communication. He also had additional responsibilities as a lab manager controlling all measurements for Intel 22nm FinFet technology development. He joined Cooper Union as Assistant Professor at 2020 Fall, and teaches Microelectronics/VLSI related courses. His current research interests are in the area of RF IC design for wireless applications. ©American Society for Engineering Education, 2024 Developing Microelectronics and VLSI field Education for the potential workforceAbstract Rapid evolution of semiconductor technology has resulted in an unprecedented reliance onmicroelectronics and Very Large Scale Integration (“VLSI”) systems across various industries.As technology of
Paper ID #44540Empowering Youth to Create a Healthier Future Through STEM EducationAbout Antimicrobial ResistanceHector Palala, University of Nebraska, Lincoln H´ector de Jes´us Palala Mart´ınez is a doctoral student in Curriculum Studies and new technologies in the Department of Teaching, Learning and Teacher Education at the University of Nebraska-Lincoln. H´ector teaches courses related to the integration of technology for future high school teachers as well as bilingual education and in all his classes he promotes justice, dignity and human rights. Previously, he was a professor of education at the Universidad de
Paper ID #43486Impact of Engineering Course Participation on Students’ Attitudinal Factors:A Replication Study (Evaluation)Dr. Meltem Alemdar, Georgia Institute of Technology Dr. Meltem Alemdar is a Associate Director and Principal Research Scientist at Georgia Institute of Technology’s Center for Education Integrating Science, Mathematics, and Computing (CEISMC), Dr. Alemdar made significant contributions to the fields of STEM education. Her research focuses on improving K-12 STEM education through research on curriculum development, teacher professional development, and student learning in integrated STEM environments
interviews, ability and confidencein introducing these topics within traditional coursework is lacking. Firstly, faculty areoften unfamiliar with basic sustainability concepts (e.g. it’s not just about globalwarming) and information (e.g. the UN SDGs, the IPCC). Secondly, faculty have notonly not been trained in these topics, but also have not been trained in teaching themeffectively, and they do not generally have the time required to learn that independently.Thirdly, it is not usually obvious how these topics can be sensibly integrated into variouscourses without appearing to be extraneous add-ons. Thus, faculty training and supportare important components of curriculum transformation activities.There have been “train the trainer” efforts
intermediate algebra or precalculus math level. Thelearning community, titled “Engineering in Context” spans two academic quarters and includessix different courses which integrate place-based learning. The curriculum includes a new two-quarter precalculus for engineering sequence, contextualized English composition, and PacificNorthwest history. Specific sections of these four courses along with our existing first-yearengineering sequence (ENGR 101: Introduction to Engineering and ENGR 151: IntroductoryDesign and Computing) create the two-quarter learning community. Introductory engineeringcontent includes an orientation to the engineering profession, academic skill development,introductory physics, problem-solving, computer programming, and team
also included sensors, actuators, resistors, LEDs, a breadboard, andjumper wires to connect components together [2]. Once supply chain issues were resolved amore elaborate IoT learning toolkit was developed based on an IoT learning platform, theKeysight U3810A [7]. This learning platform includes an integrated basic processor board, theBeagleBone Green, along with a variety of sensors and components mounted onto a larger circuitboard. The U3810A IoT learning platform is pictured in Figure 1. In addition to the U3810Aand its integrated basic processor board, the advanced learning toolkit includes jumper wires tomake connections among its components. A breadboard is also included to enable students toincorporate additional sensors, actuators
Paper ID #43735Can Hands-on Statics Improve Student Learning?Prof. Eric Davishahl, Whatcom Community College Eric Davishahl serves as professor and engineering program coordinator at Whatcom Community College in northwest Washington state. His current project involves developing and piloting an integrated multidisciplinary learning community for first-year engineering. More general teaching and research interests include designing, implementing and assessing activities for first-year engineering, engineering mechanics, and scientific computing. Eric has been an active member of ASEE since 2001. He was the recipient of the
, the PtD idea has gradually gained acceptance in the U.S. [3]. However,the traditional curriculum offered by civil engineering programs in the United States does notintegrate PtD concepts [4]. It has been suggested that the engineering community will notincorporate PtD into the curriculum until the accrediting body, ABET, includes it in either aGeneral Criteria or the Program Critera. The majority of civil engineering programs in theUnited States are accredited by ABET. Recently, ASCE’s Civil Engineering Program CriteriaTask Committee (CEPCTC) added a requirement for the curriculum to include an explanationof safety, effective for the 2024-2025 accreditation cycle. Specifically, CEPCTC suggests ninelecture topics that can be used to comply
, but was not accomplishing some of theessential goals that instructors had for preparing students for the engineering curriculum. In mostsections of the class, a typical class meeting consisted of a lecture in which the instructorintroduced a type of differential equation and showed the students how to identify and solve thattype of differential equation. The students then completed a worksheet that had them repeat theprocess that the professor just demonstrated on one or more examples of that type of differentialequation. In short, students were trained to be good at mimicking a process and identifying whento use that process. Applications were briefly mentioned, but accounted for only a small portionof the class and were not integrated with
broaderunderstanding of the related concepts, and were also instrumental in increasing teachers’understanding [8], [9], [10], [11], [12]. Preparing such interdisciplinary lessons drawing on thedeep historical lineage of integrative scientific pursuit can help broaden and contextualize topicsbetter for the learners, and can offer an engaging learning experience in the classroom.In this context, music integration offers a path for what has been called Thickly AuthenticSTEAM experiences, characterized by having a) personally meaningful learning experiences; b)learning that relates to the world outside of the learning context; c) learning that encouragesthinking within a particular discipline (for example sound production); and d) allowing forassessment that
students' motivation topursue a career in microelectronics differ after this limited curriculum intervention?Literature ReviewThe Role of Interest in Career DevelopmentSocial Cognitive Career Theory (SCCT) [9] is an overarching conceptual framework that guidesall of the decisions of the Scalable Asymmetric Lifecycle Engagement (SCALE) project. SCCTemphasizes the role of relevant interests in career development. Within SCCT's Choice Modeland Interest Model, interest directly links self-efficacy, outcome expectations, and career-relatedchoices [9]. Because of this, many studies seeking to affect student's interest in engineeringcareers focus on increasing student self-efficacy and outcome expectations. In SCCT, interestsdirectly relate to choice
29, 2024.[9] J. D. Ford and L. A. Riley, "Integrating communication and engineering education: A look at curricula, courses, and support systems," Journal of Engineering Education, vol. 92, (4), pp. 325-328, 2003, https://doi.org/10.1002/j.2168-9830.2003.tb00776.x.[10] S. Manuel-Dupont, “Writing-across-the-curriculum in an engineering program” Journal of Engineering Education, vol., no. 85, pp. 35–40. 1996, https://doi.org/10.1002/j.2168- 9830.1996.tb00205.x.[11] P. L. Hirsch, Shwom, B. L., Yarnoff, C., Anderson, J. C., Kelso, D. M., Olson, G. B., & Colgate, J. E. “Engineering design and communication: The case for interdisciplinary collaboration,” International Journal of Engineering Education
theoretical framework of this study is organized by major topics such as Education forSustainable Development, Sustainability Literacy, and the integration of ESD into curricula. 2.1 Education for Sustainable DevelopmentSustainability is a multidimensional concept [8]. Defining sustainability involves the adoption ofthree key dimensions that drive sustainable development (SD): environmental, social, andeconomic dimensions [8, 9]. Additionally, [10] stated SD is an endeavor to ensuring anequilibrium among economic growth, environmental integrity, and social well-being. As a result,understanding the environmental, social, and economic dimensions as well as theirinterconnections implies a certain level of complexity in the effort of incorporating
University. Dr. Sabuncu’s professional interests spans from engineering education research, history of science and engineering, thermo-fluids engineering, and microfluidic technology. ©American Society for Engineering Education, 2024Industry Perspectives on Mechanical Engineering TroubleshootingAbstractTroubleshooting is an integral part of iterative design processes that engineers undertake,involving continuous problem diagnosis and process optimization. Despite its significance in theworld of engineering, there are few studies and curriculum dedicated to teaching this skill at theuniversity level. This paper contributes to the need to enhance the training of troubleshooting inuniversity-level engineering
gain profound insights into these tools, preparing them to excel as qualityengineers. This paper describes how the hands-on activities embedded within the Boot Campplay a pivotal role in shaping the students' learning experience. Pre- and post-surveys enable usto gauge knowledge growth and the confidence to apply quality engineering principles. In aconstantly evolving industrial landscape, this Quality Engineering Boot Camp could be an idealsetting to empower participants with the skills and knowledge needed to excel as quality experts.1 IntroductionQuality engineering is integral to modern manufacturing and service industries, deeply rooted inthe foundations of industrial and manufacturing engineering [1]. Organizations must maintainhigh
Higher Education 25, 255-26,(2000).[5] G. E. Becker, J. Cashin, T. T. Nguyen, & P. Zambrano. Expanding Integrated Competency-Focused Health Worker Curricula for Maternal Infant and Young Child Nutrition. EducationSciences, 12(8), 518, 2022.[6] D. Ifenthaler & R. Hanewald. Digital knowledge maps in education. Technology., 2014.[7] W. W. Boehm. Curriculum Study. Social Casework, 37(7), 348-349, 1956.[8] M. Roach and H. Sauermann. “The Declining Interest in an Academic Career” PLOS ONE,12(9), 2017, September. Available at SSRN: https://ssrn.com/abstract=2992096or http://dx.doi.org/10.2139/ssrn.2992096.[9] B. L. Benderly, B. L. (2013). THE NEW Ph. D. ASEE Prism, 22(5), 31, 2023.[10] B. Hynes, Y. Costin, and I. Richardson. "Educating for STEM
describes the ongoing work of the project, one yearinto NSF IUSE grants DUE-2236148 and DUE-2236227.Curricular DevelopmentThe overarching objective of our design-based research project is to investigate how amacroethical curriculum can be effectively integrated into aerospace engineering sciencecourses. In the Fall of 2023, we implemented macroethics lessons in a sophomore-levelintroduction to aerospace course and a junior-level spacecraft mechanics course at the Universityof Michigan (U-M). In the Spring of 2024, we implemented macroethics lessons into a senior-level space systems design course at U-M, a sophomore-level introduction to aerospace course atthe University of Colorado Boulder (CU Boulder), and a senior-level propulsion course
fourteenstudents enrolled in an upper-level undergraduate course (Introduction to Industrial Controls)offered to both Electrical (as ECET 30201) and Mechanical Engineering Technology (as MET28400) students at a large research-focused university in the Midwestern United States. In the 14respondents to the project reflection, eight accessed the course from within the United States andeight were located internationally. The nature-inspired podcast creation curriculum was implemented over an 8-weeksemester in the form of six steps that occurred concurrently with the regularly scheduled weeklytopic lectures and laboratory activities for the course. In general, the project flow guided studentsthrough researching their topic from multiple perspectives
current need to movebeyond traditional theory-based pedagogy used in teaching humanities to engineering studentsand create a learning environment that aligns with engineering students' preferences.This paper details our efforts at Plaksha University, an engineering university in Punjab, India toeffectively integrate humanities into the engineering curriculum. Our initial attempt, a one-creditcourse titled “Re-imagining Technology and Society (RTS),” employed a theory-based lecturedelivery pedagogy. However, this approach fell short in capturing the interest of engineeringstudents.Thus, incorporating the feedback from our previous course and replacing our pedagogy with aPBL approach, we implemented a redesigned interdisciplinary course titled
advancing quantitative and fully integrated mixed methods.Dr. Kenneth Reid, University of Indianapolis Kenneth Reid is the Associate Dean and Director of Engineering at the R. B. Annis School of Engineering at the University of Indianapolis. He and his coauthors were awarded the Wickenden award (Journal of Engineering Education, 2014) and Best Paper award, Educational Research and Methods Division (ASEE, 2014). He was awarded an IEEE-USA Professional Achievement Award (2013) for designing the B.S. degree in Engineering Education. He is a co-PI on the ”Engineering for Us All” (e4usa) project to develop a high school engineering course ”for all”. He is active in engineering within K-12, (Technology Student Association
faculty workshops and training, curriculum development andsharing, and academic recognition. 2) Foster external partnerships among schools andcompanies, NGOs, and/or government, especially partnerships to provide students withreal-world ER project experiences. This could overcome the barriers of perceived lack ofdemand for ER in industry, academic hoops, and potentially lack of funding. Some possibilitiesincluded an online platform for interested parties to meet each to form partnerships, programs tofoster mentorship, and exploring feasibility of increasing government or accreditationrequirements for sustainability in curriculum. A summary of research results andrecommendations were published as a report in 2018 [14] and subsequently as a peer
engineering students feel underprepared when going into the workforce, due to a lack ofreal-world application of the college curriculum and the lack of necessary skills to confidentlymake engineering and business decisions [1-3]. Consequently, the transition between college andone’s first job can be difficult for many graduates [4]. This causes many to seek jobs outside ofthe engineering profession altogether; according to one study, only one-third of engineeringgraduates seek jobs in an engineering field [5]. Furthermore, a study by the Carnegie Foundationfound that engineering schools primarily focus on the acquisition of technical knowledge, leavinglittle attention to real-world application or preparing for employment [6].To combat this issue, the
resulted in aprototype of our curriculum, a quickly approaching pilot of our research design, MODS has emerged as amodified version of CLUE for front-end design and we have begun the project of envisioning a muchmore robust design mentor. In this work we have also highlighted our next steps for each of the strands ofthe project. Front-end engineering design is an underemphasized project area and can be used as means toencourage interests in and improve perceptions of STEM fields especially when grounded in socio-cultural contexts. Prior research suggests that integrating community concerns with engineering andscience can encourage women and persons from minortized groups who often place greater emphasis oncommunity impact of their work but find
approach. Embedding AI literacy seamlessly into existing curricula requires aninterdisciplinary strategy that covers technological competencies and delves into AI's ethical andsocietal implications [4]. This approach underscores the critical role of educators, who mustreceive robust professional development in AI to guide their students effectively. Furthermore,collaborative curriculum development emerges as a critical theme, advocating for a participatoryprocess involving educators, policymakers, and AI experts. This collaborative effort aims to co-design AI educational programs that are both relevant and forward-looking, preparing studentsfor a future where AI is an integral part of various sectors.To have the participation of the stakeholders
-based learning, online learning and metacognition. ©American Society for Engineering Education, 2024 Formula for Success for Interdisciplinary InitiativesBackgroundThe open-ended and ill-defined nature of today’s challenges [1] requires students with the abilityto work both within and outside of their own discipline [2], [3] by integrating knowledge andskills from various fields [4]. Most academic and research institutions often operate in silosrather than in organizational structures that facilitate learning and discovery across disciplines.Interdisciplinary research and education have been recommended as an approach to tackle suchproblems [5], [6]. Thus, universities have been moving towards
identity as an HSI (Hispanic Serving Institution) and the vital role HSIs play in improving access to education and advancing equity for historically underserved students. He is the PI of the project ”Information Systems meet Cultural Competencies (IS-CUCO),” an NSF-funded project aiming to integrate cultural, linguistic, data, and infrastructure factors into Information Systems that provide access to food-security services such as food pantries. He is also a Co-PI of a DoE Title V grant titled ”City Tech STEM Success Collaborative,” which seeks to improve retention, graduation, and workforce readiness of Hispanic and low-income STEM-interested students by strengthening and coordinating academic and support programs for
engineeringworkforce. According to SERC, Phase 2 of this research “focused on mapping existing DoD DEtraining resources against the DECF to identify gaps and provide recommendations on how tobuild the digital engineering competency of the DoD workforce” 14 . This research effort helped toidentify further competencies that have been included in the latest version of the DECF. In thispaper, we apply this same approach to evaluate the degree to which the DEF (or any other DEenvironment integrated within an engineering curriculum) has the potential to address thecompetencies outlined by SERC.MethodologyThe DECF defines 1228 KSABs across five competency groups and one foundation of generaldigital competencies. Across these six groups, a total of 31 competencies
Reflections On Four Approaches Taken At Rensselaer,” presented at the 2009 Annual Conference & Exposition, Jun. 2009, p. 14.1386.1-14.1386.16. Accessed: Jan. 30, 2020. [Online]. Available: https://peer.asee.org/sustainability-as-an-integrative-lens-for-engineering-education-initial-re flections-on-four-approaches-taken-at-rensselaer[6] J. L. Aurandt and E. C. Butler, “Sustainability Education: Approaches for Incorporating Sustainability into the Undergraduate Curriculum,” Journal of Professional Issues in Engineering Education and Practice, vol. 137, no. 2, pp. 102–106, Apr. 2011, doi: 10.1061/(ASCE)EI.1943-5541.0000049.[7] D. M. Riley, “Pushing the Boundaries of Mass and Energy: Sustainability and Social Justice
, Equity, and Inclusion (DEI)An integral component of the study was the examination of DEI efforts within the course toensure a diverse and inclusive educational environment. Efforts to create an inclusive classroomenvironment were complemented by curriculum development initiatives designed to reflect awide range of perspectives, ensuring that content was relevant and accessible to all students.Active recruitment strategies targeted students from underrepresented groups in engineering,fostering a richer, more diverse learning community. Furthermore, the deliberate formation ofdiverse student teams was pivotal in promoting multidisciplinary collaboration and knowledgeexchange, enhancing the learning experience. The involvement of a diverse array of
conduct analysis of their own results. Students work in groups and are given 12 – 13 weeks to complete the given task independently. We believe that this shift from a traditional, passive learning approach towards an active learning will not only increase students’ engagement and achievement of learning outcomes but also train our students to take ownership of their learning and embrace self-directed learning practices [6], [7], [8]. 4.1.3 Solidworks/CAD/AutoCAD A new Digital Design Lab was proposed during the curriculum revamp exercise. It aims to familiarise students with design concepts and digital tools that are available in virtual design of engineering parts or components. Apart from learning how to use Solidworks and CAD