laboratory in undergraduate engineering education,” Journal ofEngineering Education, vol. 94, no. 1, pp. 121–130, 2005.3. E.D. Lindsay and M.C. Good, “Effects of Laboratory Access Modes upon Learning Outcomes,” IEEE Trans.Education, vol. 48, no. 4, pp. 619-631, Nov. 2005.4. V. J. Harward, J. A. del Alamo, S. R. Lerman P. H. Bailey, J. Carpenter, et. al., "The iLab Shared Architecture:A Web Services Infrastructure to Build Communities of Internet Accessible Laboratories," Proceedings of theIEEE , vol.96, no.6, pp.931-950, June 2008.5. P. Orduña, “Transitive and Scalable Federation Model for Remote Laboratories,” Doctoral Thesis, Univertityof Deusto, Bilbao, Spain, Apr. 2013. [Online]. Available:http://morelab.deusto.es/media/publications/theses/pablo
recently adopted by ASCE, and four changes that arecurrently in process or being considered in engineering licensure in the US that will impact thelicensure of civil engineers in the future: discipline-specific licensure; separate licensurerequirements for structural engineers; master’s or equivalent as a requirement for licensure in thefuture and consideration of alternate pathways to licensure; and licensure comity amongjurisdictions with respect to continuing professional development requirements. Since the CivilEngineering Program Criteria of the EAC/ABET’s Criteria for Accrediting EngineeringPrograms (1) requires that the “curriculum must prepare graduates . . . to explain the importanceof professional licensure,” it is important that civil
instrument tobe produced more quickly, cheaply, and consistently.Design and Prototyping of Electronic FortepianoThe key mechanism in a fortepiano is quite complex (see Figure 1). The key action can bebroken down into several steps2. As the key is initially pressed there is a small amount of freeplay before the beak leather engages the pawl. As the key is further depressed, the hammer armis accelerated by the force exerted by the beak on the pawl. As the hammer is accelerating, thedamper is engaged and raised off the string. The next step is where the hammer is just below thestring and the beak leather disengages from the pawl, and momentum flings the hammer into thestring. The beak catches the front face of the pawl and the hammer is held against
. Many educational institutions report to the Ministry ofEducation and Training, but some are governed by the Ministry of Industry and Trade.Correspondingly, the engineering institutes and colleges that the Russian research universitycooperates with are supervised by these government bodies. Besides being in charge ofengineering education in the country, the Ministry is responsible for the regulation,promotion, management, and growth of industry and trade. In this way, the engineeringinstitutions are directly connected with industry from both sides – in Russia and in Vietnam.Moreover, Russian engineering programs are most popular among Asian students, asdemonstrated by the data in Table 1 5. Therefore, Vietnam represents the one of the
activity. This created anenvironment in which it was assumed that students would empathize with their target userpopulation (as in Campbell, Yasuhara, and Wilson7,24) in order to develop a solution that wouldbe appropriate and beneficial to the end user.We specifically focus on the following research questions: 1. What are the instructional strategies used to foster the development of empathy in a transdisciplinary technology education design studio? 2. Did students evidence empathic development as a result of these strategies?MethodOur data collection included artifacts from the project development process, includingwhiteboard sketches, deliverables, and the final project from each team. In addition, we capturedclassroom interactions
Steffi Renninger Department of Psychology The George Washington University Ekundayo Shittu Department of Engineering Systems and Management Engineering The George Washington UniversityIntroduction From microscopy to materials synthesis, the demand for expertise in nanotechnology isnot only growing, but it also spans multiple disciplines and encompasses a variety of careers.1The requisite education and training typically occur at the graduate level which limitsundergraduates’ access to cutting-edge jobs and many companies’ workforce options.2Meaningful nanotechnology undergraduate education is difficult to achieve because: (1
greatest effect on participants perceived learning andconnectedness to their cohort community and the broader organization.IntroductionBackgroundRecognizing that supervisors are instrumental in shaping organizational climate and moredirectly the employee experience, an organizational development team at a military researchinstitution committed to the design and delivery of programming that would grow oursupervisors into people focused managers [1]. Traditionally, supervisor training is focused oncompetency and skill development, both critical to success on the job, but this content is oftendelivered unidirectionally, in an asynchronous model, not allowing for group reflection,feedback, collaboration nor community building. This military research
to explore and develop newprofessional opportunities by equipping them with the necessary tools to identify problems,create solutions, and carry out projects with significant impact on their communities andindustrial sectors. Recent studies have shown that universities incorporating activemethodologies, such as project-based learning or design-based learning (DBL), fosteressential skills like critical thinking, problem-solving, and collaboration [1], [2]. Moreover,these strategies promote a direct connection between theory and practice, allowing students togain a deeper understanding of real-world challenges.On the other hand, universities' ability to enhance the quality of their training inentrepreneurship and innovation lies in their
of Asian LGBTQIA+students.By focusing on this group, my study aims to address the gaps in current literature andprovide new insights into how engineering education can become more inclusive.This research contributes to ongoing discussions about equity in engineering,advocating for more supportive environments that account for the needs of studentswith intersecting marginalized identities.Proposed Research DesignThis study examines how Asian LGBTQIA+ engineering students experience mentalhealth challenges and perceive support within their programs. As such, my researchquestions are as follows: 1. What kinds of mental health challenges and supports are Asian LGBTQIA+ Students in engineering programs experiencing? 2. How do Asian
interview. Students avoidedquestions of an unduly personal or confidential nature. Students were cautioned totread lightly on controversial subjects. Interviewees could pass on any of thequestions.Though not always possible to place precisely into categories, the questionsaddressed education, job expectations and perks, project challenges and successes,future directions, ethics, and general advice. Questions sometimes crossed theboundaries between categories. Likewise, the responses could swerve into multiplecategories, stream of consciousness style.The first seven questions common to all interviews, in most implementations of 10Q,were as follows. 1. Where do you work, how many years of experience do you have in this job, and what do you
testament to the transformative potential of education—notonly in shaping individual careers, but also in advancing industries and influencing society atlarge.References 1. Davenport, T. H., & Ronanki, R. (2018). Artificial intelligence for the real world. Harvard Business Review, 96(1), 108–116. This article discusses how businesses implement AI successfully and emphasizes managerial decision-making, similar to the focus of the course. 2. Raj, P., & Swami, S. N. (2020). Artificial intelligence and machine learning for business: A no-nonsense guide to data-driven technologies. Springer. This book provides a managerial perspective on AI technologies, making it relevant to your course’s emphasis on non-technical AI
fosteringinteractive, engaging educational environments. Funded by the National Science Foundation(NSF grant #1915520), this study aligns with NSF’s goal of strengthening the nation’s additivemanufacturing engineering workforce. It provides valuable insights into the integration of VR inengineering education, emphasizing the importance of VR systems and balanced instructionaldesign.Background and Motivation Recent technological advancements have made Virtual Reality (VR), particularly ComputerAutomatic Virtual Environment (CAVE) systems, increasingly accessible and effective aseducational tools, offering transformative potential for traditional teaching methods [1], [2], [3],[4]. These immersive systems address key challenges in engineering education
the participation of minority group members in an organization.1 Particularlywhen a majority group is highly dominant, these barriers pervade recruitment, retention,advancement, and overall climate; diversity suffers, and the overall effectiveness and health ofthe organization is diminished. Academia has a long history of dominance by men. This hasbeen and remains particularly true in engineering, an example where “inequality regimescontinue to be relatively resistant” to change.2There is a growing body of evidence that men and majority individuals can serve crucial roles tosupport the advancement of women within organizations.3-6 Online gender equity advocacyorganizations, such as Men Advocating Real Change (http://onthemarc.org/home) also
domain (e.g., FEA or CFD) or within a course onmathematical methods in engineering (e.g., using Matlab to solve differential equations). Thus,some assume that simulation can only be used late in the curriculum, after differential equations,computer programming, and engineering science courses. However, this paper cites numerousexamples of simulation being used earlier in the curriculum as a digital lab and in quantitativedesign exercises.Although there are few papers that discuss the general use of simulation in engineeringeducation, Whiteman and Nygren offer a rich overview of use of numerical software inengineering curriculum [1]; despite having written more than 20 years ago, they anticipated keypedagogical factors to consider. We summarize
appropriate use of AI. Wehave discussed these procedures and shared topics of mutual interest in passive conversation, soin some ways individual institutional policies were informed by decisions being made at theirsister institutions. Based upon these mutual interests, this paper is being assembled to compareand contrast directions being made and to share lessons learned and best practices with theengineering education community as a whole. Furthermore, institutions who are developing,revising and/or refining their AI policies may find the information contained within this article ofinterest.Artificial Intelligence (AI) is impacting daily life, especially within higher education. Facultyworry about the likelihood of student cheating [1] and have seen
coherent and complete content structure forthis study. Additionally, this paper adopts a case study approach, presenting thewell-established practices of certain universities in a concise yet comprehensive caseformat to help readers better understand specific aspects of practical implementation. Through the educational practices of these universities, this study aims tosummarize the practices and reforms related to the digital transformation ofengineering education in Chinese universities, identify common challenges, andpropose several policy recommendations. Figure 1 The framework of the paper2 Background of digital transformation of engineering education in China2.1 Digital economy Since the 1940s, the
. Prettyquickly, I started to see the discontinuitybetween me as a Mechanical Engineeringmajor and the rest of the team of CivilEngineering majors. Many of them were ina geotechnical engineering class and otherrelevant classes to prepare them for a sitevisit like this. Simply put, they often knewwhat was going on much more than Figure 1. Dynamic Cone Penetrometer Tests at the McCullough Gulchmyself. They used a Dynamic Cone Bridge SitePenetrometer to measure the “give” of soilas depth increased, seen performed in Figure 1. After recording these values, they collectedvarious samples of the soil for use in the lab and further testing. This data would be used todetermine if the soil could
descriptor (ESTP, ENFJ...) do you feel best describes the leader, and why? • What types of conflicts did they experience and how did they cope with them? • Based upon the leadership capabilities taught in the program how do they rank? • What sources of power appear to be the leader's default preferences? • What surprised you?2.2 Engineering Leadership PosterNext the students prepare hand-annotated posters (Figure 1 Engineering Leadership Poster) thatare displayed in the corridor and public spaces of the department for a week for view andcommentary by faculty, other students and the public. Page 26.503.3
and Electrical &Computer Engineering and Computer Science disciplines. Figure 1 shows an autopilot in thesimulation environment for testing the performance of the autopilot in the lab prior to flighttesting7. Students from Aerospace Engineering, Electrical & Computer Engineering, and Page 26.607.4Computer Science Departments have been working on this element of the project Simulator Autopilot CAN Bus UDP Radio Modem
multiple locations. However, due to steep embankments, approaching the river is challengingand has resulted in several ENGR 110 projects to facilitate this educational program.The first project with the GRPC focused on improving access to the river at a site where theriver’s bank had been reinforced with gabions in a tiered system with three levels. The gabions,which are large wire cage “boxes” filled with rocks, are shown in Figure 1. The height of thegabion tiers was difficult for small children to climb up and down and required adults tophysically lift children between the tiers to protect them from falling. The GRPC required asolution that would allow children to safely and quickly navigate the tiers.A team with one mechanical engineering
, the median average of American Indian andAlaskan Native people was 31 years compared to 37 for the overall U.S. population. Suicide isthe number one cause of death in the 15-24 year age group. Approximately 30% of AmericanIndian and Alaska Native children live in poverty as compared to an average of 16% nation-wide. There are 324 federally recognized American Indian reservations and 566 federallyrecognized tribes in the U.S. The Navajo Nation Reservation has the greatest number ofAmerican Indians with approximately 170,000 residents. iiNATIVE AMERICAN EDUCATION STATE OF AFFAIRS:Mr. Cedale Armstrong , co-author and resident on the Navajo reservation, says that, “When Idrive through towns in my homeland, there are three things that I see: 1
BioDesign Process inBiomedical Engineering [34] or the Agile Project Management Approach [35] in Electrical andComputing Engineering. Future research related to this study will include Faculty and studentperspectives on the nature of successful Capstone Projects, as well.References[1] H.F. Hoffman, The engineering capstone course: Fundamentals for students and instructors. NY: Springer, 2014. DOI 10.1007/978-3-319-05897-9[2] C.J. Mettler, Engineering design: A survival guide to Senior Capstone. NY: Springer, 2023. DOI 10.1007/978-3-031-23309-8[3] B. Nassersharif, Engineering capstone design. London: Taylor & Francis Group, 2022. DOI 10.1201/9781003108214.[4] Y. Ma and Y. Rong, Senior design projects in
with others about this. • Is this continuum helpful for conversations or interventions? • Are the categories described in a way that creates a defense (is that bad)? • Are these categories, steps, or orientations (I have used these interchangeably)? • Do I have the necessary disciplinary background to develop this (who should help me)? • How does this relate to engineering and engineering education? References [1] Fortney, B.S., Morrison, D., Rodriguez, A.J. Upadhvav, B. (2019) “Equity in science teacher education: towardan expanded definition” Cultural Studies of Science Education 14: 259. https://doi.org/10.1007/s11422-019-09943-w[2] Ridgeway, M. L., (2019) “Against the grain: science education researchers and social
building, the James B. Hunt Jr. Library. At this stage of the process,space- and service-model planning was initiated and in support of this work, various user studieswere undertaken. These studies, which were conducted up until the last months before thebuilding opened in January 2013, helped to answer planning questions, as well as build supportand awareness of the library among faculty and students.1 After the building opened, it quicklybecame apparent that assessment of the effectiveness of the new spaces and the service modelwas needed and as a result, more studies were initiated. The resulting body of five years ofresearch provides many practical insights into the needs and preferences of Hunt Library users.The Hunt Library is situated on
2019 Conference for Industry and Education Collaboration Copyright ©2019 American Society for Engineering Education Session ETD 345will be the industry’s future and advisory boards member’s involvement is essential in supportingthe programs, the students, about their profession. Advisory boards can support academic programaccountability by providing guidance and feedback and serving as partners in research andcommunity collaborationsReferences 1. Structural Design and Construction Engineering Technology advisory board minutes. 2. Function and Value of Advisory Boards for Academic Programs Types and Functions of Advisory
have been at maximumcapacity and assessment results show that the activities have been well received.Based on the first two years of activities, we have made the following observations:1. Students will make time to attend BSC events if there are hands-on opportunities to learn about STEM topics.2. Tech Fridays provide students an opportunity to build relationships with other students interested in STEM careers.3. The Robotics Programming Challenge and the STEM Challenge motivates our students to take on more challenging projects in computer hardware, robotics, and programming.4. Students have a chance to meet faculty and students from all campuses, and engage with industry partners during BSC events.5. Industry
teacher performance to student outcomes assessment logic model. Figure 1 (below) illustrates the links between teacher performance and student outcomes in the model. F gur Ass ss MThis logic model indicates how each of the program components relates to the intendedoutcome goals of the RET. Aligned with this logic model, five assessment metrics were used to measure the impact of the SRET/ACCESS 4 Teachers RET programs. Two impact measures were used for teachers and three impact measures were used for students. A description of each measure and associated results follow. Teacher assessments • Teacher Instructional Performance Metric: This assessment is a rubric scored observational measure of
. Infact, other disciplines such as large-scale systems theory may need to be applied to addressthe management of large data when it comes to real-time control of complex systems.References 1. Guide to the Systems Engineering Body of Knowledge (SEBoK). Retrieved December 31, 2015, from http://sebokwiki.org/wiki/Guide_to_the_Systems_Engineering_Body_of_Knowledge_(SEBoK) 2. Blanchard, B. S., & Fabrycky, W. J. (2010). Systems Engineering and Analysis (5th ed.). Upper Saddle River, NJ: Prentice Hall. 3. Banks, J., Carson, J. S. II, Nelson, B. L., & Nicol, D. M. (2009). Discrete-Event System Simulation (5th ed.). Upper Saddle River, NJ: Prentice Hall. 4. Buede, D. M., &
-term plan for management of updates to the publishedCivil Engineering Body of Knowledge (CE BOK) and the associated ABET accreditationcriteria.1 This plan calls for ASCE to develop a formal revision to the CE BOK and associatedcriteria on a regular eight-year cycle. This regular change-cycle reflects three broadly acceptedconclusions drawn from ASCE’s experience in developing the first two editions of the CE BOK,from 2002 to the present: A professional body of knowledge is a dynamic entity that reflects the ever-changing nature of professional jurisdictions. A given profession (or professional group) can be strengthened by formally articulating and publishing its body of knowledge, but only if the profession is willing
constructs present within Heidegger’sDiscourse on Thinking,[1] this work aims to further that reflection with an introduction toanother few differences between continental philosophers in the same vein. I had hoped to workwith a Cartesian framework, but the works of the modern continental philosophers is more thanadequate for this short digression.Previous to Heidegger – A Brief Note on Husserl’s Phenomenology Husserl’s Logical Investigations may be the least relevant within this current treatise, so Iwill touch upon them lightly and expand at a later time. Within this work, he outlines hisapproach to consciousness and intentionality. Here we find a divergence from what we may beaccustomed to within engineering education – a classical use of