Paper ID #37593Implement and Integrate Flipped Metrology Laboratory in ManufacturingEducationWayne P. Hung, Texas A&M University Dr. Wayne Hung graduated from the University of Michigan at Ann Arbor and University of California at Berkeley. He is currently a professor at Texas A&M University. His research interests include advanced materials, micromanufacturing, and additive manufacturing. ©American Society for Engineering Education, 2023 IMPLEMENT AND INTEGRATE FLIPPED METROLOGY LABORATORY IN MANUFACTURING EDUCATION Parth Sikligar, Shyam Balasubramanian, Jacob Galle
Robotics with Internet-of-Things for Student Learning on Industrial Robotics and Automation in Manufacturing AbstractThis paper explores the experience of implementing virtual reality (VR) laboratory activities withInternet-of-Things (IoT) for students to learn industrial robotics and automation in manufacturing.This work provides an innovative solution for optimizing learning effectiveness and improvingeducational outcomes through the development of VR models that can be used and integrated intothe existing robotics laboratory. We explore methods of using ABB RobotStudio to allow studentsto program traditional industrial robots using the project-based learning approach. Key features ofhow
Engineering Education, 2024 Virtual Reality Simulation of Wind TurbineAbstractThis research study presents an innovative virtual reality (VR) laboratory module aimed atenhancing green manufacturing education, particularly focusing on the intricacies of wind turbineefficiency. This VR-based educational tool provides a hands-on learning experience that simulatesthe operation of a wind turbine, allowing students to explore the dynamics of wind energyconversion. Using VR controllers and headsets, participants can interact with a virtual environmentthat includes a vertical wind turbine and a fan blower, complete with start/stop buttons and controlsfor adjusting wind speed.The virtual lab is built on the Unity 3D platform
wireless connections to machines; (LO3) identifyingproper sensors for measurement of desired data; (LO4) implementing data analytics and machinelearning tools for extraction of desired information; and (LO5) demonstrating personal andprofessional development in communication and management in the context of smartmanufacturing. The course was coupled with laboratory reports, written reports, and oralpresentations to achieve these objectives and capture evidence of students' learning and skillsdevelopment.Of particular relevance for this course was the integration of ELT principles to coordinate andorchestrate the laboratory assignments that built the necessary skills and practices so studentswould successfully complete their semester-long projects
techniques, continues to evolve withtechnological advancements and new applications. Staying competitive in this field requires notonly technical expertise but also entrepreneurial skills, including knowledge of market strategies,financial management, and client relations [10]. Recognizing the lack of accessible OERs andhands-on training materials for casting, Project R2 developed practical exercises anddemonstrations using commonly available metals and portable foundry-in-a-box kits [11]. Theseresources are designed to bring sand-casting education into classrooms and laboratories,empowering students and educators to explore this essential manufacturing process innovatively[12].In summary, Project R2 bridges critical gaps in STEM education by
CAD/CAM softwaretraining and on-machine demonstrations. The CAD/CAM software activity includes fixturedesign and toolpath generation to perform a facing operation on the silicon brass METALmedallion. A CAD model of the METAL medallion machining setup with visible toolpaths isshown in Figure 6. Figure 6. CAD model of the machining setup for the METAL medallion with visible toolpaths.Other METAL level one in-person training activities include mechanical testing (i.e., tension andhardness testing), heat treatment of steel alloys (i.e., AISI 1060 and/or 1045), forging, androlling. The topics for each day of the four-day schedule are summarized. These activitiesinclude both classroom and laboratory sessions. The detailed daily itinerary can be
the DefenseManufacturing Communities Support Program (DMCSP) and its adaptation to collegecurriculum. This 2-day intensive course introduced participants to rapid tool making methodsbased on 3D printing. Indirect and direct rapid tooling were covered with hands-on activitiesincluding use of software tools. Tooling for multiple processes such as plastic injection molding,sand casting, room temperature vulcanization (RTV) as well as machining jig and fixture designwere included in the curriculum with demonstrations or laboratory exercises. Main targetaudience was technical personnel from small and medium size manufacturing companies, eventhough it was open to similar personnel from all size of companies including start-ups. Thispaper presents
laboratories, project- based learning, and practicum-based assessment. Dr. Ertekin serves as the faculty advisor for the student chapter of the Society of Manufacturing Engineers (S058) and is a member of the College’s Undergradu- ate Curriculum Committee. Involved in research, Ertekin has received funding from the National Science Foundation (NSF), private foundations, and industry. His research has focused on the improvement of manufacturing laboratories and curricula and the adoption of process simulation into machining and addi- tive manufacturing practices. His areas of expertise are in CAD/CAM, manufacturing processes, machine and process design with CAE methods, additive and subtractive manufacturing, quality control
providinginformation on what it is like to work at a shipyard.The guest lecture from the Naval Sea Systems Command (NAVSEA) provides information onthe Federal Government’s role in military shipbuilding and naval systems. NAVSEA includessubordinate commands which include Supervisor of Shipbuilding, Conversion and Repair(SUPSHIP) which has a role similar to ABS as it relates to the design and construction ofmilitary ships. So, the role and activities at SUPSHIP is covered in this guest lecture. Further,the role of the Navy research and technology development laboratories is discussed as well as theactivities at the NAVSEA Headquarters office at the Washington D. C. Navy Yard. Somerecruiting information is also provided to allow students to learn what it is like
Paper ID #38816Design and Evaluation of Modules to Teach PLC Interfacing ConceptsDr. Sheng-Jen Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Department of Engineering Technology and Industrial Distribution and a member of the Graduate Faculty at Texas A&M University, College Station, TX. His research interests include automation, robotics, cyber-manufacturing and Industry 4.0; optical/infrared imaging and instrumentation; micro/nano manufacturing; and design of technology for engineering ed- ucation. He is also the Director of the Rockwell Automation Laboratory at Texas A&M
Paper ID #41899Interactive and Web-based Animation Modules and Case Studies for AutomatedSystem DesignDr. Sheng-Jen Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Department of Engineering Technology and Industrial Distribution and a member of the Graduate Faculty at Texas A&M University, College Station, TX. His research interests include automation, robotics, cyber-manufacturing and Industry 4.0; optical/infrared imaging and instrumentation; micro/nano manufacturing; and design of technology for engineering education. He is also the Director of the Rockwell Automation Laboratory at
. Figure 3. Robert Morris bust before its restorationThe project team included the lead author, a graduate assistant, and the laboratory engineer. AKonica Minolta Vivid 910 scanner (Figure 4a), a laser scanner, was used for the digitizationprocess. The camera had the ability to capture large free-form objects with a dimensionalaccuracy of 0.127 mm. Because of the geometric complexity of the bust, special attention had tobe paid to cavities and shiny surfaces. Since the scanner did not have the flexibility to reachhard-to-access details, the scanning process became more tedious than originally expected. Figure 4. a) Konica Minolta scanner b) Manual turntable built for the projectThe main difficulty encountered during the scanning process
. The evaluated class consisted of mixed instruction, comprisedof laboratory sections focusing on the use of CAD software to design machine components andhands-on sessions teaching the use of conventional machine tools to fabricate said parts [19].Course synopsis and learning objectives are presented in Table 1.Table 1. Details concerning the course subject to student evaluation [19] Course name and code Engineering Design Tools MECE-104 Synopsis This course combines the elements of Design process, Computer Aided Design (CAD), and Machine Shop Fabrication in the context of a design/build/test project
Paper ID #38814Preparing the manufacturing workforce for Industry 4.0 technologyimplementationDr. Sheng-Jen Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Department of Engineering Technology and Indus- trial Distribution and a member of the Graduate Faculty at Texas A&M University. His research interests include automation, robotics, cyber-manufacturing and Industry 4.0; optical/infrared imaging and instru- mentation; micro/nano manufacturing; and design of technology for engineering education. He is also the Director of the Rockwell Automation Laboratory at Texas A&M University
Tutorial for HoloLens 2Each high school involved in this grant project received the following equipment and theirassociated software as well as consumables needed for the equipment: ● 24 IoT kits ● 2 Structure Core 3D Scanners and 4 Apple iPads. ● 1 HoloLens 2 ● 1 VEX V5 Work cell System ● 10 Creality CR-10 FFF 3D printers ● 1 Elegoo Mars SLA 3D printerHopewell High School dedicated one of their classrooms as a digital manufacturing laboratoryafter working with the project team (Figure 3). Figure 3. Digital manufacturing laboratory at the Hopewell High SchoolMultiple training sessions were organized for the high school students and their teachers (Figure4a and b). Student training took place at the high schools, when
Issues in Engineering Education and Practice, 144(2), 04017017. https://doi.org/10.1061/(ASCE)EI.1943-5541.0000360Cardon, M. S., Gregoire, D. A., Stevens, C. E., & Patel, P. C. (2013). Measuring entrepreneurial passion: Conceptual foundations and scale validation. Journal of Business Venturing, 28(3), 373–396. https://doi.org/10.1016/j.jbusvent.2012.03.003Cox, D. (2017). Development of Hands-on Laboratory Resources for Manufacturing Engineering. Annual Conference and Exposition. American Society for Engineering Education.Da Silva, G., De Barros, M., & Costa, H. (2015). Entrepreneurship in Engineering Education: A Literature Review. International Journal of Engineering Education, 31(6A), 1701–1710