Teaching Hands-On Manufacturing Technology Fundamentals to ME Students at Local Community Colleges Behnam Bahr1, Kurt Soschinske2, George Gray3 Department of Mechanical Engineering, Wichita State University, Wichita Kansas1, 2 / Department of Engineering Technology, Texas Tech University Lubbock, Texas3AbstractSome Mechanical Engineering departments in the United States currently do not have enoughmoney to support and sustain modern machine shops, composite lay-up rooms, or weldinglaboratories within their program. Such shops are essential for new mechanical engineeringgraduates to understand
differing academic backgrounds, including bioengineering, material science,mechanical engineering and life science, with a detailed understanding of the application ofnanotechnology with an emphasis on biomedical technology through classroom lectures andlaboratory experiences. Such a semester-long is expected to enhance undergraduate student’sfundamental understanding of how the physical and chemical properties of engineerednanomaterials influence their interactions with biological systems. One of the focus areas in thiscourse was nanoparticle-based probe engineering [11], techniques for characterization ofnanomaterials; separation sciences; and applications of nanotechnology in biological detection,sensing, imaging and tissue regeneration (Please
2006-2445: A DEVELOPMENT FRAMEWORK FOR HANDS-ON LABORATORYMODULES IN MICROELECTROMECHANICAL SYSTEMS (MEMS)John Lee, San Jose State University JOHN LEE is an Assistant Professor in the Department of Mechanical and Aerospace Engineering at San Jose State University. He teaches in the areas of microelectromechanical systems (MEMS), manufacturing processes, mechanical design, and dynamics. He conducts research in microfluidics and micromechanics applied to MEMS design and fabrication. Contact: sjlee@sjsu.edu.Stacy Gleixner, San Jose State University STACY GLEIXNER is an Assistant Professor in the Department of Chemical and Materials Engineering at San Jose State University. She teaches
: American Psychological Association.32. Stout, J. G., Dasgupta, N., Hunsinger, M., & McManus, M. A. (2011). STEMing the tide: Using ingroup experts to inoculate women's self-concept in science, technology, engineering, and mathematics (STEM). Journal of Personality and Social Psychology, 255-270.33. Klahr, D., Triona, L.M. and Williams, C. (2006). Hands on what? The relative effectiveness of physical versus virtual materials. Journal of Research in Science Teaching, 1-21.34. Rafia, A., Anuarb, K., Samadb, A., Hayatib, M., & Mahadzir, M. (2005). Improving spatial ability using a web-based virtual environment (WbVE). Automation in Construction, 14, 707-715
AC 2010-549: THE IMPACT OF ENGINEERING IS ELEMENTARY (EIE) ONSTUDENTS' ATTITUDES TOWARD ENGINEERING AND SCIENCEChristine Cunningham, Museum of Science, BostonCathy Lachapelle, Museum of Science, Boston Page 15.1237.1© American Society for Engineering Education, 2010 The Impact of Engineering is Elementary (EiE) on Students’ Attitudes Toward Engineering and ScienceAbstractThis paper probes whether students’ attitudes toward engineering and science are impacted as aresult of using Engineering is Elementary (EiE) curricular materials. It presents results from dataan instrument that focused on measuring students’ attitudes about and perceptions
particular engineering disciplines.Several challenges arise when designing and implementing team-based engineering designprojects in FYE courses. First, the technical concepts involved must be appropriately scaled tothe novice level. Mechanically-oriented product design projects are particularly popular in FYEcourses for this reason, as they leverage students’ existing content knowledge of geometry andphysical science concepts from high school. Second, logistical requirements of the project, e.g.,required materials or software, and instructor supervision or training, must fit within theconstraints of the FYE course. Although the product design process can culminate in either aphysical or virtual prototype (i.e., “paper design”), hands-on fabrication
Paper ID #39858Board 372: Remote Engaged Student Learning through Hands-on InternetofThingsDr. Lifford McLauchlan, Texas A&M University, Kingsville Dr. Lifford McLauchlan is an Associate Professor and Interim Chair in the Electrical Engineering and Computer Science Department at Texas A&M University - Kingsville, and has also worked for Raytheon, Microvision, AT&T Bell Labs, and as an ONR Distinguished Summer Faculty at SPAWAR San Diego, CA. He has over 55 publications covering areas such as adaptive and intelligent controls, robotics, an ocean wave energy converter, green technology, education, wireless
AC 2011-1573: MANUFACTURING INTEGRATED LEARNING LAB (MILL):A CURRICULUM MODEL FOR HANDS-ON MANUFACTURING EDU-CATIONMukasa E. Ssemakula, Wayne State University Dr. Ssemakula received his BS in Mechanical Engineering, MS in Manufacturing Technology, and Ph.D. in Mechanical Engineering all from the University of Manchester Institute of Science and Technology (England). After working in industry, he joined the faculty of the University of Maryland where he taught courses in the areas of Mechanical and Industrial Engineering as well as conducting research in Manufacturing Systems. Since 1993, he has been on the faculty of Wayne State University’s Division of Engineering Technology where he has been a leader in developing
Session 3553 Staying in Engineering: Impact of a Hands-On, Team-Based, First-Year Projects Course on Student Retention Daniel W. Knight, Lawrence E. Carlson and Jacquelyn F. Sullivan Integrated Teaching and Learning Program and Laboratory College of Engineering and Applied Science University of Colorado at BoulderAbstractThis study evaluates the impact on student retention of the First-Year Engineering Projects(FYEP) course at the University of
experiments. It also includes an interestsurvey to be taken before and after using the materials to evaluate students’ initial knowledgeand learning styles, as well as their interest in science and engineering. The hands-onexperiments included in this curriculum are given in Table 1.Table 1: Hands-On Activities Included in CurriculumHands-On Activity Concepts TaughtMagnetization Experiment Shape and Direction of Magnetic FieldsElectromagnetism and Alignment Experiment Properties of ElectromagnetsEnergy Levels Experiment Energy Levels of NucleiNuclear Magnetic Spin Experiment PrecessionTipping and T1 Processes Experiment Tipping of Nuclei/Net Magnetization
Graduate-level hands-on laboratory practices of microdevices for microoptic and biosensor applications Chang-Soo Kim 1,2, Steve E. Watkins 1 Department of Electrical & Computer Engineering 1 Department of Biological Sciences 2 Missouri University of Science and Technology, Rolla, MO, USAAbstractWe present our experience in graduate-level, small enrollment size, hands-on laboratoryinstruction of microoptic and biosensor microdevices. Inherently, instructing the twomicrodevices types can be largely benefited by linking with microfabrication laboratory practicesto design, fabricate and characterize these devices in class. Based
answered their concerns andshould be in position to include additional mobile hands-on pedagogical activities in theirclassroom.List of Participating Engineering Schools 1. University of Puerto Rico – Mayagüez Campus 2. Polytechnic University of Puerto Rico 3. Interamerican University – Bayamón Campus 4. Caribbean University 5. Universidad del TuraboExpectation of Faculty ParticipantsThe faculty participants are expected to fulfill the following conditions: 1. Attend the two workshops. 2. Perform all the required homework to achieve expertise in the use of the Analog Discovery board and related pedagogical materials. 3. Gradually implement the innovative pedagogy in courses
Paper ID #39336Work in Progress: Impact on Students Dropout rates of Introducing aFirst-Year Hands-on Civil Engineering CourseALEJANDRA ESTEFANIA CERVANTESDr. Miguel Andres Andres Guerra, Universidad San Francisco de Quito USFQ MiguelAndr´es is an Assistant Professor in the Polytechnic College of Science and Engineering at Uni- versidad San Francisco de Quito USFQ. He holds a BS in Civil Engineering from USFQ, an M.Sc. in Construction Engineering and Project Management from Iowa State University as a Fulbright Scholar, a Ph.D. in Civil Engineering from Virginia Tech, and two Graduate Certificates from Virginia Tech in Engi
the students to design a realistic system and its components under realistic design requirements and constraints.2- The project aims to improve the ability of the students to understand and apply fundament of mechanics of materials for strain measurement, basics circuits, circuit simulation, chemistry, electronic laboratory testing and validation.3- The project is to improve the ability of the students to apply modern engineering tools (such as Multisim, Excel, Circuit lab equipment) to analyze and design a realistic system and its components.4- The project is to improve the students’ hands on skills in fabricating circuitry and working prototype of circuitry system.5- The project aims to improve the ability of the students to
skills required of them as engineers but also the social, environmental, and physical implications of implementing technical engineering solutions. c American Society for Engineering Education, 2018 Many Hands on the Elephant: How a Transdisciplinary Team Assesses an Integrative Course For the Evidence-Based Practice Category of ERMAbstract:This paper, for the Evidence-based Practice category of the ERM division of ASEE, describes ourefforts to assess a transdisciplinary course that brings together the humanities and engineering —specifically history, ethics, theatre, writing and literature with fluid mechanics, material properties,statics
Paper ID #9156Impact of hands-on first year course on student knowledge of and interest inengineering disciplinesDr. Lynn K Byers, Quinnipiac University Lynn Byers is a Professor of Mechanical Engineering at Quinnipiac University and previously taught at the United States Military Academy. She graduated from West Point in 1987 with a Bachelor of Science in Mechanical Engineering. She earned a Master of Science and Ph.D. in Aerospace Engineering from The Pennsylvania State University in 1997 and 2006, respectively. She has taught courses in aeronautics, dynamics, vibrations, computer-aided design, thermal-fluid systems
Paper ID #36582Work-in-Progress: Development of a new hands-on STEMprogram for biologically inspired maritime roboticsLeigh S Mccue (Associate Professor) Leigh McCue is an Associate Professor and Interim Chair of George Mason University’s Department of Mechanical Engineering. From June 2015-December 2018 she was the executive director of the American Society of Naval Engineers. Prior to that, from December of 2004 through May of 2015, she was an Assistant, then Associate Professor in Virginia Tech’s Department of Aerospace and Ocean Engineering. Her research interests are in maritime robotics, nonlinear and
Paper ID #34473A Hands-on Learning Approach to Introducing Computer Organization andArchitecture to Early-college StudentsDr. D. Cenk Erdil, Sacred Heart University Dr. Erdil has joined Sacred Heart University’s School of Computer Science & Engineering in Fall 2017. Prior to SHU, he has held academic positions at Marist College, Columbia University, and Istanbul Bilgi University. His research interests include using Cloud Computing as Artificial Intelligence Infrastructures, Cyber-Physical Systems and Internet-of-Things, Teaching coding to P-12 students, and Health Informat- ics. He is the author of numerous peer
taught in most science and engineering classes where it is desired tocreate learners skillful in hands on problem solving capable of working in multidisciplinaryteams, and not those with an abstract individualistic style of problem solving.The hands on paradigm shift began more than 25 years ago10, yet 70-90% of professors stillimplement the traditional lecture format11. The reason for this as proposed by Felder is that mostprofessors are experts in their field, however, not necessarily in teaching and are often unawareof or reluctant to implement teaching strategies which they themselves were not taught with12. Inorder to bring engineering education from the outdated aural style and into alignment withmodern, research-substantiated pedagogies
Paper ID #13802Using online and hands-on activities to improve self-efficacy in mechanicsDr. Peggy C. Boylan-Ashraf, Stanford University Dr. Peggy C. Boylan-Ashraf is a postdoctoral research scholar in the Designing Education Lab at Stanford University. Her research interests lie at the intersection of solid mechanics and engineering education, particularly in the areas of a new paradigm in teaching introductory, fundamental engineering mechanics courses (statics, mechanics of materials, and dynamics).Prof. Sarah L. Billington, Stanford University Sarah L. Billington is Professor of Structural Engineering and Associate
Paper ID #17788A Comparative Study for Determining the Impact of Simulation-based, Hands-on and Feedback Mechanisms on Students’ Learning in Engineering Technol-ogy and Computer Networking ProgramsDr. M T Taher,Dr. Usman Ghani, Robert Morris University Usman Ghani Professor Robert Morris University Usman Ghani is a senior professor of Network and Communication Management in the College of Engi- neering and Information Science at Robert Morris University, Chicago, Illinois. Professor Ghani’s area of specialization is ’Network Infrastructure and Security’. Mr. Ghani began his career as an Electronics Engineer for Johnson
Paper ID #27152Engaging First-Year Students with a Hands-On Course using Student-DrivenProjectsProf. Lorraine Francis, University of Minnesota, Twin Cities Lorraine Francis is a Professor in the Department of Chemical Engineering and Materials Science at the University of Minnesota and the 3M Chair in Experiential Learning in the College of Science and Engineering at the University of Minnesota. Her research is focused on the field of materials processing. She has developed several courses and authored a textbook.Dr. David John Orser, University of Minnesota, Twin Cities David Orser teaches and develops undergraduate
Education, 2019 Exposing Students to STEM Careers through Hands on Activities with Drones and RobotsAutonomous robots have been used in a variety of ways from collecting specimen in hazardousenvironments to space exploration. These robots can be found in various manufacturing systemsas Autonomous Guided Vehicles (AGVs) to transport parts and assemblies throughout themanufacturing system. They have also been used as a vehicle to convey design thinking andother STEM-related concepts in mechanical engineering/mechanical engineering technology,electrical engineering/electrical engineering technology, computer science, and computerengineering. Various outreach events have included robotics based activities that engage
Paper ID #22201A New Course for Teaching Internet of Things: A Practical, Hands-on, andSystems-level ApproachMr. Nicholas Barendt, Case Western Reserve University Nick Barendt is an Adjunct Senior Instructor in the Department of Electrical Engineering and Computer Science at Case Western Reserve University, in Cleveland, Ohio. He earned his Bachelor of Science and Master of Science in Electrical Engineering and Applied Physics at Case Western Reserve University, in Cleveland, Ohio, in 1995 and 1998, respectively. He has worked in a variety of industries, including Industrial Automation, Robotics, Data Acquisition, and
Session 2526 Using a Realistic Hands-On Laboratory Program to Enhance a Reinforced Concrete Design Course Allen C. Estes, David E. Sibert, and Christopher H. Conley United States Military AcademyAbstractMost engineering courses rely on a combination of basic engineering science theory andthe use of laboratory-based empirical equations when the theory is not as easilyunderstood. Students learn about the theory and the equations in the classroom, but theexperience is far richer if these same students can verify these principles in the laboratoryand see it for themselves. Effective laboratory
courses for first-year engineering fundamentals to a framework that involves two coursesequences with tightly coupled courses. Engineering orientation, engineering graphics, andengineering problem solving with computer programming are now offered in each of two coursesequences,1 one called the Fundamentals of Engineering and the other the Fundamentals ofEngineering for Honors. These course sequences retain part of the traditional material but nowinclude hands-on laboratory experiences that lead to design/build projects.2 Teamwork, projectmanagement, report writing, and oral presentations have assumed important roles in bothsequences. This paper describes the administrative and teaching experiences with a design/buildproject course in the
Vergara-Laurens, Universidad del Turabo Idalides Vergara-Laurens is an Associate Professor at the Universidad del Turabo in Gurabo, Puerto Rico. He received a B.S degree in Computer System Engineering from Universidad Industrial de Santander in 2000, and a M.S. degree in Computer Engineering from University of Puerto Rico at Mayagez. In 2014, he received a Ph.D. degree in Computer Science and Engineering at University of South Florida, FL, USA. His research interests include crowd sensing, security, privacy and green networking.Dr. Miguel A. Goenaga-Jimenez, Universidad del Turabo c American Society for Engineering Education, 2016 Diffusion of Mobile, Hands-on Teaching and Learning in Puerto Rico
. Page 24.718.1 c American Society for Engineering Education, 2014 Improving Retention of Student Understanding by Use of Hands- on Experiments in StaticsAbstractWhen a course in the Engineering Science of Statics is taught to a large number of students, howcan the the multiple topics covered in the class be presented in a manner to increase thestudent’s understanding of the material? Statics is one of the foundation courses for anengineering student's education, and the topics learned in this course must be retained for use infollow-on courses in engineering. For a class with several hundred students in a semester, theproblem becomes even more difficult as overhead projections are
experience. In industry they saw that new engineers often had not learned thefundamental considerations in choosing an appropriate material or shape in their designs. Thispaper provides all necessary details to recreate these labs and discusses two years of instructionalexperience obtained under NSF-ECSEL sponsorship.LAB 1- Choosing from Commonly Stocked MaterialsThis lab addresses the different materials stocked in lengths, such as steel or aluminum bar, pipe,structural shapes, or rectangular tube. It provides a hands on view of the material obtained fromfour processes: Hot Rolling (HR), Cold Rolling or Cold Drawing a.k.a. Cold Finished (CF),Extrusion, and Roll Forming. The students learn how each process affects geometry, strength,stiffness
is to teach fundamentalconcepts of neural function with an emphasis on quantitative analysis. Originally, this class wascreated as a lecture only class based on a traditional neuroscience class. However, it has beenshown that students learn more effectively when the concepts are demonstrated through eitherhands-on or computer simulated laboratory modules. In order to enhance the learningexperience, several laboratory modules and computer simulations were incorporated into theBME 445 class. Students found the modules enjoyable and helpful to deepen theirunderstanding of the material. Overall, it was beneficial to introduce these hands-onexperimental modules into a traditional neural science class for the BME students.IntroductionWhat is hands