Paper ID #43669Assessing LEED Credit Weighting: A Dual Perspective on Sustainable Constructionand Educational ImplicationsDr. Mohsen Goodarzi, Ball State University Dr. Mohsen Goodarzi is an assistant professor of construction Management at Ball State University. He received his Ph.D. in Construction Management from Michigan State University in 2021. His research focuses on green building, sustainable built environment, life cycle costing, and construction education.Dr. Mohsen Garshasby, Mississippi State University Mohsen Garshasby is an Assistant Professor in the Department of Building Construction Science at
1 The Cri�cal Role of Faculty in Neurodivergent Engineering Student Success and Mental Health: A Conceptual ApproachIntroduc�onThe purpose of this conceptual paper is to help faculty in engineering educa�on to become neuro-inclusive allies to neurodivergent engineering students who have cogni�ve differences like au�sm,ADHD, dyslexia, etc. An interdisciplinary conceptual theory synthesis (Jaakkola, 2020) is used, whichdraws on par�cipatory neurodivergent-led and voiced research literature from across higher educa�onand engineering educa�on. The goal is to untangle faculty assump�ons about
Engineering from Beihang University, Beijing, China, in 2006 and his M.S. and Ph.D. in electrical and computer engineering from the Ohio State University, Columbus, OH, in 2007 and 2010, respectively. He worked as an analog IC designer at Texas Instruments, Dallas, between 2011 and 2012. He was a Member of Technical Staff, IC Design at Maxim Integrated, San Diego, CA, between 2012 and 2016, and a Staff Engineer at Qualcomm, Tempe, AZ, between 2016 and 2019. In 2019, he joined the School of Electrical and Computer Engineering at Oklahoma State University, where he is currently an assistant professor and Jack H. Graham Endowed Fellow of Engineering. His research interests include power management IC design, hardware security
integration (e.g., James MadisonUniversity) or an environmental or sustainability-focused track (e.g., Olin, Baylor, Arizona StateUniversity, University of San Diego, Lafayette, Grand Valley State). In addition, there is asustainable engineering concentration within civil engineering at Arizona State University and arenewable energy engineering degree offered at the Oregon Institute of Technology [24]. The airpollution and energy aspects of environmental engineering are often integrated into mechanicalengineering. Some mechanical engineering programs offer concentrations or certificates inenergy and sustainability or the environment, such as Boston University, NorthwesternUniversity, Arizona State University, and the University of Michigan
participants were the 2022 graduates, accounting for 34% of the total participants. ● Instructors Group (IG): consists of six members, four males and two females, each with specific roles and expertise in technical and administrative aspects of the course.ContextOur university's Construction Engineering (CE) program spans ten semesters and currentlyhas 190 students, with a 10% female participation. An essential curriculum component is the“Final Construction Engineering Portfolio Course” integrative course offered in the tenthsemester. Per the university decree regulating the program, the title portfolio coursecontributes to the two disciplinary areas of realization composed of the learning outcomes(LO), see Figure 1
and discussions on how toassist and teach the workshops, including a review of best practice pedagogy [2]. The workshopfosters a community of practice among educators, promoting collaboration and continuousimprovement in STEAM education. Teachers were surveyed 6 and 12 months post-workshop toreport on the implementation and use of AIR lessons and curriculum in their classrooms. Over85% of participating teachers reported using AIR materials to some extent in their classroom,with 45% reporting the use of 50% or more of the provided AIR materials. One educator utilizedthe provided curriculum and robotics kit to successfully apply for an in-kind grant, enabling herto purchase enough robotics kits for a full class.The AIR Teacher Workshop
implement incourses for student learning. For the first approach, there is a Center for Excellence in Teachingand Learning at many universities that is a valuable resource for faculty to get assistance withdeveloping customized curricula [4]. However, not all universities have these centers. Moreover,the staff often lacks a background in STEM at these centers [4].The second approach involves of Kern Entrepreneurial Engineering Network (KEEN) (andEngineering Unleashed), which is a great resource for faculty to observe and learn to incorporateEML into courses and curriculum [1, 5]. However, recruitment and marketing are limited tonetwork schools, and a limited curriculum has an EML-based PBL with a digital communicationassessment. An example of the
prerequisite of English 1110, First Year Writing or equivalent. At the end of the semester, students submit textual conceptual reports, 3D graphical images, and physical projects which are manually made or 3D printed simulating an ancient device of their choice [6]. In his paper, A Non-Traditional and Multi-Disciplinary Approach to Teaching Mechanisms and More, the lead author, Sirinterlikci, described an Honors course he developed at Ohio Northern University [7]. It was intended to give students a cross-disciplinary learning experience while dealing with integration of art, engineering theory, and fabrication elements. The approach utilized various means of teaching mechanisms, consequently addressing various types of
approach tailored to CEM students. This approach aims to provide students with theopportunity to integrate and apply the knowledge they have accumulated throughout their collegeyears by simulating real-world situations commonly encountered in the construction industry.The authors have taken a systematic approach for the development of the scenario-based seniorcapstone course, following the Analyze, Design, Develop, Implement, and Evaluate (ADDIE)instructional design framework [4]. The main objective of this paper is to share insights gainedduring the course development process. In addition, the paper shares recommendations and bestpractices for creating an engaging and effective senior capstone course that prepares students forthe challenges of
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
passionate about making STEM and AI education relevant and accessible to learners of all ages.Jeffrey D Radloff, SUNY, Cortland Dr. Jeffrey Radloff is an Assistant Professor in the Childhood/Early Childhood Education Department at SUNY Cortland, where he teaches elementary science methods, STEM foundations, and critical media literacy courses. He has a background in biology and pre-college engineering education, and he received his Ph.D. in Curriculum and Instruction from Purdue University. Dr. Radloff’s interests are in understanding how to best support pre- and in-service teachers’ integration of interdisciplinary STEM instruction, as well as exploring related instructional variation across classrooms. His current work
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
students and AI and teaches them with adiverse skill set, enabling the customization and development of new products for variousindustries. By incorporating this open-ended problem-solving approach into the curriculum,educational programs, especially those in robotic engineering technology, can significantlyenhance student learning outcomes. Conceptual telerobotic system for remote maintenance of transmission lines Output: Display monitor with speakers Target images Audio signals Drone with an Target Location: integrated robot
with students to better understand how the seminar influenced theirperceptions and what other activities or experiences also contribute to those changes as well.References[1] S. Condoor, "Importance of teaching the history of technology," IEEE Frontiers in Education Conference, vol. 1, pp. T2G7-T2G-10, 2004.[2] K. C. D'Alessandro, M. K. Swenty and W. N. Collins, "Integrating History into Engineering Curriculum," American Society for Engineering Education - Southeast Section, pp. 1-7, 2014.[3] N. Dabbagh and D. A. Menascé, "Student perceptions of engineering entrepreneurship: An exploratory study," Journal of Engineering Education, vol. 95, no. 2, pp. 153-164, 2006.[4] M. Davis, "Defining “Engineer:" How To Do It and Why It Matters
Rui Liu, Behnam Ghalamchi Cal Poly, California Polytechnic State University, San Luis ObispoAbstractThis study presents an in-depth exploration of the implications of integrating digital twins intoengineering education. Drawing on an extensive review of published research papers, conferencepapers, and case studies, the research is structured into several key chapters focusing on thedefinition of digital twins (DT), their relationship with engineering education, their influence ondiversity and inclusion, and their alignment with ethical engineering principles. The studyculminates in proposing a novel approach to integrating digital twins into engineering education.We propose a new lab for the mechanical vibrations course
with the content and with integrating such tasks into theirclassroom, leading to more lasting implementation of engineering education [18], [23], [24], [25],[26]. Reimers et al. [27] also proposed that there are five elements necessary in effective PD topromote the integration of engineering across the curriculum: 1) a focus on engineering content,2) an emphasis on engineering pedagogical content knowledge, 3) a connection to how engineeringdesign incorporates the application of other content areas, 4) exposure to engineering curricula,and 5) alignment to local and national standards.Limited in the literature on effective K-12 engineering education PD is the incorporation ofculturally relevant pedagogy to situate engineering within local
defineepistemologies as “ways of knowing” [36], or individuals’ thoughts surrounding knowledge oracquiring and retaining knowledge. With this definition, we define hidden epistemologies as theunspoken, unacknowledged ways of knowing that guide engineering in educational spaces aswell as the field. Though this terminology may be less common in EER, hidden epistemologieshave been studied in this field as hidden curriculum [37]–[39].The term “hidden curriculum” was coined by Philip Jackson [40], and it has been operationalizedin EER to mean “the unwritten, unofficial, and often unintended lessons, values, andperspectives made by individuals and found in physical spaces within an academic environment”[39, pp. 2–3]. One way researchers have distinguished hidden
STEM education through research on curriculum development, teacher professional development, and student learning in integrated STEM environments. Dr. Alemdar currently serves as PI and co-PI for research on various NSF funded projects that focuses on engineering education, teacher networks and STEM learning environments. Her expertise includes program evaluation, social network analysis, mixed methods, and advanced quantitative methods. Dr. Alemdar is passionate advocate for equitable and inclusive STEM education. She actively engages with educators, students, and communities to promote the importance of STEM disciplines and education research in preparing the next generation for the challenges of the future. She
got their hands on a physical circuit was in a subsequent course, ECEN 2270:Electronics Design Lab (EDL), in which students build an autonomous car that navigates a routedefined by a line on the floor. While ECEN 2270 is a hands-on laboratory course, the exercises areall directed toward building a product, not exploring the fundamental principles of circuits.When we were asked to teach the ECEN 2250 course for the first time, we believed that it wasimportant to include a hands-on laboratory experience. However, we were constrained in not beingable to change the course from a 3 to a 4-credits, could not change the meeting pattern of three,50-minute sessions per week, and did not have physical laboratory space available for the 138students to
Mechanical Engineering, Biomechanics, Motion Analysis, Finite Element Analysis, Mechanical Medical Devices Design. Highly interested in Higher Education Curriculum Design, Academic Leadership, and teaching and classroom innovation. Courses taught: Intro to Engineering, Statics, Dynamics, Mechanics of Materials, Mechanical Vibrations, Intro to CAD (SolidWorks), Senior Design Project, Numerical Methods, Intro to Biomechanics.Dr. Luis U. Medina Uzcategui, Universidad Austral de Chile Dr. Medina, a Doctor in Engineering holder, currently serves as an academic at the University of Austral de Chile (UACh), specializing in instrumentation, measurement, and mechanical systems dynamics. He is also the coordinator of the Innovation
follow suit, thus creating a culture of respect and safety online.5. Pursue Knowledge: Remain committed to continually updating our knowledge and understanding of the ever-evolving cybersecurity landscape, ensuring that the information we share is current and accurate.6. Collaborative Spirit: Embrace the spirit of teamwork, recognizing that cybersecurity is a collective effort, and provide assistance, encouragement, and support to fellow ambassadors and community members alike.7. Act with Integrity: Confront digital ethics challenges with honesty and responsibility, not for personal gain but for the collective good, serving as a trustworthy guide in an evolving digital landscape.8. Uphold the Mission: Uphold the mission and vision of
potential funding is important incase one source of funding ends.K-12 Outreach Program ExamplesThis paper highlights six K-12 outreach programs that educate students about STEM disciplines.The outreach programs are facilitated by undergraduate programs at three higher educationinstitutions and one STEM related employer. Institutional context, an overview of each program,a description of the program’s curriculum and learning goals, program outcomes, and challengesencountered are discussed for each outreach program.Programs #1 and #2Institutional ContextElon University is a selective, mid-sized private university known for engaged undergraduateinstruction and experiential learning. The curriculum is grounded in the traditional liberal artsand
engineering decision curriculum look like? While another, more specificstudy should be done to determine the most effective way to educate civil engineering studentson biases and how to reduce them in professional practice, we can form an initial idea, basing thecurriculum on existing courses [7],[8],[9],[10]. Using these studies, primarily focused in themedical field, we can extrapolate a few key components of educational curriculum. The maincomponents we found in these studies were: curriculum that had students identify biases incertain case studies or clinical trials [8],[9], small group discussion [9],[10], and evaluation ofstudents ability to reduce bias post-curriculum. In these studies, researchers looked into thecurrent bias training 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
Research, School of Engineering, and Human Rights Institute to promote and advance interdisciplinary research in engineering with a clear focus on societal outcomes. Davis is working with several faculty on campus to develop research and curriculum at the intersection of human rights and engineering, such as the one discussed herein. Davis completed his Ph.D. in Transportation and Infrastructure Systems at Purdue University in West Lafayette, Indiana, in 2018. His research interests include transportation equity, human rights, environmental justice, and economic resilience. He grew up in Cusco, Per´u, where he obtained his B.S. in civil engineering at the University of San Antonio Abad of Cusco. He also earned an MSCE
design activities into the foundation of the curriculum. By focusing on a cornerstoneengineering course, we aim to create a more integrated and engaging learning experience throughdesign. We have transformed an existing introductory course by incorporating a series of small,medium, and large design activities and projects, grounded in product design pedagogy. Theseactivities are designed to make tangible connections between theoretical concepts and real-worldapplications, helping students see the context of mechanical engineering from the start. Throughthis approach, we hope to inspire and retain engineering students by making their first-yearexperience both practical and exciting, setting the stage for their continued success in the field.The
Paper ID #41385Work-In-Progress: Holistic, Multi-disciplinary Systems Approach to TeachingSustainable and Contextual Engineering Concepts for Undergraduate StudentsDr. Courtney Pfluger, Northeastern University Dr. Courtney Pfluger is an Associate Teaching Professor at Northeastern University. In 2011, began as an Assistant Teaching Professor in First-year Engineering Program where she redesigned the curriculum and developed courses with sustainability and clean water themes. In 2017, she moved to ChE Department where she has taught core courses and redesigned the Capstone design course with inclusion pedagogy practices
thesummer camp.BackgroundThe Imperative of Early STEM EngagementThe landscape of modern education increasingly emphasizes STEM (Science, Technology,Engineering, and Mathematics), reflecting its integral role in fostering innovation and addressingcontemporary challenges. However, a persistent issue within the engineering discipline is theinsufficient number of students, particularly from underrepresented groups, who express interestin pursuing engineering as both a college major and a career path [3]. This under-enrollmentphenomenon underscores the necessity of cultivating STEM interest at an early stage,particularly during K-12 education.Research underscores the pivotal role of middle school as a critical juncture where students'interests
University Dr. Morgan Hynes is an Assistant Professor in the School of Engineering Education at Purdue University and Director of the FACE Lab research group at Purdue. In his research, Hynes explores the use of engineering to integrate academic subjects in K-12 claDr. Kerrie A Douglas, Purdue University Dr. Douglas is an Associate Professor in the Purdue School of Engineering Education. Her research is focused on improving methods of assessment in engineering learning environments and supporting engineering students.Prof. Peter Bermel, Purdue University DR. PETER BERMEL is an assistant professor of Electrical and Computer Engineering at Purdue University. His research focuses on improving the performance of
Tech.Jan DeWaters, Clarkson University Dr. Jan DeWaters is an Associate Professor in the Institute for STEM Education with a joint appointment in the School of Engineering at Clarkson University, and teaches classes in both areas. Her research focuses on developing and assessing effective, inclusive teaching and learning in a variety of settings. An environmental engineer by training, Dr. DeWaters’ work typically integrates environmental topics such as energy and climate into STEM settings.Lucas Adams, Clarkson University Current Senior at Clarkson University in Potsdam, NY majoring in Applied Mathematics and Statistics ©American Society for Engineering Education, 2024