mantra was “a fair day’s pay for a fair day’s work” 3.This paper presents, how I taught the real-life applications of time and motion studies using thetextbook as a theoretical platform. There are various aspects of the teaching methodology thatcome from my work experiences. I had myself taken this course in this department in 2006 as apart of my MSET degree. It helped lay the foundation for me to understand the fundamentals ofProduction planning and Workspace design that revolved around the Human element. While itmay seem that, this field of applied science is very practical and mathematical, it has the humaneffort aspect which makes it particularly challenging. I realized this in my very first job. Mymanagement would push for increased
determined either by previous data or bydefining an estimate. This real-time implemented system will enable the evaluation of energyefficiency of components and systems, depending on the number of active sensors and actuators.References[1] “How regenerative hydraulic circuit works - PART 3.” YouTube, Chinmayacademy, 2November 2016, https://www.youtube.com/watch?v=1KGVBwYEhIA.[2] Cullen, Jonathan M., and Julian M. Allwood. “Theoretical efficiency limits for energyconversion devices.” Energy 35.5 (2010): 2059-2069.[3] Parasiliti, Francesco, and Paolo Bertoldi, eds. Energy efficiency in motor driven systems.Springer Science & Business Media, 2012.[4] Vogelesang, Hans. “Energy consumption in pumps–friction losses.” World Pumps 2008.499(2008): 20-24
Ridge,TN (2012).[8] Choudhury, Alamgir A., and Jorge Rodriguez. "A Modular System for Energy EfficiencyStudy of Hydraulic Applications." 2016 ASEE Annual Conference & Exposition. 2016.[9] James, A. Sullivan. “Fluid power theory and applications.” (1998).[10] Hitchcox, Alan. “Hydraulic Fluid Helps Improve System Efficiency.” Hydraulics andPneumatics 62.7 (2009): 14. Web.[11] Wu, Wei, et al. “Investigation of energy efficient hydraulic hybrid propulsion system forautomobiles.” Energy 73 (2014): 497-505.[12] Mikota, Josef. “A novel, compact pulsation compensator to reduce pressure pulsations inhydraulic systems.” World Scientific 45 (2001): 69-78.[13] Rydberg, Karl-Erik. “Hydraulic accumulators as key components in energy efficient
thru a Virtual Reality Engineering Training ApplicationKeywords: engineering application, computer science, virtual reality, human technologyinteractionAbstractAt San Francisco State University, a primarily undergraduate institution and Hispanic servinginstitute, efforts are underway to explore the efficacy of teaching human-technology interactionsthrough a real application of virtual reality. Virtual reality is an emerging technology in theeducation field with immense capabilities to transcend beyond time and space boundaries. TheVirtual Reality Engineering program at SFSU brings together structural engineering andcomputer science colleagues to develop a virtual reality platform for engineering professionalsand students
reference document forstakeholders, ensuring transparency and accountability. Finally, it enables the project team toreflect on their work, identify areas for improvement, and apply lessons learned to future projects.Research Background:Tribology is the science and engineering of interacting surfaces in relative motion.Tribometer or tribotester is a generic name for a device which is used to simulate frictionand wear at the interface between contact surfaces in relative motion under controlled conditions.The earliest reference provided by the dictionary is to the 1774 writings of Goldsmith, whoused the word tribometer to mean a “measurer of friction.”The purpose of tribometers is to simulate real world frictional and wear applications
elements include: • Purpose: Real-world projects often have a clear and meaningful purpose, such as solving a real- world problem or creating something new and useful. • Integration of academic skills: Students apply and connect knowledge and skills from various subjects to address the project's challenges. • Application of critical thinking and problem-solving skills: Students learn to analyze information, synthesize ideas, and address complex problems. • Reflection and evaluation: Students have opportunities to reflect on their learning journey, the impact of their project, and what they could do differently next time.Overall, working on real-world projects can be a highly motivating experience that can
educationalopportunities. © American Society for Engineering Education, 2023 2023 ASEE Annual ConferenceIntroductionEngineering education is an essential discipline that endeavors to create a learning environmentcapable of developing engineering skill sets, like problem-solving, logical thinking, etc., [1]. Itenables the development of students’ engineering skills providing real-world applicability totheoretical engineering concepts. Despite the significant role of engineering in preparing studentsfor their future careers, educators have faced multiple challenges because of technologicaladvancements and societal developments [2]. Such challenges are related to being out-paced bynew advances of new
Paper ID #41206Practical Learning in Microcontroller Courses Using Novel MISL-ASE EmbeddedSystem Development BoardsDr. Gang Sun, Northern Kentucky University Dr. Gang Sun is currently an associate professor of Engineering Technology programs at Northern Kentucky University. His primary teaching areas are digital & analog electronics, embedded systems design, programming for engineering applications, industrial automation, control, and Capstone design. Research interests include designing mechatronic/electronic systems that integrate embedded systems, programmable logic controllers, machine vision, real-time operation
master program in mechatronics. Students work in groupsin a creative setting, where they learn to integrate various automation technologies and learn towrite scientific publications. The project implements the automation of a student dining halldishwashing system using the Hardware-in-the-Loop HiL method. HiL is a powerful way tomitigate risks or accidents in a real-world scenario, leading to costly damages. For testing, wehave used the Factory IO simulation software. It provides a realistic simulation environment forvirtual plants with low real-time latency. An Allen-Bradley CompactLogix controller providedcontrol of the simulated environment through communication over Ethernet/IP protocol. Systemcontrol was established through PLC ladder logic
Blackboard platform topost lectures, course materials, instructional aids, and facilitate assignment submissions. Duringthe spring and fall 2022 semesters, 21 and 22 students were enrolled.The course focuses on applications fluid dynamics, including series and branching pipelinesystems, pump selection and flow measurement, drag and lift, and the flow of air through ductsystems. Laboratory exercises consist of either hands-on experience in the Fluid MechanicsLaboratory, or computer simulations using the Tahoe Design’s HydroFlo Academic software; allsimulations can be performed in the ET Department’s computer labs or remotely using VirtualLab (VLab).To increase the students’ interest in the topics and their ability to make connections with real-world
amounts of data in real-time.Microcontrollers provide a practical solution for computational performance with low powerconsumption [12]. The computer that is discussed in this paper is a development boarddeveloped by a group of engineers in Italy called Arduino, which is like that of a microcontroller,but contains much more features to make it beginner friendly. As stated by their designers,Arduino designs manufactures, and supports electronic devices and software, allowing peopleworldwide to easily access advanced technologies that interact with the physical world. TheArduino is a programmable board that consists of a microcontroller, as discussed previously,along with analog and digital inputs and outputs (I/O) [13]. An example Arduino board is
most essentialcomponent that brings their companies into the real time digital world. These applications helpcompanies become experts in tracking performance, organization, and sustainability. It helpscompanies assess their weakest areas and helps to optimize environmental performance. Inconclusion, when implemented correctly, the use of Advance analysis reports can help cutdown on emissions used, optimize efficiency and help companies obtain a cleaner carbonfootprint in general.9.) Student 9 – Machine Health Moves Toward an Integrated FutureMachinery Health Moves Toward an Integrated Future (isa.org)The article discusses the importance of “Integrating data from a variety of devices using ashared technology architecture”. Industry plants are
processes and integral, discrete, and shrink/expansion fastener systems. 45% 70%ConclusionsThis project-based instructional approach corresponds to XXXXX University’soverarching goals for its undergraduate programs for engineering technology students.The knowledge and experience gained through student completion of various teamprojects during their freshmen through junior academic years is expected to form a strongfoundation for the senior capstone project (an implicit goal of most courses within theengineering curricula). At the capstone level, students undertake an often unstructured,broadly-defined, real-world problem. Many of these capstone projects entail solvingmanufacturing process issues for production
., lifting, digging, propulsion) to transportation (e.g., braking and powersteering systems) and energy generation (e.g., hydraulic turbines in hydropower plants), fluidpower applications are gradually expanding since the industrial revolution [1]. With approximately90% of professionals in the field of fluid power working on operating machinery [2], practicalhands-on experience in engineering technology education is instrumental in establishing aconnection with real-world scenarios and equipping the future workforce with strong engineeringfoundations.Yet, despite the prominence of fluid power applications, a limited number of colleges anduniversities across the U.S. offer fluid power courses or research [3] – hence, the importance ofdeveloping
RotationAll MP cohorts will receive a resume workshop for professional development at the end of themodules. Furthermore, the ExLENT program will host hybrid seminars throughout the MEP andMP to provide information about opportunities and experiences in Mechatronics. At the end ofthe proposed MP, cohorts will conduct a Mechatronics Industry Pathways Rotation (MIPR).ExLENT participants will be placed within the Industry Cluster that aligns with their regionaleconomic interests.The MIPR will allow cohorts to view real-world applications of the mechatronics content theylearned throughout the MCEP and MP through an industrial facility visit. Each visit will includetwo four-hour visits with industrial partners, a four-hour visit with a local
need to connect outreach topicsto real-world experiences to spark interest and engagement among participants. Inconclusion, the literature reviewed underscored the diverse objectives and methodologiesemployed in designing and implementing outreach activities across various fields. Byincorporating innovative approaches, fostering collaborations, and aligning activities withthe interests of target audiences, outreach initiatives can effectively promote learning,engagement, and knowledge dissemination within communities.Description of the ActivitiesThe authors selected four topics at the intersection of engineering, engineeringtechnology, and manufacturing and put them in the I4.0 settings. The selected topics arethe following: 1. Computer
within the undergraduate curriculum, thereby offering both relevantprofessional context and an experience curated specifically for manufacturing engineeringundergraduates. The following research question was used to guide this study: • What are the student perceptions of participating in the creation of an entrepreneurially- minded manufacturing podcast with a focus on digital distribution to a non-technical audience?2. Background2.1 Entrepreneurially Minded Learning (EML) Entrepreneurially Minded Learning (EML) is a pedagogical approach emphasizingdiscovery, opportunity identification, and exploitation to create value [5]. Engineering education,in particular, is often seeking to create “real-world” experiences and to
courses with students having the option to delve deeper into theconcepts in stand-alone courses. Students also need to be aware of connections between differentaspects of their courses and potential real-world applications. Burian (2011) briefly introducedsustainability concepts in lower-level courses and provided modules and projects to teachstudents in higher-level courses. A variety of pedagogical approaches are suitable for achievingsustainability-related learning outcomes at various levels of the Blooms taxonomy (Bielefeldt,2013).Engineering for One Planet (EOP) framework in the curriculumEngineers play a critical role in achieving global sustainability goals. The EOP framework is animplementation tool designed to transform engineering
theinformation gathering section and ends with result documentation in the result analysis anddocumentation section. According to [12], this framework has been used by other researchers buta further research work was done to develop a proposed framework for soft skill application inlinear programming using PBL activity sequence. The author stated that, the PBL activitysequence proposes a feedback loop that allows the students to learn as they work using a setmetric and rubric to assess each work stage. LP integration with PBL is grounded in the desire toafford students with authentic and real-world solving experiences that helps to bridge traditionalpractice knowledge providing a systematic approach for modeling and solving decision makingproblems [12
the judicious use of AI, they can enhance their criticalthinking skills and apply them effectively to analyze and evaluate AI-generated content.It is well-established that active learning enhances students' experiences and facilitates a deeperunderstanding of complex concepts [14]. Encouraging students to explore and actively utilize AItools, such as AI-assisted simulation tools, LLMs, etc., in their coursework can broaden theircomprehension of electrical engineering principles and their applications in real-world scenarios.In addition to educating students on the judicious use of AI, it is essential to help them develop adiscerning mindset. This requires encouraging the evaluation and validation of AI-generatedcontent. Understanding the
. However, this alternative leaves lab experience limitedto the use of a simulator. Given that an Engineering Technology graduate should have accruedsubstantial hands-on experience, the skills obtained from a simulator are no substitute for thoseobtained with real-world hands-on experiments. To mitigate this experience deficiency in EET3085L, we propose an approach to allow online students to complete the same experiments in away that is equivalent to those done by in-lab students.In this paper, we examine the adoption of alternatives to enable online students to complete theset of labs programmed for EET 3085 at home under realistic conditions and propose guidelinesto achieve this goal. We consider the adoption of lab kits and a module that
learn to work as part of a team, making decisions about design, materials, andmanufacturing processes. The students apply technical skills to practical scenarios, refining theirengineering expertise in a real-world context, making connections with local communities orindustries, and making them well-prepared and highly competitive in the workforce [1 - 7].Design projects offer students a great opportunity to bridge the gap between classroomknowledge and real-world applications, enhancing their academic experience and preparing themfor the workforce. From the faculty perspective, support ABET assessment [6, 8]Furthermore, capstone projects offer the opportunity to drive advancements in the improvement,design, or refurbishment of laboratory
range of careers in STEM fields such as engineering, computer science, medicine, andenvironmental science. Moreover, STEM education cultivates a mindset of curiosity and inquiry,encouraging students to explore the world around them and seek solutions to real-world challenges[2]. As technology continues to advance rapidly, individuals with STEM expertise are well-positioned to contribute to advancements that benefit society, from addressing environmentalissues to developing groundbreaking technologies. By promoting STEM education, futuregenerations are empowered to be active participants in the global knowledge economy, drivingprogress and ensuring a sustainable and prosperous future. Developing countries that adopt STEMeducation in their K-12
the students are to acquire through these courses, after eachtopic in the courses, a practical lab test will be given with a set of topic-related measurementtasks and questions to verify the understanding of the measurement results. The measurementtasks are compiled based on surveys of the most common RF measurements routinely performedby RF engineers. This will ensure that the assessments are in line with the practical instructionapproach and that the students are prepared for the real-world applications of what they havelearned. The assessment flow is illustrated in Figure 6. Figure 6: Assessment for RF Course 1 and 2For RF Course 3, the senior capstone must be assessed in terms of achievement in
[13]. The study included exercises in fluid properties,pipe flow, and airfoil by providing a step-by-step process for experiments and data analysis.Learning objectives included data collection, experimental techniques, design optimization,model validation, and communication skills. Stern reported the importance of integrated CFDand EFD labs, which provided a better understanding, and prepared students for real-worldengineering applications. The research outcomes were supported by positive student feedbackand effectiveness in learning outcomes.Becker [14] proposed a framework to minimize the disconnect between the intensive workinvolved in generating CFD results and the interpretation of the results. An automatic processwas used to analyze
greater process can make the concept less isolated,leading to a faster grasp of the notion in the context of a real-world application [11]. The SMSCPLevel 2 tier featured a suggested curriculum consisting of approximately 10 courses that could beapplied to an AAS degree program, and the 1000-level courses of the curriculum could also beused with a certificate program (SMSCP Level 1 tier) [4]. These 10 courses had variedMechatronics topics, including industrial automation, electric motors/electrical systems, fluidsystems, mechanical systems, and manufacturing processes [4]. The state governing agency forthe community colleges and applied technology institutions where the authors' home institutionis located adopted this curriculum in its
are not explainedby a single theory [1, 8]. One solution that may help resolve these concerns about computernetwork education would be the use of computer network simulations [9]. Computer networksimulation is the imitation of real-world network communication scenarios using the software.The purpose of this simulation software is to reflect the quality of a given network designthrough the analysis of the performance of the simulation [7, 10]. Since computer networksimulation is a tool that is used regularly in the professional setting of network design andresearch, it would make sense that it would also be useful for educational purposes [9]. Thispaper aims to introduce the integration of OMNeT++, a network simulation environment
identifyand solve myriad technical challenges in designing, testing, and manufacturing. The competitionalso presents realistic business issues to students as they deal with project funding, timemanagement, and team dynamics. Regional competitions are hosted by colleges across thecountry and participation is based on successful applications that include documentation of thevehicle’s design and performance.The MATE ROV Competition challenges students to apply math, electronics, engineering, andphysics toward solving problems based on real-world workplace scenarios. Two of the fivecompetition levels (Pioneer and Explorer) are intended for community college andcollege/university students and require students to design and build vehicles to complete
theories in the lab [33]. Theyview their learning environment as crucial to their education and professional development [34].Here are some common perspectives they might have:Practical Application. Engineering technology programs are known for their emphasis on thepractical application of concepts learned. Engineering technology students are typicallymotivated by the unknowns of proving and testing theoretical knowledge in well-equipped labs.Their experiences ranges from routine lab assignments to real-world applications in industrysettings.Relevance to Industry. Students enrolled in engineering technology programs often perceivetheir learning environment as being closely connected to industry needs and practices. Theyvalue the fact that the
Photovoice with Entrepreneurial Design Projects as a High Impact Practice in Engineering Technology EducationIn the recent years, interdisciplinary research has become a necessary tool for successfullyfinding solutions to real-world problems. Yet, in the undergraduate engineering technologycurriculum interdisciplinary projects is extremely limited (if used at all), particularly in non-capstone project courses. In this study we present findings and lessons learned from aninterdisciplinary research project that integrates entrepreneurial mindset, bio-inspired design, andart into in an engineering technology classroom in the sophomore-year of the post-secondaryengineering technology education. Engineering