AC 2009-422: INTEGRATING REAL-WORLD MEDICAL-DEVICE PROJECTSINTO MANUFACTURING EDUCATIONSusana Lai-Yuen, University of South Florida Susana K. Lai-Yuen is an Assistant Professor of Industrial & Management Systems Engineering at the University of South Florida, USA. She received her Ph.D., M.S., and B.S. (Summa Cum Laude) degrees in Industrial Engineering from North Carolina State University, USA. Her research interests include computer-aided design (CAD), computer-aided molecular design (CAMD), human-computer haptic interfaces, computational geometry for design and manufacturing, and engineering education. She is the director of the Virtual Manufacturing and Design Laboratory for Medical
AC 2009-304: PRACTITIONERS AS ADJUNCT CLINICAL PROFESSORS: THEIRROLE IN TEACHING REAL-WORLD ENGINEERING APPLICATIONS INDESIGN AND CONSTRUCTIONVirendra Varma, Missouri Western State University Virendra K. Varma,Ph.D.,P.E.,F.ASCE, is Professor and Chairman of the Department of Engineering Technology at Missouri Western State University. Page 14.965.1© American Society for Engineering Education, 2009 Practitioners as Adjunct Clinical Professors: Their Role in Teaching Real-World Engineering Applications in Design and ConstructionAbstractIn the schools of engineering and technology
Interactive. As the Director of Computer Graphics Technology for IUPUI, he specializes in the study of computer animation techniques and applications and enjoys teaching the latest in animation technology as well as helping his students develop a firm foundation of proper animation principles. Page 14.529.1© American Society for Engineering Education, 2009 Embedding Faculty into Industry: Understanding the Real World Expectations of Our GraduatesAbstractEngineering technology students face intense educational demands in school. Their faculty,challenged to develop coursework that balances theory and
AC 2009-231: USING A REAL-WORLD, PROJECT-BASED ENERGY MODULETO IMPROVE ENERGY LITERACY AMONG HIGH-SCHOOL YOUTHJan DeWaters, Clarkson University Jan DeWaters, PE is currently pursuing a PhD degree in Environmental Science and Engineering at Clarkson University, with a focus on energy and environmental education. She has several years of experience as the curriculum coordinator for Clarkson's Project-Based Learning Partnership Program and directed the Partners in Engineering Program that provides mentoring and engineering activities for eighth grade girls.Susan Powers, Clarkson University Susan E. Powers, PhD, PE is a Professor of Civil and Environmental Engineering and Associate Dean in
AC 2009-2282: INTEGRATING REAL-WORLD EXPERIENCE INTO A COLLEGECURRICULUM USING A MULTIDISCIPLINARY DESIGN MINORJessica Brakora, University of MichiganBrian Gilchrist, University of MichiganJames Holloway, University of MichiganNilton Renno, University of MichiganSteven Skerlos, University of MichiganToby Teory, University of MichiganPeter Washabaugh, University of MichiganDaryl Weinert, University of Michigan Page 14.766.1© American Society for Engineering Education, 2009 Integrating Real-World Experience in to a College Curriculum Using a Multidisciplinary Design MinorAbstractThe real world offers tremendous challenges and numerous opportunities
Engineer in the Real World”Key words: “project-based learning,” “international,” “assessment”IntroductionThe quotation in the title of this paper is a student’s statement about the future impact of hisproject-abroad experience in South Africa. Indeed, study-abroad and project-abroad experiencesare increasingly viewed as important for engineering students’ careers. Assessing the studentlearning outcomes of such programs can benefit (a) the students, as they engage in self-reflectionand communication about their experience, (b) the study-abroad program itself, for continualimprovement, and (c) the engineering education community at large, as it seeks effectivemethods and models for preparing engineers for their work. To
difficulty relating the computer exercises in the textbook to real-world applications. Afterteaching this course a few times, the author decided to explore methods that might make thecourse more exciting to a greater number of students while remaining challenging. After someresearch it was decided that computer control of objects using microprocessors might be a goodaddition that will allow the students to test their programming skills, complement the techniquesencountered in the numerical exercises, and at the same time lead to fun and challenging designs.ObjectivesThe objectives for ME175 are to: Provide students with a basic exposure to numerical methods. Use MATLAB as the software environment to conduct numerical analysis
AC 2009-113: INTRODUCING THE SMALL WORLD: DEVELOPING THEMEMS/NANOTECHNOLOGY CURRICULUMXingguo Xiong, University of Bridgeport Xingguo Xiong is an assistant professor in Department of Electrical and Computer Engineering at University of Bridgeport, CT. He teaches courses in the fields of MEMS (Microelectromechanical Systems), Nanotechnology, VLSI design and testing, microelectronic fabrication, etc. His research fields include MEMS and nanotechnology, CMOS VLSI design and testing.Linfeng Zhang, University of Bridgeport Linfeng Zhang is an assistant professor in the Department of Electrical Engineering at the University of Bridgeport. He teaches in the areas of biosensors, controls, signal
AC 2009-740: EWB^2 - ENGINEERS WITHOUT BORDERS: EDUCATIONALLY,A WORLD OF BENEFITSBeverly Jaeger, Northeastern University Beverly K. Jaeger, PhD is a member of Northeastern University’s Gateway Team, a select group of full-time faculty devoted to the First-year Engineering Program at Northeastern University (NU). While she concentrates on first-year engineering courses and instructs across all engineering disciplines, Dr. Jaeger also teaches specialty courses in the Department of Mechanical and Industrial Engineering at NU in Digital Simulation, Facilities Planning, and Human-Machine Systems.Ethan LaRochelle, Northeastern University Ethan LaRochelle is a senior electrical engineering
real-time applications, suchas sensor networks, flight control systems, accelerator control, road vehicle control, and others,are all distributed and for proper operation require very different programming techniques thantraditional systems. Typical software engineering curricula rarely include respectivemethodologies of software development for such systems. If they do, their courses mostlyconcentrate on the specification and design of software for distributed systems, but stop short ofincluding thorough treatment of implementation and testing issues. The current work builds upon previous experiences of the authors and involves projects inteaching software development for distributed real-time data acquisition and control systems,with
concepts 8-12 . Regardless of the particular software being used or the specific type of controller being built,it is obvious that educational bodies worldwide have adjusted their structure to facilitate a greaterexposure to the application of the abstract theory behind control systems to real-world, real-time Page 14.830.3processes. With the technology available to various laboratories and schools continuously 2evolving, the students will soon be able to have all the required exposure and ability required toenter the work field with more than just a mere exposure to real-world applications of
testit on real world applications to projects. That is our domain as engineering economists andengineering managers.Finance academics tend to view the world from the perspective of calculus and continuousequations. While this may be confining, it is at least consistent. As engineering economists, wedeal with both discrete and continuous problems; this unfortunately can lead to inconsistency.There is no single approach to solving real options problems. This lack of uniformity may beone of the many issues hindering more widespread adoption.Most of the literature discounts future costs using continuous discounting. This is true whendirectly applying the Black-Scholes equation (and related models), and continuous discounting isthe predominant
seniordesign course so that the students can gain hands-on experience of real-world systems. As aresult, the students can be well prepared before they enter the workforce. In this paper, wepresent an instructional material for CANoe software. The instructional material covers the maincomponents that are needed to build CANoe application in five labs. These labs represent themajor phases in the CANoe application development cycle. Students, after learning this material,can move forward to develop more sophisticated applications on their own. Page 14.1148.3 Figure 1: Simplified control network for average automobile without CAN.Figure 2: Simplified
AC 2009-686: THE SOCIOLOGY OF PROFESSIONS: APPLICATION TO CIVILENGINEERINGStephen Ressler, United States Military Academy Colonel Stephen Ressler is Professor and Head of the Department of Civil and Mechanical Engineering at the U.S. Military Academy (USMA) at West Point. He earned a B.S. degree from USMA in 1979, a Master of Science in Civil Engineering degree from Lehigh University in 1989, and a Ph.D. from Lehigh in 1991. An active duty Army officer, he has served in a variety of military engineering assignments around the world. He has been a member of the USMA faculty for 17 years, teaching courses in engineering mechanics, structural engineering, construction, and CE
first presented at the NationalEducator’s Workshop. Sponsors of this workshop included the National Aeronautics& Space Administration (NASA), the National Institute of Standards and Technology(NIST), and the American Society for Engineering Education (ASEE). One of theobjectives of this workshop is to provide educators with material activities that theymay wish to include in their curriculums. The required format for these materialactivities is: Introduction; Current Applications; Method of Operation; Summary;Student Activity; Outcomes and Post-Lab Analysis; Sources of Supplies; and then theActivity Procedure.During the Annual ASEE Conference, selected material activities are presentedduring a specialized technical session dedicated
show that there is a set of guiding universal principles that if properly ap-plied would provide guidance for dealing with ethical dilemmas. In theory, the study of engineeringethics should not be necessary if engineers were well founded in the application of these principles.Because of the complexities involved in ethical dilemmas, engineers must develop their ability to ap-ply moral intelligence (knowledge of what is right) when we are under pressure in real-life situations.The way we learn to apply this moral intelligence is by studying ethics so that when we are faced withan ethical dilemma we can reply in a manner that is consistent with these universal principles” [5]. Proceedings of the 2009 American Society for Engineering Education
instructional technologies, providesguidance and solutions in visual and instructional design, expands instructionaltechnology research, and builds partnerships locally and globally.(http://telr.osu.edu/) Page 14.263.4 Utilizing real-world problems as a stimulus for student learning is not at all new and has been in practice for a very long time. Problem-based learning has been defined as minds-on, hands-on, focused, experiential learning. (Wilkerson & Gijselaers, 1996). A problem-based curriculum is significantly different from the traditional discipline centered curriculum. (Woods, 1994). Instructors are considered to serve as problem-solving
identify an appropriate design problem, and finally, to offer a solution byprogressing through a systematic design process.The concept of merging a service-learning activity with engineering design pedagogy wasdeemed an appropriate choice for a first-year design project as it satisfied the diverse needs ofthe course enrollment: 900 students from multiple engineering disciplines. The ROXIE projectprovides a “real world” context in which students can gain experience in practicing engineeringdesign and implementing a structured design methodology. Most importantly, the ROXIEproject provides an opportunity for students to gain a better understanding of how to frame anengineering design problem; a necessary skill for all engineering disciplines
outcome. In contrast to behaviourism, the premise ofconstructivism is that knowledge is created by learners, rather than transmitted to them. It isbased on the epistemological ground that views knowledge not merely as the awareness ofobjects that exist independent of any subject, but also as a subjective and dynamic product ofknower’s experiential world constructed through the senses and social interactions19. Thus, theconstructivist model of learning advocates that, as von Glasersfeld states19, “knowledge is not atransferable commodity and communication not a conveyance.” Individuals learn byexperiencing the real world and challenging real problems. Hence, the role of teacher is not todispense knowledge but to serve as a creative mediator and
various step responses of the proposed PID controllerbased on the SLC500 PLC are investigated to decide the optimal tuning of the velocity controlloop. The assessment methods are included in the assessment section.IntroductionThe teaching of the PID control concept is never trivial. Especially in PLC courses, thedemonstration and exercise of the dynamic PID control, in addition to the static applications, arevery important to emulate the real world applications. The various new PID teachingcomponents in both static and dynamic applications are introduced to the advanced PLC course,EMET430 at Penn State Berks, and some results are summarized in this paper.The SLC500 PLC training station at Penn State Berks consists of the SLC 5/04 processor
AC 2009-444: LOW-COST MICROMACHINING DEVELOPMENT ANDAPPLICATION FOR ENGINEERING AND TECHNOLOGY EDUCATIONClifford Mirman, Northern Illinois UniversityAndrew Otieno, Northern Illinois University Page 14.855.1© American Society for Engineering Education, 2009 Low-Cost Micromachining Development and Application for Engineering and Technology Education By Cliff Mirman (mirman@ceet.niu.edu) Andrew Otieno (otieno@ceet.niu.edu) Department of Technology, Northern Illinois University, DeKalb, IllinoisAbstractThe goal of any undergraduate engineering or
application and communication skills has been very successful inpreparing Embry-Riddle students for real world employment as evidenced by alumni comments.Senior students also enjoy being placed in a hands-on environment which allows verification ofthe theoretical learning they have been exposed to during their previous courses.IntroductionThis paper recounts a change in the senior capstone design curriculum at Embry-RiddleAeronautical University (ERAU)/Prescott campus that involves the introduction of verificationof analytical predictions via testing of physical models and a team-teaching effort between theDepartment of Aeronautical Engineering (AE) and the Department of Humanities/Communities(HU/COM). These changes address perceived gaps in student
,landfill applications, septic leach fields, gas and leachate collection systems, retaining walls,lightweight embankment fill, and vibration attenuation for railways.Not all of the general public understands sustainability and utilizing waste tires as recycledproducts. Using recycled materials in real applications may face many challenges, especially ifthe knowledge of how to use the recycled materials such as waste tires has not been welldisseminated. These challenges involve many different people, including engineers. Engineersmay not have adequate knowledge about the physical properties, long term performance, designguidelines, and construction specifications. They may not want to take the risk of using recycledtires instead of conventional
. Studentswith multidisciplinary backgrounds such as mechanical, electrical, computer engineering,physics and business will be able to participate and build the project and discuss any difficultiesencountered by group discussion and formal progress report and offer possible solutions to saiddifficulties. Students will create and update their time and resource schedules (may be using MSproject or similar) in accordance with results just like the real world projects. Students will workon and complete their team project within the constraints stated in project proposal and finallywrite a formal final report and make presentation of the project along with a working prototype.Expectations of EGR 481 using UDL:Students enrolled in EGR 481 using UDL (versus
on total cost vs. reliability. Some of thecomments from the team members are “Working on the Solar Tracking System providedour group with a real world experience. Our system started from just an idea which gaveus the chance to work through all the challenges that come along with a group project.The best experience that I personally gained from this project was working in a group,managing a budget and utilizing skills gained from NIU and internships.”, “The skillsthat I had gained from this project are programming in basic language, understanding theuse of a solar panel to charge a battery, and the understanding of the workings of ourtracking system. All in all this project has given me a nice reference for working in teams,solving problems
. Page 14.422.1© American Society for Engineering Education, 2009 Design Visualization and Service Learning: Using Photorealistic Computer Rendering to Support a Third-World Community Development ProjectIntroductionComputer rendering has evolved to a point where the ability to generate photorealistic images isa standard feature in most CAD applications. The objective of photorealistic rendering is to“generate images from computer modeled scenes with an image quality as close to real life aspossible” [1]. The origins of computer rendering are rooted in technological developments thatare nearly a half-century old. However, more recent developments in photorealistic renderingapplications and in the
projects and real-world application than through classroom or textbook instruction7.”Successful ProgramsWith so many positive reasons and justifications for adding hands-on manufacturing skills to anengineering discipline, the question becomes a matter of how to incorporate these skill level labsinto existing engineering curricula. In the last 30 years most of the hands-on application orientedcourses/labs have been delegated to engineering technology programs at the various universities.Engineering technology majors are known for being more on the applications side of theengineering educational spectrum and employers have utilized their skills within a variety ofengineering related tasks. Now however, more and more engineering disciplines are
AC 2009-1290: UNDERSTANDING COGNITIVE STYLE AND LEARNING STYLEAND THEIR APPLICATION TO TEACHING AND LEARNING IN ENGINEERING.B. Kyun Lee, LeTourneau UniversityPaul leiffer, LeTouneau UniversityR. William Graff, LeTourneau UniversityVicki Sheafer, LeTourneau Iniversity Dr. Vicki Sheafer is a professor in Psychology at LeTourneau University.Vicki Sheafer, LeTourneau Iniversity Dr. Vicki Sheafer is a professor in Psychology at LeTourneau University. Page 14.1293.1© American Society for Engineering Education, 2009 Understanding Cognitive Style and Learning Style and Their Application to Teaching and Learning in
1 Motivational Concepts and their Application to Students in Engineering And Construction Management Alfred A. Scalza, P.E. Department of Architecture & Construction Management Farmingdale State College State University of New YorkIntroductionPrecisely, what do we mean by the word “Motivation”? One dictionary defines motivation asproviding a motive; another says to motivate is to excite. A third dictionary says to provide aforce or stimulus or influence. When it comes to motivating a student, they
1 Motivational Concepts and their Application to Students in Engineering And Construction Management Alfred A. Scalza, P.E. Department of Architecture & Construction Management Farmingdale State College State University of New YorkIntroductionPrecisely, what do we mean by the word “Motivation”? One dictionary defines motivation asproviding a motive; another says to motivate is to excite. A third dictionary says to provide aforce or stimulus or influence. When it comes to motivating a student, they