targeted course, Mechanics of Materials, for his firsttime at the University of Wyoming without the materials being implemented from theUniversity of Washington. Because of staffing issues, the PI did not teach the targetedcourse again until Spring 2003. The adapted materials were used in this class andevaluated by exit surveys and reflective notes. The students’ preferred learning styleswere determined by surveys.The Spring 2003 class that used the new materials was comprised of 35 students.Administration of the course is at the college level and instructors for the course comefrom various departments and are rotated. Due to circumstances beyond the control ofthe PI, twelve of the students in the class were repeating the class. Course grades were
overarching aim of my research and teaching is to always push the boundaries for Norwegian product development teams, so that they will ideate, more radical new concepts, faster.Prof. Larry Leifer, Stanford University, Center for Design Research Larry Leifer is a Professor of Mechanical Engineering Design and founding Director of the Center for Design Research (CDR) at Stanford University. He has been a member of the faculty since 1976. His teaching-laboratory is the graduate course ME310, ”Industry Project Based Engineering Design, Innova- tion, and Development.” Research themes include: 1) creating collaborative engineering design environ- ments for distributed product innovation teams; 2) instrumenting that environment
University of Texas at Brownsville (UTB). Prior to join- ing the faculty at UTB he was a visiting professor at the Rochester Institute of Technology, Rochester, NY. Also, an Associate Professor of Production Engineering Technology at PSG College of Technology Bharathiar University, India, where he served as the Director of Computer Vision Laboratory and National Cadet Corps – Engineering Division Director. With over 26 years of teaching and research experience in manufacturing/mechanical engineering and engineering technology, he currently teaches in the areas of CAD/CAM/CIM, Robotics & Automation, Product and Process Design, Materials and Manufacturing processes, Machine Design, Renewable Energy and Micro
the end of a textbook chapter. Theyimbed often-conflicting technical needs and issues. The engineer must be able to assess asituation, pose a problem, develop a solution and effect change. Yet, aside from a capstoneexperience at the end of the curriculum, few students are prepared to apply learning beyond theway it is covered in the lecture or presented in the textbook. They are uncomfortable solvingproblems that are not well structured and require the integration of multiple concepts to craft asolution. They have little experience with either under-constrained or over-constrained problems.Unfortunately, this traditional approach to teaching and learning in engineering does noteffectively encourage knowledge and skills transfer to other
teams are made. Discussion of the teaching/learning principles underlying this Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationapproach are given in [1]. For a class of thirty students, team creation can take up to an hour, inaddition to time spent creating, printing, distributing, and collecting the surveys.The guidelines for cooperative learning specify how teams can best be made. See, for example,[2, 3, 4]. Student learning is improved by placing students into teams that are heterogeneous inacademic achievement, grades in prior courses, writing skills, extracurricular participation, andother criteria
areimplemented by fundamental IT.The course has been supported by a teaching assistant (TA). The TA had office hours in additionto those of the instructor to support students with their homework. However, the most importantvalue was in being able to schedule open laboratory time so the TA could assist students in usingnew software tools.Graded homework problems are assigned every two weeks. Group work is encouraged for someproblems and forbidden for others. Two hour exams and a final exam are given. Some examproblems are quantitative, where students are required to apply algorithms and produce ananswer. For example, students are expected to be able to convert between binary and decimalnumber representation and smooth an intensity image by neighborhood
and implementation of that camp is a true division of labor between theCOE and the teachers. COE faculty propose activities for each of the engineering disciplinesbeing explored, and teachers tie the activity to the goals and objectives they teach. The entireteam tries every activity, engineers seeking technical accuracy and teachers weighing in onwhether the activity meets the content goals and is appropriate for the targeted grade levels. Theplanning week of the camp is spent on the university campus, allowing the teachers a view intothe engineering school. Laboratory tours and presentations of leading edge research projects arepart of the agenda. The camp itself is held at a middle school, and while co-taught by both theengineers and the
of this course are to teach students to workin teams, lead projects, communicate effectively, apply design principles to the design ofthermal/fluids systems and to apply principles of engineering economic analysis.Design of Mechanical Systems (DMS) is a capstone, project-based course in machine design.The course is designed to give students: (1) experience in solving challenging open-endedproblems in mechanical design (2) a practical working knowledge of basic machine elementssuch as motors, gears, belts, bearings, shafts, flywheels, and fasteners and (3) experienceworking on a large team (16 students per team). The term working knowledge in this contextimplies: an intuitive understanding of how the machine elements work, the ability to
. He held a joint appointment as Senior Engineer, Applied Physics Laboratory, University ofWashington. He had been teaching at the University of Washington since 1979. In 1991, Dr. Calkinsreceived the SAE Ralph R. Teetor Award and in 1993 won the SAE Faculty Advisor Award. More recentlyhe was recognized for outstanding teaching at the University of Washington. Page 6.26.11DR. DENNY C. DAVIS is a professor in the Department of Biological Systems Engineering at WashingtonState University, where he has served as Department Chair since 1999. He served as Associate Dean,College of Engineering and Architecture, WSU, from 1986-1998. He received
societies, and –consequently – towards engineering education:− New technologies become out of date after ca. 3 years while the cycle of reaching full professional efficiency by a graduate is 6–8 years (4–6 years of study and 2 years of initial professional experience). Consequently, it seems to be useless to base the education of the future engineers on the ideas that will become obsolete at the beginning of their professional careers. The rapid advancement of technologies is accompanied by an exponential growth of the volume of engineering knowledge that cannot be unlimitedly added to the engineering curricula. This should be the reason for more synthetic and methodical teaching of the fundamentals.− The main competence of an
, and students.JOSEPH H. NEVINJoseph H. Nevin is a Professor of Electrical & Computer Engineering at the University of Cincinnati. He also servescurrently as an Assistant Dean and is the director of the College of Engineering Instructional Technology Center.His teaching activities center around analog circuit design and he frequently teaches laboratory courses. Hisgraduate level research is in the field of MEMS. Page 5.461.14
developed by the ME 2000 coordinator.Course Delivery Review and Feedback ProcessThe focus of this process is to assess the delivery of courses in the program, i.e. whether or notstudents are learning the knowledge and acquiring the abilities required in a given course. Thedocumentation used in this process is a set of Course Learning Objectives that have been developedfor each course by the faculty involved in teaching the course. Course Learning Objectives are adetailed list of the knowledge and abilities that students will learn in a specific course. Beginningwith the major technical topics covered in the course, faculty list specific knowledge or abilitiesthey believe students should have in these topics. The faculty also consider whether
in projectmanagement courses include9 establishing good communication of learning objectives,implementing a series of assignments, and providing for effective feedback and assessment.Teaching meeting skills is also important, as exemplified by an effort to teach them as part of aconstruction engineering curriculum.1 0 The elements affecting productivity in meetings aresuggested to include setting objectives, planning, control and closure.Integrated CoursesTo avoid disconnects between separate courses, and better represent the real world experience,many efforts integrate project management within the design course. For instance, in one effort,in a very industry-focused way,1 1 students can be helped to understand the role of the
lesson notes, appropriate exampleproblems, and laboratory experiments to support the integrated teaching of the material. Order ofthe material was determined by the object of analysis, not the tools used in the analysis. Materialis presented in a sequence that supports introduction of concepts from complex thermal-fluidsystem case studies such as a helicopter, the West Point power plant, a total air conditioningsystem, an automobile, and high performance aircraft.Study of most thermal-fluid mechanical systems requires knowledge from both traditionaldisciplines. Integration of topics reinforces the fundamental principles that span both disciplinesand gains efficiency since presenting fundamental properties and conservation principles occursonly
Lounge for Understanding Society and Technology through Educational Research (CLUSTER), an interdisciplinary research group with members from engineering, art, and educational psychology. His research interests span the formation of students’ professional identity, the role of reflection in engi- neering learning, and interpretive research methods in engineering education. He was the first international recipient of the ASEE Educational Research Methods Division’s ”Appren- tice Faculty Award”, was selected as a 2010 Frontiers in Education ”New Faculty Fellow”, and is currently a UGA ”Lilly Teaching Fellow”. His teaching focuses on innovative approaches to introducing systems thinking and creativity into the en
literature review, clearlydefined approach, and schedule with milestones. Projects conclude with a report and presentationto faculty and students. Within this structure, the capstone senior design experience serves as thebinding agent for the theory and practice learned in the core courses taught in the roboticsengineering curriculum.This paper discusses the capstone design experience within a new degree program in roboticsengineering in detail while attempting to address the problem of teaching multidisciplinarydesign to senior engineering students working on projects that aims to solve real-world problems.Learning outcomes specifically designed for the senior-design and sample projects completed byrobotics engineering students illustrating our
AC 2012-4003: REDESIGNING A LEAN SIMULATION GAME FOR MOREFLEXIBILITY AND HIGHER EFFICIENCYDr. Hung-da Wan, University of Texas, San Antonio Hung-da Wan is an Assistant Professor of the Mechanical Engineering Department and the Director of the Sustainable Manufacturing Systems Lab at the University of Texas, San Antonio (UTSA). He teaches Six Sigma and lean methodologies, computer integrated manufacturing systems, and manufacturing systems engineering. He is among the core faculty of the Center for Advanced Manufacturing and Lean Systems at UTSA and has been offering short courses to the industry. His research interests include sustainability of manufacturing systems and web-based applications in manufacturing.Miss
; • exposure to learning support services and career development resources • information on participation in cooperative education, internships, international experiences, professional societies and other student organizations • help in developing effective study, time-management, decision-making, critical thinking and learning skills3. Provide exposure to some of the professional skills and competencies associated with academic study and practice of engineering; • practice in skills such as use of e-mail and the Web, computation, library research • introduction to design, case studies, global perspectives, teamwork and problem-solving • opportunities to use laboratory facilities or engage in hands-on activities4. Encourage
Session 2432 A First ALN Experience: Issues, Lessons and Emotions Robert (Bob) M. Anderson, Jr Department of Electrical and Computer Engineering Iowa State University I. IntroductionThis paper presents an "early adopter's" first experience using asynchronous learning networks(ALN) teaching/learning techniques in a sophomore course offered to students on-campus. Thispaper will present a "nuts and bolts" discussion--not views on educational theory or philosophy(important topics; but topics for a different paper). This paper begins
2 achievement." -- National Commission on the Cost of Higher Education .Much of the anxiety expressed about the proposed ABET criteria for technology stems from their lack ofnumbers and specificity when compared to the existing criteria. The proposed criteria have beenperceived as allowing an institution to do anything it wants: diminishing mathematics and sciencerequirements, dumbing-down courses in general, hiring unqualified faculty, reducing quantity and qualityof laboratory classes/facilities, etc. With the current criteria, TAC has operated under the concept thatspecifying inputs to the educational process would assure quality of the output.However, the current form of criteria lacks flexibility to accommodate the number of
the engineering power industry and education sectors and is known for his thought leadership in capacity building and engineering education.Bolaji Ruth Bamidele, Utah State UniversityAbasiafak Ndifreke Udosen, Purdue University, West Lafayette Abasiafak Udosen is a professional Mechanical Engineer in Nigeria and a doctoral research scholar at ROCkETEd laboratory, Purdue University, United States. He earned a B.Eng in Mechanical Engineering and an M.Eng in Energy and Power Engineering both in Nigeria. Over the years he has had the privilege of teaching courses such as Thermodynamics, Measurement and Instrumentation, Engineering Metallurgy, System Design, and Quantitative research methods at the University of Nigeria
communities will value as they strive to achieve a triple bottom line approach.Through the application of an interdisciplinary teaching approach, and a cross-disciplinarylearning environment, students will gain an understanding of environmental, social, andeconomic concerns associated with creating a sustainable future.Multi-disciplinary groups explored and compared cultures, business practices, technologies,design methods, and sustainable products of Scandinavia, creating a profound impact in theirlearning experience.Background.In November, 2007, Ronald Scozzari, from the Engineering and Technology department housedwithin the College of Science, Technology, Engineering and Mathematics and Jennifer Astwood,from the Art and Design department, housed
AC 2011-2472: MAKING A COLLEGE-LEVEL MULTIDISCIPLINARYDESIGN PROGRAM EFFECTIVE AND UNDERSTANDING THE OUT-COMESShanna R. Daly, University of Michigan Shanna Daly is an Assistant Research Scientist in the College of Engineering and the Design Science Pro- gram at the University of Michigan. Her research focuses on teaching and learning design and innovation strategies in interdisciplinary contexts.A. Harvey Bell, University of Michigan . Harvey Bell, IV was appointed Professor of Engineering Practice and Co-Director of the Multidisci- plinary Design Program on September 1, 2010 after a 39 year career in the automotive industry with General Motors. During his career with General Motors some of his significant positions
Journal cover. She is an active men- tor of undergraduate researchers and served as co-PI on an NSF REU site. Research within her Medical micro-Device Engineering Research Laboratory (M.D. ERL) also inspires the development of Desktop Experiment Modules (DEMos) for use in chemical engineering classrooms or as outreach activities in area schools. Adrienne has been an active member of ASEE’s WIED, ChED, and NEE leadership teams since 2003. Page 22.1593.1 c American Society for Engineering Education, 2011 Use of HiPeLE Approach in a Split-Level Chemical Engineering Elective
AC 2011-275: STUDENT REFLECTION IN EXPERIENTIAL LEARNINGPROJECTSSwaminathan Balachandran, University of Wisconsin - Platteville Bala has more than 35 years of teaching, five years of industrial and about 10,000 hours of consulting experience. He is a fellow of IIE and senior member of SME, ASQ, APICS, HFES, INFORMS, INFOMS, ASEE, and IIE. He is a life member of Phi Kappa Phi, Alpha Pi Mu, and SME. He was the chair of the Department of Industrial Engineering at UW Platteville from 1986 to 1995, established the IE laboratory facilities and secured the accreditation of the program by EAC of ABET in 1987 and 1993. He serves on the editorial board of the International Journal of Production Planning and control. He is a
, Arizona. He has a bachelor’s degree in Mechanical engineering from Northern Arizona University, and a master’s degree in mechanical engineering from the Northern Arizona University. He is the faculty advisor for the student section of ASME. His experience includes various engineering po- sitions at Raytheon, M.C. Gill Corporation, Royal Plastics Engineering, SouthWest Windpower, and the Naval Research Laboratory. He is a practicing professional mechanical engineer in the state of California, and Nebraska.Theodore A. Uyeno, Northern Arizona University Dr. Uyeno is an adjunct professor of comparative biomechanics in the department of biological sciences at Northern Arizona University. His specialty is the analysis of
. She teaches educational consultation and assessment, and supervises advanced graduate students in field studies.Eugene F. Brown, Virginia Tech EUGENE BROWN Eugene Brown is Professor of Mechanical Engineering at Virginia Tech. He has worked with ONR and DoD since 2001 on educational-outreach-related work-force development issues. He teaches undergraduate and graduate courses in thermodynamics and fluid mechanics and is the author of many papers and reports describing his research in the areas of computational fluid dynamics, fluid mechanics, and his work in educational outreach. Page 22.1514.1
El Paso 2007-present The University of Texas at El PasoCarolyn Joy Awalt, College of Education, University of Texas at El Paso I am the Online Masters Program Advisor for the College of Education, University of Texas at El Paso. My educational background is in instructional technology and social studies. My doctorate is in Instructional Technology from the College of Education at the University of Texas at Austin. My other degrees include a bachelor’s in history, two Master’s degrees (one in the Masters of Arts of Teaching social studies, a second in cultural anthropology). I have built three online graduate programs for the College of Education. As a result, I have received recognition from my peers in distance
microelectronics packaging and reliability including lead-free soldering and LED packaging. His teaching interests include electronics manufacturing, microelectronics and electronic packaging, statistical data analysis, design and analysis of experiment, and CAD/CAM. He is a Fellow of the IMAPS, a Senior Member of the IEEE and of the SME, and a Member of the ASEE. Dr. Pan is a recipient of the 2004 M. Eugene Merchant Outstanding Young Manufacturing Engineer Award from the SME. He is a Highly Commended Winner of the Emerald Literati Network Awards for Excellence 2007, and an invitee of the National Academy of Engineering’s Frontiers in Engineering Symposium in 2007. He is also the First Place winner
; Technology, Department of Electrical Engineering Technology, of Old Dominion University. Since joining the faculty in 2006, he has developed an Electromagnetic (EM) materials measurement laboratory at the Applied Research Center to expand research in the area of materials. This research will include the synthesis and characterization of materials and nano-composites or meta-materials to create novel EM properties. Dr. Lawrence is also interested in the development of advanced sensor concepts to enhance measurement capability to enable improved understanding of the Earth’s environment. He is particularly interested in materials for large deployable antenna concepts and calibration approaches for