Paper ID #12305Experience with Enhancement of Green Energy Manufacturing Learning inCourse and Laboratory DevelopmentDr. Richard Chiou, Drexel University 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 engineering and technology courses at undergraduate and
Mechanical Engineering of the University of Puerto Rico, Mayag¨uez, in 2008 as an Assistant Professor. c American Society for Engineering Education, 2020 Improvement of Students’ Performance in Manufacturing Processes Laboratory by Applying Spaced Practice StrategyAbstractIn the traditional laboratory sessions of the Manufacturing Processes Laboratory (INME 4056) inthe Mechanical Engineering Department at the University of Puerto Rico campus Mayagüez, theexperimental practices with lathe and milling machines lack pre-exposure to the processes beforethe session when the students work with the final project part. This leads to significant errors inthe targeted dimensions in the final project
Engineering Technology department at Drexel University. Robin has been involved in various projects funded by Pfizer, NASA, NSF and Department of Education. His areas of research include Embedded Systems, Mechatronics, Efficient Solar Energy Systems, Internet-based Quality Control and 3-D Online Education. Page 22.920.1 c American Society for Engineering Education, 2011 Integration of E-Quality Laboratory Modules with Engineering Computer Numerical Control CourseAbstractThe paper presents an innovative approach for integration of multidisciplinary web-basedquality control
team received a second NSF grant to continue their work. The new project willlargely focus on the development of a few more key modules, the enhancement of several of theexisting modules with defined laboratory exercises and kits and a published digital media for usewith the modules. This paper will provide background on the first NSF project and describe thecurrent and pending accomplishments with the most recent project. Details will be presented onthe project’s modular approach to aerospace manufacturing education including: topic selection,module development, lab kit development, module implementation, and module dissemination.Current State of the Aerospace IndustryThe aerospace manufacturing industry continues to face a myriad of
Paper ID #19962Internet of Things: Remote Integrated Laboratory Activities in Green En-ergy Manufacturing and Energy Management Learning Modules: Heat Ex-changers Efficiency, the Design PerspectiveDr. Irina Nicoleta Ciobanescu Husanu, Drexel University (Tech.) Irina Ciobanescu Husanu, Ph. D. is Assistant Clinical Professor with Drexel University, Engineer- ing Technology program. Her area of expertise is in thermo-fluid sciences with applications in micro- combustion, fuel cells, green fuels and plasma assisted combustion. She has prior industrial experience in aerospace engineering that encompasses both theoretical analysis
Paper ID #14083Improving student lab report writing performances in materials and manu-facturing laboratory courses by implementing a rhetorical approach to writ-ingDr. Dave (Dae-Wook) Kim, Washington State University, Vancouver Dr. Dave (Dae-Wook) Kim is an Associate Professor and Coordinator of Mechanical Engineering in the School of Engineering and Computer Science at Washington State University Vancouver. He has 15 years of experience in engineering materials and manufacturing. His research area includes materials processing, structural integrity improvement, and hybrid composite manufacturing. He has been very active in
Paper ID #32814Eye-Track Modeling of Problem-Solving in Virtual ManufacturingEnvironmentsRui Zhu, Complex System Monitoring, Modeling and Analysis Laboratory, The Pennsylvania State Univer-sity, University Park, PA, 16802, USA Rui Zhu is a Ph.D. candidate in the Harold and Inge Marcus Department of Industrial and Manufacturing Engineering at the Pennsylvania State University. Her research interests focus on sensor-based modeling, analysis, and optimization of complex systems, with applications in virtual reality, healthcare, and smart communities.Dr. Faisal Aqlan, The Pennsylvania State University - Erie Campus Dr
, implementation of Autodesk MoldflowTM as an instructional tool forpromoting a dynamic interactive classroom environment and providing seamless integration ofclassroom activities such as traditional classroom teaching, computer simulation ofmanufacturing process, and actual physical laboratory experience related with the process. In thatregard, Autodesk MoldflowTM is used as one of the tools that would be used for promotingpositive outcomes associated with the student learning. Autodesk MoldflowTM is used formodeling and simulating of the plastic injection molding process. During computer simulationlaboratories, specific examples of Autodesk MoldflowTM is introduced for providing ideas tostudents on how the manufacturing process would be improved by
Manufacturing, Automation and Robotics, and CAE in Manufacturing Processes fields. c American Society for Engineering Education, 2018 Development of Multifunctional Educational SpacesAbstractThis paper focuses on multifunctional educational space development for engineering programs,especially for mechanical and manufacturing engineering. The author has been designing anddeveloping new instructional spaces in his school for the last ten years. Most of these spacesoriginally was aimed for a single function, laboratory or classroom. Due to limitations in spaceand growing research needs, this engineering program requires development of multipurposelearning and research spaces. Recent efforts included design and
students with a minimum of resources. Page 23.865.2BackgroundThe community college which is the focus of this study had offered a one year machiningdiploma for many years. A second year was added to complete an associate degree program inTool, Die and Mold Making. The addition of the second year was accomplished in part throughthe addition of a second laboratory space and the addition of a full time instructor, and a part-time evening instructor. The new laboratory space included conventional equipment thatduplicated some of the equipment in the original laboratory, with the addition of CNC EDM, andCNC Wire EDM machines and some computers for CAD
been chosen as the teaching medium. Three main aspects of theteaching methods include: 1) In-class teaching of lecture material (i.e., casting processes) 2)Hands-on sand casting laboratory where students are engaged in conducting and assisting invarious steps of sand casting process (i.e., premixing, mold preparation, actual casting process,trimming sprues, runners, gates etc.) 3) Numerical and graphical analysis of the casting processthrough simulation. The integrated methodology would be comprised of classroom and labactivities, in which two sessions are conducted in the classroom environment, and one session isconducted in the casting lab. The first classroom lecture incorporates describing the variousaspects of the casting processes such
manufacturing laboratory is high and some students might not comprehend the linkamong different processes. This model is popular among community colleges or vocationalschools, but may not be best for engineering students since the latter only need to understand themanufacturing processes rather than acquiring hands-on manufacturing skills.We propose a new manufacturing teaching practice at our university by introducing group cellsand simulated production lines. A group of students is responsible to produce products for thewhole group. After learning and practicing basic machine tool operations in a cell (lathe, mill,sawing machine, and specific manual operations), each subgroup of two students operate amachine tool and produce identical components for
Paper ID #20504MAKER: Using 3D Printed Experimental Design and Measurement of Inter-nal and External Flow Convection Coefficient Using 3D Printed GeometriesMr. Michael Golub, Indiana University-Purdue University, Indianapolis Michael Golub is the Academic Laboratory Supervisor for the Mechanical Engineering department at IUPUI. He is an associate faculty at the same school, and teaches part-time at two other colleges. He has conducted research related to Arctic Electric Vehicles. He participated and advised several student academic competition teams for several years. His team won 1st place in the 2012 SAE Clean
interaction among students sinceeach person will produce his/her own individual part. At the end of training lessons, someinstructors may verbally describe the link of different processes and how a product would flowamong those processes. A manufacturing department typically has to purchase many identicalmachine tools and different tooling sets for variety of possible operations on each machine type.The operating cost of such manufacturing laboratory is high and some students might notcomprehend the link among different processes. This model is popular among communitycolleges or vocational schools, but may not be best for engineering students since the latter onlyneed to understand the manufacturing processes and flow sequence rather than acquiring
report describes our objectives, rationale, implementations,and assessment plans in developing a practical robotic ultrasonic welding process as aneducational hands-on project and laboratory exercises for undergraduate STEM students, andparticularly Engineering Technology majors. The project combines ultrasonic welding ofplastics, robotics, force sensors, rapid prototyping, thermal imaging and image processing in apractical demonstration of an industrially-important automated plastics manufacturingtechnology. An ultrasonic horn attached to the end of a robotic arm can be programmed to spotweld or seam weld acrylic parts. The process is monitored and optimized using a thermalimaging camera and a force sensor.Introduction and Background
subsequent engineering education. The two credit lecture, one credit labcourse entitled „Production Engineering‟ now includes significant hands-on work ontraditional machines (lathes and mills), powder metallurgy, plastic injection molding,welding, 3-D co-ordinate measuring machine, and several rapid prototyping / rapidmanufacturing technologies. Appropriate laboratory tasks were designed and applicablesafety and operational instructions were prepared.The laboratory curriculum was implemented since the Fall „06 term. Despite increasedworkload for the students that sometimes required them to work additional hours outside Page 15.39.2of the scheduled class
machine shop or they can take advantage of the features of the Rapid Prototyping and Manufacturing (RP & M) Laboratories. They also need to select the power train components like gears, belt and chain drives for their mechanisms. Electrical Design: This stage is about adding the appropriate sensing and actuation elements to the designs. Electrical motors including servo or continuous DC, and associated sensors and switches are chosen. Wiring system has to be designed at this stage as well. Radio Controls/Programming: Students need to select between radio controls and autonomous microcontroller based designs. C programming may still be required in RC controls since students may want to
. Page 13.1344.1© American Society for Engineering Education, 2008 Using LEGO to Teach and Learn Micromanufacturing and Industrial AutomationAbstractThis paper describes the design and evaluation of two laboratory experiments that introduceLEGO® Digital Designer and MINDSTROMS® Education systems as meaningful means toreinforce concepts of micromanufacturing and industrial automation to engineeringundergraduate students. The proposed laboratory experiments aim to complement the classroomlectures and to increase students’ conceptual understanding and learning motivation. The firstlaboratory experiment introduces the LEGO Digital Designer as a 3D design program to betterunderstand the micromanufacturing process
collective knowledge of material, metrology, and processes.Synchronizing hands-on laboratory with lecture helps students to learn, appreciate, and bemotivated for further study. Learning effectiveness in a large class, however, is reduced due tolimited interaction, delaying feedback until after an exam, and tediousness of many repeatinglaboratory sessions. Classroom Performance System (Clicker) has been an educational tool togauge student comprehension, collect opinions, receive instant feedback, and automateadministrative tasks. This paper presents the results of implementing Clickers in twomanufacturing classes and laboratories at Texas A&M University. Both class size and class levelare considered in the study. Despite teething problems when
arenas,as shown by feedback from various internship sponsors. Similarly, topics in nanoscale scienceand other cutting edge research are presented in a weekly seminar series and each semester theseminar features a number of presentations by outside speakers, and a forum where studentspresent their research projects. Through this media, students from the Department of Technologytaking ITMF 420 are required to participate in the lectures and seminars series to enhance thehands-on application of the AFM and STM tools as a partial fulfillment of the course.Utilization of the core laboratories and facilities at JSUThe core laboratories and facilities at JSU provide researchers with adequate resources such asequipment, technologies, and support
assignments. The assignmentshave been designed based on the real life ergonomic problems in different areas ofergonomics. The students were challenged with five different assignments coveringdifferent sections of ergonomics, work design and safety. In addition, each student needsto submit a term paper or case study focusing on any specific application area ofergonomics towards the end of the semester. For each assignment, the students wereasked to study and investigate the ergonomic issues from their daily life accessories,classrooms and laboratories and offer possible solutions for the non-ergonomic designsand issues. For each assignment, the students need to prepare a report including the imageand brief description of the non-ergonomic design
already been devoted toward learning fromremote locations [6–24] and multiple, or hybrid, instruction techniques [25–28, 28–42]. Newremote learning techniques include development of advanced teleconferencing techniques [6, 8,11], handheld learning devices [9], and remote hands-on laboratories [10,13,14,16,17], to name afew. Hybrid learning has distinct advantages for students with increased flexibility of their studies[30, 37] while getting the same results as with face-to-face learning [31].2 Educational VideosFor the freshman year, we will be using multiple sources of educational videos: those produced in-house to elaborate on practices specific to the University of Utah (U of U), and those published by
physical and PLC ladder logic whendesigning simple automation projects. Combined lecture and laboratory activities implementingthe Kolb experiential learning cycle for the PLC module are addressed. The success of themodule is assessed and evaluated through student performance tests in solving design problemsusing ladder logic and through student surveys. Results demonstrate an effective method forstudent learning when lectures and labs are integrated in a meaningful manner.IntroductionIn engineering education, depending on the material to be learned and the instructor’s style ofteaching, a number of teaching and learning methodologies and their combinations are used.Since engineering is considered an applied discipline, many of the methods revolve
Education Training Package contains seven elements presented inFigure 2. Figure 2: Elements of the Education Training Package The course offered at Wayne State University is a four credit-hours lecture/lab course atthe senior level with five contact hours (two hours of lecture and three hours of laboratory) eachweek. Since the proposed course is a multidisciplinary one, it is then suitable for students fromboth engineering and engineering technology majors. The prerequisites for the proposed Page 26.1250.4Robotics Education Training for Manufacturing Automation course is Computer –Aided Design& Manufacturing, or
for Biotechnology(HAIB). In August 2005, Alabama officials formally announced the location of the Hudson-AlphaInstitute for Biotechnology (HAIB) in Cummings Research Park (CRP) in Huntsville, Alabama,and the creation of a 120-acre biotechnology site to be named the CRP Biotech Campus. Whencompleted in mid-2007, the HAIB will be the second-largest biotechnology institute located onthe second-largest biotechnology campus in the nation [2]. The institute will contain state-of-the-art laboratories for biotechnology and is expected to employ some 400 scientists and staffupon opening. According to Jim Hudson, institute founder and president, the institute isexpected to employ 900 at full capacity. The property, sold by the City of
AC 2012-3022: TEACHING BIOMEDICAL ENGINEERING DESIGN PRO-CESS AND DEVELOPMENT TOOLS TO MANUFACTURING STUDENTSDr. Arif Sirinterlikci, Robert Morris University Arif Sirinterlikci is a professor of engineering at Robert Morris University School of Engineering, Math- ematics, and Science. He also serves as a Director of Engineering Laboratories as well as Co-head of the Research and Outreach Center. He has been an active member of ASEE and SME, serving as an officer of both societies and engaged in engineering education and K-12 outreach. Page 25.1239.1 c American Society for Engineering
mining, bio- informatics and advanced manufacturing. Dr. Tseng published in many refereed journals such as IEEE Transactions, IIE Transaction, Journal of Manufacturing Systems and others. He has been serving as a principle investigator of many research projects, funded by NSF, NASA, DoEd, and KSEF. He is currently serving as an editor of Journal of Computer Standards & Interfaces.Mr. M. Eric Carr, Drexel University Mr. Eric Carr is a full-time Laboratory Manager and part-time adjunct instructor with Drexel University’s Engineering Technology program. Eric assists faculty members with the development and implementa- tion of various Engineering Technology courses. A graduate of Old Dominion University’s Computer
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