advanced education or career advancement. Many Morgan State University (MSU) graduate students come from economically disadvantaged families and have very limited financial support for their full-time graduate study. Some of them solely count on the scholarships provided by the school or have to take out student loans. Supported by National Science Foundation (NSF) Scholarships for Science, Technology, Engineering, and Mathematics (S-STEM), NASA research grants and other Federal research grants, many MSU engineering graduate students have been involved in applied research projects with NASA Goddard Space Flight Center, Army Research Laboratory, and the local industry. These projects include but
bioengineering curriculum design and student learning outcomes. Page 26.283.1 c American Society for Engineering Education, 2015 Bioengineering Global Health: Design and Implementation of a Summer Day Camp for High School StudentsAbstractSummer camps present opportunities for students to expand their knowledge of science andengineering principles and applications, acquire hands-on experience in laboratory techniques,and increase interest in pursuing college degrees and careers in
Clearly, the education that young people receivedand their perception of said education are important in a young person’s readiness and choice ofa career.5, 6 When comparing U.S. STEM education to one country—Finland—one thing becameclear from an American Society for Engineering Report (ASEE), “it's all about teachers (Wu2011).25 In this country that is outpacing much of the world in STEM education, teachers use alearn by doing approach to education, with learning from mistakes and trying again being animportant part of the curriculum (according to Wu).11, 25 In one critique of American education,schools focus too much on memorizing and not enough on problem solving (Svitak, 2014).12 Theeffect is destroying interest in STEM early. The
, which ispreparing students for their big game after graduation, part advisor, which will help them choosethe right courses for their career path, part trainer, which is meant to improve their skills, partcounselor, which will help them in hard times, part cheerleader, to celebrate their successes and,above everything else, to be a role model. Since most of our students transfer to the engineering program at University of Texas atSan Antonio, it would be extremely beneficial to observe how the mentoring helps the transferstudent succeed at a four years institution. The paper will present the details, the actions, and the results of this initiative as a work inprogress that is continuously adapting and improving as required by the new
Unlock Regional Excellence(CAPTURE) program sponsored by the Florida Board of Governor (BOG) and addressescurriculum mapping and articulation to support student degree completion in computer scienceand engineering programs. Specifically highlighted as part of the transfer model are curriculumalignment and mapping, degree-specific “flight” plans, and program-geared advising. Thecollected data validates the effectiveness of the proposed model in increasing both the studentpipeline, and graduation rates. The process has also deepened our understanding of the needs ofstudents to better align student careers aspirations with industry workforce needs. Theeffectiveness of the collaborative model could be replicated among other institutions interested
agreed that it increased their interest in the field ofneuroscience. Furthermore, 87.5% of the students reported that the program increased theirinterest in pursuing scientific research as a career, and 91.67% of the students reported that itincreased their interest in obtaining a graduate degree.With advancements in hardware and open source software, the authors were able to develop anovel low-cost approach for introducing neuroscience, BME, and BCIs to high school students.Future work will expand the program to other BCI applications and developing online lecturemodules that complement the laboratory portion of the program. In addition, the authors plan tointroduce the program to other summer programs to assess its scalability and efficacy
theseparticipants, 71% have presented their work at national professional society meetings, and two ofthem have become co-authors on three papers. Of the 17 who have since graduated, 13 are eitherin engineering graduate school or in STEM industry positions.REU students took part in an introductory bootcamp on the fundamentals of systems modelingand applied biostatistics and had multiple opportunities to present their research progressthroughout the summer to experts in the field. They also received professional developmenttraining through workshops and seminars on research ethics, technical communication, andlaunching careers in systems bioengineering. Post-REU surveys of participants revealed that100% of respondents rated their overall experience with the
new, ABET-accreditedengineering programs at Western Washington University (WWU) have faced unique challengesin recruitment and retention, particularly in the first two years for pre-engineering students.Building on the success of prior S-STEM awards in other disciplines at WWU, the proposedprogram provides a systematic sequence of academic, social, and career support servicesspecifically designed to enhance the success of engineering students during these first two yearsof undergraduate study.The primary program goal is to ensure the engineering programs offer an equitable pathway intoengineering careers, particularly for low-income, academically talented students. In addition toproviding financial support for participants, the BEES program
My interest in physics is an important part that identifies me. 3 In physics class, my grades are better than those of my classmates. I can see how the physics skills that I am currently developing will be useful in my 4 professional career. I see being able to communicate effectively using physics arguments I am taught as an 5 important skill to have. 6 The ways of thinking being taught to me in physics will remain with me long after I graduate. The formal and rigorous aspects that I have learned in physics classes are important for my 7 future professional career. 8 Physics classes are needed for other courses in my future studies. 9 It is important to learn physics to find a better job. 10 Physics
. Increasing happiness at work, and measuring its impact, has been the subject of numerousstudies across different cultures and industries. Research shows that it correlates with positiveoccupational outcomes. Specifically, happier employees exhibit higher levels of engagement,improved productivity, greater levels of career satisfaction, and a greater sense of well-being intheir lives [1] – [4]. Singh, Saxenda, and Mahendru find that there is no widely-agreed upon definition ofhappiness in the literature, but they describe it as “a harmonious state where the individual’sphysiological and psychological needs are satisfied in the past, present, and future, leading themto live a meaningful and contented life” [5]. To experience happiness at work
been rec- ognized as a Diggs Teaching Scholar, a Graduate Academy for Teaching Excellence Fellow, a Global Perspectives Fellow, a Diversity Scholar, a Fulbright Scholar, a recipient of the NSF CAREER award, and was inducted into the Bouchet Honor Society. Homero serves as the American Society for Engineering Education (ASEE) Chair for the Commission on Diversity, Equity, and Inclusion (CDEI), the Program Chair for the ASEE Faculty Development Division, and the Vice Chair for the Research in Engineering Education Network (REEN). He holds degrees in Industrial Engineering (BS, MS) from the National Experimental University of T´achira, Master of Business Administration (MBA) from Temple University, and Engineering
Transfer Partnership program is to increase bachelor’sdegree completion of low-income transfer students.Our initial efforts focused on identifying shared data needs around student success barriers,establishing inter-institutional data sharing protocols, and developing a framework to significantlyincrease, diversify, and enhance our existing outreach, recruitment and academic advisingpractices in support of these students. We present a holistic data model for transfer pathway(Academic Success, Career Preparation, College and Transfer Navigation, Basic Needs andFunding, and Psychological Factors) to build on the Transfer Student Capital model [6] to obtaina more complete understanding of educational barriers as they interplay with each other.BIPOC
Computer Science department which offers aBachelor of Science (BS) in Computer Science, Software Engineering, and Computational DataScience. It also offers a Bachelor of Applied Science in Software Development and a Master ofComputer Science. The Bachelor of Science in Computer Science program was one of the firstBachelor of Science programs implemented at UVU in 1993. The program’s goal has been toprovide a quality program that meets accreditation standards while providing the students with askill set that allows them to succeed in computing careers. The Computer Science degree at UVUis accredited by Computing Accreditation Commission of the Accreditation Board forEngineering and Technology (ABET). Currently, the Computer Science Department has
later, a wide variety of business experiences in international companies, and startup experiences. This has helped him lead a very successful industry career. Currently he is using his technical business experiences to develop and run innovation and entrepreneurial programs for the Engineering Innovation Center, a 20,000 sq ft rapid prototyping facility. These in- clude Aggies Invent, TAMU iSITE, Inventeer, and Pop Up Classes. In addition, he mentors multiple entrepreneurial teams. Formerly he was a Senior Vice President of Fujitsu Network Communications, headquartered in Richard- son, Texas. With over 30 years of experience in telecommunications, Rodney was responsible for de- veloping partnerships with
. Derrick James Satterfield, University of Nevada, Reno Derrick Satterfield is a doctoral candidate in Engineering Education at the University of Nevada, Reno. His research focuses on engineering graduate students’ experiences and motivation centered on career planning and preparation.Dr. Adam Kirn, University of Nevada, Reno Adam Kirn is an Associate Professor of Engineering Education at University of Nevada, Reno. His research focuses on the interactions between engineering cultures, student motivation, and their learning experiences. His projects involve the study of studenDr. Alexandra Coso Strong, Florida International University As an assistant professor of engineering education at Florida International University
, The Boeing Company (Space Division), Alcatel, USA (Alcatel-Lucent) and the Naval Sea Systems Command (NAVSEA). My professional goals consist of achieving the position of Senior Executive Service (SES) member within the Department of Defense (DoD). Afterwards, I would like to pursue either a research position at a national laboratory, think-tank, or board of directors and/or academia as a second career. I am a certified scuba diver, I enjoyed skydiving, trying different foods/eating, traveling the world, live sporting events/comedy shows, attending events such as Homecoming at Prairie View A&M University, spending time with my family, friends, fraternity brothers, and love ones!Dr. Janie M. Moore, Texas A&M
and Ph.D. in Engineer- ing and Science Education from Clemson University.Dr. Allison Godwin, Purdue University, West Lafayette Allison Godwin, Ph.D. is an Assistant Professor of Engineering Education at Purdue University. Her research focuses what factors influence diverse students to choose engineering and stay in engineering through their careers and how different experiences within the practice and culture of engineering foster or hinder belongingness and identity development. Dr. Godwin graduated from Clemson University with a B.S. in Chemical Engineering and Ph.D. in Engineering and Science Education. She is the recipient of a 2014 American Society for Engineering Education (ASEE) Educational Research and
from those impacting urban poor. While both groups of students must tackle financial,academic, and social barriers to achieving a STEM degree, geographic isolation impacts the ruralpoor in particular ways that can affect their academic careers. PTG seeks to better understand thesebarriers and to tailor academic and social support initiatives so that these students may thrive incollege. This section summarizes what is known about rural, low-income STEM students, howexisting retention initiatives may be adapted to support these students, and how PTG maycontribute to this knowledge base.Rural Arkansas continues to struggle economically, which has greatly limited K-12 academicofferings for its students. Urban migration has meant an eroding tax
Paper ID #26879STEM Engagement through Mentoring: Motivations of STEM MentorsDr. Jerrod A. Henderson, University of Houston (CoE & CoT) Dr. Jerrod A. Henderson (”Dr. J”) is an Instructional Assistant Professor in the Cullen College of Engi- neering at the University of Houston. He joined the University of Houston after six years as a chemical engineering faculty member at the University of Illinois. He has dedicated his career to increasing the number of students who are in the pipeline to pursue STEM careers. He believes that exposing students to STEM early will have a lasting impact upon their lives and academic
careers and how different experiences within the practice and culture of engineering fos- ter or hinder belongingness and identity development. Dr. Godwin graduated from Clemson University with a B.S. in Chemical Engineering and Ph.D. in Engineering and Science Education. Her research earned her a National Science Foundation CAREER Award focused on characterizing latent diversity, which includes diverse attitudes, mindsets, and approaches to learning, to understand engineering stu- dents’ identity development. She has won several awards for her research including the 2016 American Society of Engineering Education Educational Research and Methods Division Best Paper Award and the 2018 Benjamin J. Dasher Best Paper Award
highly desirable, asexposure to such role models is known to increase STEM interest among girls. Several outreachevents and similar education programs are described in the literature, with most reportingincreased STEM knowledge and interest among participating girls. Interestingly, the majority ofresearch studies related to STEM outreach have middle school students as participants. However,the results of several studies show that girls should be exposed to STEM in the 10 to 13 years oldage range, when career goals are still undecided. It is this younger group of girls that receives theattention of GEE.STEM Role ModelsLee and Anderson [12] found that middle school students were about three times more likely toname a male mathematical role model
published in Journal of Public Administration Research and Theory, International Journal of Public Administration, and Energy Policy.Dr. Rachel R. Stoiko, West Virginia University Dr. Rachel Stoiko is a postdoctoral fellow at West Virginia University. She is interested in the intersections of gender, work, and family. Specifically, she works on projects related to career decision-making and development, institutional diversity and inclusivity, and student success in STEM. c American Society for Engineering Education, 2016 1 Dialogues toward Gender Equity: Engaging Engineering
26.548.1 c American Society for Engineering Education, 2015 Digital-Storytelling for Apprenticeships in Sustainability Science and Engineering DesignOverview Our research team is investigating whether and how involving at-risk youth in “digitalstorytelling” production projects can motivate, support and transform their interests in STEMeducation and/or in pursuing STEM- related careers. These fledgling digital media artists arerecruited from vocational training centers to apprentice with undergraduate and professionalvideographers who are themselves collaborating with interdisciplinary teams of undergraduatesthat use STEM to design, implement and evaluate innovative green
relinquish the passion needed to follow a STEM career path that involves engineering.Part of the problem is the public’s misunderstanding and lack of interest in the work ofengineers. Nearly a decade ago, the document Changing the Conversation [1] synthesized the“image” problem faced by the field of engineering, and designed a series of solution “messages”that were found to be effective in piquing the interest of diverse groups of middle and highschool students. One of the calls to action in the document was for engineering outreach groupsto meet with K-12 students and to frame their visits using the Changing the Conversationmessages. Today, a critical part of the mission of many STEM outreach organizations is to teachstudents about the ways in
with WIL in French engineeringeducation (CTI, 2023; Rouvrais et al., 2020), which is notably distinct from the prevailingChinese model where practical experience, although required to varying extents, is oftenlimited to company visits (Du et al., 2017).Literature reviewA significant amount of research has been done on the impact of WIL internships onemployability and student development. WIL is considered instrumental in enhancinggraduate employability by improving a range of employability skills (Jackson & Dean, 2023;Patrick et al., 2008), providing opportunities to practice and refine skills in a real worldsetting (Jackson, 2015). Work placement enhances career clarification for students (Zegwaard& Coll, 2011), facilitates graduate
[20]. Engaging in their counselor roles helpeddevelop skills and personal qualities that they have since integrated into their lives in theworkforce, and counselors made long-lasting friendships during their time at camp. Anotherstudy measuring the experience of 4-H camp counselors found that “63 percent reported anincreased desire to stay in school; 65 percent reported job and career opportunities opened up forthem” [21]. A further look into engineering outreach programs shows a benefit to engineeringundergraduate students. A study done at Tufts University’s Center for Engineering EducationalOutreach [22] found that leading outreach with middle and high school students helpedundergraduate and graduate students build communication
-based content grounded in local STEM careeropportunities that would enable them to pursue fulfilling careers within the community they are from.Using a Rural Cultural Wealth framework, we provide a lens on how curricular development andimplementation of the DeSIRE course highlights rural ingenuity and resourcefulness in order toaddress the community’s need to bolster the engineering workforce. Further, using qualitative dataanalysis of student focus groups and teacher interviews, we present multilevel findings of how theprogram has supported and strengthened the way students and teachers think about opportunities intheir rural space. This paper serves as an informational tool for K-12 schools, universities, andengineering industry and community
recognitioncommensurate with such achievements and contributions [1], [2]. However, this belief is oftenoverly idealized and may not always reflect the complexities of reality, as it fails to fully accountfor the barriers, biases, and inequalities that impact who succeeds and how recognition isdistributed. [3], [4], [5]. For many, in particular women and underrepresented and minoritized(URM) students, the STEM space—the early stages of pursuing an engineering degree or later intheir professional careers—frequently experience overt sexism, gender bias, racism,discrimination, stereotyping, and isolation [4], [6], [7].National concern and acknowledgment of barriers faced by women in STEM is longstanding andwell-documented [1], [3], [8], [9]. According to the
to expand across the globe 4 butstill primarily focusing on the “employability/ placement” as the objective5.It is important not only that a student be employable at the end of his/ her graduation, but thats/he continues to remain employable for the rest of the career by staying relevant and future-ready, particularly in the sectors that adopt rapidly transforming technologies.Can the WIL model of education, which has been found successful in meeting theemployability demand serve the graduates to remain relevant? Can such a model be used tomeet the continuing education needs of the people at scale without compromising on the 1A descriptive study of
incorporate inclusive practices in the engineering curriculum which preparesneurodiverse students to achieve their full potential in the workforce. This work-in-progresspaper seeks to capitalize on the unique strengths of marginalized neurodiverse engineeringstudents. In this study, the innovation self-efficacy of engineering students who self-identify asneurodiverse is explored before and after a curricular intervention, which has been shown tohave the potential to enhance innovation self-efficacy, in an environmental engineering targetcourse. A previously validated Likert-type survey was used, which included the Very BriefInnovation Self-Efficacy scale, the Innovation Interests scale, and the Career Goals: InnovativeWork scale. Among the 47