the parts of a standard can be a barrier that stops many undergraduate users when first facedwith using one for the first time.This paper reviews the roles that engineering librarians take within the field of standards while alsoproviding examples from the engineering classroom. It also shares how librarians and instructors canpartner to support the needs of undergraduate students in the engineering classroom.IntroductionTechnical standards are specifications that are developed and agreed upon by industry experts,professional organizations, and governments to ensure that products, processes, and services areconsistent, reliable, and compatible with each other. These standards are intended to promote safety,quality, interoperability, and
of its goal of training undergraduates inmultidisciplinary teamwork, design and engineering, a skill set that JPL seeks innew engineers that it hires. Given that satellites are highly complex systemsrequiring multidisciplinary design and engineering, JPL’s interest isunderstandable. In addition to having funding in place prior to the start of the semester, thefaculty involved recruited local industries to collaborate on the project. Theseinclude local boat builders Hatteras Yachts and Wilderness Systems, and a navalarchitecture/marine-engineering firm, the Dawson Marine Group. Thesecorporations typically assigned one or two interested parties to act as technicalconsultants whom the students can call on to answer questions on any aspect
being particularly impactful. future generations. This trend is driven by growing environmental concerns, through a written report and PowerPoint presentation. curriculum, emphasizing how it provided a fresh perspective on construction Challenges included scaling and layout errors in site planning exercises, which regulatory changes and compliance, industry standards, and market demand. As a The Building Information Modeling and Integrated Practices Course taught projects. Key takeaways included: provided learning opportunities for future improvements
curriculum on design cognition, the effects of differing design pedagogies on retention and motivation, and the dynamics of cross-disciplinary collaboration in both academic and industry design environments.Prof. Susannah Howe, Smith College Susannah Howe, Ph.D. is the Design Clinic Director in the Picker Engineering Program at Smith College, where she coordinates and teaches the capstone engineering design course. Her current research focuses on innovations in engineering design education, particularly at the capstone level. She is invested in build- ing the international capstone community and served as Co-chair of the 2010 and 2012 Capstone Design Conferences. She is also involved with efforts to foster design learning in
: The U.S. Semiconductor Industry Workforce and How Federal Incentives Will Increase Domestic Jobs,” May 2021. [Online]. Available: https://www.semiconductors.org/wp-content/uploads/2021/05/SIA-Impact_May2021- FINAL-May-19-2021_2.pdf[19] M. Petrina, ‘Ohio State launches CAFE program for semiconductor research, collaborating with Intel and other Ohio universities’, The Lantern. Oct-2022.[20] ‘Purdue launches nation’s first comprehensive Semiconductor Degrees Program - Research at Purdue’. May-2022.[21] P. Patel, ‘Building a U.S. Semiconductor Workforce: CHIPS Act-Funded New Fabs are Spawning University Programs’, IEEE Spectrum, vol. 60, no. 6, Jun. 2023.
Master's Engineering Management ProgramAbstractMany graduates with strong engineering management skills enter the workforce, yet they oftenlack the soft skills our industry needs. Middle Tennessee State University's (MTSU) Master ofScience in Professional Science (MSPS) program in Engineering Management has incorporatedthese desired soft skills into its core curriculum. This cross-disciplinary program providesMiddle Tennessee with the best-educated and well-trained scientific workforce. The program wasawarded the U.S. Department of Education's Graduate Assistance in Areas of National Need(GAANN) grant for Engineering Management (2019-2022), which supported nine students witha stipend, full tuition, and fees.In 2023, the MSPS program completed a
initiatives—prepared to drive innovation, navigate disruption, and help their organizations harness AI’stransformative potential in an ever-evolving landscape. 4Teaching StrategiesTo maximize engagement and learning outcomes, the course deployed a dynamic combinationof innovative teaching methods. Often used is an inverted classroom model: students absorbtheoretical content through online lectures before attending live, in-person sessions. Thisflipped approach optimizes class time for hands-on workshops, collaborative exercises, andreal-world application.Beyond instructor-led presentations that deliver foundational knowledge and industry context,students
sector seeking to enhance engineering education and access; and include an examination of the engineering curriculum itself, including goals and outcomes. • Collaboration - This integrative approach suggests a close collaboration between government, industry and institutions of higher education (Fig. 1). The OAS conference in Peru stressed such collaboration, and suggestions from India support this approach. Without this collaboration and instrumental approach to engineering education and development, the flat world will remain accessible to only a relatively small percentage of the developing world. • Funding - Special scholarships, attractive salaries and benefits to attract engineers and
academic research institutions, including the New York StateCloud Computing and Analytics Center at Marist College18. The instructor evaluation reportedhigher than normal workload during the first 2-3 weeks of the course, and assessed theirworkload for the rest of the course as being consistent with a traditional stand-up lecture/examformat.V. ACADEMIC AND INDUSTRY COLLABORATIONThe growing field of cybersecurity is a good candidate for nontraditional approaches toeducation and research. Specifically, cybersecurity is well suited to a hands-on, practitioner-oriented approach, and benefits from a closer interaction between educators and the ITadministrators at their institutions. More meaningful collaboration between different branches ofacademia
effective.Dr. John L. Irwin, Michigan Technological University As Professor for Mechanical Engineering Technology at Michigan Technological University, Dr. Irwin teaches courses in Product Design and Development, Parametric Modeling, and Senior Design. He is experienced in the manufacturing industry as well as the teaching profession with five years in engineering design, several years part time consulting in industry and over 30 total years of teaching. Dr. Irwin’s research focus is on teaching and learning in computer aided design, analysis, and manufacturing subjects.Dr. Muhammad Wasif, NED University of Engineering and Technology Dr. Muhammad Wasif is serving as Associate Professor in Department of Industrial and
Session 1520 Handheld Computers in the Classroom and Laboratory Robert L. Avanzato Penn State AbingtonAbstractPenn State Abington has integrated the student use of personal digital assistant (PDA)technology into several Information Sciences and Technology and engineering courses inorder to foster active and collaborative learning experiences in the classroom andlaboratory. Activities supported by the use of these handheld computers includeelectronic team exams, distribution of notes, programming, collaborative databaseprojects, and access to web-based materials. Student access to handheld
. Durable skills, also referred to as “soft skills,”“professional skills,” “21-century skills,” or “essential skills”, are indispensable in preparingstudents for a future workforce shaped by technological advancements and Industry 5.0, wherehuman-centric collaboration with intelligent systems is key [4]. However, educators facesignificant challenges in adopting these technologies, including technical limitations, facultyresistance due to lack of familiarity, and ethical concerns related to data privacy, bias andalgorithmic decision-making [5], [6]. Despite its transformative potential, GenAI raises concerns regarding its long-termefficacy in enhancing durable skills and the risks of over-reliance. Some educators haveexpressed concerns about
Paper ID #37568Work-based Experiential Learning in IT: CareerEnhancement for Underserved Students at a 2-year HSICynthia Pickering Cynthia Pickering is a PhD Student, Research Program Manager and Process Architect at the Center for Broadening Participation in STEM at Arizona State University. Cynthia has 35 years of experience working in industry with demonstrated technical leadership in software development, artificial intelligence, information technology architecture / engineering, and collaboration systems research. Cynthia is currently studying Human and Social Dimensions of Science and Technology in the
Design Teamthat is participating in the 2008 AHS/Eurocopter Graduate Design Competition for aSMART-ROTOR. The SMART-ROTOR Graduate Team consists of five graduatestudents, three KonKuk U. (Seoul, Korea) graduate students, four undergraduate students,and one industry distance learning student at Sikorsky Aircraft. Therefore, it is a verydiversified team, requiring extensive collaboration. The AHS Competition is used as oneof the projects in the Aerospace Systems Engineering course in Figure 2 and RotorcraftDesign I is one of the Systems Design courses, also identified. Thus, two courses wereused in the 2007 Fall Semester to set the stage for PLM education on this project. Theoverall University IPPD Approach for Rotorcraft Preliminary Design that
emerging quantumthreats and threats to cloud based quantum computing. Hands-on learning approaches, incorpo-rating real-world problem-solving and industry collaboration, have been shown to enhance skilldevelopment and engagement 6 . In quantum security, experiential education—using quantum sim-ulators, cloud-based hardware, and interactive security exercises—plays a crucial role in bridgingthe gap between theoretical knowledge and practical application. The advent of quantum computing has sparked widespread discussion about its potential tosolve classically intractable problems like integer factorization, thereby compromising traditionalcryptographic systems. However, comparatively little attention has been given to the intrinsic cy-bersecurity
are designed to produce the next generation of experts in industry andacademia. In parallel to recent advances in science and engineering, convergence research — themerging of diverse knowledge — is being called upon to solve complex problems at theintersection of science and society. To align graduate STEM education with the need ofconvergent approaches, graduate students are expected develop skills in problem solving,collaboration, systems thinking, and communication. This article describes ConGrad, aconvergent graduate education framework that combines transdisciplinary methodologies,experiential learning, and learning by teaching, within the context of a project-based curriculum.Using the ConGrad framework, we propose a program in which
motivation has sprouted new areas of research intothe education of the future cybersecurity workforce [14]. Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019, American Society for Engineering Education Session ETD 475Research into all areas of the design and implementation of cybersecurity education systems isnecessary and has been well under way for some time [3]. A hot topic for educatingcybersecurity professionals is game-based cybersecurity training, also known as SeriousCybersecurity Games (SCG). SCG could very well be how the next generation of cybersecurityprofessionals will be
” 4The objectives of the ME program are to: • Educate students to be successful mechanical engineers in their professions in a global environment. • Prepare students to pursue life-long learning. • Prepare students for real-world problems by working on industry-based projects. As seen in an American Society for Mechanical Engineering (ASME) comparison ofprograms10 summarized in Table 1, mechanical engineering program graduates at WSU areinvolved with development of new technology and products, while the mechanical engineeringtechnology program graduates are involved with application of state-of-the-art methods indevelopment of new technology and products. In industry practice, collaboration of
rig-orous academic instruction with a military framework. The paper explores VMI's capstone pro-jects' historical development and significance, highlighting how the military structure uniquelyshapes their design and implementation. This study investigates the academic and career impactsof these projects, drawing on feedback from students and faculty. Additionally, it identifies op-portunities for improvement, including fostering interdisciplinary collaboration, enhancing part-nerships with industry, and refining assessment criteria. Finally, the role of continuous improve-ment mechanisms, such as ABET accreditation, are assessed to ensure the ongoing relevance andeffectiveness of VMI’s capstone programs. This research aims to provide insights
discussions wereencouraged to take advantage of the active learning affordance provided by tablets. Comparedwith the non-tablet version of the course, large, comprehensive assessments were converted tolighter and more focused exercises at a higher frequency. Tablets also made it possible to adoptsome of the industry best practices, and develop desired skillsets that would help students gainsome competitive advantage in the job market. ● CM177As mentioned earlier, students from CM177 collaborated in teams with students from CM132through a joint-course project. The two classes worked on an ongoing campus laboratorybuilding. The goal was to develop green building strategies, create computer-aided designs,conduct performance analyses, and prepare
Academy. A US Air Force Veteran, Brandon his obtained his Bachelor’s Degree in Human Resource Management from the University of Toledo, Master’s Degree in Organizational Leadership from Lourdes University and is currently pursuing his Doctorate of Philosophy degree in Higher Education from the University of Toledo.Mr. Alan R. Lecz, Washtenaw Community College Alan (Al) Lecz is Director of the Advanced Transportation Center (ATC) at Washtenaw Community College. He is responsible for the comprehensive planning, coordination, communications and oversight of the ATC. He work’s collaboratively with credit and non-credit administrators and faculty to provide industry leadership related to training, programming and other
adjust to thesechanges? By gaining some industrial/professional experience through an association with aprofessional office, for a summer or on a part-time basis. The benefits are numerous when aneducator reconnects with their ever changing technical profession. Some of the more recent changes have included:• We are deeply into the electronic-information era. New styles of education are possible and probably required.• The appearance and organization of professional offices has been affected, as the changes being wrought by the computer move at blinding speed.• Student portfolios and educational outcome results have changed. Firm hiring practices and recruitment strategies are much more aggressive
workforce. Holding AWS Solutions Architect and Developer certifications, along with Azure and Google cloud he is leading the effort into multi-cloud implementations for education in DevOps and Data Analytics.Dr. Elodie Billionniere, Miami Dade College Dr. Elodie Billionniere is an Associate Professor in the School of Engineering and Technology at Miami Dade College (MDC). She has helped MDC secure over $3 million in federal funding the past three years for STEM and emerging technology education programs as well as a collaborative high tech learning hub, Cloud Computing Center, with the aim of providing further opportunities to minoritized populations to meet workforce needs. With industry partners, she has been
. Thiscombination of factors leaves cables and hoses to be rushed into production near the end of adesign. These components present another problem related to this delay: they rarely areincorporated into the vehicles’ solid model.A collaboration between industry and academia was formed to address this problem. Theobjective was to develop a CAD-based scheme, and it was implemented as a software tool toassist in the design (routing) of flexible components. As a requirement for this software tool, itshould be capable to predict the position and motion of system’s components as connection andmounting points are moved and accelerated in accordance with expected operation of the system.Additionally, proper interface and interaction with CAD software packages
psychological tools on their own 7. Experts,within the context of this theory, have mastered the signs and symbols of their culture. Forengineering and technical graphics, experts may have mastered several languages (e.g.,orthographic projection, the semantics of a computer-aided design program, geometricdimensioning and tolerancing, etc. – Figure 1). Educators are responsible for helping studentslearn the languages of graphics within a collaborative environment where the students can seehow this language fits within the larger context of an industry or enterprise 6. Figure 1. Signs and Tools within Engineering Graphics.Cultural-Historical Theory and Engineering GraphicsEngeström developed an activity theory based on Vygotsky’s
Page 10.984.2play critical roles in academe by integrating research, education, diversity, outreach, and “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright @ 2005, American Society For Engineering Education”industrial collaboration, NSF views ERCs as change agents for academic engineering programsand the engineering community at large.2. Department-Level Reform of Undergraduate Engineering Education (DLR) - providesan opportunity for institutions to compete for planning and implementation grants to assistdepartmental and larger units in engaging faculty in the scholarship of learning and teaching ona department wide basis, in developing, implementing
practices or laboratory experiences that have been successful at other institutions. The firsttype of project involves direct improvement of the curriculum, while projects in the secondcategory examine barriers that prevent the improvement of education and suggest solutions.1Below is a sampling of CCLI- A&I projects that are currently underway that illustrate the typesof projects that are funded. A complete list can be found on NSF’s Fastlane web site.2 • Collaborative Research: Adaptation and Implementation of Activity and Web-Based Page 9.641.1 Materials into Post-Calculus Introductory Probability and Statistics Courses
pricing.2. We are integrating our research with “real world” problems through partnerships with industry, university-based infrastructure projects, and other universities. These partnerships will provide internships for IREAN Fellows and collaborative research projects. We will both build on existing and develop new relationships and projects. For example, Virginia Tech is a partner in the Internet Technology Innovation Center (TIC). The Internet TIC focuses on providing university research and expertise to assist companies and government in deploying and leveraging networking and other information technologies. The university is also involved with infrastructure deployment projects in rural Virginia. All
Start a NJ Non-Profit Corporation Peter Stupak is President and Founder of the non-profit organization Main Engine Start that is dedicated to project-based learning for students of all ages to discover their passion for Science and Engineering and to increase their self esteem and confidence. Prior to creating his non-profit organization, Peter was an Associate Professor of Engineering and Physics at Raritan Valley Community College from 2014 to 2021, and before that he enjoyed a 22-year career in the fiber-optics manufacturing industry, living, and working in 7 countries. Peter’s work involved him in R&D, Engineering, and Manufacturing culminating in the construction, start-up, and operation of an optical fiber
used.Others have found that collaborative projects with industry are a useful means for bridging thegap that exists between the theory of manufacturing systems design and the manufacture ofproducts in factories8. In such projects, students apply the theories taught in class to solve aproject that is proposed by industrial collaborators. During such courses, students may haveopportunities to visit factories and/or to hold meetings with industrial representatives. Whenemployed effectively, this approach has proven to be useful for improving students’ motivationin manufacturing system courses, their appreciation for the challenges faced when applyingtheoretical concepts to real factory environments, their technical skills and creativity, and theirsoft