experience. Designed as a 60-contacthours/year program directed by the university, this effort will serve 150 girls who are high schooljuniors over two years, through high school graduation to enter college. In 2017, 75 participantswere recruited from schools. Undergraduate mentors support the program with planned activitiesto explore engineering around the types of problems engineers solve and their impact on society,experiences to confront stereotypes, facilitate access to industry mentors, and university sitevisits.3) Engineering Projects in Community Service (EPICS) at the high school grades 9-12 andcommunity college encourages exploration of engineering as socially relevant through socialentrepreneurship efforts in a co-curricular experience
mechanicalengineering majors and faculty immersing them in projects with practicing engineers, in whichstudents’ sense of belonging, engineering identities, and their persistence in the major werestudied 11. Solomon et al. reported that there is a visible gap in computing education research thatdoes not capture the intersectionality of being a Black woman in computing 12. Schar et al.explored the classroom belonging experiences with students in their first engineering-specifcclass, and found that belonging had two separate sources: academic belonging and socialbelonging 13. Al-Qudah et al. embedded small interventions in a course for engineering pre-majors to improve their sense of belonging and self-efficacy 14.It is the hope that we can build upon prior work
: Industrial and Systems Engineering) from Anna University [Tamilnadu, India], her MS in Industrial Engineering from Auburn University, her MA in Management Science and MS in Applied Statistics from The University of Alabama. She has experi- ence working with many industries such as automotive, chemical distribution etc. on transportation and operations management projects. She works extensively with food banks and food pantries on supply chain management and logistics focused initiatives. Her graduate and undergraduate students are integral part of her service-learning based logistics classes. She teaches courses in strategic relationships among industrial distributors and distribution logistics. Her recent research
Engineering Thought. International Journal of Engineering Education 20(3): 412-415.5. Mills, J.E., and Treagust, D.F. (2003). Engineering Education – Is Problem-based or Project-based Learning the Answer? Australasian Journal of Engineering Education 2(2): 2-16.6. Bhandari, A. and Erickson, L.E. (2005). Case Studies Can Fill a Critical Need in Environmental Engineering Education. Journal of Environmental Engineering 131(8): 1121.7. Nair, I., Jones, S., and White, J. (2002). A Curriculum to Enhance Environmental Literacy. Journal of Engineering Education 91(1): 57-67.8. Broman, G.I., Byggeth, S.H., and Robert, K. (2002). Integrating Environmental Aspects in Engineering Education. International Journal of
project with three aims:1) advance our understanding of the experiences of successful Black engineering graduates andthe outcomes of engagement with identity-related professional organizations; 2) identifymechanisms that support student success via engagement in these organizations; and 3) producea video series entitled, “The Wisdom Files”, to disseminate stories of engagement andpersistence among Black engineering graduate students. This paper will focus on highlights thatemerged from the systematic literature review conducted during the first phase of the study. Asystematic literature review (SLR) was used to explore and synthesize findings from existingscholarship on the role of professional organizations in supporting Black engineering
.695 clearly describe their content Writing a memo to inform others about what .513 .526 occurred during a meeting Creating a written instruction of an activity that .486 .486 other people can follow Composing a report that contains at least a title, .453 .459 a table of contents, the main text, and references Speaking in public with calm and ease .951 .810 Using appropriate presentation techniques .764 .786 (e.g., making eye contact with the audience, projecting voice, etc.) Tailoring the tone and content of your message .565 .383 while
being used in an increasing number of undergraduate courses and projects 2 3 4 5 6 7 .A brief survey of earlier courses on neural networks is given by Shibberu 8 . In this paper wedescribe a course on deep learning taught four times in a mathematics department to a total ofover 100 students, 93% of whom were undergraduates. The goals of the course are to: • use the mathematics background of STEM majors to develop, from first principles, the key concepts used in deep learning. • expose students to empirical modeling. • expose students to the advantages of machine learning over machine programming. • inspire students to use deep learning in their future work.Organizing PrinciplesCourses can be organized either from a top-down
pedagogy for problem based courses. He created and co-teaches a multi-year integrated system design (ISD) project for mechanical engineering students. He is a mentor to mechanical engineering graduate teaching fellows and actively champions the adoption and use of teaching technologies.Dr. Michele J. Grimm, Michigan State University Michele J. Grimm is the Wielenga Creative Engineering Endowed Professor of Mechanical Engineering. In addition to her scientific research, Dr. Grimm has spent a large part of her career focused on curriculum development and enhancement of student learning in engineering. She served on the faculty of Wayne State University for 25 years, where she developed and implemented both undergraduate
very proud to show them, letting first-hand experiencebuild enthusiasm for a career path enabling an independent and prosperous adult life. Observingbig and small engineering works raises interest, e.g., seeing the awesome scale of a 1,000 MWpower generator or watching a pipefitter annealing copper tubing by heating it to a glow andrapidly quenching in cold water. Hard copper magically becoming malleably soft. Today’s bestanalog are the robotics-mechatronics programs, which provide a limited bandwidth that ought tobe much broader. With appropriate planning and supervision, middle and high school agestudents holding interest in engineering need to experience more than science projects, and seereal things being made.Although the most significant
interested facultyfree of charge one completed. AcknowledgementCurrent funding for this project has been provided by the National Science Foundation through awardHRD-1912085 Additional resources have been provided by SCSU. The authors wish to acknowledgethis support and thank NSF for this grant. References[1] T. Briggs, “Techniques for Active Learning in CS Courses,” Journal of Computing Sciences in Colleges, Vol. 21, no. 2, 2005, pp. 156 – 165.[2] Bonwell, C.C. & Eisen, J.A. (1991). Active Learning: Creating Excitement in the Classroom. School of Education and Human Development, George Washington University: Washington DC.[3] FEison, J
adopted the Connor-Davidson Resilience Scale (CD-RISC) tomeasure resilience in a student resilience project that we have embarked upon. Although theinstrument is a highly studied and cited resilience measure, we found no empirical study thatdocuments the validity of its use with engineering students.The CD-RISC is a 25-item resilience instrument that measures the resilience construct and itscognates. Although the literature identifies the CD-RISC as a reliable measure, efforts to replicatethe factorial structure in different samples have not been successful [15, 16]. Because resiliencescores are evaluated under different risk conditions and ethnic settings, the interpretation of factorscould be construed differently among various populations
disadvantaged andacademically talented undergraduate students in the Mechanical Engineering Department from2009 to the present. The NSF funded S-STEM project focuses resources on financial support,coupled with curricular and co-curricular activities designed to facilitate student degreeattainment, career development, employability in STEM-related jobs, and enrollment in graduateschool. In addition, our S-STEM program proactively implements engineering researchactivities, including in-depth lab tours, seminars, REUs, research conference support, featuringresearch/internship on our website, and presentations to recruit students for research, etc. In this study, we present preliminary data that reveal the attitudes and perceptions of thecurrent 25
process” [14]. South Korea isalready embracing smart factories in manufacturing because of the decline in working-agepopulation. Since South Korea is aging at the fastest rate among OECD countries, productivitygrowth is vital to maintain its economy. The South Korean government has stated that smartfactories will help maintain its productivity growth; the public and private sectors have set up aplan to increase the number of smart factories to 30,000 by 2025 [15].South Korea is one of the countries that is most exposed to risk from automation. In the midst ofthe global loss of about 20 million, or about 8.5%, manufacturing jobs due to automation, SouthKorea is projected to lose nearly 800,000 jobs over the next decade [16]. Like many
park became a city-owned park, there weresome ambitious plans for its development; however, later it was decided to keep it as a naturalarea with an emphasis on environmental protection [10] and education. This was because thelocal community wanted restoration of the native ecosystem and some development to make thepark more attractive as a site for recreational activity and public visitation but the emphasis wason carrying it forward as a natural area. In 1996, none of the partners of the project came forwardto take responsibility for managing the Wetland Park. Finally, Hilltop University was contractedto serve as a manager thereof [10].Since the region has a dry and semi-arid climate with periods of drought and water scarcity, thebiggest
, group projects,simulations, in-class talks, problem-solving exercises, critical thinking, and practical problem-solving exercises. Active learning, in contrast to conventional lecture-based methods, promotesstudent participation in the learning process, leading to a deeper comprehension of the subjectmatter. By encouraging active student participation instead of just passive information intake, theintention is to create a more dynamic, encompassing, and interactive learning environment.When compared to more passive approaches, an increasing amount of research shows that activelearning improves student outcomes like retention, engagement, and learning gains [2], [3].However, faculty at colleges and universities continue to adopt active learning
typically been thought of as successful. The main takeaway from thisinitial study is a need to address the researcher’s own assumption that looking for “untraditional”expressions of engineering within the participant’s art is limited only to a similarly “traditional”form of diversity. The researchers continue this project to expand the answer to who can be anengineer and will analyze the rest of the camps that were run in the summer of 2023, hoping tocontinue to see this positive trend. References[1] J. Michaeli, V. Jovanovic, O. Popescu, A. Djuric, and E. Yaprak, “An Initial Look at Robotics-based Initiatives to Engage Girls in Engineering,” vol. 14, no. 2, 2014.[2] Board on Behavioral
questions to LGBTQ students”, and that “students’ personal identities can changeas a result of exposure or meeting role models with similar identities and identifying with them”.Third, we learned that participants indeed see themselves using aspects of the panel in the future.For example, they expressed that they would “introduce themselves with their names and pronounsto project that they are open to conversations,” “add an inclusive statement to their class syllabusesand/or research lab group guidelines” and will have confidence in allowing themselves to makemistakes when learning more about LGBTQ experiences. Finally, from participant feedback andinformal conversations afterwards, we learned that administrators and educators would like toattend
the early stages, our study leverageslongitudinal survey data to outline their initial experiences. This is the foundational step indeveloping a comprehensive understanding of the change in international students’ experiences.MethodsRecruitment This study is an extension of a prior project that primarily investigated attrition ofdomestic students at the Master’s level within engineering disciplines [33]. For data collection, weutilized longitudinal surveys distributed through SMS text messaging on cellphones from October31st, 2022, to November 3rd, 2023. Students were recruited from the top 50 institutions grantingengineering Master’s and Ph.D. degrees based on [34]. We recruited 25 first-year internationalgraduate students in engineering
% Tri, CF, 50% HC, CF, 50%Lin, CF, 70% Tri, CF, 70% HC, CF, 70% Testing surface roughness is nondestructive, so this was tested first. A spectrometer isused to measure the differences in the surface. A light is projected over the surface of thespecimen and the spectrometer measures how many photons are captured on the other side.Multiple data points are captured and compiled into an average Ra value in millimeters (mm).Each specimen was used and recorded in this manner. Testing hardness only uses a small portion of the specimen, and therefore the specimencan be used again for future testing. This recycling minimizes waste to be cost effective. Using adigital Shore D durometer, the larger, end section of the
Division and ASEE Projects Board. ©American Society for Engineering Education, 2024Evaluating the Impact of a Summer Engineering Program Using the National StudentClearinghouseIntroductionSTEM education, encompassing science, technology, engineering, and mathematics, is crucialfor elementary and secondary students. It plays a pivotal role in cultivating vital skills likecritical thinking, teamwork, and creativity, preparing students for the demands of a competitive21st-century society. This holistic educational approach equips students with the essentialknowledge and abilities needed to navigate future global challenges.The pursuit of a STEM degree offers students, especially those from disadvantaged backgrounds
cursive font, can reveal the student's identity. This will be more pronounced if multiple exams are taken by the student or if the student has the same instructor in multiple classes. 2) Sample size: The classes we considered had around 40 students. After splitting the class into control and test groups, the number of students in some demographics was low. 3) Nature of the course taught: We employed this technique for courses in the chemical engineering major. A wider outreach with more courses in other majors will provide a comprehensive look at the problem.Future ConsiderationsWe are pursuing several avenues of future research in this project. We outline some of our futurework below.Improvement of the Anonymous
?MethodStudy Participants and ContextThe participants for this study are second-year mechanical engineering students enrolled in an"Engineered Systems in the Society" course during the Fall 2023 semester at the college ofengineering of a southeastern university in the United States. The course employs contemporaryreadings, team projects, and experiential learning elements to enhance students' conceptual andpractical grasp of socio-technical systems. Additionally, the course introduces students to socio-technical complexity, guiding them in the conceptual understanding, systematic analysis, andholistic engagement with engineering settings influenced by social, cultural, economic, andecological factors.Data CollectionThree sections of the course were
. Additionally, a distinct interest in fostering individual mentor/menteerelationships for scholarly pursuits emerged, indicating a desire for personalized support withinthe CoP.“But personally, I prefer to work one-to-one, like an advisor-advisee relationship. I feel like Iwill make more progress than [at] the team level,” shared Interview Participant 3. Similarly,Participant 1 noted the need for personalized, individual collaboration with another co-author tosustain their efforts, sharing, “[The CoP meetings are] like a sprint. What I'm thinking of is amarathon. I cannot see myself sustaining my interest and investment if it is a long-term project.”Conversely, several benefits that participants found emerged. Access to valuable resources andframeworks
interpretations and acknowledges the dynamiccomplexities of disability, 2) using local knowledge of students who use accommodations, 3)analyzing power structures that contribute to ableist policies and impact student experience, and4) recognizing the relationship between impairment, disability, and environment (i.e., using anexpanded version of the traditional social model that acknowledges embodiment).MethodsThis research project uses a mixed methods approach consisting of two main components 1) asurvey of undergraduate engineering students, and 2) the analysis of lecture recordings andsyllabi from engineering courses. This paper will explore the initial findings from component 1.Component 1: Survey of Undergraduate Engineering Students Surveys
qualitative and quantitative methodologies. Her career goals are to work as an evaluator or consultant on educationally based research projects with an emphasis on statistical analyses and big data.Dr. Christy Jenkins Brown, Clemson University Dr. Christy Brown is a Clinical Associate Professor of Quantitative Methodology in the Department of Education and Human Development (EHD) at Clemson University. She teaches doctoral-level courses in statistics for educational contexts and provides statistical support to educational researchers through her role as the founding director of the EHD Quantitative Clinic. She holds a PhD in Quantitative Methods in Educational Psychology, an MS in Statistics, and a BSEd in Mathematics
’ experiences in engineering (e.g., Figard & Carberry, 2023; Figard etal., 2023b; Figard et al., 2023c), this paper expands on the nuanced complexities surroundingidentity within the disabled engineering community by addressing the following researchquestion: How do disabled women in engineering degree programs describe the intersections oftheir marginalized identities, as they relate to their educational experiences?Methods The findings presented in this paper are a subset of a larger project and data collectioneffort that focuses more broadly on the experiences of disabled engineering students. Morecomplete methodological details can be found in (Figard et al., 2023b; Figard et al., 2024).1 Identity-first language is used in this paper to
paths, assessingstudents in real-time, and providing instant feedback or suggestions using AI algorithms. As partof a three-year NSF-funded study, the project team implemented adaptive learning in a flippednumerical methods course for pre-class preparation, using multiple previous semesters of flippedclassroom data as the benchmark. Assessment data from 330 students was collected at threediverse engineering schools using a final exam (i.e., for direct knowledge assessment) and theCollege and University Classroom Environment Inventory (CUCEI) for student perspectives.Although some differences in the direct assessment measures with the use of the adaptive lessonswere seen based on the particular school, the overall effects of the adaptive lessons
-sponsored collaborative research projects focused on broadening participation in STEM academia. Dr. Mendez’s research centers on the creation of optimal higher education policies and practices that advance faculty careers and student success, as well as the schooling experiences of Mexican-descent youth in the mid-20th century.Dr. Comas Lamar Haynes, Georgia Tech Research Institute Comas Lamar Haynes is a Principal Research Engineer / faculty member of the Georgia Tech Research Institute and Joint Faculty Appointee at the Oak Ridge National Laboratory. His research includes modeling steady state and transient behavior of advanced enDr. Billyde BrownRay Phillips, American Society for Engineering EducationJennifer TygretTaelor
function of input variables such as learning disabilities [81, 82], amount and quality of time ofinvolvement [80], perceived academic ability and drive to achieve [83], in UG and postsecondarylevel students. The IEO model has also been used to investigate the role of gender and race in theprediction of gender-role traditionalism [84], feminist identity and program characteristic roles insocial advocacy [85] and differences in transition of black and white students from high school(HS) to college [86]. For this project, the IEO examines inputs such as prior coursework, internship,and virtual laboratory experiences and sociocultural identities, e.g., race/ethnicity, gender, studentoutput grades; and environmental factors such as the virtual lab
combination of self-assessment and opinion questions. Q1(Did the A+E eventincrease your understanding of the science behind the training activity?) was to these students.All five of the students responded that their scientific understanding was “very much” enhancedby the A+E Summer Camp.The second program was the Army Educational Outreach Program (AEOP) Apprenticeships andFellowships program. The AEOP program “brings real world STEM experiences to studentsseeking to enhance their knowledge in science, technology, engineering and math thatcomplements the things they’re most passionate about.” [8,9] The program supported two regionalstudents to be engaged in immersive (200 hour) individual research projects that were part of alarger effort. The first