successful teaching strategy.It can be used in a virtual environment or regular college classroom settings. Active learningteaching approaches have been found to improve student learning, raise retention rates, and closethe achievement gap between various student populations in college science, technology,engineering, and mathematics (STEM) courses [4]. Beyond the subject of electrical engineering,active learning pedagogies have been applied extensively in industrial engineering [5-7].For STEM students, in particular, who learn best in courses with hands-on laboratories, aneffective online instructional practice uses a variety of active learning pedagogies as shown inFigure 1. There is a considerable level of discontent with online engineering
of LMA. Students explore the DMAIC model forquality improvement and become acquainted with vital Statistical Process Control tools, layingthe groundwork for understanding the significance of quality in product and processdevelopment. This foundational knowledge is crucial as it empowers students with the ability toinitiate quality enhancements—a skill of paramount importance in industries where productsafety and reliability are non-negotiable.2.2 Module 3: The Power of Lean and Six Sigma (Day 3-4)Lean Six Sigma methodologies are introduced, emphasizing their critical role in optimizingprocesses and reducing defects. Students learn to apply these principles in a laboratory setting,mirroring their relevance in real-world industries. Lean Six
. Specializing in capacity analysis, simulation, and Lean methodologies, he optimizes production workflows and drives cost reduction initiatives with a focus on operational excellence. With a keen interest in AI applications, particularly in aiding production, operations, and manufacturing engineering.Faith Lauren Sowell, The University of Texas at Arlington Faith Lauren Sowell is an Undergraduate Student of Computer Engineering at the University of Texas at Arlington. She is the Lead Virtual Reality Developer for the Human Factors Laboratory. Her research interests include virtual reality as a training and teaching aide, and transportation research. She is expected to graduate in the fall of 2024.Vibhav Nirmal, The
• Waste Vegetable Oil • Algae • Sugarcane • Non-Woody Biomass: Grasses • Soybeans • Non-Woody Biomass: Municipal • Jatropha and other seed crops Solid WasteFor each example, we review regions suitable for cultivation, advantages, and disadvantages.The objective is that students learn about the benefits of biofuels and understand why, despitethese benefits, they have not been successful in replacing conventional fuels.We also include a laboratory activity on Greenhouse Gas Regulated Emissions and Energy Usein Transportation (GREET). This lab aims to train students to evaluate the energy and emissionimpacts of advanced and new transportation fuels and evaluate different vehicles and
laboratory increased due to the need for change invarious aspects of teaching and learning. This enabled a greater engagement of the academiccommunity with the Teaching and Learning Center, enabling other departments to understandthe relevance of the center. In addition to providing consultancy, advice, and holdingworkshops, the center uses scientific methodology to prove that the methods work. In thisway, in addition to supporting the university community, they generate scientific knowledge.This developed knowledge is essential to convey confidence. For instance, research only withindustrial engineering and operations management students could be conducted by this centerto generate insights that can improve the teaching and learning for this
disciplines has summoned researchersand educators to adopt interactive teaching techniques for reinforcing students’ spatial skills.Educators across different engineering fields have been exploring digital technologies, fromweb-based to immersive applications, to serve as spatial learning platforms, keeping pace withrapid technological advancements in education [16], [17].2.1 Web-Based Applications for Improving Spatial VisualizationSome researchers have been developing and incorporating digital interactive web-basedapplications into engineering laboratories to reinforce the students’ spatial abilities. For instance,a group of researchers developed an Interactive Learning Management System (ILMS) to beemployed as a web-based launch assistant learning
improvementrate, nor to generate a deep impact into organization’ KPIs [2]. Therefore, it is crucial forengineering students to get involved in the complexities of interacting with people whenimplanting Lean, to correctly develop their skills in continuous improvement.However, a common limitation for students that are learning Lean Manufacturing is the lack ofexposure to real situations in which Lean is being implemented, such as practices in laboratories,participation in real-world experiences or access to available processes, where implementing leantools and measuring the impact on KPI’s is taking place [3].Attending this urgent need of students to participate in real life process, in Tecnologico deMonterrey, we have designed a course named “Design of
Research Laboratory (NRL) in Wash- ington, DC working with Jake Fontana on tunable subnanometer gap plasmonic metasurfaces as part of the Office of Naval Research Summer Faculty Research Program. At the NRL he worked in the Center for Biomolecular Science and Engineering, which is a division of the Materials Directorate at the NRL. His experience also includes working for Intel Corporation both in Hillsboro, OR and Santa Clara, CA; and he worked at the Berliner Elektronenspeicherring-Gesellschaft f¨ur Synchrotronstrahlung m.b.H. (BESSY - Berlin electron storage ring company for synchrotron radiation) in Berlin, Germany, researching ultra thick high-aspect-ratio microfabrication. His research focuses on experimental nano
, inquiry-driven techniques that promote curiosity and involvestudents as active participants in the learning process have been advocated in recent times [8],[9], [10], [11].Experiment-centric pedagogy (ECP), which combines traditional coursework with flexible, non-complex, hands-on activities and experiments, is one pedagogical strategy that induces aparadigm shift in learning whether in classrooms or laboratories, as well as educationaloutcomes. [12] define ECP as a practical, learner-centered teaching approach that uses affordableand portable devices to demonstrate STEM concepts. By giving learners’ the chance to engagedirectly with engineering phenomena, build knowledge via first-hand experience, and connecttheory to practice, these immersive
teaching manufacturing systems, engineering systems anddesign, engineering management, health care systems, and lean six-sigma process improvement;all subjects in which students need to gain an understanding of complex systems.Many teaching simulations are implemented physically, as laboratory or table-top systems. Thesesimulations have the advantage of being direct (if often simplified and miniaturized) models ofthe systems in question, allowing tactile learning from manipulating the simulation elements, andfostering face-to-face teamwork by the participating students. The idea of implementing suchsimulations in virtual environments seems promising. Theoretically, these implementationsshould be cheap, easy to implement, and universally available
following sections.The challenge is solved by teams formed of 4 students; from now on, the teams will becalled Kaizen-teams, Kaizen is a Japanese word referring to continuous improvement. The Figure 1: Kaizen i-Semester Modelcourses in the Kaizen i-Semester are Systems Engineering Laboratory, Analysis and En-hancement of Manufacturing Systems, Facilities Design and Material Management, In-ventory Management, Production Management, Ethics and Citizenship, and OperationalDesign and Optimization Laboratory.The essence of the Kaizen i-Semester is the challenge, composed of ten steps divided intofour stages as shown in Figure 2. Highlighting students’ feedback in each stage is essentialto guide them toward better performance
(knowledge, skills, and attitudes), wasa challenge for most professors whose courses were primarily focused on evaluating contentor knowledge through summative assessment techniques. In such cases, it was crucial toinvolve the coordination of the engineering program and the PMG program to engageprofessors and assist in developing these rubrics through workshops. The training provided by the MECEK laboratory on competence-based education inengineering courses and the experiences facilitated by the PMG program, in partnership withexperts from North American universities, were crucial in understanding tools and methodsfor competency evaluation, their application in the Brazilian context, and organizingworkshops conducted by the EWG to create rubrics
Education. Dr. Pennathur’s research interests are in human factors engineering and engineering education. In particular, he has conducted research on functional limitations in activities of daily living in older adults. The National Institutes of Health, and the Paso del Norte Health Foundation have funded his research on older adults. The US Army Research Laboratory has funded Dr. Pennathur’s research on workload assessment. Dr. Pennathur has also been recently awarded two grants from the National Science Foundation in Engineering Education. In one of the grants, he is modeling how engineering faculty plan for their instruction. In a second grant, he is developing a model for institutional transformation in engineering
expensive physical experimentation ofdifferent options, such as running laboratory experiments to study the effect of different chemicalcompounds or growing different varieties of crops in an agricultural setting. With the advent ofcomputers, many systems can be modeled computationally based on existing foundationalknowledge. Although some computer models are still considered computationally time-consuming, they can explore different options in settings that would not be possible in physicalexperiments. Examples include photochemical air quality simulations and vehicle crashsimulations. In the case of building design, there are existing computer models to help designersstudy the impact of their design without having to physically build it. For our