AC 2009-2354: A PROJECT-ORIENTED APPROACH IN TEACHING ROBOTICSAPPLICATION ENGINEERINGYuqiu You, Morehead State University Page 14.92.1© American Society for Engineering Education, 2009 A Project-oriented Approach in Teaching Robotics Application EngineeringI. IntroductionAutomated robotic systems are critical components in implementing flexible manufacturingsystems (FMS) which is the current trend for improving productivity and flexibility. Usingrobots in actual manufacturing platforms is a decision to improve flexibility and to increase theagility of the manufacturing process. To prepare students in the manufacturing
best summary of our experience in Cambodia may come from the students who participated.A post-internship survey provided a collection of comments which reflect the things they learnedduring a short five weeks and validates the claim that we must address more than technical issuesin the educational experience. One student commented “what impressed me the most wasthat we experienced [the] real version of what we were studying in concepts on value chainmanagement, manufacturing process improvement and nurturing growth in the developingworld. It was more than simply academic. It was like having a large exclamation mark oneverything I learned and had studied in Manufacturing Engineering Technology
AC 2010-2314: APPLICATION OF RAPID PROTOTYPING FOR DESIGN OF AWALKING ROBOTRichard Chiou, Drexel UniversityEric Carr, Drexel UniversityRobin Kizirian , Drexel UniversityYueh-Ting Yang , Drexel UniversityBrittany Killen, Drexel UniversityYongjin Kwon, Ajou University Page 15.184.1© American Society for Engineering Education, 2010 Application of Rapid Prototyping for Design of a Walking RobotAbstractThe desired set of skills required of modern engineers and technologists has been steadilyexpanding. In addition to familiarity with robotics and CAD/CAM techniques, rapidprototyping is increasingly becoming an essential tool in the design and manufacturing ofcomplex systems. In
State University, The Behrend College, Erie, PA. He has worked in the foundry industry for 20 years as a toolmaker, and has managed several departments including the tool shop, R&D, production, product, quality and sales. c American Society for Engineering Education, 2017 Integrating Industry Projects into a Manufacturing Systems CourseAbstractIn order to fill the existing skills gap in U.S. manufacturing, effective teaching techniques ofmanufacturing courses should be considered by academic institutions. Hands-on experiments andreal life projects can be incorporated into the curriculums in order to produce new graduates withadequate knowledge of manufacturing skills. In this paper, we discuss
AC 2009-98: A MANUFACTURING PROCESSES LABORATORY: WHATBOOK-MAKING AND SHEET-METALWORKING HAVE IN COMMONNebojsa Jaksic, Colorado State University, Pueblo Nebojsa I. Jaksic received the Dipl. Ing. degree in electrical engineering from Belgrade University in 1984, the M.S. in electrical engineering, M.S. in industrial engineering, and Ph.D. in industrial engineering from the Ohio State University in 1988, 1992, and 2000, respectively. From 1992 to 2000 he was with DeVry University in Columbus, OH. In 2000, he joined Colorado State University-Pueblo, where he is currently an Associate Professor and the mechatronics program director. Dr. Jaksic's interests include manufacturing processes
continuously improve value byreducing wastes. This paper investigated the applicability of lean principles at universities usingthe perceptions of undergraduate students at a higher education institution. The perceptions ofthe students were collected over a period of two years as a part of class assignments anddiscussions for a Lean Manufacturing class. The students’ opinions and comments concernedbroad areas of stability, standardization, jidoka, just-in-time, employee involvement andcustomer focus. The majority of the students focused on the various categories of waste (muda)and unevenness (mura) in a university system. Some of the identified waste involved poorcampus layouts, uneven scheduling of classes, poor understanding of curriculum
AC 2009-1400: A COST-EFFECTIVE ROBOT WORK CELLJames Sample, Oregon Institute of TechnologyJohn Anderson, Oregon Institute of Technology Page 14.18.1© American Society for Engineering Education, 2009 Cost Effective Robot Work cellAbstractThis paper describes the design and construction of a cost effective robot work cell using anintegrated software system. Surplus industrial cylindrical coordinate robots were updated withnew electronics and software as well as tooling. A vision system was integrated usinginexpensive USB cameras and a “shareware” vision software system was integrated into therobot operating system.This system uses readily available tooling
. Current interests include bone tissue mechanics, engineering pedagogy, and robotic football. c American Society for Engineering Education, 2018 Improving Student Engagement in a Senior-level Manufacturing Course for Mechanical Engineering StudentsIntroduction:The mechanical engineering curriculum prepares students for employment in a broad range ofindustries [1]. In the Midwest, many graduating mechanical engineering students will findemployment in manufacturing-related fields. This is especially true in Ohio, where 17.8% of thetotal gross state product is accounted for by over 12,000 manufacturing firms [2]. For this reason,manufacturing courses play an important role in preparing mechanical
Paper ID #17023MAKER: Applications of 3-D Printing and Laser Cutting in the Developmentof Autonomous RoboticsWilliam F Cohen, OSU Department of Engineering Education I am a graduate teaching assistant for the Fundamentals of Engineering for Honors program at the Ohio State University, which is a 2 semester course sequence for first-year engineering students focusing on pro- gramming in C/C++ and MATLAB, computer aided drawing in SolidWorks, and a 10 week autonomous robot design project.Jacob J. Enders, The Ohio State University Jacob J. Enders is a Biomedical Engineering honors student at The Ohio State University and
concept. Prototyping allows developers to address designissues before considering manufacturing processes. This aligns with quality assurance programsin that the design process is front loaded, exposing mistakes before capital is invested inmanufacturing. Introduction to the tools and best practices used in industry will enhance thedevelopment of educated students.The roles of designers, engineers and manufactures are being fused. With cross-functional teamsbeing more prevalent in industry, tools such as RP machines are increasing productivity. RIT’sMechanical Engineering Technology (MET) Department has developed the CPIC through fundsprovided by a National Science Foundation (NSF) grant. The center is intended to strengthenRIT’s academic
, sustainability, and green manufacturing.1. INTRODUCTIONMicro-scale experimentation can have substantial educational value in STEM curriculums as itprovides highly visual, accessible demonstrations of fluid, thermal, and chemical phenomena.Further, students can design and prototype these experiments using commonly-available fabricationtools such 3d printers, laser and plotter cutters, and CNC mills. Moreover, these types ofexperiments allow a wide range of laboratory exercises with small demand on resources due to theircompactness, inherent safety, low consumption of materials and generation of waste, and simpleinstrumentation. Finally, the experiments provide students with experience in ‘lab on a chip’technology which is increasingly important is micro
projects andlarge number of students. In future, we will conduct more projects in the upcoming semester toassert the effectiveness of this approach.REFERENCES[1] R. Graham, "The global state of the art in engineering education," Massachusetts Institute of Technology (MIT), Massachusetts, 2018.[2] K. Zhou, T. Liu and L. Zhou, "Industry 4.0: Towards future industrial opportunities and challenges," in IEEE, 12th International conference on fuzzy systems and knowledge discovery (FSKD)., 2015.[3] I. Jawahir, F. Badurdeen and K. Rouch, "Innovation in Sustainable Manufacturing Education," in 11th Global Conference on Sustainable Manufacturing, Berlin-Germany, 2013.[4] C. E. S. da Silva, E. G. Salgado, C. H. P. Mello, E. d. S. Oliveria and
. Page 25.1063.1 c American Society for Engineering Education, 2012 Preparing to Use Rapid Prototyping: Lessons Learned from Design and Manufacturing ProjectsAbstractRapid prototyping (RP), also known as 3D Printing, has gained an important role in engineeringeducation. It can be used to fabricate mechanical designs in a timely manner and hence is usefulfor design and manufacturing courses. In fact, many higher education institutions now have RPmachines for research and teaching. Current literature reports that involving RP in design andmanufacturing courses can significantly enhance active learning by providing quick and directfeedback on their designs via prototypes. In some cases
with SME. Since 1974 he has held various positions leading the professional development of manufacturing practitioners, the development, advancement, and quality of manufacturing curriculum in engineering and technology programs, workforce development, and attracting students into manufacturing. He plays a key role representing SME and advancing the Society’s agenda in education through the SME Center for Education, the Manufacturing Education and Research Community, the Accreditation Committee and the North American Manufacturing Research Institution of SME. He is involved in the Manufacturing Division and the Corporate Member Council of the American Society for Engineering Education and is a graduate of Eastern
delivered. The MEMS/nanotechnology curriculum inUniversity of Bridgeport can be a good support for this state-wide endeavor ofnanotechnology curriculum. In addition to the graduate-level MEMS and nanotechnologycurriculum, we are also planning to introduce the curriculum to junior or seniorundergraduate students through Senior Design/Special Topics for one to two credit hours.Students with related engineering backgrounds (e.g. electrical engineering, mechanicalengineering, chemistry, computer engineering) will be able to join this program.Furthermore, we are also trying to extending this effort to K-12 education. We arepreparing some presentations or courses for introducing MEMS and nanotechnology tostudents in elementary schools, middle schools and
Soc, vol. 69, p. 101960, May 2022, doi: 10.1016/J.TECHSOC.2022.101960.[16] I. Fidan and K. Patton, “Enhancement of Design and Manufacturing Curriculum Through Rapid Prototyping Practices,” Innovations in Engineering Education 2004: Mechanical Engineering Education, Mechanical Engineering Technology Department Heads, pp. 173–178, Mar. 2008, doi: 10.1115/IMECE2004-61014.[17] I. Fidan, “Remotely Accessible Rapid Prototyping Laboratory: Design and implementation framework,” Rapid Prototyp J, vol. 18, no. 5, pp. 344–352, Jul. 2012, doi: 10.1108/13552541211250328/FULL/XML.[18] I. Fidan and N. Ghani, “Remotely Accessible Laboratory For Rapid Prototyping,” in 2007 Annual Conference & Exposition
shouldbe considered for this educational goal. These labs will significantly improve the quality andcapacity of educational programs6 by providing excellent teaching aids and hands-on experience toeducate students in the theory and application of computer integrated manufacturing technology.A new advanced manufacturing curriculum can be designed that includes robotics and advancedmanufacturing related courses and labs to provide meaningful hands-on activities. All students inthis program will receive enhanced training and experience utilizing multimedia software andworkbooks specifically tailored for this program. Also local industry expertise can use these labsto demonstrate the potential industrial use of CIM and related labs to increase
UTEP for a period of three years from 2016 to 2019. Dr. Akundi published several papers in the field of systems modeling, systems testing, assessing INCOSE Handbook, model-based systems engineering, and engineering education. His research has received funding from the National Science Foundation (NSF) and is currently an I-DREAM4D Department of Defense (D0D) Fellow at UTRGV.He is a member of INCOSE and ASEE. He received the outstanding junior faculty award from the ASEE Manufacturing division in 2017 and 2018 and currently serves as the program chair of the ASEE manufacturing division.Amit J LopesAhmed Bahabry © American Society for Engineering Education, 2022
vision systems can easily control guidance ofautomated manufacturing support components such as robots, as well as interface to sensors andoutput to auxiliary devices. The Department of Technology at Northern Illinois University has recognized theseneeds and challenges and has responded by strengthening its curriculum and adding new relevantareas in its automation courses such as machine vision. Within our automation course, basicsprinciples of vision are covered, including camera systems, basic optics, lighting, and imagecapturing and processing. A key component in this section of the automation course is the handson experience in which student teams use and apply the vision systems components and softwarein an automation cell. In
Paper ID #29178Work-in-Progress: Design of Polymer Processing Learning Module in aManufacturing Course for Mechanical EngineersDr. Michele Miller, Campbell University Dr. Michele Miller is a Professor and Associate Dean at Campbell University. Prior to joining Campbell in 2017, she was a professor of mechanical engineering at Michigan Tech. She received undergraduate and graduate degrees in mechanical engineering from Duke and NC State, respectively. Her research interests include engineering education and precision manufacturing. American c Society for Engineering
the development of CFD algorithms and the design of hypersonic cruise vehicles. His industrial experience includes work in aircraft wing design and cooling tower design. Page 13.224.1© American Society for Engineering Education, 2008 Win-Win-Win Curriculum in Lean/Six Sigma Education at Iowa State UniversityAbstractThis paper discusses the successful outcomes of a newly developed “win-win-win” leanmanufacturing curriculum at Iowa State University that foresees a need to enhance the implementationof lean manufacturing tools to strengthen the economy in the State of Iowa’s
Paper ID #33097Innovative Delivery of 3D PrintingDr. Ismail Fidan, Tennessee Technological University Currently, Dr. Fidan serves as a Professor of the Department of Manufacturing and Engineering Tech- nology at Tennessee Technological University. His research and teaching interests are in additive man- ufacturing, electronics manufacturing, distance learning, and STEM education. Dr. Fidan is a member and active participant of SME, ASEE, ABET, ASME, and IEEE. He is also the Associate Editor of IEEE Transactions on Components, Packaging, and Manufacturing Technology and International Journal of Rapid Manufacturing.Dr
AC 2008-2799: INTRODUCING POLYMER/CLAY NANOCOMPOSITES TO AMANUFACTURING ENGINEERING TECHNOLOGY PROGRAMRex Kanu, Ball State University Page 13.804.1© American Society for Engineering Education, 2008AC 2008-2799: INTRODUCING POLYMER-CLAYNANOCOMPOSITES TO A MANUFACTURINGENGINEERING TECHNOLOGY PROGRAMRex Kanu, Ball State University, Muncie, Indiana Page 13.804.2 INTRODUCING POLYMER-CLAY NANOCOMPOSITES TO A MANUFACTURING ENGINEERING TECHNOLOGY PROGRAMAbstractIndustry and academe have shown considerable interests in polymer-clay nanocomposites(PCNs) because of the perceived benefits PCNs possess
influenced their learning. This shows that havinghands-on real time product realization techniques when used alongside with concept basedlearning will prove effective. The approach presented in this paper is an initial effort by theauthors towards making classrooms interactive and effective in teaching product design andmanufacturing principles with the help of additive manufacturing technology.The authors are currently looking into taking the same approach presented in this paper to thecourse curriculum for motivating students in learning several DfX tools and techniques that canbe replicated as student project designs.AcknowledgementThe authors of this paper would like to thank the Department of Education (Grant No: AwardP031S120131) for its
Professor of Engineering & Technology at Ohio University, and formerly taught at the University of North Texas. Currently a Professor in the Department of Mechanical and Electrical Engineering Technology at Georgia Southern University, he teaches courses involving metal forming, plastics/composites, lean manufacturing, and industrial/environmental safety, along with a manufacturing enterprise simulation course for which he co-authored the text and was presented a 2004 Leavey Award for Excellence in Private Enterprise Education. He is faculty sponsor of student chapter S85 of the Society of Manufacturing Engineers, has chaired two SME senior chapters and currently is a member of the
well as for quality control undergraduate and graduate courses in ET Masters program. Also, she introduced the first experiential activity for Applied Mechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology.Dr. Richard Chiou, Drexel University (Eng. & Eng. Tech.) Dr. Richard Chiou is Associate Professor within the Engineering Technology Department at Drexel Uni- versity, Philadelphia, USA. He received his Ph.D. degree in the G.W. Woodruff School of Mechanical Engineering at Georgia Institute of Technology. His educational background is in manufacturing with an emphasis on mechatronics. In addition to his many years of industrial experience, he has taught many different
Langley Research Center, and Commonwealth Center forAdvanced Manufacturing (CCAM). Many MANE students receive summer internships or full-time positions from A&D manufacturers such as Lockheed Martin, Raytheon, and NorthGrumman, etc. In the current curriculum, VSU MANE students receive course training related totheir A&D professions in: Manufacturing Processes I/II, CAD/CAM, Manufacturing Automation,Engineering Economy, Quality Control, Production Planning and Inventory Control, and ProjectManagement. However, they are lacking direct experience related to the aerospace industry andmanufacturing shop practices.The VSU College of Engineering and Technology has recently been awarded a NASA MUREPHigh Volume Manufacturing Supply Chain
multi-physics problems in manufacturing, engineering education, and curriculum reform. He has authored or co-authored five books on these topics.Dr. Megan O. Conrad, University of Detroit Mercy Megan Conrad is the Clare Boothe Luce Associate Professor of Mechanical Engineering at University of Detroit Mercy. She received her PhD in Biomedical Engineering from Marquette University in 2009. Her research interests include applying principles of biomechanics, neuromechanics and ergonomics to assess human performance in healthy and disabled populations as it pertains to therapy, work and product design. American c Society for Engineering Education
Session 1332 Agents for Change in Engineering Education W. A. Hornfeck, J. F. Greco, W. D. Jemison, I. I. Jouny Department of Electrical and Computer Engineering, Lafayette CollegeAbstractThe engineering profession as a whole is struggling to describe and define itself. Thisdilemma is caused by the rapid changes in technology and significant market changestaking place in many major industries that seek to employ entry-level engineers. Forcolleges and universities, the new latitude associated with ABET’s Engineering Criteria2000 forces an introspective view of our profession. This paper describes thetechnological, professional, and
corresponding learning objectives stated above. i. Introduction to Product Lifecycle Management. (a, b) ii. Introduction to Systems Engineering Principles using moderately complex Electro- Mechanical Systems. (a, b) iii. Computer Aided Design using Dassault Systemes CATIA V6. (b, c, f) iv. Additive Manufacturing using 3D printers (b, d) v. Collaborative Tools (a, b, e, f)Tutorials are available in various formats ranging from tutorial guides, to animation videosand prerecorded short lectures. Tutorials are designed in such a way that students can followthem without any assistance and at their own pace. In order to tightly couple the moduleswith our learning objectives, the Wiggins & McTighe6 curriculum-design template was