-generation date. implemented. students to enroll. ● Enrollment has steadily increased, from 20 students in the first semester to 35 in the latest semester. This growth demonstrates the positive impact of our promotional strategies and the value students see in the program.ASSESSMENT OF EFFECTIVENESSQUALITATIVE MEASURES: QUANTITATIVE MEASURES: CONNECTIONS BETWEEN STUDENT FEEDBACK. ACADEMIC PERFORMANCE. OUTCOMES AND ASSESSMENT METHODS.On a scale of 1 to 5, the average rating for
from birth. This study underscores the need for enhancements in GenAI technologyto better support accessibility, offering insights into both the day-to-day applications andspecialized academic uses for visually impaired students pursuing STEM education.IntroductionThe introduction of technology in education has brought significant advancements, however, thespecific needs of blind and visually impaired students often remain underrepresented andinadequately addressed [1]. Generative AI tools hold the potential to bridge these gaps. Thispaper will explore the evolving relationship between GenAI and accessibility in education,aiming to create learning environments that inclusively support all students as these technologiesbecome as pervasive as
. in Educational Policy and Planning from UT Austin.Prof. Beth C McGinnis-Cavanaugh, Springfield Technical Community College Beth McGinnis-Cavanaugh is a professor at Springfield Technical Community College, where she teaches courses in physics, engineering mechanics, and structures. A graduate of the engineering transfer program at STCC, McGinnis-Cavanaugh holds a B.S. and M.Sohn Paul Cook, Society of Women Engineers ©American Society for Engineering Education, 2025Title: Engaging Two-Year Students in STEM: A Professional STEM Society’s Efforts to SupportCommunity College StudentsKEYWORDS: 2 Year Institution, Engineering, Computer Science, TransferCommunity college is a popular pathway for
Underrepresented Entrepreneurs in Interdisciplinary Engineering TechnologyAbstract:In the realm of unaddressed ethnic disparities in the United States, the issue of venture capitalfunding is often overlooked. Despite their significant presence in the population, Hispanic andBlack entrepreneurs receive only a fraction of venture capital investment, which is a starkcontrast to their demographic representation. A staggering 77% of venture capital recipients areWhite, 9% women, and nearly 2% Latino, leaving just a minuscule 1% for African Americanentrepreneurs (remaining were Asians and Middle Easterners), regardless of their gender oreducational qualifications [1]. Multiple sources claim an even higher population than 80% ofWhite and approx. 1% Black
StructureThe graduate student PD program consisted of six discussion-based workshops offered in-personwith a synchronous online Zoom option to accommodate graduate students’ schedules. Eachworkshop focused on a different topic (e.g., establishing a growth mindset culture, inclusivelearning environments, identity safety, feedback; see Table 1 for the general PD schedule).Table 1. General program schedule Activity Description Pre-survey Pre-survey link administered; due by Workshop 1 Workshop 1 Introductions, goals, expectations, prior knowledge/experience Workshop 2 Establishing a Growth Mindset Culture Due: Reflection 1 Workshop 3 Understanding Your Students, course demographics activity
raciallyminoritized students requires more work than just providing technical background. It requires aholistic approach that addresses the unique social, economic, and cultural factors surrounding thelandscape of STEM entrepreneurship as it exists for racially minoritized students. The proposedprogram integrates aspects of community engagement and social responsibility into the curriculumand aims to empower participants to leverage their diverse perspectives and experiences asstrengths in the entrepreneurial ecosystem.This study is particularly timely and significant given the current landscape of STEMentrepreneurship: despite structural barriers, entrepreneurial aspirations in the Black/AfricanAmerican community remain high. Data from the Founder Institute
stakeholder groups.Introduction & Literature ReviewNationally, there are widely known, persistent inequities in STEM student outcomes. This studyhas its origins in concerns about inequities, but concerns were accompanied by a skepticismabout simplistic diagnoses of the problem. Inequitable student outcomes have strong associationswith race and family income, which can be proxies for access to quality secondary education andparental college achievement [1], but there are other factors at work. Students pursuing STEMmajors in college often suffer even worse outcomes than their non-STEM peers, with studentsfrom underserved groups experiencing much lower retention rates (i.e., retention in a STEMmajor and retention in college generally) and
engineering sparked my interest in wanting tounderstand the experiences & knowledge of faculty, specifically the experiences that influenced their pedagogical practices. 1 Knowledge Check Critical When you hear the term critical, what does It mean to you? Critical ConsciousnessHave you heard of the concept criticalconsciousness? If so, where and what Is your understanding of it? 2Background 3 Critical Consciousness An individual’s awareness of oppressive systemic forces in society, Defined a sense of
Bakka, Jill Castle, Dr. Maura Borrego The University of Texas at Austin 1 RoadmapBackground on LGBTQ+ studentexperiences in STEM Describe the details of the study and data analysis Discuss the themes that emerged and next steps 2 Language Used I will be using the terms “LGBTQ+” and “Queer” interchangeably to refer to anyone with a marginalized sexual or gender identity. I will be using the term “transgender” to refer to someone whose gender identity does not align with their sex they were assigned at birth I will use the term TGNB to refer to anyone with a
. Figure 1. Both Female and Male Student Perspectives in 6 Person GroupsFigure 2. Both Female and Male Students Perspectives in 4 Person GroupsFigure 3. Both Female and Male Students Perspective in 2 Person Group6-Person Groups:Focusing on the responses related to the 6-Person groups, Figure 4 and Figure 5 show theresponses from the perspective of female and male students, respectively.Figure 4 illustrates how female students perceived their 6-person groups (including themselves).Starting on the left, the plots reveal that female-identifying students generally felt comfortable inall group categories, with these groups receiving an average rating of 4. When it comes tocommunication, female students rated it highest in evenly gender-balance groups
questions to be effective. If a more general audience is desired, these questions may needrevision before becoming the final questions involved in an interview protocol. 1. Engineering Identity ● What does your identity as an engineer mean to you? ● What do you conceptualize as a successful engineer? How does this compare with your conceptualization of ADHD? 2. ADHD Identity ● What does your identity as an ADHD person mean to you? ● How important is your ADHD identity to your sense of self? 3. Intersection of ADHD and Engineering ● Describe how you experience the intersection of your ADHD and engineer identities. ● How do your ADHD traits show up in your teaching
respondents(n=84), we extracted personal and professional beliefs items related to race, ethnicity, nationality,and language, as well as those we considered general (Table 3). After recoding some items asreflected in Table 1, we used Cronbach’s alpha to examine the internal consistency andSpearman’s correlation coefficient to determine if there was a relationship between respondents’personal and professional beliefs.We converted the average beliefs scale responses to favorability scores (favorable [4,5], neutral[3], and unfavorable [1,2]) in each category and converted MC-SDS scores to categorical datareflecting low (0-2), average (3-6), and high (7-10) tendencies toward social conformity. Weexamined correlations between responses on each of the
privilegedhistories and identities (gender, race, ethnicity, and socioeconomic status). Through ourcombined social statuses, we can relate to some of the challenges faced by students frommarginalized groups while needing to continually attend to the biases we hold as we use ourpower to conduct and share our research with others.ResultsThere are three main findings we discuss in this section. First, students generally arrived at SDSmajors and minors indirectly. Many had changed their major multiple times and/or homed in onone or more other fields before discovering their interest in SDS. Several discussed pastexperience studying mathematical or technical fields yet not fully resonating with these areas ofstudy, and some also chose statistics or an earlier
sessions. Although notsignificant, data from pre/post-intervention showed increases in “interest in math content”(3.89±1.46 vs. 4.09±1.36, respectively) on 7-point Likert-type scale; “perceptions of being in anenvironment supportive of science careers” (3.16±0.52 vs. 3.25±0.50, respectively) on a 4-pointLikert scale; and “intent to pursue STEM-related education” (3.15±0.33 vs. 3.23±0.35,respectively) on a 5-point Likert scale. Participants perceived that learning about nutrition andfood security was the most important takeaway from the ANGELS Summer Pilot, depicted in theREM results in Figure 1 below. Figure 1: ANGELS Summer Pilot Ripple Effect Mapping (REM) Focus Group ResultsANGELS Beta Summer Camp ResultsMost participants that started week
Education.To protect the identities of the participants, pseudonyms are used and demographic informationfor each participant is not provided. However, the distribution of the 13 participants is variedacross all factors, to include 7 men and 6 women, 5 White and 7 racial/ethnic minorities, 6teaching track and 7 tenured/tenure-track, and 10 assistant/lecturer rank and 3 associate/full rank.The participants also represent 7 of the 10 engineering departments in the university’s College ofEngineering.Theme 1: Promoting Students’ Academic and Professional Success through EquitableTeachingOur analysis reveals that participants are motivated to support their students’ academic successby striving for both technical excellence and holistic professional
by increasing women’s participation in the engineering field. Wediscuss our process and findings further.Keywords: gender gap, Middle Eastern students, engineering, systematized reviewIntroduction:There is clear gender inequity in the global landscape of engineering education and professionalpractice, leading women to be significantly underrepresented in comparison to men [1]. Thesedifferences are especially clear in Middle Eastern countries, where such societies exist with specialcultural, social, and institutional characteristics that lead women to face unique challenges. Thesefeatures–for example, job market biases that favor males in engineering and other technical fieldsand societal expectations that steer women towards fields perceived
, and educatio ©American Society for Engineering Education, 2025 Gendered Impacts of Code Critiquers on Self-Efficacy in First-Year Engineering StudentsIntroductionThe demand for skilled programmers in industry continues to grow. However, research hasshown that women often face challenges in developing programming skills, primarily due tolower levels of programming self-efficacy [1], [2]. This discrepancy has contributed to persistentgender gaps in technology-related fields. There remains a critical research gap regarding thedifferential impact of educational interventions on programming self-efficacy across genders,particularly in engineering. Addressing this gap is essential to
Engineering as participants come from diverse backgrounds with an important representationof African-American communities as shown by a recent analysis of outcomes for Black studentswho participated in the program from 2012 to 2021 [8]. Compared to similar students who didnot participate, summer bridge students had significantly higher first semester GPA (2.97 versus2.79), were 19% more likely to pass calculus 1, and were 15% more likely to earn a degree and52% more likely to graduate with an engineering degree [8]. In total 333 students haveparticipated since 2012-2024, with 30% first-generation college students and 90% from AfricanAmerican communities [9], [10]. Even though the program has been offered for more than twenty years, its
environment,social cognitions, job satisfaction, and turnover or persistence intentions. 1 Background search Latinx in the U.S. • One of the youngest and fastest growing groups in the U.S. • comprised 19% of the population • Represent a growing segment of the U.S. labor force • almost 1 in 5 workers are LatinxWe will start by providing a context for this group and why more research is needed
for SWLD and the general studentbody, the literature lacks a systematic review of AI-driven and new technologies specifically forSLWD in STEM education. This review fills the gap by exploring the current AI-driven and newtechnologies used in STEM education for SLWD, clearly identifying limitations andopportunities for future research.3. MethodsThis systematic literature review was conducted following the guidelines presented in thePreferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) and followedthe steps outlined in Figure 1 [20]. The purpose of the review is to analyze the recent studies onthe use of AI-driven and new technologies to support SLWD in STEM education. The searchwas performed across four databases: IEEE
really want to give back to my community.Halle was motivated by a “give back” sensibility, thinking engineering might be part of thebusiness venture, and the specifics would fall into place later. Understandably, students inspecialized career-focused programs, such as Career and Technical Education (CTE) pathways orProject Lead the Way programs, generally described more detailed long-term plans. Shamya, inthe Pharmacy CTE program, described how her adverse schooling experiences were leading tore-contemplation: My goal is to become a traveling nurse. I feel like my school is putting me in that path, but also COVID, we can't really do certain things in school anymore how we did in ninth grade. So I’m rethinking this. I’m
advisingapproach (focused on using the university’s learning management system to support advisingprocesses) (Antoney 2020).II. ACADEMIC AND CAREER ADVISING MODELS IN HIGHER EDUCATIONAcademic advising models in higher education have evolved and continue to evolve to cater todiverse student needs. Here are some of the primary models derived from content generated fromChatGPT 4.0 (Sept. 2, 2024) and edited by the lead author: (1) Prescriptive Advising: Thistraditional model follows a top-down approach, with advisors providing specific instructions.While efficient, it can limit student autonomy. (2) Developmental Advising: A morecollaborative approach, focusing on the student's holistic development. Advisors work withstudents to set goals and make informed
the teachers identified abouteffective professional development opportunities by having tangible takeaways. We’ll go intomore detail about some of the specific sessions next.To meet the teachers’ needs of engineering career pathways and gaining an understanding ofthe resources available to students at Virginia Tech, we provided three specific sessions thataddressed these needs. An industry panel of 4 engineering professionals who work in theSouthwest Virginia region came to speak to the teachers about their careers, offered advice onhow to prepare students for the engineering workforce, and answered any possible questionsthe teachers had about the engineering industry generally and in the region specifically.Teachers also participated in
This material is based upon work supported by the National Science Foundation under Grant No. 2216561. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.1 Overview of NCWIT’s Philosophy2NCWIT Undergraduate System ModelOrganizational Change Process Communicating for Change Evidence-based tools help establish credibility by explaining a vision ofchange and how it is grounded in theories, best practices, and resources. Creator: https://pixy.org/ | Credit: https://pixy.org/763757/ Copyright: CC BY-NC-ND 4.0Use Compelling Evidence “[I have met] an incredible
sent 1-2x month without much context/info about events or program goals b. Clarity in messaging felt paramount 3. Participated in Club/Activities Fair and Lighting the Way, a welcome event for women and non-binary students hosted by Student Affairs1. SWAG - pens, stickers as promotional items to get the name outFall 2023 Weekly Meetings - Invitations to contribute In Fall 2023, I began hosting Weekly General Meetings for students - Core of ~ 20 students in the first month or so - Brainstorming ideas - Recognized the need for a group identity - The students asked “What is WIT?” - Ideas for hands-on projects - Community involvement/outreach to K-12
some of their demographics. ○ There are 4 males and 1 female student ○ Three of the participants are HSI students and two were HBCU students.●Data Analysis• Teamwork! : Two sessions of team data analysis led by author 1. Times of calibration were team sessions that helped curb authors’ bias and influences on the data analysis by bringing in other team members of the lab to weigh in on transcript analysis and interpretations. • For the team sessions, five of the lab members were given one transcript to look through and code inductively. When we arrived at the session, we discussed our different ideas and themes we assigned to participant’s experiences. Many of the themes were similarly
their education and career paths. Withinthe frame of this study, contextual factors refer to mentoring relationships with faculty. Theresearch team interviewed seven Latine STEM doctoral students individually to understand theirperceptions and experiences regarding doctoral mentoring and relationships. Data collectionoccurred between Fall 2018 and Spring 2021 in two historically white institutions (HWI) and ahistorically Black college and university (HBCU) in the southeastern region of the US as part ofa larger study. The interviews were analyzed using interpretative phenomenological analysis(IPA). IPA revealed three themes, describing Latine STEM doctoral students’ perceptionsaround (1) social-emotional needs in day-to-day interactions with
paidresearch opportunities, build STEM confidence, and serve as a launchpad for ARISE students toenter larger research groups. This project created an opportunity for ARISE students to developresearch and technical skills in a broad field of study that uses fundamentals from manyengineering disciplines and reduced disparities in undergraduate research experiences andgraduation rates for Black, Hispanic, and Indigenous students. Following the success of thePhase I project, a Phase II was awarded, which expanded the program to offer researchopportunities to members of the NSBE and SHPE student chapters.Outcomes: Research participation for ARISE students increased from 1% to 11%, with 80% ofparticipants reporting being “much more likely” to pursue a
. This comprehensive approach ensuresthat a wide range of relevant information is captured, providing a more complete picture ofSHPE members' experiences and requirements. In the 2023 Needs Assessment, the organizationgathered a total of 2,529 responses, achieving an 81.5% completion rate. Figure 1 presents thedistribution of respondents across different member types.Figure 2 shows the gender identity composition of respondents and Table 1 provides a detailedbreakdown of racial and ethnic identities among the survey respondents, with a significant 73.8%and 64.3% identifying as Hispanic and/or Latino/a, respectively.Some other important demographics worth reporting include that 54.4% of respondents werefirst-generation college students. This was
method, classformat and policy, and instructor behaviors.Participants mainly shared six types of teaching method. They are: 1. Lecturing only represents a traditional didactic teaching method in which the instructor focuses on delivering knowledge while students primarily receive information from the instructor during class (Adapted from Jarvis, 2006). There were 10 participants mentioned lecturing only during BL data collection sessions (including focus groups and individual interviews). 2. Interactive lecture refers to a lecture-based teaching method that incorporates student activities, such as inviting students to discuss or solve problems with their neighbors, participating in iClicker questions