shows variousavailable routes for the users to explore the whole curriculum. As a result, learners using thisprogram will learn the subject in a structured way while having the flexibility to create his/herown path of exploration within the constraints.The goal of this research is to develop an attractive online learning package for high school andmiddle school students who are interested in the area of manufacturing engineering. CAD andRP are selected to be programmed in the experimental prototype package in order to present acomputer integrated manufacturing system as a mini-factory. One of the research objectives is tomake the program joyful and attractive to young students. Therefore, a “treasure hunt”component is included in the
credit based hour was consumed for faculty release time, curriculardevelopment and review, graduate assistants, and integrated multi-media. The award success waslargely based on: ≠ lack of any other system delivery available for upper division coursework in a high demand engineering related program ≠ focus on Lean curriculum integration to ground students with base Lean knowledge thereby avoiding the need to retrain new graduates in the field ≠ strategic placement of senior year coursework more appropriate for online delivery due to an engineering management content base versus more lab intensive coursework ≠ increased industry ability to access internship students for longer terms and broader geographic
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 2009-1652: THE INTEGRATION OF HANDS-ON MANUFACTURINGPROCESSES AND APPLICATIONS WITHIN ENGINEERING DISCIPLINES: AWORK IN PROGRESSGeorge Gray, Texas Tech GEORGE D. GRAY Mr. Gray is an instructor in the Mechanical Engineering Technology department at Texas Tech University in Lubbock, Texas. He is the former Dean of Applied and Engineering Technologies division at Wichita Area Technical College in Wichita, Kansas and former department chair and associate professor in the Mechanical Engineering Technology department at Texas State Technical College in Waco, Texas. Page 14.1230.1© American Society for
expense to companies3. It stands to reason that supply chain managementhas become an area that companies are giving much more attention and are integrating into everyfacet of their business. As companies went global with their sourcing programs over the years,procurement became a strategic function within successful organizations4. It has becomeimportant for students in engineering and technology programs to become familiar with theconcepts of supply chain management, forecasting, inventory control and continuousimprovement. This paper will describe how effective supply chain strategies using inventory control canhelp companies become more competitive in the global marketplace. The author will explain amanual simulation that is used in his
) State University of New York – Farmingdale, NY 11735Abstract:The project leading to this paper was carried out as part of SME’s efforts to prepare themanufacturing curricula for the year 2015 and beyond. In doing so, it considered the roleof manufacturing in the global economy, the factors affecting the scope of manufacturing,and the current efforts to revitalize manufacturing in the various parts of the world. Itthen reviewed the curricular models proposed to address the needs of the manufacturingindustry. As an extension of the analysis, recommendations were made on the key aspectsof a manufacturing curriculum with an emphasis on innovation and entrepreneurship.Further, the recommendations included the creation of a flexible degree program
Design/Mfg track courses (Capstone) Tech. elective coursesFigure 1. WSU Vancouver Mechanical Engineering curriculum related to the Design andManufacturing Track. Page 14.693.5The following three objectives guide us in the design and implementation of the new curricula:(1) Integration of modern technologies; (2) Sustaining a student-centered education with multiplehands-on experiences; and (3) Initiation of an outreach program to expose youth to design
engineeringdesign of a specific robotics problem and implementation in the laboratory. Topics includeindustrial engineering techniques, hardware interfacing, software interfacing, and control devicesfor robotics applications. An interdisciplinary approach is used. The challenge in teaching thiscourse is the integration of knowledge and skills from mechanical engineering, electronicengineering, and computer programming for students in manufacturing technology program.In the Robotics Interfacing Engineering class, weekly labs are set up which account for the sameamount of time as the lectures. The outcome of this curriculum is to help students to exploreavailable equipment and technologies in industrial robotic applications, understand hardware andsoftware
not available in existing modelsof quality.To prepare the graduates in using this model, it is taught in ‘Design for Manufacturing’ courseoffered in an undergraduate industrial engineering technology curriculum. The paper describesthe Kano model and how it can be used in product design.IntroductionManufacturing industry is looking for ways to reduce product development time and to introducetheir products to the market more quickly. Additionally, product life cycles are getting shorterand customers are getting more selective by demanding sophisticated features in products. As aresult, identifying customer requirements and transferring this knowledge along to the productdevelopment phase is essential for any business to stay competitive in the
machining center which was capable of near micron parts, part and machineaccuracy was an area which needed to be enhanced. Using metrology techniques, the students,working with the faculty members, developed methods of measurement and providing accuracyfor the machine and parts that were cut.Technology-Based Micromachining Curriculum This low-cost micro-machine was developed for use in the classroom, where many institutionscould not afford a high priced machine. In order to instruct students on the operation of this new realm or Page 14.855.8machining, a new micromachining course had to be developed. This course is a lab/lecture
AC 2009-284: A PROJECT-BASED ACTIVE AND COOPERATIVE LEARNINGAPPROACH TO IMPROVING MANUFACTURING ENGINEERING EDUCATIONNing Fang, Utah State University Ning Fang is an Associate Professor in the Department of Engineering and Technology Education in the College of Engineering at Utah State University. His areas of interest include computer-assisted instructional technology, curricular reform in engineering education, the modeling and optimization of manufacturing processes, and lean product design. He earned his PhD, MS, and BS degrees in Mechanical Engineering and is the author of more than 60 technical papers published in refereed international journals and conference proceedings. He is a Senior
AC 2009-2149: A LASER MICROMACHINING D.O.E. TO INVESTIGATEMATERIAL REMOVAL VOLUMESWesley Stone, Western Carolina University Dr. Wes Stone is an Assistant Professor in the Engineering and Technology Department at Western Carolina University in Cullowhee, North Carolina. He holds B.S., M.S., and Ph.D. degrees in Mechanical Engineering from the University of Texas, Penn State, and Georgia Institute of Technology, respectively. His interests include Six Sigma quality, manufacturing, coordinate measuring machines, and laser micro-machining.John Graham, Western Carolina University John D. Graham is an applications engineer in the Kimmel School at Western Carolina University in Cullowhee, NC
AC 2009-1793: ENHANCING MACHINE-SAFETY EDUCATION THROUGH THEUSE OF VIRTUAL MACHINERYDarrell Wallace, Youngstown State University Darrell Wallace received his BS and MS in Mechanical Engineering from The Ohio State University. He received a Ph.D. in Industrial Engineering from Ohio State in 2006. Dr. Wallace has worked actively in a variety of manufacturing industries since 1991 and is currently an Assistant Professor at Youngstown State University in the Department of Mechanical and Industrial Engineering. Darrell R. Wallace, Ph.D. Assistant Professor Dept. of Mechanical and Industrial Engineering Youngstown State University One University Plaza Youngstown, Ohio 44555 Email
satisfied with thelaboratory experience. Furthermore, as indicated by students’ survey results in two consecutiveyears, significant improvements in this laboratory were accomplished by introducing traditionalmanufacturing processes through the book-making processes. Finally, the laboratory equipmentpurchased to run the book-making experiment was inexpensive thus making it affordable forimplementation in many other institutions.Bibliography1. Peters, F., Jackman, J, Ryan, S, and Olafsson, S., “An Active Learning Environment in an Integrated Industrial Engineering Curriculum,” Proceedings of the 2003 ASEE North Midwest Section Conference, 2003. http://www.asee.org/activities/organizations/sections/proceedings/NorthMidwest/2003/contents
. In addition, states, noticing the decline of students inthe engineering field, are beginning to address the concern for K-12 engineering education. Oneparticular example of this undertaking includes the state of New Jersey’s efforts in curriculumdevelopment and professional development for teachers as a reward for introducing engineeringto K-12 students. The Stevens’ Institute of Technology focuses their efforts on "Core Page 14.10.2Curriculum Content Standards to ensure that all students, elementary through high school,experience engineering as an integral component of their education, not merely as an electivecourse or extracurricular
foundations, industrial and government sources. His teaching, research, service, and publishing interests are in the areas of Automation, Robotics, Rapid Prototyping, Reverse Engineering, Process Monitoring & Control, and Computer Integrated Manufacturing.Jennifer Parsons, Robert Morris University Jennifer Parsons is the Director of STEM Outreach Programs within the School of Engineering, Mathematics and Science. She previously served as the SEMS Outreach Programs Specialist and PRIME Business Manager and is an integral part of all grants from Pittsburgh area foundations, the SME Education Foundation, the National Science Foundation, and the US Department of Labor. She continues to work
project. One of the selling points forthis type of project is that rather than develop interesting but trivial engineering solutions thestudents can develop software to solve a real-world program and provide an invaluable tool forundergraduate education.For the project a group of students committed to the project as CSET curriculum requires ayearlong junior project. The team project will be to create user-friendly services and a GUI(Graphical User Interface) which will be able to control the entire work cell through MSRS.In keeping our work within MSRS and Solidworks we are able to utilize the projects from allthree teams of undergraduate students in building a complete and functional work cell withintegrated parts delivery system. The central
AC 2009-576: DESIGN, BUILD, TEST, COMPETE: A BATTLEBOTJanet Dong, University of Cincinnati Janet Dong,Ph.D is an assistant professor in the department of Mechanical Engineering Technology at University of Cincinnati. She holds a BS degree in Mechanical Engineering and a MS degree in Manufacturing Engineering. She received her Ph.D. in Mechanical Engineering from Columbia University in 2003. Her academic interests include CAD/CAM, manufacturing engineering technology, process planning, control and automation, robotics, engineering education and research, and manufacturing applications in the dental field.Janak Dave, University of Cincinnati Janak Dave PhD, PE is a Professor in the
only subject matter covered in class but in the practical lab, the final examination will cover all aspects of the course. • Consistent Laboratory Experience • Higher Level Learning • Course / Curriculum Integration • Active LearningAll of the above could be considered new.Prior to approving the pilot course, recognizing that this was an internal experiment, thefollowing key questions to be answered as a result of this internal experiment were identified andare listed below.1) Can the "new" subject matter be effectively learned by freshmen?2) Can the subject matter related to manufacturing processes be effectively learned with areduced exposure to materials science concepts?3) Are the students better prepared for
manufacturing education and setthe stage to move forward. The following were designed to lead to a final set of conclusions. Inbrief the sessions were; Session 1: Addressing Emerging Technologies in Manufacturing Education - The focus was manufacturing in the 21st century and identifying topics that define the manufacturing curriculum of the 21st century. Panelists explored emerging manufacturing technologies and their integration into manufacturing curricula and other disciplines in engineering and engineering technology education. Page 14.859.3 Session 2: Bridging Research-to- Classroom - Recommend ways in which