AC 2009-520: THE THEORY AND PRACTICE OF RACE-VEHICLE DATAACQUISITION AND ANALYSIS IN MOTOR-SPORTS ENGINEERINGEDUCATIONGuido Lopez, Old Dominion UniversityAnthony Seaber, Old Dominion University Page 14.1257.1© American Society for Engineering Education, 2009 THE THEORY AND PRACTICE OF RACE-VEHICLE DATA ACQUISITION AND ANALYSIS IN MOTORSPORTS ENGINEERING EDUCATION Abstract Motorsports Engineering has currently reached an unprecedented level of technical sophistication. This unique field of engineering specialization is at the vanguard of automotive research and development for terrestrial transportation. It deals with high performance
are now introducedto both the technical aspects of design and the associated project management concepts in theintroductory ECE course.5 Students have become more confident in their design abilities, whichhas led to more complex and sophisticated work in subsequent project-based courses. Upper-level electives, the majority of which had little project-based work previously, now furtheremphasize design and require physical space and specialized tools. Not surprisingly, seniorcapstone design courses, required of all graduates, place the greatest demand on our projectfacilities. In conjunction with the reforms, project complexity has increased and we haveobserved an increase in the need for more state-of-the-art tools and resources such as theSMT
Paper ID #14356Engineering Program Accreditation in Latin America and the CaribbeanDr. Maria M. Larrondo-Petrie, Florida Atlantic University Dr. Larrondo Petrie has a Ph.D. in Computer Engineering and is a Professor and Associate Dean of International Affairs in the College of Engineering and Computer Science of Florida Atlantic University. She is the Executive Director of LACCEI (Latin American and Caribbean Consortium of Engineering Institutions) and served in the past as an officer of the International Division of ASEE (American Society of Engineering Institutions). She is Editor-in-Chief of the Latin American and
. Page 22.374.1 c American Society for Engineering Education, 2011 Connecting Theory and Practice: Laboratory-based Explorations of the NAE Grand ChallengesAbstractThis paper describes a pilot project, conducted during the Fall 2010 semester, that incorporatedlaboratory exercises inspired by the National Academy of Engineering (NAE) Grand Challengesinto an introductory digital signal processing course. The Challenges were broadly interpretedand local expertise and resources were used to enhance the experience. In one project, studentsinvestigated environmental sensors in the local “SmartHome” and followed up by analyzingactual solar and electrical energy usage data. In another
the workforce. The great clockworkmodel reduces human beings to cogs in a machine, resources to be deployed by trainedspecialists – a model in other words with implications for ethics. As engineers turn toward socialsystems as a way of understanding and leading human organizations, they must consider theethical implications of their new perspective.This paper asks whether the shift toward systems thinking alters the landscape. It might be thatsystems thinking is, from the standpoint of ethics, nothing more than a more sophisticatedversion of the previous perspective. If this is the case, then systems thinking inherits the sameethical concerns. At most, perhaps it obscures or exaggerates them. Optimistically, it might bethat systems thinking
Integrating Sustainability Within Ethics Discourse: A Freshmen Perspective Seetha V. Veeraghanta, Janice W. Frost University of Utah, Undergraduate Studies ProgramAbstractRecently, engineering academia has recognized the importance of including ethics and the conceptof sustainability into the curriculum. This development is evidenced in the ABET guidelines, viz.,“…engineering standards and realistic constraints - economic, environmental, sustainability,ethical, health and safety, social and economic” [1].In this paper, we present the argument that incorporating theories and concepts of global resourcesustainability into a discussion of ethics enables a first-year student to comprehend
Paper ID #14290Differences in Leadership and Project Based Learning Outcomes in Devel-oped and Developing CountriesMr. Andrew Thomas Conley, Michigan Technological University Andrew is studying mechanical engineering, is minoring in aerospace engineering, and is completing the Global Technological Leadership certificate at Michigan Technological University. Andrew has signif- icant project experience as the project manager of the Aerospace Enterprise—one of Michigan Tech’s largest enterprises—and the Oculus-ASR project—a satellite project sponsored by the US Air Force Re- search Lab for university students to design, build
Paper ID #14323First Learning, then Lifelong Learning: Engineering Study Abroad to In-crease Access and Retention among Minorities and Under-represented GroupsDr. Monica Gray, The Lincoln University - College of Science & Technology Dr. Monica Gray is an Assistant Professor of Civil and Environmental Engineering at The Lincoln Uni- versity. She simultaneously received her PhD in Civil and Environmental Engineering (Water Resources concentration) and Masters of Public Health (Environmental & Occupational Health concentration) from the University of South Florida, Tampa. She also received a Masters in Biological
and papers written in the past ten orso years on the needs for the engineering education for the 21st century (e.g. NAE 2004, 2005;NSB 2007; Duderstadt 2008; ASCE 2006, 2008), which promote inclusion of sustainablepractices, a systems approach and inquiry-based learning in engineering curricula among otherthings. A systems approach challenges engineers to incorporate environmental, social, andeconomic considerations, as well as technical aspects within engineering solutions. Likewise,definitions of sustainability often suggest a more holistic approach to problem solving thatincludes the triple bottom line (i.e., economic viability, and social and ecological justice
Paper ID #12624Personal development of future engineers: From individual success to profes-sional excellenceDr. Inna Mikhailovna Gorodetskaya, Kazan National Research Technological UniversityProf. Farida Tagirovna Shageeva, Kazan National Research Technological UniversityMrs. Dilyara R. Erova, Kazan National Research Technological University Page 19.25.1 c American Society for Engineering Education, 2015 Personal development of engineering students: From individual success to professional excellence
faculty.This Living With the Lab curriculum relies on a student owned “lab”. Freshman studentspurchase a commercially available microcontroller kit which is used throughout the year tointroduce the fundamentals of engineering. Students gain hands-on experience collecting andanalyzing data, designing and implementing real control systems, modeling and fabricatingsystem components, and finally creating their own solution to an open-ended problem. ThisLiving With the Lab curriculum is aligned with the outcomes suggested by the NationalAcademy’s Engineer of 2020, and with our own desire to instill a “can-do” spirit in our students.This paper will describe the Living With the Lab curriculum while focusing on several of the labexperiences and how they
ethics into the College’s eight programs,and throughout the entire 4-year curriculum. To accomplish this, we have used the model of analready successful communication program in Mechanical Engineering, where TeachingAssistants from Humanities are brought into the engineering classes and communication skillsare taught as “situational” learning, and we have developed an ethics component involvingfaculty and TA’s from the humanities. This paper will discuss the ethics component of theproject.The College of Engineering and the Department of Philosophy recently collaborated inconstructing and teaching “Engineering, Ethics and Society”, an upper-division humanities-designated course for the entire campus. The objective of “Engineering, Ethics and
AC 2011-549: TEACHING DIGITAL FILTER IMPLEMENTATIONS US-ING THE 68HC12 MICROCONTROLLERLi Tan, Purdue University North Central DR. LI TAN is currently with the College of Engineering and Technology at Purdue University North Central, Westville, Indiana. He received his Ph.D. degree in Electrical Engineering from the University of New Mexico in1992. Dr. Tan is a senior member IEEE. His principal technical areas include digital signal processing, adaptive signal processing, and digital communications. He has published a number of papers in these areas. He has authored and co-authored three textbooks: Digital Signal Processing: Fundamentals and Applications, Elsevier/Academic Press, 2007; Fundamentals of Analog and
Page 22.526.1 c American Society for Engineering Education, 2011 Educational Tool Development of an Electric Drivetrain Bench UnitAbstractThe industry consensus is that the vehicle electrification is the currently available technology forincreasing propulsion system efficiency and decreasing pollutant emissions. However, theelectric drivetrain operates much differently than conventional vehicle powertrain. There is aneed for training automotive engineers and educating students in this new and emergenttechnology of electric drivetrains. This paper presents the educational tool development of aninteractive, industrial-component-based bench unit for two different configurations of electricdrivetrains: battery
the areas of Micro-Electro-Mechanical Systems (MEMS), fluid dynamics of complex heterogeneous mixtures (multiphase, slurries, etc.), tribology, micro heat exchangers with phase transition, computer-aided measurement systems and instrumentation, electromagnetic sensors, turbulence and flow pattern phenomena in mixtures, deterministic and random signal analysis, and data processing and validation. His work has been published in more than one hundred refereed technical journals and conference publications, books, and monographs, and he has been granted more than 20 patents. Page
including Director, Intelligent Network Solutions and Director, Asia/Pacific Strategic Marketing. He was with Bell-Northern Research, Ottawa, Canada, 1978-1984. He had nationwide responsibility for US Army Materiel Command scientific & engineering computing, 1969-78, introducing many applications in what has become today’s Internet. He served as a US Army Officer in the Office of the Chief of Staff, in the Pentagon, 1966-1968. He was Chairman, IFIP TC-6 (International Federation for Information Processing Technical Committee on Data Communications) 1985-91. He founded and from 1979-1985 he chaired WG 6.5, the Working Group on Electronic Messaging of IFIP TC-6, and
, the “profession” is largely captive today to financialpriorities, which are de facto laissez-faire globally and which are the primary and imperfectdeterminants global industrialization.A negative conclusion to the professional question is of course possible and common. Wheredoes that leave us? Without any hope of a profession devoted to technological stewardship, at atime when the technical genie appears to be out of the bottle, driving many imperfectglobalization processes, and at a time when people everywhere are looking for ways to channeltheir individual energies toward right industrial ends. So we assert, yes, engineering is aprofession, albeit imperfect and emergent, and we must perfect it as one of many instruments ofright global
Paper ID #14346Summer Courses as a Platform for International Collaboration in ChineseHigher Education: An Exploration of Students’ Learning ExperiencesMiss Qunqun Liu, Shanghai Jiao Tong University Qunqun Liu is a graduate student at the Graduate School of Education in Shanghai Jiao Tong University. She obtained a B.S. in public administration from China Agricultural University. Her current interest focuses on the cognitive development of engineering graduate and undergraduate students, the assessment of teaching and learning in graduate education.Dr. Jiabin Zhu, Shanghai Jiao Tong University Jiabin Zhu is an Assistant
changes could be determined and/or suggested todraw closer links between the integral components of teaching and learning. In addition,expansion of this study is essential in determination of if/how institutional differences may beinvolved.AcknowledgementsThis research was funded in part by a mini-grant awarded through the Colorado School of Mines for the NSF project“Conducting Rigorous Research in Engineering Education.” NSF DUE-0341127. Any opinions, findings, andconclusions or recommendations expressed in this paper are those of the authors and do not necessarily reflect theviews of the National Science Foundation.Bibliography 1. Seymour, E., and N. Hewitt, Talking About Leaving: Why Undergraduates Leave the Sciences; Westview
promise for solving many of the problems facing the modernworld and for improving the lives of every person in that world. However, it also holds great perilfor creating new problems and for destroying the world as we know it. Engineers are in a uniqueposition to understand the technical issues surrounding the emerging technology they are helping tocreate, and it is imperative that we, as engineering educators, help them to develop the knowledge,skills, and attitudes to help society make wise choices concerning the development and applicationof emerging technologies. We must help them to recognize the larger societal context of their workin order to ensure that they will use their engineering skills to improve the world, rather than todestroy it
AC 2011-2920: IMPLEMENTING SOCIAL LEARNING STRATEGIES: TEAMTESTINGRebecca A Bates, Minnesota State University, MankatoAndrew Petersen, University of Toronto Mississauga Page 22.822.1 c American Society for Engineering Education, 2011 Implementing Social Learning Strategies: Team TestingABSTRACTThis paper describes how to provide collaborative learning opportunities and fast feedback onexam performance by adding a team component to examinations. The method is supported byresearch in collaborative and active learning pedagogy and has been applied to computer sciencecourses ranging from first-year programming to graduate
Department of Education to continue for an additional three years.As UASPP has matured, a number of changes have been made which have had a positive impacton the use of the program activities by the teachers in the classroom. Examples of these changesinclude movement away from providing experiments to the teachers and toward teacher-developed experiments, the development and use of design-based experiments, and increased useof engineering professors in summer institutes and follow-up activities. This paper highlightsprogram developments and their impacts throughout the three year history of UASPP, andpresents the format for new activities as the program moves into its next three years.IntroductionThe National Science Foundation has recognized the
learning.This paper summarizes the results of a series of studies on how Tablet PCs and wirelesstechnology can be used during classroom instruction to create a model that is highly interactive.In this paper, this model will be referred to as an Interactive Learning Network (ILN). TheInteractive Learning Network (ILN) is designed to enhance the instructor’s ability to solicitactive participation from all students during lectures, to conduct immediate and meaningfulassessment of student learning, and to provide needed real-time feedback and assistance tomaximize student learning. This interactive classroom environment is created using wirelesslynetworked Tablet PCs and a software application, NetSupport School, that allows various levelsof interactions
Paper ID #14315Bringing in the World: Internationalizing the Curriculum of a First-Year In-troduction to Engineering Course at a Large Public American UniversityProf. Jennifer DeBoer, Purdue University, West Lafayette Jennifer DeBoer is currently Assistant Professor of Engineering Education at Purdue University. Her research focuses on international education systems, individual and social development, technology use and STEM learning, and educational environments for diverse learners.Mr. Shreyas Vathul Subramanian, Purdue University Shreyas Vathul Subramanian is a PhD candidate in the school of Aeronautics and
Paper ID #14269University-Industry Partnership for Global Education: Implementing andIntegrating an Engineering International Internship into the Engineering Cur-riculumMrs. Maria Claudia Alves , Texas A&M University Maria Claudia Alves Baudier Director for Engineering International Programs at Texas A&M University Ms. Maria C. Alves is the Director for Engineering International Programs at Texas A&M University. She has been in this position since July 2012. In this position she is responsible for internationalizing the research and education activities of the Dwight Look College of Engineering. Under her
, Writing, Critical Thinking, and Engineering Curricula, 32nd ASEE/IEEE Frontiers in Education Conference, November, 2002; http://fie.engrng.pitt.edu/fie2002/papers/1386.pdf. 4. Bean, John C., Engaging Ideas: The Professor's Guide to Integrating Writing, Critical Thinking, and Active Learning in the Classroom, Jossey-Bass, 1996. 5. Kanaoka, Masao, A Technical Writing Course Aimed at Nurturing Critical Thinking Skills, Cambridge Language Consultants, 1999; http://www.camlang.com/tsp003print.htm. 6. Paul, Richard, and Linda Elder, How to Study and Learn a Discipline: Using Critical Thinking Concepts & Tools, Foundation for Critical Thinking, 2001. Foundation for Critical Thinking
analysis results. Metacognition is a sequence of steps followed bya person to monitor and improve that person’s own cognitive performance in an area. Thepractitioner skills taught fall into three categories: fundamental principles, approximations, andfeatures of the solution. When combined, the training has resulted in a measurable increase instudent ability to evaluate the reasonableness of results. This paper summarizes how thetraining was incorporated in the classroom and homework assignments. Results from surveys,observations from interviews, and exam scores are presented to show the effect of the trainingon attitude, behavior and cognition. The paper concludes with suggestions on how the trainingmight be applied in other fields of
and successof these students. Among the strategies developed for this project are two summer programsthat were implemented for the first time in summer 2009. The Summer Math Jam is a two-weekintensive mathematics program designed to improve students’ preparation for college-level mathcourses. The Summer Engineering Institute is a two-week residential summer camp that offersparticipating students the opportunity to gain insight into the engineering academic programthrough a combination of lectures, hands-on laboratory activities, workshops and projects withengineering professionals. This paper summarizes the results of the first year of implementationof these two summer programs.2. The Summer Math Jam2.1 Program GoalsAlthough nationally
Paper ID #14279The Mechanism of the Engineer’s Cultivation through Combining Trainingwith Scientific Research——Practices and Cases of Training Excellent Engi-neer in National University of Defense Technology (NUDT)Prof. ZhongLi FU, Center for National Security and Strategic Studies (CNSSS) In National University of De-fense Technology (NUDT). FU Zhong Li is deputy director of the Center for National Security and Strategic Studies (CNSSS) In Na- tional University of Defense Technology (NUDT).In this role, he manages NUDT’s Continuing Education reform and leads excellent engineer training research projects. He has conducted
Paper ID #14312Utilization of STEM Tools and Workshops to Promote STEM Education inthe United States and South AfricaDr. Christina L. Carmen, University of Alabama, Huntsville Dr. Carmen obtained a Bachelor of Aerospace Engineering degree as well as a Master of Science in Aerospace Engineering degree from the Georgia Institute of Technology in Atlanta, GA. While at Ga. Tech she worked with Dr. Warren Strahle, researching solid propellants. She obtained a Doctor of Philos- ophy in Mechanical Engineering from the University of Alabama in Huntsville (UAH) with a focus upon turbulent combustion modeling. Dr. Carmen is the