Poly Pomona.References[1] Bhandari, S., Aliyazicioglu, Z., Tang, F., and Raheja, A., “Research Experience for Undergraduates in UAV Technologies,” Proceedings of American Society of Engineering Education Annual Conference, Salt Lake City, UT, 25-28 June 2018. [2] Bhandari, S., Aliyazicioglu, Z., Tang, F., Raheja, A., and DeJonghe, E., “REU Site in UAV Technologies: Assessment of the Program after the Second Year,” Proceedings of American Society of Engineering Education Annual Conference, Tampa, FL, 16-19 June 2019.[3] Moffatt, A., Platt, E., Mondragon, B., Kwok, A., Uryeu, D., and Bhandari, S., "Obstacle Detection and Avoidance System for Small UAVs using a LiDAR
-registration between campuses. Overall, courses developed or selected for the program introducestudents to emergent energy technologies (including the smart grid and infrastructure systems ofthe future), probabilistic risk assessment, and the dynamics of various energy markets, includingidentifying changing energy needs on a local to a global scale.Data from surveys, combined with evidence from student portfolios and feedback fromstakeholders, are presented to show how students in the program gain in their understanding ofkey concepts and how associated experiential activities, including internships, researchexperiences and exposure to real-world case studies. The ensuing energy education enhancesstudents’ preparation to meet the challenges of
) Research Experiences forUndergraduates (REU) programs. Critical to the success of this new paradigm is a campus-community partnership. This partnership makes it possible for the first time to assess thesummer program at the government institution due to government regulations.The AFIT Summer Research Program hosts approximately 50 student contractors each summer;making the program four to five times larger than a typical NSF REU program, and over 10%are female. All students who participate in the AFIT Summer Research Program are required tobe U.S. citizens, and are employed under a contractor through the Southwestern Ohio Councilfor Higher Education (SOCHE). SOCHE has employed nearly 1,000 STEM students over thepast 25 years in both summer
participants using an evaluation atthe conclusion of the unit, and 3) the engineering students using a reflective journal. Both theparents of the elementary school students and the engineering students failed to complete theirassessments. This indicates that reliance on intrinsic motivation is not enough.Programs #3 and #4Institutional ContextThe next two outreach programs were developed at the University of Illinois Urbana-Champaign, a large public land-grant university with a strong research foundation andundergraduate/graduate student engagement in service learning and outreach.Curriculum/Learning GoalsThe first program combines a two-semester graduate course and outreach to high school studentsenrolled in the AVID (Advancement Via Individual
, and engineering into a single intensively focused experience. Theprogram was profiled in local front page news coverage,2 the headline story in ASEE First Bellpublication,3 and a US News & World Report article. 4 Following the teaching experience, thethree faculty members sought to reflect on the experience in a structured way. We formulatedquestions to probe areas of interest for reflection based on Borrego and Newswander.5 Thequestions were answered individually and independently, and then the answers were shared sothat we could engage in shared reflection. After a brief overview of the nature of this program(objectives, structure, deliverables, assessment), this paper shares some of the notable points andinsights that emerged from the
) substantial modifications to Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright© 2003, American Society for Engineering Educationcurricula and academic programs in conformity with standards and guidelines of neighboring Arabcountries; (3) availability of better qualified teachers, drawn principally from neighboringcountries; (4) provision of special education for physically and/or mentally challenged students;and, (5) the emergence of a more concerned general public with education.Public schools, by and large, are under the auspices of the Ministry of Education who is solelyresponsible for planning, operations and budget. Little, if any, real difference exists
comprehensive understanding of student experiences ininterdisciplinary programs or conduct a robust evaluation of the website. Instead, we aim toprovide preliminary insights into what shaped the student’s decision to pursue an interdisciplinaryengineering education.MethodsStudy ContextA school at a large midwestern university manages three essential undergraduate programs in thecollege of engineering: first-year engineering program, multidisciplinary engineering program(MDE), and interdisciplinary engineering studies program (IDES). All engineering students mustcomplete first-year engineering requirements before transitioning to their preferred academicmajor. Students that are interested in an interdisciplinary engineering education apply to thisschool
before and after participants’summer research experience in Brno (referred to as pre/post surveys). The pre-summer surveyprovided information about expectations and a baseline for many of the post-summer questions.The end-of-summer survey was a comprehensive assessment of the students’ experiences thatincluded both close-ended and open-ended questions.Students were asked to rate the IRES program overall on a scale from 1=Poor to 5=Excellent,with the distribution of answers for both years of the program provided in Table 2. While notedpreviously that Year 1 had a low, but still positive mean rating (3.40) of the program, overall theYear 2 rating was much higher (4.75). In fact, all Year 2 participants rated the program as verygood or excellent
; supply chain design; and undergraduate, graduate, and online systems engineering education development and assessment. In 2018, she started the SmartBuildings CT program at UConn with funding from Eversource and the United Illuminating Company. She is part of the leadership team at the University of Connecticut that leads the newly awarded US Department of Energy’s Southern New England Industrial Assessment Center and that offers no-charge energy audits to 20 manufacturing facili- ties in CT each year to help them lower their energy usage and costs. Dr. Thompson was the recipient of the US EPA Environment Merit Award, Region 1 (2017).Prof. Matthew D. Stuber, University of Connecticut Dr. Matt Stuber is an Assistant
Program has consulted with representatives ofits constituencies outside of the institution and our faculty members, primarily via our Board ofAdvisors, to establish and review Program Educational Objectives. In general, the process is asfollows: 1) Program Educational Objectives are reviewed and discussed by the Board ofAdvisors and selected program faculty members every year to ensure they remain consistent withour institutional mission, our program constituents’ needs, and ABET Criteria. 2) Uponcompletion of the discussion, any recommended changes are discussed with all EnvironmentalEngineering Program faculty members at the fall annual assessment briefing and subsequentlystaffed through the Environmental Engineering Curriculum Coordinator; the
broughtforward as potentially helpful practices in this paper. Many factors go into program curriculumdesign that were not deeply touched upon in this paper, but that are critical to program inclusivitysuccess. Topics such as program content, assessment and evaluation, would be good next steps inthis research effort. The recommendations in this work aim to be easily adoptable, feasible, andto not require significant resources, having been designed to be suitable for use inresource-constrained efforts. For example, the infographic in Appendix 1 could be easilyintegrated into planning during the design of an outreach program, or the check-list used toidentify small changes that could be adopted into an existing outreach program.Impact of federal law on
. Large variationin these climate measures would indicate that particular organizational context plays a centralrole in determining the experiences of LGBTQ students. Little variation would indicate that theanti-LGBTQ bias that perpetuates the marginalization and devaluation is likely part of theculture of engineering education broadly, not of particular engineering programs.Data and MethodsDataThese data include 1,729 students who are enrolled in eight engineering programs in college anduniversities across the U.S. These schools were identified through an initial survey of U.S.engineering deans and program directors in fall 2015 (see [13] for details). Ninety deansparticipated in this survey and 23 of those agreed to be contacted again to
significantly enhance the support andopportunities offered to its scholars and to conduct meaningful research studies that includesignificant-sized intersectional populations.1.1. Implementation and evaluationThe program adopts a cohort-based model, wherein a new cohort comprising 15 students perinstitution is recruited at the beginning of each Fall semester. These students are providedfinancial assistance to alleviate their academic burdens, allowing them time to concentrate ontheir studies and actively participate in the program's various events and activities.For the overall program assessments, the external evaluators and the internal researcher teamhave used different methods, such as surveys, interviews, and observations. On the other hand
of the civil engineering degree program at an undergraduate-focused engineering school.The material presented draws on the EOP framework and is designed for courses at the first-year,sophomore, and junior level. Student feedback to assess learning outcomes and student interest ispresented. In addition, the authors discuss an ongoing effort to coordinate the development ofclimate change-related curriculum and undergraduate research opportunities across multipledegree programs within the school of engineering at the authors’ institution.1. BackgroundMeaningfully addressing the climate crisis will require the transformation of civil infrastructure,including the development of utility-scale wind and solar farms to supply clean energy and
; ExpositionCopyright Ó 2001, American Society for Engineering Education”4. Program benefitsWhile our PFF experiment is still in progress and while the numbers are too small for statisticalanalysis, the results so far do seem to indicate that the program is encouraging more students topursue academic careers. Comments from the first year participants who have graduated indicatethat there are two possible reasons for this. In the first place, the PFF seminars and interactionwith faculty provided a means for disseminating information about academic careers and acentral point for students to bring their questions, even those that may have seemed trivial, to getanswers. The informal atmosphere of the seminars and the knowledge that there were otherstudents who
Foundation (NSF) funded FORTE (Fostering Opportunities for Tomorrow’s Engineers) Program at UWM. Jablonski is focusing her dissertation on sustainable oxidation of textile wastewater and is working to create small-scale wastewater treatment units for cottage textile industries. She trained at the National Environmental Engineering Re- search Institute (NEERI) in Nagpur, India where she worked on biodegradation of azo dye intermediates. Jablonski served as Co-chair of UWM’s student chapter of Engineers Without Borders for 2 years begin- ning with its inception in 2007 and continues to help design and implement water distribution projects in Guatemala as a mentor. Jablonski was a 2012 recipient of NSF’s EAPSI fellowship in
future education and then (c) draw a line that represents the approximate careers placement. distance between the “most” and “least” successful and 4.3.4 Student Assessment The students provide honest feedback about the program (d) mark the place of all of the other interns on that line. This approach provides rich thematic description of and themselves. Quotes include: outcomes and also enables quantitative estimate of • Earth science is a lot of hard work, and fun. overall success of the internship. • [Learning] how to process large amounts of data quickly is a3. Interviews with the program’s principal investigators will challenge
sustainable programs,creating a more inclusive and dynamic academic environment. The current study assesses asummer research program from 2019 to 2024. The current study evaluates a summer researchprogram that operated from 2019 to 2024, was designed to increase degree retention andattainment for STEM students while promoting their advancement into graduate students. Thisprogram engaged students in high impact practices aimed at fostering professional development,affinity for their STEM discipline, and research skills.Each year, student cohorts participated in an eight-week research project under the supervision ofuniversity or community college faculty members. Depending on institution of origin, previousresearch experience and academic standing
are moreadvanced scholars who served as role-models for the cohorts. Peer mentors also volunteered to serve onpanels and share their insights. As part of the program seminar course, we held social gatherings to allowstudents from different cohorts to create community with each other and with faculty mentors.The low-income students in the program often share intersectional identities with PEERs (persons excludeddue to ethnicity or race), women, and first generation students. In this study, we used PEERs, gender, andfirst generation status to understand how the program was addressing the equity gap in STEM. To assess theimpacts of the program we asked the following research questions: 1. To what extent does the program help close the
consequent community impact. The secondary focus is on teaching and guiding studentsto represent their research project findings in the form of a research poster.Table 7: Engineering Scholar Program Year 2 Undergraduate Research Workshop,Seminar, and Event Summary. All Year 2 events were held virtually due to the COVID-19pandemic.Long-Term PlansThe intellectual merit of the project will be assessed with the following research questions: 1. How does participation in collaborative cohort experience contribute to students’ membership within a STEM community? 2. In what ways do students use community membership to construct their own STEM identity?To answer these research questions, we are taking phenomenography-informed approach
task [3]. Asmany programs must deal with large numbers of students, this process of deciding how to placestudents in projects has been studied as the student-project allocation problem, with manyproposed solutions based on various premises [4] - [6]. With all these algorithmic solutions,while they are designed to optimize team formation with respect to potential success, theunderlying problem is helping staff with the complicated task of placing students.There is a fair consensus amongst the faculty in the capstone design community that to attractstudents, projects must be cool in the sense of involving technology that is familiar to them andworthwhile [7],[8]. Two papers were found that asked students from capstone courses to evaluatethe
engineeringprograms. To achieve their goals, Jensen and Cross examined stress, anxiety, and depression;engineering identity; and perceptions of inclusion in undergraduate engineering programs. Theycollected data from student populations at three large U. S. public universities. They hypothesizedthat levels of stress, anxiety, and depression would vary by social identities and that levels ofinclusion and engineering identity would vary by social identities and across socialidentities.To gather data Jensen and Cross relied upon a validated, quantitative survey that had oneopen-ended item. Their findings indicated that perceptions of inclusion and engineering identityare directly related to student mental health – measures of inclusion such as ”Department
, and career planning, particularly for minoritized urban youth. Multiplestudies indicate that using expanded opportunities for algebra in high school is effective forbolstering math skills [6], [7], [8]. Particularly for students who have not mastered algebra skills,increased dosage improves algebra assessment scores in the short-term [6], as well as long-termeffects such as higher number of credits earned in high school, higher probability of graduation,and a higher likelihood of college enrollment [7]. Out of school time (OST) programs have beenshown to significantly improve student achievement [9]. For STEM-focused OST programs,participation is capable of both encouraging and maintaining STEM interests [10], a precursor toaspiring to a STEM
Paper ID #37063U.S. Military Students in Civilian UndergraduateEngineering Programs: A Narrative Review of the StudentVeteran and Servicemember LiteratureHannah Wilkinson Hannah Wilkinson is a graduate student in Engineering Education at Utah State University. She received a B.S. in Chemical Engineering in 2019 from the University of Utah.Angela Minichiello (Assistant Professor) Angela (Angie) Minichiello, Ph.D., P. E., is an Assistant Professor of Engineering Education and Adjunct Faculty in Mechanical and Aerospace Engineering at Utah State University. Her research employs asset-based frameworks to improve
experiments and demonstrations to aid in studentunderstanding, and where they can access needed materials. Finally, the PD program is guided andaligned to the Ohio Standards for Professional Development (Ohio Department of Education 2015).Measuring teacher practice in science classrooms has proven to be difficult. Self-report surveys are costeffective, easy to administer, and allow for the collection of large quantities of data. However, thereliability and validity of self-report surveys is suspect (Mayer 1999). While teachers may be uniquelyqualified to report on their instructional practices (Goe, Bell, and Little 2008), their self-reports mayreflect their instructional intentions and perceptions rather that what is actually occurring (Copur
technology-integrated teaching practices in STEM education. In her dissertation work, she developed and validated a new interdisci- plinary assessment in the context of carbon cycling for high school and college students using Item Re- sponse Theory. She is also interested in developing robotics-embedded curricula and teaching practices in a reform-oriented approach. Currently, a primary focus of her work at New York University is to guide the development of new lessons and instructional practices for a professional development program under a DR K-12 research project funded by NSF.Sonia Mary Chacko, NYU Tandon School of Engineering Sonia Mary Chacko received her B.Tech. degree in Electronics and Communication Engineering
. Each optional coding assignment takes approximately 5 to 8 hours tocomplete, in addition to the regular coursework for ECE 220. Therefore, the barrier to entry ishigh and only a small number of students chose to complete them. However, it is important tostill have this customized learning path as an option for students who want to learn theseadditional parallel computing topics, instead of forcing a heavier workload onto everyone in thecourse. Since the coding modules include topics unrelated to the regular coursework of ECE 220and are not covered in assignments and assessments, the honors students would not gain anyintentional grade advantage over those who did not choose that learning path. The honors sectionexists as a way to further
/Course and these outcomes. We cansee from the figure that the confidence interval tends to be widest for MAE and also notablywide for CS. This result explains the high uncertainty with these two majors as they appear to beoutliers compared to the other five engineering majors. This is likely due to the small size of thesample where confidence interval tends to have narrower width in larger sample, indicatinggreater precision in the estimate.Taken together, the PCA findings (PC1 and PC2) and the correlation results offer a nuanced viewof how different programs vary in both curricular demands and post-graduation trajectories.Programs with higher curricular complexity may see a greater inclination toward graduate study,sometimes accompanied by
program evaluation for a large Department of Justice Second Chance Act grant. These efforts included monitoring, assessing, and evaluating the impacts of program outcomes. Since joining the UOEEE in 2015, Dr. Cook-Davis has led research and evaluation activities for over 50 separate grant-funded programs or initiatives funded by the National Science Foundation, U.S. Department of Education, U.S. Department of State, U.S. Department of Agri- culture, National Institutes of Health, and The Kern Family Foundation. These projects have focused on the evaluation of student success, outreach impacts, innovative learning techniques, and STEM-related interventions and curricula. c American Society
, “from the beginning he kind of took meunder his wing and showed me what his thought of what engineering should be.” The small sizeof the program helps create opportunities for students to get to know faculty and staff personallyand most of the students interviewed referenced the size of the engineering program assomething that attracted them to the program or as a benefit of the program that contributes totheir success. As Faith states, “I needed my teachers to know me as a human person, and so Icouldn't go to a large school.”A recurring theme in the student interviews is that small classes and a small program make iteasier for students to get to know their professors, and importantly for the professors to get toknow them as well. Faith