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
ofSTEM education. Moreover, it explores various dimensions of AM education, includinginnovative laboratories equipped with advanced 3D printers, remote laboratories to enable accessfrom distant locations, curriculum development encompassing on-ground, online, and hybridprograms. Furthermore, this study examines AM software tools and simulations, industrycertifications, and hardware and equipment used in educational settings. The paper also delvesinto educational pathways, collaborations between academia and industry, workforce demands,and the ethical and societal aspects of AM education, focusing on sustainability and equity.Overall, this study offers insights into the diverse and evolving landscape of AM education,emphasizing adaptability
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
improvement of the Engineering Technology (ET) curriculum, including integrated 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
Colorado Boulder. Scott’s research relates to accessible and inexpensive engineering equipment for laboratory education. ©American Society for Engineering Education, 2023 Teaching Industrial Control with Open-Source SoftwareAbstractThis paper presents an innovative approach to teaching Programmable Logic Controllers (PLCs)using open-source software and low-cost hardware in an engineering curriculum. The OpenPLCsoftware and a variety of affordable hardware platforms, such as Arduino and Raspberry Pi, areemployed to provide students with hands-on experience in programming PLCs. Theincorporation of PLC content in the second year of the curriculum prepares students for summerinternships, better satisfying
Manufacturing CourseAbstractHands-on learning is the core of Engineering Technology programs, and a high number of thecourses is taught with the laboratory sections. This paper presents the service learning basedenhancements made in one of the Engineering Technology courses. Course students learnmanufacturing the complex machined workpieces using the G-code simulators. Teaching theapplied milling and turning practices is the main deliverable of the course with a required termproject which is focused to service learning concept. Student teams formed in the middle of thesemester design, simulate, and machine a functional service learning product using thedepartmental computers, simulators, and CNC machines for their project. The feedback providedby the
in Robotics and Automation AbstractThis paper describes the experience of implementing virtual reality (VR) project activities forteaching robotics and automation for students in engineering and engineering technology. Thiswork provides an innovative solution for optimizing learning effectiveness and improvingeducational outcomes through the development of virtual reality models that can be used andintegrated into the existing robotics laboratory. The project activities provide students withopportunities to work with industrial robots. Students complete structured laboratory activitiesthat introduce them to different aspects of applied robotics, including the design of end-effectortooling and
the changes to metals that welding canproduce, they can make educated decisions about how to prevent any negative consequencessuch as failure of materials.Introduction As the supply of usable materials depletes, one of the goals of the manufacturer is toelongate the life of products. One of the factors that influences the lifespan of products iscorrosion. Corrosion and its negative effects are often discussed in education, but processes toprevent or reduce corrosion are rarely integrated into laboratory classes. A good understanding ofcorrosion-prevention techniques is critical for being prepared for careers in the manufacturingindustry and its related fields. Corrosion causes significant reduction in mechanical propertiesand can lead
University Dr. David Gill is an Assistant Professor of Manufacturing Engineering at Western Washington University where he specializes in CAD/CAM and CNC. Prior to coming to Western, Dr. Gill was Principal Member of the Technical Staff at Sandia National Laboratori ©American Society for Engineering Education, 2024 Adapting CAD/CAM and CNC Curriculum to Advances in TechnologyOne of the challenges faced in manufacturing engineering education is how best to teach important,traditional content while branching out into new areas that are emerging as manufacturingtechnologies evolve. Dealing with this challenge requires a clear understanding of what is thefoundational material for a MFGE student to
(i), (ii) were deployed in 2-, 3-day PIC device characterization bootcamps, co-organized bythe collaborators’ Laboratories for Education, Application, and Prototyping (MassachusettsLEAP Labs) [19]. A Three-Legged Stool (3LS) training model that combined lecture, VR simtraining, and lab-site physical tool trainingwas developed to structure and pace this high-volumecontent, short-duration intensive training experience.The 3LS emphasis on hands-on experiential education in a lab or lab-like setting, is an integralcomponent of most Science, Technology, Engineering, and Math (STEM) learning processes,including in the manufacture of PIC chips. In addition to mastering fundamental concepts insemiconductor electronic and photonic device design and
mechanical, electrical, and software levels. Their focus is not just on physicalmanufacturing systems; also includes the enablement (sensing and acquisition) and use of data(analytics) around manufacturing systems to drive increases in productivity, product quality, andbusiness feedback.” That echoes the “Report to the President Accelerating US AdvancedManufacturing”, which states two emerging technologies of national importance [3]: 1) advancedsensing, control and platform for manufacturing, and 2) visualization, information, and digitalmanufacturing. The ABET proficiencies also require Manufacturing Engineering programs to havecurricular content covering “manufacturing laboratory or facility experience: measurement ofmanufacturing process
students and graduate students (lab projectmodule): This module will develop students an ability of formulating standard operatingprocedure (SOP) and facilitating the SOP to new standard, if there is no standard dealing with aspecific AM project. A project in a laboratory class will be used to cover the topics on AMlightweight part design, manufacturing, and testing. Students will design lightweight part (suchas lattice or topology optimized structure), practice fabricating AM parts, and performmechanical testing of the AM lightweight parts, using the AM laboratory. Due to the geometricalcharacteristics, AM lightweight part requires specific test protocols to develop an appropriatedatabase of engineering design properties, including specimen
professor and was promoted in 2012 to associate professor. He has over 25 combined years of increasing responsibilities in industry and in academia, in-cluding at the Centre for Development of Telematics (C-DOT), a telecommunications technology arm of the Indian government, the Indian Institute of Science (IISc.), Bangalore, and Villanova University, PA. Nathan received his BS from the University of Mysore, a postgraduate diploma from the Indian Institute of Science, an MS from Louisiana State University, and a PhD from Drexel University. He worked in electronic packaging in C-DOT and then as a scientific assistant in the robotics laboratory at IISc. in Bangalore, India, and as a postdoc at the University of Pennsylvania in
Boulder. Scott’s research relates to accessible and inexpensive engineering equipment for laboratory education. ©American Society for Engineering Education, 2023 Artificial Intelligence Solutions for Digital DesignAbstractAccessible artificial intelligence platforms, especially ChatGPT, are now available to solveengineering questions. Here we evaluate this tool for finite state machine construction in Python.With well-guided queries, ChatGPT built sensible code that implements a microwave ovencontroller for hardware integration. However, to leverage ChatGPT user knowledge of theprogramming task was necessary, which included schematics, input, and output delineation, anddebug expertise.Special Note
anddeveloped to introduce students to the assembly concepts/ stages of two different types ofgrippers and their associated mechanisms. The module is then incorporated into MechanicalEngineering Technology MET:230 Fluid Power course laboratories. A research study has beenconducted to explore MR's effectiveness in teaching assembly processes, where the module hasbeen experienced by 102 undergraduate students registered in the course.3. Interactive MR Module for Teaching AssemblyThe interactive MR module is designed for undergraduate-level students using the Microsoft-driven platform Mixed Reality Tool Kit (MRTK) for Unity via HoloLens 2. It introducesstudents to two types of hydraulic grippers (light-duty and heavy-duty), their components,subsystems
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
and Ph.D. in Mechanical Engineering from the University of Missouri Rolla. Dr. Ertekin has also been a Certified Manufacturing Engineer (CMfgE), awarded by the Society of Manufacturing Engineers (SME) since 2001, and a Certified Quality Engineer (CQE) awarded by the American Society for Quality (ASQ) since 2004. In addition to positions in the automotive industry, Dr. Ertekin has held faculty positions at Western Kentucky University and Trine University. In 2010, he joined Drexel University’s College of Engineering as an associate clinical professor. He has been instrumental in course development and the assessment and improvement of the Engineering Technology (ET) curriculum, including integrated laboratories
senses than traditional online-based learning [12]. These extra sensesprovide a sense of immersion and presence. The sense of presence is the recognition of "beingthere,” while immersion is the quantitative measure by which technology can simulate a virtualenvironment [13] [14]. Studies have shown that multisensory integration boosts performance [15]and leads to faster, more efficient learning [16] [17]. These learning environments also provide theability to integrate artificial intelligence, such as speech recognition [18]. In addition, educatorshave complete control over the virtual environment, allowing them to simulate scenarios that maynot be possible in traditional laboratory or classroom settings.2.3 VR in Engineering and Manufacturing
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 #39232Development of a SimEvents Model for Printed Circuit Board (PCB)Assembly ProcessesSiqin Dong, Old Dominion UniversityDr. Mileta Tomovic, Old Dominion University Dr. Tomovic received BS in Mechanical Engineering from University of Belgrade, MS in Mechanical Engineering from MIT, and PhD in Mechanical Engineering from University of Michigan. Dr. Tomovic is Professor of Engineering Technology, and Mechanical and AerDr. Krishnanand Kaipa, Old Dominion University Dr. Krishnanand Kaipa is an Assistant Professor and director of the Collaborative Robotics and Adaptive Machines (CRAM) Laboratory in the Department of
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
this course in Spring 2024. There were 12 students enrolled, grouped into 4teams. Each team was allocated a 3D printer. Module 1 lasted three weeks, and each team wasallocated a 3D printer. In week 1 of Module 1, the author gave a lecture on the technologies andcomponents required to form a 3D printer. Then students spent one week assembling the printersfrom components. In week 3 of Module 1, students worked on printing test samples, whichincluded troubleshooting 3D printing.This course will be evaluated by the end of the semester. Ten common questions will be asked toevaluate the course: • The course is well organized. • The assignments aid me in achieving the course objectives. • The projects or laboratories aid me in achieving the
, 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 Texas A&M University, a state-of-the-art facility for education and research in the areas of automation, robotics, and Industry 4.0 systems. He was named Honorary International Chair Professor for National Taipei University of Technology in Taipei, Taiwan, for 2015-23. Dr. Hsieh received his Ph.D. in Industrial Engineering from Texas Tech University, Lubbock, TX. ©American Society for
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
. 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