, andcan focus on the barriers each student faces and how they respond to challenges and opportunities(recognizing that these may be very different for different individuals). Students are asked to writeabout their involvement in community service and leadership, as well as provide a diversity andmission statement. Our application process allows students to share their passions for STEM andhow they envision positive change occurring in the world. We do not preferentially admit based ondemographic characteristics (e.g., racial/ethnic background, sex or gender identification).SelectionThese application questions are used to assess the potential impact of the CIRCUIT program on thestudent’s career and the potential for students to succeed in this
communities, for increased program outreach through two SM workshops. Nine participants representing five manufacturing companies attended the workshop. Figure 3. SM Workshops A SM focused conference was conducted in November 2021 that was attended by ~120 engineering students and ~10 manufacturers consisting of regional industry partners. Participants benefitted from industry experts (representing manufacturing, economic development, workforce development, and SM vendors) discussing how SM specific skills will impact future workforce and technology investments 3.3. Development of Use Cases Four, industry relevant, use cases were developed within the SMI lab and Keck
course and became more engaged with the projects they were involved in. These resultsalso showed that employing an interdisciplinary approach to teaching an introductory CADmodeling course can have a positive impact on the students’ learning experience.1 IntroductionModern manufacturing processes, computer-aided design and modeling tools are increasinglyintegrated to provide features that enhance productivity in manufacturing and design. CADmodeling and design software applications are becoming increasingly necessary within industry,academia and even among freelance designers involved in creating new products and processes.Traditional instructional approaches in CAD and computer aided engineering (CAE) relatedcourses provide fundamental
engineering design process(identification of the problem, prototype development, testing design, design optimization, andsharing the solution). Teams of 4 students were presented with a case scenario where they wereexpected to develop a “Scleraxis Tendon Tissue Engineering Bioreactor (TTEB)” with the designcriteria specified as autoclavable, mammalian tissue culture-compatible, and an ability to apply atleast 50% cyclic stretch on enclosed cell-seeded biomaterial scaffolds. After acquiring a discretionary budget available upon initial prototype presentation, teamsfabricated TTEBs and evaluated their designs. In order to overcome the time limitations associatedwith the iterative nature of the prototype optimization step, we incorporated LEGO
learningAbstract:Simulation games (SGs) have been widely used in classrooms since they help mimic a real worldoperation or process in a controllable way. While simulation games are widely applied in face-to-face settings, their availability for use in online learning environments is very limited. This isan important education issue since 33.5% (7.1 million) of all higher education students take atleast one online course. This number is is believed to reach up to 90% over the next 5 years asthere is an increasing number of universities now experimenting with Massive Open OnlineCourses (MOOCs)[1].The objectives of this paper are: 1) to identify the gap between face-to-face and onlinesimulation games, 2) to identify key features of simulation games that enable making
underrepresented groups (Figure 1A & Figure 1B), to engage Figure 1. Demographics of POETS REU students from 2018-2020. Note: 2020 REU Site occurred remotely thus cohort was smaller than previous years. A) Race and Ethnicity. White: Non-Hispanic White. Native: American Indian and Native American. Hispanic: White Hispanic. Multiracial: One or more races or ethnicities B) Gender demographics of REU participants. C) Institution type of REU participants’ home university at the time of applying to the RE program. D) Participants’ parental college degree status.in a 10-week summer program. Of this cohort, 44% were community college students (Figure 1C),and 47% had parents who had not received a college degree (Figure 1D). An external evaluationteam
(Gonczi et al., 2016). Elementary teachers often cite practicalconstraints such as available time, materials, money, and/or space as hindering inclusion ofengineering opportunities (Brophy et al., 2009; Stohlman, Moore, McClelland, & Roehrig,2011). However, a growing range of software options may overcome materials, time, and/orfinancial concerns by allowing students to engage in virtual engineering (Plant, et al., 2009;Ronen, & Eliahu, 2000; Symans, 2000).This study extends previous research on teachers’ digital technology use during scienceinstruction (e.g., Gonczi, Maeng, & Bell, 2017; Maeng & Gonczi, 2020). This exploratory studyinvestigated elementary and middle school teachers’ integration of digital technology
between twocohorts or two schools. Using this structure, each participating school receives approximately 22hours of support each week throughout the academic year. Sharing a graduate student acrossgrade levels is possible because elementary teachers are generalists who provide instruction onmultiple subjects and typically spend as little as 45 minutes each day on mathematics and/orscience. In 2010, 24 teachers participated in this program, impacting approximately 750elementary school students throughout the academic year.During the summer prior to classroom placement, graduate students receive instruction onelementary education, literacy in mathematics and science classrooms, cultural differences andeffective strategies for working with diverse
describes the process and results to date being undertaken by the Society ofManufacturing Engineers through its Manufacturing Education & Research Community (SME-MER) to move the curricula for manufacturing education forward. The goal is to ensure thatgraduates are well prepared to serve the wide spectrum of industry needs in a high-technology,globally competitive, and rapidly evolving world. The process builds on landmark workcompleted in the 1990s from which a series of publications emerged that defined content,program organization, and differentiation among associate degree, baccalaureate degree, andgraduate degree programs. A variety of methods are being implemented to perform the updatingof recommended curricula and the intended product
to engineeringdesign learning, though less impactful, are still effective delivery methods for introducing keyaspects of engineering design education (e.g. modeling, global/societal/economic/environmentalfactors, communication skills). We used ethnographically-informed qualitative observations andinterviews to collect in-depth and interpretive data on students’ informal engineering learningand then use that data, in conjunction with pre-existing survey instruments.Table 2: Summary of Current Findings from Empirical Field StudiesHow do students describe Autonomy/Agency over worktheir experience with Practical experiences that influence persistence in engineeringengineering-related non-curricular activities
, and engineering through engineering education research thereby making it accessible to all. His life experiences in India, and now on tribal lands, instills a personal mission to lift up the lives of under-appreciated/represented peoples. He has great passion for both engineering education and student success. He has the support and engagement of his institution for his all transformative efforts towards Engineering education and upliftment of underserved student populations in general . ©American Society for Engineering Education, 2025Bridging Tradition and Innovation: A Thoughtful Approach to Future-Ready Education1. IntroductionEducation is continuously
informal discussionswith other engineering educators. MATLAB and Python both support creation of interactivedocuments (via MATLAB Live Scripts and Jupyter Notebooks, respectively) that combine codeand explanatory text, formatted equations, images, and code outputs into single files. We refer tothe MATLAB Live Scripts and Jupyter Notebooks that we created for the workshop as“interactive coding templates.”Our rationale for using interactive coding templates over traditional scripts (i.e., MATLAB .mand Python .py files) is based on their demonstrated pedagogical value in teaching science andengineering students in an engaging and organized manner that promotes learning [4-21]. A keyelement of the interactive coding templates is the use of literate
dimensioning schemes to match manufacturing processes is well demonstrated.Figure 2 shows an example of a student drawing. Because the students are using mills equippedwith digital readouts, the use of ordinate dimensioning and properly defining a zero locationgreatly reduces the potential for error in the build process. The two piece top assembly requiresa press fit driving the tolerance requirements to the limits of the equipment. The projectdemonstrates the advantage of precision equipment, the challenge of critical tolerances, anddeflection of the material during the turning operation as well the impact of the operator on theprocess. Figure 1: Each student completes 4 hands-on projects during the lab portion of the course
pedagogy (CRP) with othersubjects. The IMPACT RPP also developed questions that help educators determine whethertheir lessons follow CRP and CT practices. Computational Thinking Culturally Responsive Pedagogy1. In what ways does the learning experience 1. In what ways is the context of the experience ask students to engage in Abstraction, i.e. connected to your students’ cultural and removing unnecessary detail and identifying linguistic backgrounds? common features? 2. In what ways are students encouraged to2. In what ways does the learning experience make connections to their home/community ask students to engage
resources to assist in the identification, development, and assessment of workplace skills in STEM classrooms, and investigating the connec- tions between information processing and symbolic representations used in organic chemistry. As part of her graduate work she examined the influences of instructor facilitation and course materials on student argumentation, and the propagation of STEM educational innovations. c American Society for Engineering Education, 2018 Enhancing Learning by Assessing More than Content KnowledgeAbstract: Skills such as communication, teamwork, critical thinking, and problem solving arefrequently cited as intended learning outcomes for STEM degree programs. While these
way for students to interact with others and learn to work onreal-world problems as a team.1 Olsen et al., have elaborated on the evolution of interdisciplinarycurriculum strategies as a part of integrated design experience.2 Reeves et al., have discussedvarious student engagement techniques to multidisciplinary online engineering laboratories.3Interdisciplinary projects are important to develop communication and interpersonal skills instudents.4 ABET accreditation requires that students work in multidisciplinary teams.Online learning has received great visibility since its inception. It is an excellent way to providestudents with course content in multidiscipline classes. Online courses have experiencedincreased student enrollment from 10
Industrial Design. She teaches design studios and lecture courses on developing creativity and research skills. Her current research focuses on identifying impacts of differ- ent factors on ideation of designers and engineers, developing instructional materials for design ideation, and foundations of innovation. She often conducts workshops on design thinking to a diverse range of groups including student and professional engineers and faculty member from different universities. She received her PhD degree in Design Science in 2010 from University of Michigan. She is also a faculty in Human Computer Interaction Graduate Program and the ISU Site Director for Center for e-Design.Amy RechkemmerJennifer Marguerite Wenger
important, we somewhat neglectmeasuring the impact of who REM students meet during their summer. As can be seen fromdescribing the programs, the REM students grow in both their professional and personalnetworks; they now know leaders and administrators of organizations, centers, colleges anduniversities, teachers, peers and friends also in engineering/STEM, many who will rememberthem, be open to being contacted, will help them, and even a few who will continue to mentorthem through their formative early professional years. As the focus of NSBE SEEK is on theSEEK kids, the events they hold, the volunteers from businesses, universities, neighborhoods,parents, and community centers, all of those interactions that involve engaging the SEEK kidsalso
. ≠ Explore the role of advanced technologies in the manufacturing curricula. ≠ Identify competencies and skills needed for nano/bio/electronics/energy and other advanced technology based manufacturing industries. ≠ Specify curricular elements needed to address the competency requirements of nano/bio/electronics/ energy manufacturing. ≠ Explore the means to enhance the inflow of students to manufacturing programs. ≠ Engage industry in enhancing the scope of manufacturing education. ≠ Consider the impact of “globalization” on the future of manufacturing education. ≠ Lay the foundation for a larger manufacturing conference in 2009.The forum included two workshops, three key note addresses, three sessions on the
system for granting credit for experientiallearning in the workforce. We are working now to engage stakeholder in defining needs andgoals with the hope of developing partnerships in both electric power and transportationconstruction trades, using the trusted infrastructure provided through existing tradesorganizations, unions, community colleges, and vocational high school programs. Buildinginfrastructure for electrified transportation can revitalize these trades as cutting-edge enterprisesand ignite interest in engineering careers.Instilling diversity and culture of inclusion in students at all levels will rely on psychologicalresearch on reducing prejudice that shows that intergroup contact is the most effective way totransform bias into
questions were: 1) What types of pedagogical approaches ground TRANSPIRE as a successful strategy for embedding students in the process of germinating PTRQs that have the potential to contribute to solving seemingly intractable scientific and societal challenges? 2) How and why does a transdisciplinary dialogic approach support change in helping students germinate more impactful research questions (even though their current projects are not expected to be transdisciplinary or team-driven)? What challenges remain?To pilot the TRANSPIRE program, we focused on two objectives: 1) Design, deliver, and evaluate the TRANSPIRE program, with a focus on: a. How well does it enhance mentoring postdocs in germinating PTRQs
goals. These adaptations wereevaluated using a five-level rubric validated by co-author from a separate Canadian institution,focusing on creativity in technology integration, student engagement, and experiential learningwith transdisciplinary connections. The analysis also aligned with key experiential learningprinciples, ensuring robust evaluation and insights.The 26 unique adaptations connected climate change, place identity, and educational technologyto demonstrate how digital tools can foster engagement to address climate anxiety includinglocal and global sustainability challenges. Through personalized or community-based projects,PSTs investigated the impact of sustainable food sourcing on carbon footprints and climateresilience. The
NUCLEAR INDUSTRY2. BackgroundWhen a learner is presented the opportunity to complete or visualize the work, there are portionsof the brain engaged that allows for the user to be more receptive to retention. In order to tap intothe more active learning areas of one’s mind, it is important to revitalize the method of delivery.In Figure 1, the study reflects that the retention curve excels what can be expected by onlyproviding one method of implementation. Figure 1 Students Remember [3]Information from the study shows the act of reading about vs. the act of seeing an actionrespectively is far less than hearing about an action. The percentage of information retainedincreases by approximately 40% if you physically
, Kant et al. (2018) used pre-and post-activity surveys alongside focus groups to evaluate the impact of culturally responsive STEAMactivities on Native American girls. Their mixed-methods approach allowed them to quantify changes instudent attitudes toward STEM while capturing rich, qualitative insights into how these activitiesinfluence students' cultural pride and engagement. Finally, some studies incorporated action researchmethodologies, where researchers collaborated with educators and community members to implement andevaluate interventions in real-world settings. Foss et al. (2024) described an art and engineering outreachprogram that used participatory action research to engage students from diverse backgrounds. Thisapproach ensured
stipend, and three prizes in the form of 1-hour consultations with prominent organizations in the space. • Inspired by the active engagements invested into the students’ learning experience in 2.009, encouraging easter-eggs throughout the event rounded out the experience for participants to feel that this was really for them and their learning. Details like small and quirky prizes after answering a mini-quiz correctly, and an upside down encouraging statement on each nametag, set the bar of attention and detail.The following deliverables were requested of each team of participants during each of themodules.The Harvard Education Hackathon: Design Background and ParametersThe HGSE Hackathon occurred months later, in October
generation have tended to evolve with thesechanging interests, teaching and research dedicated to the conservation of energy has remainedcomparatively static.From an analytical standpoint, many companies do not possess the in-house knowledge neededto fully assess the impact that simple energy conservation measures can have on their facilities ormanufacturing operations. This knowledge gap can often be bridged when plans for the moreefficient use of energy is correlated directly to monetary savings. Toward this end, theresponsible energy engineer must be fully adept in the appropriate engineering fundamentals andthe associated economics as well.Spurring renewed interest in the development and adoption of both new and existing energyconservation
the Center for Global Education at the University of Tulsa. The programwas awarded five years of funding in 20061 and has been renewed for another five years2.This paper will provide an overview and justification for the development of the NanoJapanProgram, provide an overview of our program assessment and student outcomes to date, andconclude with an overview of the potential impact of the NanoJapan Program model on STEMeducation and international engineering programs nationwide.2.0 Program Context2.1 The need for internationalization of STEM Education: The Institute for InternationalEducation’s (IIE) 2012 Open Doors report indicates that science and engineering students stillmake up a relatively small percentage of the overall number of
of Maryland, Baltimore County. Dr. Ireland’s work centers on the intersectional nature of social, academic, and occupational identities among underrepresented students in computing and engineering majors, and factors impacting academic motivation and persistence. She also examines the relationship between identity and motivation and the psychology of intersectionality in STEM education. Dr. Ireland holds a B.A. in African American studies and family studies from the University of Maryland, College Park and a Ph.D. in educational psychology from Howard University.Jordan Esiason Jordan Esiason joined SageFox as a Research Assistant in 2018 while completing degrees for his two passions in Mathematics and Music
capstone design projects are performed at industrial sites andgovernment laboratories, including geographically diverse locations.Geographically distributed capstone project teams – Geographically distributed designprojects offers the opportunity to engage as students in the kinds of global engineering activitiesthat are expected of practicing engineers. The challenges and some methods to optimize idea Page 21.20.4generation in distributed settings are described in [10].Institutional exchange programs – Many institutions of higher education have exchangeprograms in place whereby students from one university spend a semester or year at
student population wherein over80% identify as Hispanic, with around half of them being first-generation college attendees. Ouruniversity has established a reputation for leveraging its strategic location within the Rio GrandeBasin and along the Mexican border, so as to foster educational resources highlighting theachievements and history of Hispanic-Americans. Within this context, the current project’s aim issupporting investigation of the Rio Grande Basin and its impact on Hispanic-Americans byconsolidating significant resources from diverse collections within the Library of Congress andelsewhere into a centralized web module. The module offers an extensive range of engineering-related resources, specifically designed to cater to the