Conference on Industry & Education, Palm Springs, CA7. A Novel Interdisciplinary Sensor Networks Laboratory, by Gary J. Mullett, Proceedings of the 2009 American Society of Engineering Educators Annual Conference and Exposition, Nashville, TN8. Intelligent Infrastructure Systems and the Technician, by Gary. J. Mullett, Proceedings of the 2011 American Society of Engineering Educators Annual Conference and Exposition, Vancouver, BC9. Teaching Networked Embedded Control at the Two-year College Level, by Gary J. Mullett, Proceedings of the 2012 American Society of Engineering Educators Annual Conference and Exposition, San Antonio, TX10. The Internet of Things (IoT) Will Create the Need for the Cyber-Physical Systems Technician
collaboration and partnership with the relevant industries to directly match the industryexpectations and needs. The academic partners in this project come from university andcommunity college. These institutions that specialize in STEM education are listed below.New Jersey Institute of Technology (NJIT) is a public university located in Newark, New Jersey.It is home to 17% Hispanic, 8% other minorities, and 27% female students as of 2017. TheEngineering Technology (ET) Department at NJIT offers high-quality ABET-accreditedprograms that target the immediate and future needs of industries and is recognized for nationalleadership in engineering technology and STEM education through excellence in curricula,teaching, laboratory development, and service
ETD 325 Teaching Autonomous Navigation Using an Open-Source Middleware in a Hybrid Format Abhishek Patil and Jungyun Bae Michigan Technological UniversityAbstractAlong with other topics in mechatronics, autonomous navigation has been advancedamazingly in recent decades and is now playing a pivotal role in many industrialautomation applications. This paper discusses the new strategies designed to teachautonomous navigation of mobile robots using robot operating system (ROS), the mostpopular open-source robotics middleware. At Michigan Tech, the authors
laboratoryrequires industry insight and expertise to ensure that applications, technologies, configurations,and use cases align with standards and industry trajectory.Purdue University and Endress+Hauser USA have a well-established history of partnering toincrease awareness of the process sector and deliver improved learning experiences capable ofpresenting real-world challenges in the classroom and laboratory [3]. The first collaboration wasin 2014 with a capstone project, the Purdue Integrated Process Education System (PIPES). Thefully operational system was designed and constructed during a yearlong capstone projectundertaken by senior students in Purdue’s Manufacturing Engineering Technology degreeprogram, later serving as a teaching and learning tool
student receives a benchequipped with a software-loaded laptop, necessary mechanical measuring tools, cutting tools,hammers, ratchets, soldering tools, wring tools, and a clip-on meter. Students use the same benchfor two semesters, learning workshop etiquette. The facility also houses trainers for acceleratedlearning in house wiring, PLC, and industrial controller wiring. Students should have access to amachining shop and a regular electronics laboratory. Fig. 4 illustrates the DSSA facility at PNW. Fig. 4. DSSA facility and trainers at PNW. Proceedings of the 2022 Conference for Industry and Education Collaboration Copyright ©2022, American Society for Engineering Education
facilitiesThe laboratory equipment for the programs is being acquired with funds from the EDA grant [5]awarded to Indiana Tech as well as a donation from a graduate of the mechanical engineeringprogram. The equipment selected is representative of the most common 3D printing processesfor polymers and metals. The list is depicted in Table 2 Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 475 Table 2. Equipment for the additive manufacturing laboratory
certification. Upon successful completion of the courses,eligible students receive “Material HandlingPro” and “iRVision-2D” FANUC industrialcertificates. The Certificate “Industrial Robotics” is designed to develop skills and competenciesin operating, programming, troubleshooting FANUC industrial robots, configuring and setting uprobotic vision systems commonly used to enhance industrial processes. The curriculum containssignificant laboratory component operating industrial-scale FANUC robots and learning industrystandards of Roboguide simulation software. The proposed “Industrial Robotics” Graduatecertificate will attract students from various departments at Michigan Tech and will make themmore marketable in very demanding job market nowadays.Below
of the robotic platform. The initial configurationand installation being handled by the EET students made it possible for future students to utilizethe robot for learning to operate the robot and incorporate skills from other disciplines toaccomplish the 3D welding process. Projects in the future can be aimed at accomplishing thetasks laid out in the Progress and Preparation for Future Students sections.SafetyAs safety is of the utmost importance, the number one priority was to design the work cell to beas safe as possible. The Department of Health and Safety (D.H.S.) on campus was contacted totour the lab and verify the safety of the work cell and laboratory layout. Currently there are onlygeneral lab safety training courses available and
work is to design a robotic training kit that would help teach students aboutcertain topics relating to the field of robotics. The topics covered include computerprogramming, serial communication, HMI development, and AI technology. To complete thistask, we developed the lab kit, develop programs to test the functionality of the components, andcreated a handbook to guide users through developing their own experiments.The remainder of this paper is structured as follows. First, related works corresponding tocollaborative robotics implementation and AI in robotics are briefly described. Then, a generaloverview of the project proposed is introduced, including the hardware and software portions.Later, the hardware architecture is presented and
inextensive hands-on learning in numerous shoreside laboratories, but much of the experientiallearning required to develop students into competent officers in a ship’s engine department iscompleted on the Training Ship State of Maine (TSSOM), shown in Fig. 1 on the next page.Various ships have supported student learning at MMA since the beginning: the currentTSSOM is a former U.S. Naval Ship, now owned by the US Maritime Administration andoperated by MMA since 1997. It is approximately 500 feet long, displaces over 16,000 tons,and is propelled by an 8,000-horsepower diesel engine [3].Students in the MET program are required to cruise on the ship in the summers after theirfreshman and junior years. Faculty in MMA’s Engineering Department, many of whom
is commonality and interestsin both realms. Faculty dedication has been a critical asset in adopting such continuingenhancements.Engineering programs at this university campus emphasize more hands-on experience than atypical undergraduate college, since most of our computer and electrical engineering studentsseek entry-level employment upon graduation. Most theory courses are augmented with separatetwo- to three-hour laboratory courses, taught by the same teaching faculty. This hands-onexperience is stressed more during the two-semester capstone project courses, offered in thesenior year of studies. Throughout the second semester of capstone projects, graduating seniorsexperience several aspects of working on team projects in large