career aspirations in cybersecurity, although these improvements were small (d =0.07-0.09) and non-significant (p > .05).Figure 2: Student Ethics and Computer Science PerceptionsThe analysis of students’ open-ended responses revealed shifts in their perceptions of ethics indrone technology. While their initial understanding was primarily focused on cybersecurityconcerns, they later expanded their perspectives to include broader ethical issues, such as“privacy invasions and other privacy-related issues” (Comment 1). Moreover, many reported thatthey began considering ethical implications before coding (e.g., Comment 16, 26, 37). They alsorecognized the importance of employing security techniques, such as “random waypoint mobilityto prevent
ASEE-GSW in 2022, and is an NSF Career Awardee in EPMD on Energy Harvesting. He has more than 120 journal publications and over 20 patents.Dr. Pil Kang, University of New Mexico Sung aˆ CœPilˆa C Kang is an assistant professor at the University of New Mexico. His academic interests include change management, change model validation, and mindset evolution. He may be reached at pilkang@unm.edu ©American Society for Engineering Education, 2025 1 Session XXXX Development of a Novel Graduate Pedagogy to Enhance Job Readiness in Semiconductor Education Based on Role
the collegiate setting,building their STEM identities through meeting and interacting with future professors and peers thatmay have similar career goals, allowing them to effectively create and integrate into a supportive Proceedings of the 2025 ASEE Gulf-Southwest Annual Conference The University of Texas at Arlington, Arlington, TX Copyright 2025, American Society for Engineering Education 2community system have shown that participants in these programs are twice as likely to persist andsucceed in STEM degree programs. During these programs, students are given the resources tobegin to learn how to successfully
economy [1]. The need for lifelongabout how to scale up and further support the AC market. This learning and training opportunities is growing as employeespaper explores the structure, impact, and lessons learned from find ways to adapt and respond to the rapidly changingthis initiative, highlighting its potential for improving workforce industrial landscape. Dede and Richards discuss the need for adevelopment, corporate training, and career progression. The “60 year curriculum,” in which higher education must shift topaper also examines challenges such as audience identification, serve the needs of students over the course of their lives [2].pricing models, and marketing strategies, providing insights into
majors. Student services included peer mentoring, career development, anda science communication learning community. The project emphasized community engagementthrough first-year courses and faculty and alumni mentoring. Evaluation findings indicated thatself-reported survey data showed that 75% of the initial program participants stayed with theprogram the second year. Additionally, scholars demonstrated a strong commitment tocompleting undergraduate and graduate STEM degrees, with likelihood ratings ranging from 3.0to 3.5/4.0.At Tennessee State University (TSU), a public R2 land-grant HBCU in the southern UnitedStates, the 5-year S-STEM project — Scholars to Attract and Retain Students (STARS) inGraduate Engineering and Computer Science
modules, both for Dartmouth courses and for courses at colleges anduniversities across the United States. The modules are available for download and use in apermanent repository [2]. We have analyzed the impact of the modules on student data scienceinterest, beliefs, career aspirations, and self-efficacy [3] using a validated survey instrument [4].We also assessed the impact of two workshops on the module development process on thirtyfaculty participants from across the country [5], finding growth in their skills, confidence andself-efficacy.In addition to these early data science modules, a crucial element of the DIFUSE project ispairing students with practice in data science skills through experiential learning opportunities.To meet this need
classroom activities and curricula to broaden their students’awareness of engineering education and career pathways [1].In 2024, the College of Engineering at the University of Alabama (UA) launched an RET sitefocusing on the applications of sensing technologies for physiological and environmentalmonitoring. The selection of this theme reflects the importance of measuring the physicalquantities of materials, devices, tissues, and the environment to address research questions acrossall engineering domains. This approach aligns projects with national and state goals ofintegrating engineering design and practices into science content creation. For the first iterationof this RET, projects from electrical engineering (measuring biological tissue
studies from Old Dominion University in 2015. Isaac’s consultancy, HEDGE Co., focuses on working with formal and informal educators to grow the numbers of females pursuing engineering or technology careers. Additionally, she is a conferred Fellow of the Society of Women Engineers. c American Society for Engineering Education, 2019 Does How Pre-College Engineering and Technology Role Models See Themselves Relate to Girls' Engagement in the Fields? [Research to Practice]IntroductionSince the Equal Pay Act in 1963, female participation in engineering has increased only eightpoints, from less than 5 to 13% [1], while, in the fields of medicine, female participation
, and to Awareness Trainings related to destructive workplace behaviors presented at local high schools. Dr. Linvill is a Member of the Advisory Committee on Equity for the Office of the Vice President for Ethics and Compliance at Purdue Univer- sity. She has also served as a Mentor for the USAID Liberia Strategic Analysis Program, mentoring an early-career Liberian woman on leadership and communication skills, professional development, and networking. ©American Society for Engineering Education, 2023Changing the conversation surrounding students’ professional skills: Makingthe case for the importance of professional skills, and more inclusive languageAbstractThe engineering education community
persistence.Psychosocial Factors Influencing Engineering PersistenceSAT math scores, ACT math scores, high school GPA, first-year college GPA and Calculus-readiness upon college entrance are not the only variables that have been identified asinfluencing engineering persistence. Some scholars have undertaken a psychosocialinvestigative approach into uncovering non-cognitive and affective factors influencingpersistence in engineering (or STEM) degree programs and careers. Students’ contextualidentities in STEM (e.g., engineering identity) are central to many of these investigationsexamining factors influencing STEM persistence [16]-[20]. In particular, several scholars havedocumented the significant, positive influence of students’ engineering identities to their
University in NJ. Data on studentadvising was collected via email inquiries over these four semesters specifically for theMechanical Engineering department. Themes were identified into queries related to courseenrollment, course grades, majors and minors, certificate programs, retention/attrition, courseadd-drop, attendance, hardships experienced, transition to newer learning platform and technicaldifficulties associated with it, graduation requirements/criteria, career/internships, ProfessionalSocieties, personal issues, health/mental issues, and Waivers. By studying the above data, theauthors hope to identify how advising changed pre-Covid and during Covid phases. Themotivation was to provide insights into which areas to focus and strengthen if
Paper ID #37276Development and First-Year Outcomes of a NSF-Funded Summer ResearchInternship Program to Engage Community College Students in EngineeringResearchDr. Xiaorong Zhang, San Francisco State University Dr. Xiaorong Zhang is an Associate Professor in Computer Engineering in the School of Engineering at San Francisco State University (SFSU). She is the Director of the Intelligent Computing and Embedded Systems Laboratory (ICE Lab) at SFSU. She has broad research experience in human-machine interfaces, embedded systems, and engineering education. She is a recipient of the NSF CAREER Award to develop the next
she spent time researching gibbons. She is continually inspired by nature and has dedicated her career to engaging students in STEM. Her current areas of focus include building climate resilience and promoting environmental stewardship through science and engineering education. She has published two children’s books to help foster early interest in science.Ethan Cayko ©American Society for Engineering Education, 2023 Designing a Curriculum to Broaden Middle School Students’ Ideas about and Interest in EngineeringIntroductionEffectively addressing complex societal problems of the 21st century such as climate change andresource scarcity will require an extensive cadre of
-Progress) Arezoo Sadrinezhad, Lalita Oka, Kimberly Stillmaker, Lizabeth Thompson, Catalina Cardenas, Sue Rosser, Maryam Nazari, Kira AbercrombyAbstract:Mentoring interventions, particularly mentoring that incorporates networking, have beeneffective at meeting the professional needs of women and under-represented minority (URM)faculty. However, women, especially URM women, in STEM careers report feeling left out ofnetworks and thus face decreased social and administrative support. The isolation of women,especially URM women, in engineering in the California State University (CSU) System isapparent in the fact that many CSU engineering departments have only a few women faculty andno more than a single URM woman faculty. Thus
. Participantswould work on relevant funding opportunities or specific job postings. In the second year, as thecohort members progressed at different paces and paths towards their academic career goals, thewriting sessions became more informal, targeting individual needs. Weekly writing sessionscaptured writing for grants, research manuscripts, response to reviewers’ and editor’ comments,cover letters, teaching/research statements, diversity statements, patent applications and otherforms of writing as needed. During the third year, as the cohort members accepted academicpositions, the focus shifted to targeted grant writing (specifically including NSF and NIHproposals with early career focus) to increase the resilience and competitiveness ofUnderrepresented
dissatisfaction, howeverall must complete service activities to fulfill their job obligations [8], [10], [15], [17]–[23].Depending on the institution, faculty service may include service to all or some of the followinggroups: students, department, institution, profession, and community. These different categoriescan each yield improvements to the institution, through improved student performance orresearch output, while still advancing the faculty’s career aspirations [24]. Interdisciplinarymodels allow faculty to pursue service activities intersecting with research and/or teaching, thusallowing for greater faculty benefit [25]–[27]. Faculty service strengthens the tie between thefaculty and the institution by increasing faculty commitment to
Session ETD 335 Diversity in Engineering Technology Students Elizabeth Dell, Anne Lucietto, Elaine Cooney, Liza Russell, Emily Schott Rochester Institute of Technology/ Purdue University/Indiana University-Purdue University-Indianapolis (IUPUI)/Purdue University/Purdue UniversityAbstractIn the US, there are two academic pathways to a career in engineering: Engineering andEngineering Technology (ET). Engineering Technology attracts more African American andLatin American students than traditional engineering programs. Nationally, African Americanstudents are more
Getting Students on the Right Track: Exit Surveys and Levels of Awareness in First Year Engineering StudentsAbstractThe goals of a first year engineering program are to both provide students with a soundacademic preparation for engineering study, and to allow them to explore variousengineering disciplines. Through academic advising and career counseling, our programhelps students discover the career path that is right for them. We find that about 30% ofstudents choose to leave engineering by the end of their first year of study. Thesestudents voluntarily complete an Exit Survey, which includes questions on their level ofcertainty upon entering the program, people with whom the decision to leave
Following the examples set by these researchers, thisstudy does not differentiate among the terms self-concept of ability, self-efficacy andexpectancies of success and considers all under the single term ability beliefs. As shown inFigure 1, ability beliefs address the question, “Can I do this task?” or specifically in this study“Can I be an engineer?”. Using the expectancy-value framework, researchers have shown that competence beliefs arelinked to actual performance in an activity 9, 15, contribute to beliefs about what tasks areimportant 16, 17, decrease with increasing age for primary and secondary school children 16, andpredict career aspirations. 18, 19Methods This research incorporates multiple case study methods with each participant
The ABET criteria does not define the various attributes of “ability to engage in life-long learning.” The various institutions create their own definitions. By virtue of thesedifferences, each institution also creates its own assessment process and tools. From the basicconcept of life-long learning, we will not measure this outcome while the student is at ourinstitutions. Life-long learning can only be demonstrated over a thirty-plus year career. Wemust look at career learning interventions, understand which interventions have the greatestimpact on life-long learning, and implement those attributes that can be implemented well in aclassroom. Education and learning take place along a four-part continuum with formal, non-formal,informal
due to their cultural background, lack of proper academic guidance, andother institutional-based factors. These challenges oftentimes hinder their exposure, access, andparticipation to such academic resources that are necessary components for securing employmentpost-graduation or establishing fundamental research knowledge for graduate school. In theprocess of performing research, the faculty member serves as a mentor by providing extensivetechnical guidance and offer emotional support to strengthen academic development whilesimultaneously advocating post-graduation career venues. In a piloted study, the proposed modelwas implemented by a faculty member in a small private university in Texas to proactively identifyand recruit engineering
lack anunderstanding of what an engineering career entails [14, 15]. Thus, to increase the number anddiversity of students choosing STEM careers, it is important to develop pipelines for students tointroduce them to STEM careers before college and to increase their confidence in STEM-relatedskills.Programs to address STEM skills, self-confidence, or understanding of STEM careers havetargeted various time frames throughout the STEM pipeline, including high school [16, 17],summer bridge programs for high school to college [14, 18, 19], co-curricular support in college[20, 21], and 2-year to 4-year college bridge programs [13]. The majority of summer bridgeprograms target students already accepted to a college for an intensive summer program
include engineering education, identity and equity. Address: Engineering Training Center II (ETC) 204 East Dean Keeton Street Austin, TX 78712 Email: apatrick@utexas.eduDr. Maura Borrego, University of Texas, Austin Maura Borrego is Professor of Mechanical Engineering and STEM Education at the University of Texas at Austin. She previously served as a Program Director at the National Science Foundation, on the board of the American Society for Engineering Education, and as an associate dean and director of interdisciplinary graduate programs. Her research awards include U.S. Presidential Early Career Award for Scientists and Engineers (PECASE), a National Science Foundation CAREER award, and two outstanding publication
from Workforce ScholarshipResearch Aims The purpose of this study to synthesize existing literature on barriers to participationfaced by African Americans pursuing careers opportunities in the engineering and CS workforce,and identify opportunities for future research. While the overarching question guides this and allSLRs in this project, the sub-questions associated with this review are: 1. What topics are being studied, and how are they motivated? 2. What are salient characteristics of the research designs guiding these studies? 3. What are the most salient barriers to participation experienced by African Americans in the engineering and computer science workforce? 4. What are some of the most promising opportunities for
to produce equivalentbenefits which intend to produce advantageous results in STEM education programs, many ofwhich are focused on African American and other disenfranchised populations [1]. Theseprograms extend from financial grants and awards to schools, educationalists, and localcommunities, to less formal activities including industry involvement through volunteering andmentoring. Despite these well-meaning investments, present metrics seem to display only slowmovement to validate positive demographic changes in STEM fields and little to no slowing in thedecline of STEM associated career interests for all students including African American and otherunderrepresented minority students [2].Presently, African Americans make up only 3.9% of
undergraduate civil engineering technology curriculum. His research interests include soil behavior and behavior of laterally loaded transmission line foundations. Page 11.1126.1© American Society for Engineering Education, 2006 Short and Long-term Influence of Excellent Instructors on Graduates in Engineering Technology: a Case StudyAbstractA survey asked engineering technology (ET) faculty at the University of Pittsburgh at Johnstown(UPJ) to recall the instructor they feel had the most influence on their career/life and indicate thequalities possessed by the instructor and the reasons the instructor was able to
of a national science policy forscientific research. 5The United States has not had a coherent policy during the last several decades for the graduatedevelopment of its domestic engineering graduates in the U.S. engineering workforce. These areengineers whose professional careers are not centered on academic scientific research, but ratherare centered on creating, developing, and innovating new, improved, and breakthroughtechnology in industry for competitiveness and the nation’s defense. (See Appendix G)Whereas the nation invested heavily during the 1960’s, 70’s, 80’s, and 90’s in the graduateeducation of the U.S. scientific workforce for basic academic research, we have not as a nationplaced a balanced emphasis in the further professional
Paper ID #9182Counter Current - Perspectives from My Move to the Corporate World fromAcademiaDr. John C Oliva, Hemlock Semiconductor Corporation Dr. John C. Oliva has had a diverse career spanning the fields of academia and industry. John spent the first half of his career teaching mechanical engineering as a fulltime faculty member, first at Kettering University and later at Grand Valley State University. He then transitioned to the corporate world where he has spent the more recent half of his career as a professional engineer. John currently works as an engineering analyst at Hemlock Semiconductor Corporation. His
@nsula.eduAbstract'Going global' is a popular term in academia and industry today. In order to maintain leadership ininterdependent global economy United States must possess an adequate technically literateworkforce. Unfortunately there has been a substantial decline in enrollment in the engineering andtechnology programs in North American colleges and Universities since early ninety's. At this timeof phenomenon growth, sweeping changes of technologies and the economic globalization it isrewarding to focus our whole hearted effort to recruitment. That is why, the author has identifiedthe related target areas: to influence the students towards engineering and technology career inthe K-12 level, to change the admission criteria and standards, to explore the need
Section 3575 Learning to Juggle: A Model for New Engineering Faculty Development Rose M. Marra, Thomas A. Litzinger The Pennsylvania State UniversityIntroductionNew faculty are faced with many challenges, not the least of which is learning to juggle themany aspects of their new careers. While many universities and colleges offer new facultyorientations, many such activities feature an endless array of “talking heads” fromadministrators, or perhaps “how to” lectures on the mechanics of pedagogy. Having discussedsuch workshops with other new faculty (and, we admit