? Part II," in Proceedings of IEEE Power Engineering Society Summer Meeting (Volume 3), 2000.[3] P. S. Meliopoulos and G. J. Cokkinides, "Role of laboratory education in power engineering: is the virtual laboratory feasible? III. Virtual power system laboratories: is the technology ready," in Proceedings of IEEE Power Engineering Society Summer Meeting (Volume), 2000.[4] N. Mohan, W. P. Robbins, P. Imbertson, T. M. Undeland, R. C. Panaitescu, A. K
reporthighlighted that ever-advancing technologies and increasingly complex problems requireengineers to work effectively in inter- and multidisciplinary teams [1]. A more recent report inthe UK by the Royal Academy of Engineering further emphasized the increasing need forengineers to develop multidisciplinary skills to work effectively on technological advances at theintersections of traditional disciplines [2]. Broo et al. further note that many traditionalboundaries between different engineering disciplines are “eroding”, thus necessitating engineersto be capable of continually learning new skills across disciplines [3]. These drivers are likelyamong the reasons that the use of “multidisciplinary” and similar terms in peer-reviewed paperscontinues to
products. It is markedly different from the traditional productdevelopment process, which focuses on optimized designs for individual products. This is arelatively new development in engineering design, which is not typically a part of an engineer’seducation. Furthermore, it is different from traditional engineering topics in that it requires anintegration of principles from both management and engineering design. All this makes for anew and different topic for which educational material needs to be developed. This paperpresents and describes an online learning tool that includes a tutorial, cases, and a glossary in amultimedia format hosted on the Internet. The tutorial presents the basic concepts as well ascurrent research on planning and
Mechanics of Materials, Machine Design, and Vibrations Finite Element Learning Modules for Undergraduate Courses Marwan Abumahaimed/Joseph J. Rencis University of Arkansas, Fayetteville/Tennessee Technological UniversityAbstractThis paper presents four finite element learning modules that have been developed for mechanicsof materials, machine design, and vibrations that can be integrated into these undergraduatecourses. A simple cantilever beam example is considered, solved by hand and also, solved usingthe commercial finite element code ANSYS®. ANSYS© has been employed since it is widelyused to analyze engineering problems in the industry. The cantilever beam is modeled using
is an Associate Professor in the Department of Mechanical Engineering at Prairie View A&M University. He received his PhD in Mechanical Engineering from Missouri University of Science and Technology in 2005. His research interests include CAD/CAM, additive manufacturing, virtual pro- totyping, and engineering education.Dr. Bugrahan Yalvac, Texas A&M University Bugrahan Yalvac is an associate professor of science and engineering education in the Department of Teaching, Learning, and Culture at Texas A&M University, College Station. He received his Ph.D. in science education at the Pennsylvania State University i ©American Society for Engineering Education, 2023 Work-In
AC 2009-1171: A REMOTE LABORATORY FOR COLLABORATIVEEXPERIMENTSJan Machotka, University of South Australia Jan Machotka is an electrical engineering graduate of the Czech Technical University in Prague. He spent more than 10 years working as a professional consultant in industry in Czechoslovakia and abroad. He started his academic career 20 years ago at the South Australian Institute of Technology. He is currently a Programme Director for undergraduate, postgraduate and transnational students at the University of South Australia, Adelaide, Australia. He is also responsible for final year students’ projects for four engineering streams in the School of Electrical and Information Engineering
administrative and educational support services; assesses whether it achieves these outcomes; and provides evidence of improvement based on analysis of those results. See Comprehensive Standard on Institutional Effectiveness, pg. 11.1Like SACS, the Accreditation Board for Engineering and Technology (ABET) has also movedtoward an outcomes assessment process. Consequently, the concept of outcomes assessment isnew for many faculty within engineering programs. All general comprehensive reviewsbeginning 2001-02 have been conducted under the new outcomes-based criteria (EngineeringCriteria 2000 or EC2000). EC2000 states that each program must develop program educationalobjectives, program outcomes, and develop methods to assess each
Session # 3247 TEACHING INTRODUCTORY CIRCUIT ANALYSIS USING A SIGNAL PROCESSING APPROACH James Bryant Professor (Electronic Engineering Technology) DeVry University; Columbus, OH 43209 AbstractThis paper suggests that a traditionally modeled circuit analysis course may no longerprovide the optimal preparation for the more advanced courses in a contemporaryElectrical or Electronic Engineering curriculum. Specifically most contemporaryElectrical Engineering and Electronic Engineering curricula emphasize courses that eitherdirectly or indirectly involve electronic signal processing in some fashion
) • Product design analysis • Group Technology • EdgeCAM software • Autodesk Streamline • Inventor welding environment • OthersTable 1 shows that the course is loosely organized into four sequences. In the first segmentlectures and homework assignments focus on computer graphics and geometric modeling topics.Concurrently lab time is used to model a backhoe mechanism, as well as to start the modeling ofthe product design/reverse engineering project.In the lecture portion of the surface-modeling segment, the Rhinoceros software is used toillustrate such concepts as control points, order, knots, continuity, Gaussian curvature,developable surfaces, etc. After working through the Rhinoceros training
and department chair of the electronics and electrical power technology programs at Indian River State College and Brevard Community Col- lege where he created new courses and programs, updated curricula, and increased enrollment to full capacity. Chrysanthos authored two textbooks and six laboratory manuals in the areas of analog and digital electronics, and schematic capture and printed circuit board layout. Panayiotou started his career in industrial controls and automation and then transitioned to the telecommunications industry where he designed VHF and UHF networks. Panayiotou received his undergraduate electrical engineering degree from Higher Technical Institute, Nicosia, Cyprus. With the support from a
Paper ID #17045Experimental Centric Pedagogy in Circuits and Electronics Courses at 13UniversitiesProf. Kenneth A. Connor, Rensselaer Polytechnic Institute Kenneth Connor is a professor in the Department of Electrical, Computer, and Systems Engineering (ECSE) where he teaches courses on electromagnetics, electronics and instrumentation, plasma physics, electric power, and general engineering. His research involves plasma physics, electromagnetics, photon- ics, biomedical sensors, engineering education, diversity in the engineering workforce, and technology enhanced learning. He learned problem solving from his father (ran a
, programming, and the engineering design process into K-12 education. Aside from her research, Stephanie also participates regularly in outreach programs to promote STEM topics in classrooms and beyond.Robyn Paul, University of Calgary Robyn is a Master’s student researching engineering leadership education at the University of Calgary. She graduated from Manufacturing Engineering in 2011 and worked in industry for a few years before returning to school.Mr. Riley S. Booth, University of Calgary I’m a biomedical engineering MSc student at the university of Calgary. My research interests include haptics, rehabilitation, mobile and wearable technology, engineering education and educational software. I’m currently
Develop a KBS to be combined with GISA.M. Buis12 1996 Geodetic Engineering to support parceling design task Build a knowledge-based system toStewart Long13 2003 Computer Science automatically assess IT skillsNobuhide 2006 Computer Science Develop a KBS for QoS serviceNishiyama14 Information Build a knowledge-based system forKihyeon Kim15 2007 Technology diagnosing ECG and heart disease Integrate KBS with a