six individual skillmodules covering skills such as dependability, responsibility, independence, persistence,integrity, and ethics. The main goal is to create multiple opportunities to teach and reinforcesoft skills within the regular technical curriculum in the high schools. This paper discussesthe integration of the soft skills modules into the technical curriculum developed viaexamples, and outlines its potential uses in this engineering department’s curriculumincluding its manufacturing engineering program. The paper concludes with a discussion ofthe implementation of this project and provides some preliminary feedback from theparticipating high schools and reflections of the authors. It also includes future workopportunities such as
acquire in each area, and an ability to integrate innew topics that keeps pace with advances of the technology that are relevant to the needs of localand regional industries. One such area of the curriculum is CAD/CAM and CNC. In this paper wewill review some important advances in technology in this area that are being integrated into amanufacturing engineering curriculum. These include CAM part programming using sophisticatedtool path generation capabilities that promote high speed and high efficiency machining,programming multi-axis machining operations, the use of various measurement techniques toquantify variation and efficiency of CNC operations, and the use of advanced simulation andverification techniques to develop insight into and
fabricated partsCurriculum Development: On-ground, Online, HybridCurriculum development in the context of AM education is a multifaceted process that hasadapted dynamically to the diverse learning needs of students. A well-developed curriculum is amust for a successful delivery of AM content modules [20]. In the traditional on-ground setting,educational institutions have tailored their curricula to provide comprehensive AM instruction,integrating theoretical foundations with practical hands-on experiences in physical laboratorysettings [21]. This approach ensures the acquisition of fundamental knowledge and thedevelopment of essential skills. In contrast, online education in AM has flourished in recentyears, catering to a global audience seeking
is executed, data is collected, stored, and graphed onto an integrated computer system. The computer automatically pulls relevant information from the resulting stress vs strain curve. The young’s modulus in N/mm² was recorded for each test. Fig 7. Dogbone specimen set up in the Universal Testing system for a tensile strength test. Compressive testing uses the Universal Testing System, but applies a force inwardinstead of an outward force. The specimen is
manufacturing engineering in HVAC and Steel Mill. Trisha is currently a Lecturer in the Engineering Studies at Rochester Institute of Technology. She is currently pursuing a Master’s in Manufacturing and Mechanical System Integration at RIT.Mark Davis, Rochester Institute of TechnologyDr. Yunbo Zhang, Rochester Institute of Technology Dr. Yunbo Zhang is currently an Assistant Professor in Department of Industrial & Systems Engineering at Rochester Institute of Technology (RIT). Dr. Zhangˆa C™s research focuses on investigating computational methods for advancing design and manufacturingDr. Rui Liu, Rochester Institute of Technology Dr. Rui Liu is currently an Assistant Professor in the Mechanical Engineering Department at
Paper ID #43994The integration of sustainability and automation to enhance manufacturingin Industry 4.0Dr. Hossain Ahmed, Austin Peay State University Hossain Ahmed earned an M.S. in mechanical engineering from Lamar University and a Ph.D. in mechanical and energy engineering from the University of North Texas. Dr. Ahmed is an assistant professor in the Department of Engineering Technology at Austin Peay State University, TN. His research interests are computational fluid dynamics (CFD), corrosion, and structural health monitoring (SHM). Dr. Ahmed has authored many journals, conference articles, and book chapters. He also
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
engineering,with some courses being taught in a multi-campus instructional (MCI) format. Although wellestablished in some areas, managing and delivering a new program in a multi-campus formatpresents several challenges, exacerbated by COVID-19, administrative hurdles, culturaldifferences between campuses, and institutional context including lab equipment.Two case studies representing two courses in the manufacturing engineering curriculum areexamined with an emphasis placed on challenges encountered, adaptation to a changing teachingenvironment, and student experience of teaching and learning. The course instructors areinterviewed with narratives examined through an interpretivist paradigm using inductive thematicanalysis to explore themes
integrate sustainabilityinto education, particularly in manufacturing engineering and technology. It advocates for mentoringindependent studies as another approach beside developed curriculum with sustainability to foster a cultureof sustainability excellence in manufacturing engineering and technology, supporting the development ofsustainability education in both teaching and research. From sustainability principles integration, andenvironmentally friendly designs to optimizing production processes to leveraging Industry 4.0technologies, this array is seen as key to reshaping the future of manufacturing. The approach of this workfocuses on an independent research-based study to experimentally test the impact of main operationalconditions on Carbon
-axial Kistler accelerometer, which canmeasure vibration in X, Y, and Z directions. These two types of sensors are typical for machiningdynamics, and can also be extended for other potential applications on machine tools, machinedproducts, and cutting tools as summarized in Table 1 [10]. The adoption of a dynamometer andaccelerometer enriches the curriculum in our Manufacturing Automation course. In that course,we have one chapter introducing analog sensors to students. Nevertheless, we previously focusedon low cost sensors such as thermocouple and RTD due to restriction of equipment, a dynamometercost approximately $65k to $70k, and an accelerometer costs from $700 to $2000. Now, we canconnect these sensor measurements with machining dynamics
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
curriculum road mapping workshops where all relevant stakeholders cantogether explore and chart us how to respond to the changing industrial landscape. Drawing fromtheses workshop outcomes, curricula will be developed in collaboration with all stakeholders tocreate a course material and hands-on labs that allow for manufacturing technology students togain an appropriate level of understanding of the essentials of each other’s programs. Theinfluence that industry 4.0 has on the industrial sector has been projected to the topic ofengineering education. Sakhapov et al, state that industry 4.0 has already started due to industrialchanges in IoT, integration of cyber physical systems (CPS) in manufacturing processes andapplication of neural networks. For
].With these features, MR technology aims to solve VR-related issues, like image quality, real-time fidelity, motion sickness, etc., while maintaining the required level of immersive experienceand interaction, increasing its usage in many applications. Thus, many researchers have started toemploy MR technology in manufacturing education [50], [51]. The work presented in [51]proposes integrating VR and AR by combining a virtual assembly environment with an ARapplication. However, the adopted approach utilizes a hybrid tracking system to synchronizevirtual and real hands, lacking the advanced holographic features of MR technology. Althoughthe MR system integrates AR and VR using webcams, gloves, and display monitors, it does notleverage state-of
geometric shapes,multi-material, and multi-functional parts can be additively manufactured in a single operationwhich is a significant advantage over conventional manufacturing processes. Over the past twodecades, the intensive research carried out on AM technologies has yielded tremendous progressin the development and commercialization of new and innovative AM processes, such as FusedDeposition Modeling (FDM), selective laser sintering, and other rapid prototyping methods, aswell as numerous practical applications in aerospace, automotive, biomedical, civil, energy andother industries [1]. Many manufacturing industries have realized the benefits of AM technologyand started utilizing it as an integral part of their processes [2]–[4]. Some
novel topics such as AI and IoT related to AM. Second, manyunderserved students are not aware of the opportunities, benefits, and job security related to theAM field. Providing underserved students with access to relevant resources and activities maybenefit them in fostering awareness of AM jobs and developing career interests in pursuing an AMcareer at their early ages.MethodologyNeeds assessmentTo identify the specific gap in what needs to be taught and what has been taught in the currentmanufacturing curriculum, our team reviewed the curriculum for the cluster of manufacturing inlocal schools and school districts, Project Lead the Way (PLTW) courses on manufacturing (e.g.,Principles of Engineering for Grades 11-12, Digital Electronics for
Expectations Based on the SME Four Pillars of ManufacturingKnowledge. In 2013 ASEE Annual Conference & Exposition (pp. 23-1120).[9] Nutter, P., & Jack, H. (2013, June). An application of the SME four pillars ofmanufacturing knowledge. In 2013 ASEE Annual Conference & Exposition (pp. 23-149).[10] Mott, R. L., & Jack, H. (2013, June). The Four Pillars of Manufacturing KnowledgeModel–Illustrations of Mapping Curricula into the Model. In 2013 ASEE AnnualConference & Exposition (pp. 23-1202).[11] Mott, R, Bennett, R, Gartenlaub, M, Danielson, S, Stratton, M, Jack, H, Kraebber, H,& Waldrop, P. "Integration of Manufacturing into Mechanical Engineering Curricula."Proceedings of the ASME 2013 International Mechanical Engineering