focused on issues that mightdifferentially impact marginalized communities.These studies demonstrate that there is a need to help engineering students better understand andappreciate the impact that their work has on society and develop skills needed to provideeffective and equitable solutions. This need is evident in developments in the criteria foraccrediting engineering programs. In October 2022, the ABET Engineering Area Delegationapproved an optional two-year pilot criteria that incorporates principles of diversity, equity andinclusion (DEI). One of the elements of these changes is that the curriculum must include“content that ensures awareness of diversity, equity, and inclusion for professional practiceconsistent with the institution’s
of the unique courses in the program.Many of the local employers are in the aerospace industry so the new program will be taughtfrom an aerospace context. This paper will discuss the unique partnership between industry andacademia to help establish a brand-new industry-focused engineering program.IntroductionMany have called for reforms in engineering education. Rugarcia et al. (2000) argue thatengineering education instructional methods have changed very little in decades despite researchthat recommends more effective methods [1]. Tryggvason and Apelian (2006) write, “we need toexamine the (engineering) curriculum from a new perspective and accept the possibility thatchanges that go beyond minor tweaking are needed” [2]. Duderstadt (2008
design.IntroductionThough the teaching of engineering science is and should be the dominant basis of modernengineering education, it is a reality that curriculum evolved during the 20th century tomarginalize the importance of engineering practice and key skills including design and teamwork.Resulting from a paradigm shift in the culture of American engineering colleges after World WarII and the dwindling ranks of faculty members with experience as engineers, this revolution inengineering curriculum sought to prioritize hard science fundamentals in a profession becomingrapidly more diverse. As an unintended consequence, newly minted engineers, while graduatingfrom college technically adept, began to lack many of the basic abilities needed in real-worldengineering
theArduino Uno, which consists of an ATmega328 microcontroller, 14 digital input/output pins, six(6) analog input pins, a USB port to connect to a computer, and more. A diagram of the ArduinoUno is shown in Figure 1 for reference. Figure 1: Arduino Uno Diagram from Jameco Electronics [14]In the realm of electrical engineering technology and electronics, the Arduino platform plays animportant role. To give context, the education of electronics faces the challenge of the rapiddevelopment of technologies of today [15, 16]. Electronics are constantly being integrated withmore applications as time passes, which then increases the importance and dependence onelectronics. The importance of electronics should then also justify a quality
thatincorporating more use cases in the structuring of coursework may facilitate the integration ofCT into the engineering curriculum by improving the recognition of CT concepts.BackgroundIn today’s technology-driven world, computers are integral in expanding our capabilities acrossvarious sectors. Computing technologies are transforming sectors, and in the new industriallandscape, solving complex engineering problems calls for the use of computer systems as wellas cross-functional teams [1]. Given that computer-based solutions are becoming increasinglyintegral to the engineering problem-solving and design process, computational thinking (CT)should be a fundamental skill for engineering students so that they can effectively leverage thesetools.Engineers
up a centralized clearinghouse,including partnering with ORISE and other existing programs, is This task will develop andimplement activities designed to increase the number of traditionally underserved andunderrepresented minority students interested especially in nuclear science and STEM programsin general. Identifying and developing outreach activities that will increase awareness andinterest in nuclear energy science and needs for workforce development will be an expectedoutcome. This task will also develop curriculum and courses that will engender and motivatesustained interest in nuclear energy science among middle and high school minority students.These curriculum enrichment activities for middle and high school students will be
emphasize the connectedness of people and theenvironment [10]; however, particularly in engineering degree programs, early coursework doesnot emphasize the connectedness of people and the environment [8, 9]. Therefore, NativeAmerican students who may not see/engage in this aspect may be particularly at risk of losingmotivation for - and possibly leaving - their engineering majors [1]. These issues contribute tolow Native American representation and deprive the U.S. of an opportunity to increase diversityto solve better engineering problems and design innovative solutions that benefit more people[11].A 2012 study from Lesley University indicates Arts integration in STEM stimulates deeplearning and increases student engagement among minority students
to the dearthof relevant experience most teachers possess [6].2. Project Purpose & DescriptionWith the program’s overarching theme of energy, we aimed to: (a) deepen high school teachers’understanding of engineering principles, practices, and design, (b) support the development ofSTEM-integrated curriculum aligned with the Next Generation Science Standards (NGSS), and(c) to enhance ongoing collaboration and interchange among university faculty, local schools, andindustry-based personnel. The purpose of the program evaluation was both formative andsummative, aiming to improve incoming cohorts’ experience, and report on the impact of theprogram on participants. We hypothesized that teachers would a) have an enhanced knowledgeand experience
[4].An additional benefit of a project-based curriculum is the ability to emphasize dimensions ofengineering design decisions that go beyond the technical functioning of a part or component.Research has shown that engineering curriculum in the United States prioritizes technical aspectsof design problems over social dimensions, but success in the engineering workforce requires anunderstanding of the interplay between both facets [5]. In this context, “social” as a termencompasses environmental, ethical, economic, health, safety, political, and cultural factors [5].The inherent duality of social and technical factors in the solution to a materials design problemis showcased beautifully in “the dual tetrahedron” proposed by Savage et al. (see
HispanicContext. TaLENt Fellow Action-Based Research ProjectsThe four action-based projects conducted during the 2021-2022 school year are brieflydescribed in Table 2. These projects aimed to integrate engineering design into the participatingschools' curriculum by implementing various strategies, such as creating engineering designchallenges, developing a teacher professional development program, integrating engineeringdesign into existing science curricula, and building partnerships with local engineers andindustries. The TaLENt fellows led these projects, with support from their school colleagues andan engineering curriculum mentor from the "TaLENt." While this article does not provide adetailed account of each Project's implementation cycle, it does
: race and first-generation status. Genderdifferences (lower scores for females versus males) have been observed in many other studies.We hypothesized that the service-learning project may positively impact females more thanmales, but this was not the case; all scores increased proportionally equally. Differences in scoresby major are difficult to conclude due to small sample sizes, but the results could impact thecurricula of those specific majors, which diverge after the first year, and thus will be explored infuture work. Future teaching modules will continue to integrate sociotechnical problem-solving,including service-learning projects, into the first-year curriculum. Other potential interventions tostrengthen engineering identity and
Coordinator with the Department of Applied Physical Sciences at the University of North Carolina-Chapel Hill, Education and Workforce Coordinator/Graduate Assis- tant at PowerAmerica and FREEDM System Center of North Carolina State University, and as a middle school teacher for Wake County Public School System (North Carolina).Dr. Richard Goldberg, University of North Carolina, Chapel Hill Richard Goldberg is a Teaching Associate Professor and Director of Undergraduate Studies in the De- partment of Applied Physical Sciences at UNC Chapel Hill. He is developing a new interdisciplinary engineering minor and major at UNC. He is interested in integrating engineering with the liberal arts and an entrepreneurial mindset. He
curriculum engineering courses [9]. Understanding the technologies and hands-onpractice become critical for a successful career in manufacturing engineering. Therefore, educationcurriculum needs to be formed to prepare students to meet the challenges of advanced intelligentmanufacturing industries [10]. In this paper, an innovative empirical methodology based on i4.0technologies has been developed to be used to create sustainable procedures to the interoperationsof manufacturing systems. Implementing IIoT and digital cloud to the curriculum to provide real-time detection of unplanned behavior, fast correction response, and system data documentation forthe analysis will help in understanding manufacturing operations. The methodology is to build
renewableenergy courses, establishing a wind and solar energy systems training laboratory, a year-roundhands-on energy training program, a residential bridge program, undergraduate researchexperience, and summer internships. In addition, professional development training was affordedto faculty members from other minority-serving institutes (MSIs). They were introduced torenewable energy curriculum development, developing laboratory modules, and hands-ontraining with advanced energy trainers so they can enhance STEM education and integrateenergy courses at their respective campuses. The program components are briefly described next.Enhancing Renewable Energy Curriculum: Three renewable energy courses were redesignedto integrate hands-on learning modules
] emphasizes the importance of real-world experience in education, reporting on 29 programs that have successfully infused real-worldexperience into the curriculum. This course explores the use of real-world experience at a deeperlevel within the curriculum, with students engaged in team-oriented instructional methods. In recent years, strong interest has gained traction for the incorporation of project-basedlearning (PBL) in a variety of different engineering disciplines, e.g. [26-33]. These previous effortscan inform proposed curriculum. However, few prior efforts have occurred to implement PBLthroughout an entire engineering curriculum. One exception is the Iron Range Engineering (IRE)program, which started in 2010 and uses 100% PBL with no
system theory curriculum in many Engineering schools is limited to computer simulations, mostly because of the limited control lab equipment suppliers and modest resources. The Electrical and Computer Engineering (ECE) program’s faculty and graduate students were tasked to design a low-cost system that connects the theoretical concepts learned in class and real-world applications. This system was designed with a modular approach to develop new experiments using the existing system. The developed system is an integration of National Instrument’s (NI) LabVIEW software, NI’s myDAQ (a portable and easy-to-program low-cost data acquisition device), a DC motor with a built-in rotary encoder, and a PCB with the motor
approaches for dealing with them. The case studies in this course will helpstudents understand the needs of different stakeholders and create a list of priorities that willenable them to achieve project goals in practice. The course will also cover the integrated designprocess (IDP), which is a specific tool and approach for holistic and systemic design thinking.For the success of a complex, sustainable built environment project, which could involvehundreds or even thousands of actors, it is necessary to have a clear understanding of the marketin which the designer is operating. Therefore, the course will address questions such as "Whatare the goals and interests of different stakeholders?”, "What is the role of an IDP coordinator?","How do you
Paper ID #39876Enhancing Student Engagement and Skillsets towards TransportationCareers Using Digital Badge Program: A Case StudyDr. Venktesh Pandey, North Carolina Agricultural and Technical State University Venktesh Pandey is an Assistant Professor in the Department of Civil, Architectural, and Environmental Engineering at North Carolina A&T State University. His research integrates intelligent transportation systems and emerging mobility services in traffic operations, congestion pricing, and transportation plan- ning models with a focus on sustainability. Dr. Pandey has broad interests in improving Engineering
. Although both RC collaboratives are members of theNational Center for Integration of Research, Teaching, and Learning network [CIRTL, 2023],only the North and East Texas collaborative utilizes online professional development resourcesto offer graduate students a professional development curriculum with emphasis on evidence-based effective teaching. In contrast, the collaborative in West Texas refined its own set ofevidence-based professional development webinars and related resources to emphasize inclusiveteaching and developed an extensive resource bank for its fellows. RC fellows in North and EastTexas have the opportunity to teach one module of a course at a community college under theguidance of their mentor. Subsequently, the fellows discuss
practices and innovative approaches discussed will evidence the work inprogress towards an improved, integrated learning experience for engineering technology students.Finally, current results will support prior findings and provide new evidence for engineering educationpractices in community colleges.Stackable Certificates and DegreesIn the Fall of 2022, Mt. SAC began offering 12 new certificates of achievement and 6 new associate ofscience degrees in the discipline of Engineering Technology. These certificates include Technical Sales,Engineering Fundamentals, Engineering with Emphasis in Chemical and Materials EngineeringApplications Level 1, Engineering with Emphasis in Chemical and Materials Engineering ApplicationsLevel 2, Engineering with
students. However, they argue that students are missing critical skills in thesmart grid field, such as hands-on experiences and market knowledge. This work is part of anongoing effort of a National Science Foundation (NSF) funded study to explore a closed-looppower engineering education and learning approach for meeting the nation’s urgent needs for ahighly qualified Smart Grid workforce. The research question guiding this study is: What skillsare required from the ECE graduate students to serve the SG industry better?MethodsTo create a list of learning objectives that will be the stepping stone for an ECE curriculum tobetter serve the smart grid industry, the research team conducted a qualitative research study atRowan University following the
York University Tandon School of Engineering Jack Bringardner is the Assistant Dean for Academic and Curricular Affairs at NYU Tandon School of Engineering. He is an Industry Associate Professor and Director of the General Engineering Program. He teaches the first-year engineering course Introduction to Engineering and Design. He is also the Di- rector of the Vertically Integrated Projects Program at NYU. His Vertically Integrated Projects course is on the future of engineering education. His primary focus is developing curriculum, mentoring students, and engineering education research, particularly for project-based curriculum, first-year engineering, and student success. He is active in the American Society for
, theinfrastructure and efficacy of the Engineering Research portion is detailed. Concepts, coursedescriptions, and assessment tools presented here were designed to be modular so that otherinstitutes interested in integrating research into secondary school curriculum could adapt thesecomponents to fit individual constraints.MethodsProgram OverviewBaylor Research (BR) is a pre-collegiate research program that includes Engineering,Biomedical, and Environmental topics. The program resides within the Science Department withfour faculty (the principal scientist in Environmental Research, the principal scientist inBiomedical Research, and two principal engineers in Engineering Research) who hold higherdegrees in their respective field. The mission of Baylor
fundamental knowledge. While these teaching styles can be effective,they provide little opportunity to actively engage and expose learners to memorable experientiallearning elements. The COVID-19 pandemic presented a new opportunity to focus on developingunique teaching tools to reach students on virtual platforms. Although the development of thesetools was critical in today’s technology-driven society, pandemic teaching and learning remainedchallenging, which likely contributed to the amplification of virtual gamified learning. Inredesigning our first-year engineering curriculum within the Faculty of Engineering at McMasterUniversity into the new Integrated Cornerstone Design Projects in Engineering (ENG 1P13)course, an opportunity to re-evaluate
energy. Pullen and Brinkert described a graduate course on solarenergy and its integration into chemistry education curriculum [8]. The course included 7modules covering solar policy, applied solar research and research perspectives. The courseincluded lectures given by invited experts from different universities, governmental and non-governmental (industry) institutions. In addition, reading assignments including scientific articleswere assigned. Discussion seminars and laboratory exercises were also included. Ciriminna et al.described a multidisciplinary solar energy graduate course that involved elements of science andenergy engineering, as well as elements of economy, social, environmental and managementscience [9]. The student enrollment
integrating engineering practices into the science curriculum [1]. Inaddition, in 2018, 46% of high schools reported offering at least one stand-alone engineeringcourse [2]. However, less than 20% of the teachers who are currently teaching these standaloneengineering courses have a major or minor in engineering or an engineering-related discipline,and the majority are not certified to teach engineering [3]. In addition, it was reported in 2018that only 3% of elementary teachers, 10% of middle school science teachers, and 13% of highschool science teachers had completed even a single course in engineering [2].Research has demonstrated that the perceptions that K-12 teachers hold about engineers andengineering are often inaccurate. When K-12 teachers
Methods section. To conclude thissegment, we provide the research question pursued in this paper which has an exploratory nature:Research question: How does bringing Entrepreneurial Mindset to the design of machinerythrough a bio-inspired design project with aesthetic objectives impact students’ self-reportedexperiences?2. Literature Review2.1 Lack of Interdisciplinary Project-Based Learning Integrated Across EngineeringCoursesMost engineering education today does not adequately equip students to address complexand ill-structured technical problems that involve different stakeholders, uncertainty in the successcriteria, and interdisciplinary application of knowledge. Such problems are called wicked problems[3] and constitute some of the most
practitioners.Cynthia D. Anderson, Alula Consulting Cynthia (Cindy) Anderson (she/her/hers) is the founder and CEO of Alula Consulting. Cindy specializes in innovative sustainability- and online-focused research and curriculum projects for academic institu- tions, non-profits, government and corporations. Cindy has taught thousands of people through courses and workshops, around the world and online, in the fields of biology, sustainability and biomimicry. She is honored to be a collaborative partner on the Engineering for One Planet initiative since its inception, co- author of the EOP Framework and new framework integration guides, and active EOP Network Member. Cindy holds a MS from Oregon State University, a MEd from Griffith
evolution simulator would be enhanced with modular and more varied functionality. Starting points for such would likely include making the AgentComplexity value set per agent rather than as a global variable as well as adding environmental variations in shape and possible forms of selection criteria in the form of food or a “kill” mechanism. Adding accessibility options like colorblind adaptations or easier to read text would allow greater educational flexibility. 2. The second possibility would be to test the application of this software in an educational environment for curriculum development and teaching pedagogy. There has been expressed interest by both computing and biology departments for cross
://www.verywellmind.com/what-is-the-zone-of-proximal- development-2796034. [Accessed Oct. 15, 2022].[41] S.D. Sheppard, “Mechanical dissection: An experience in how things work,” in Proceedings of the Engineering Education Conference: Curriculum Innovation & Integration, pp. 1–8, 1992.[42] J. Lamancusa, M. Torres, and V. Kumar, “Learning engineering by product dissection,” in ASEE Annual Conference Proceedings: The American Society for Engineering Education, 1996.[43] M. L. Calderon, “Application of reverse engineering activities in the teaching of engineering design,” in International Design Conference. Croatia: Design Education, pp. 1249–1258, 2010.[44] C. Lauff, D. Kotys-Schwartz, and M. Rentschler, “Design