Paper ID #47782Examining the Effect of Social, Cultural, and Political Factors on the Wellnessof International Students in Engineering Doctoral Programs: A CollaborativeInquiryMotahareh Darvishpour Ahandani, Arizona State University, Polytechnic Campus Motahareh Darvishpour Ahandani is currently pursuing her Ph.D. in Engineering Education Systems and Design at Arizona State University. Serving as a research assistant, she brings with her six years of industry experience as a woman engineer. Her research interests focus on the mental health of international engineering graduate students, with a particular emphasis on the
properties has been externally accelerated by the ease of access to traditionalpedagogical learning using the internet and artificial intelligence. Today, post-secondaryeducation students, in industrialized countries, have access to a compendium of information atlight-speed.7,8 Therefore, engineering programs must partner with industry professionals to keeppace with the engineering fields’ evolving needs. While industry partners continue to express theneed that engineering students entering the profession possess a strong foundation of theory andexercise, there is a loud and clear expectation for practical skills, problem-solving abilities, andteam-based collaborative success.6 Without the loud voices from industry, effectively driving thedirection
major in the College of Computer, Mathematical, and Natural Sciences at the University of Maryland, College Park. She is a teaching assistant for Girls Who Code, a program working to close the gender gap in technology, and a staff writer for QUESTPress, a newspaper in the Smith School of Business. She hopes to combine her passions for business, technology, and ethics, to make the technology industry more equitable. © American Society for Engineering Education, 2022 Powered by www.slayte.com Examining the “narrow” and “expansive” socio-technical imaginaries influencing college students’ collaborative reasoning about a design
experience by proving access to engagement and outreach opportunities. She is also responsible for spearheading the ideation, development, and establishment of numerous strategic academic partnerships with leaders in industry. She holds memberships in the American Society for Engineering Education, the Society of Women Engineers (SWE), the Society of Government Meeting Professionals (SGMP) and the Association for Computing Machinery (ACM) where she is the advisor for the campus chapter. Terry earned her B.S. and M.S. degree in Computer Science from AAMU and in her leisure time, she likes gourmet cooking and traveling. Living daily by the motto ”Success isn’t about how much money you make, it’s about the difference you
Paper ID #42239Multidisciplinary Art and Engineering Collaboration in the Design of ”BeeMy Guide: An Interactive Journey Back Home”Prof. Mary Ann Weitnauer, Georgia Institute of Technology Mary Ann Weitnauer (formerly Mary Ann Ingram) is currently a professor in the School of Electrical and Computer Engineering (ECE), Georgia Tech, where she joined as an assistant professor in 1989. She was a visiting professor at Aalborg University, Aalborg, Denmark during the summers of 2006 to 2008 and at Idaho National Labs in 2010. She held the Georgia Tech ADVANCE Professorship with the College of Engineering from 2006 to 2012, where
AC 2010-274: MEASURING DIFFERENCES IN STUDENT OUTCOMES IN ABASIC MATERIALS ENGINEERING COURSE FROM COLLABORATIVEEXPERIENCES FOCUSED ON BIOMEDICAL APPLICATIONSKathleen Kitto, Western Washington University Page 15.863.1© American Society for Engineering Education, 2010 Measuring Differences in Student Outcomes in a Basic Materials Engineering Course from Collaborative Experiences Focused on Biomedical ApplicationsAbstractDuring the past seven years several known best practices in teaching to improve student learningoutcomes have been integrated into our Introduction to Materials Engineering course,transforming it from a traditional lecture only
Paper ID #49053Toward a Health Equity Spine Across Biomedical Engineering Curriculum:A Faculty-Led Collaborative Autoethnography Exploring Lessons LearnedDr. Ashley R Taylor, Virginia Polytechnic Institute and State University Dr. Ashley Taylor (she/her) is a Collegiate Assistant Professor in the Department of Biomedical Engineering and Mechanics at Virginia Tech. Her teaching and research focus on mobilizing engineering students to solve pressing real-world challenges through community-based participatory approaches. Taylor has partnered alongside communities in rural Appalachia, Nigeria, Malawi, Tanzania, Kenya, and Ethiopia
case studies that highlight a set of promising exemplary practices effective in designingand implementing STEM bridge programs to serve middle, high school, and college indigenousstudents. A historical review of related STEM program partnerships between the NationalAeronautics and Space Administration (NASA) and some Tribal Colleges and Universities ispresented to highlight past approaches and to support some of the presented recommendations.This review may be particularly relevant to government agencies and business groups who wishto collaborate with universities to support the development of career pathway preparationprograms for underrepresented students in STEM.IntroductionA systematic review is similar to a literature review, but can, in
demonstrate effective work habits, and act in the interest of the larger community and workplace. • Teamwork: Build and maintain collaborative relationships to work effectively toward common goals, while appreciating diverse viewpoints and shared responsibilities. • Technology: Understand and leverage technologies ethically to enhance efficiencies, complete tasks, and accomplish goals.These career competencies can map directly to the Accreditation Board for Engineering andTechnology (ABET) student outcomes 10 : 1. an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics. 2. an ability to apply engineering design to produce solutions that
engaging? In answering these questions,this study defines a measure for quantifying effort and uses a mixed-methods analysis of the datathat explores creating a framework for automatic quantification of student interests. Themethodologies introduced in this paper can help sponsors and faculty propose more compellingprojects and provide insight to improving academic-industry collaborations. The resultspresented will help the capstone program improve the guidelines for students to complete thesurvey and increase their opportunities of being placed on the project of their choice.Keywords: multidisciplinary, capstone design, project selection, industry sponsoredIntroductionIn multidisciplinary engineering capstone courses, students of various
contributions andoutput. At the end of the CIRCUIT experience, each cohort will contribute to a poster, presentation,or peer-reviewed research publication to demonstrate the criticality of their work, ensure a strongcontribution, and build confidence.We do not attempt to replicate university coursework, but rather provide a complementary industry- 7driven perspective that helps students gain experience with new algorithms, tools, and technologies.We augment our curriculum with suggestions from our project mentors, including material suchas quantum computing, space science, graph theory, and computational neuroscience. In this way,we integrate material critical for project success and concepts to form a
for how engineering educators develop students’professional skills.2. Background Literature on Students’ Professional SkillsWithin the field of engineering education, there have been calls to develop students asprofessionals [20]. For example, the American Society for Engineering Education (ASEE) hasengaged in collaborative discussions with key players in industry, government, and academicsectors to develop engineering program standards for accreditation [21]. These standards havesince evolved over several decades [11, 20]. Notably, in 1997, ABET adopted new criteria(Criterion 3) that included eleven outcomes that engineering students should have whengraduating from ABET-accredited institutions – five technical and six professional skills
education and trainingwithin a certification program are required to comply with ISO 17024 [8]. The distinction of whatis assessed versus what is taught is important for INCOSE’s Academic Equivalency, which willbe described further in this paper.The subject of systems engineering and its younger relation, Model-Based Systems Engineering(MBSE), has been taught both through theoretical, university-based education and throughapplied, job-focused training. There are currently 310 systems and industrial engineeringprograms in the Worldwide Directory of Systems Engineering and Industrial EngineeringPrograms [11]. While this number is high, there is lack of standardization across systemsengineering education [9]. This is not inherently a problem but does
0 Current WCU Alum who Employer Industrial Other Faculty and student or has had one and/or Advisory staff recent alum year or more community Board with less of work collaborator member than one experience year of work experience Figure 1. Roles (non-exclusive) of the respondents to the surveyThe 32 certificates that are provided in the survey, as well as the ones proposed by the respondents inthe “Other” options, are listed in the second column of Table 2. Given the
industry and faculty member werenoted as the most important aspect of the program. Collaborative work with classmates andworking with the university’s innovation hub were deemed the least important with coursesfocused on intrapreneurship falling in the middle.Figure 2 shows the extent graduates agreed that various aspects of the program were beneficial.All agreed that the scholarship was beneficial, which is of course no surprise. Many were in TIP helped me by providing a scholarship TIP helped me to gain skills in intrapreneurship TIP helped me to gain access to an internship TIP helped me to complete my degree in a timely manner TIP made me feel like I had a
a pathway back into the engineering profession if that’s where they want tobe. A full assessment of existing re-entry pathways for women engineers would benefit allinvolved – the profession, industry, academia, and the women themselves.This narrative study across all of the career developmental stages has allowed us to explore thedeep, rich engineering career story of one woman, Louise. We dove deep into her life and careerand uncovered some very interesting insights and ideas from her story. We identified some areasof change and topics to explore further regarding the engineering profession and our views onwhat constitutes engineering work. As we collaborate across disciplinary boundaries, worksectors, and other dividing lines we will
Paper ID #49219Trust me, I’m an Engineer: Exploring engineering Identity and concepts ofexpert versus novice in the aerospace engineering industryMs. Tara Esfahani, University of California, Irvine Tara Esfahani is a M.S. student at the University of California, Irvine, in the Mechanical and Aerospace Engineering department and a full time engineer at an aerospace company in southern California. Her specialization is mechanics of materials and her research focuses on engineering education and industry preparedness.Dr. David A. Copp, University of California, Irvine David A. Copp received the B.S. degree in mechanical
for the certificate has cemented her passion for both teaching and educational research.Dr. Yasser Alshehri, Yanbu Industrial College Yasser Alshehri is an assistant professor in the Computer Science and Engineering department at Yanbu Industrial College, in the Royal Commission at Yanbu, Saudi Arabia. He earned a Ph.D. in Computer En- gineering from West Virginia University, USA, in 2018. His research applies data analytics and machine learning tools to different disciplines, software engineering, and software quality.Mr. Dale G Dzielski MBA, CMA, PMP, SAFe 4 Agilist, West Virginia University Dale Dzielski leads the Online Software Engineering Graduate Program in the Lane Department of Com- puter Science and
engineering careers in industry orproceed to postgraduate training in materials engineering research post baccalaureate. Theuniqueness of this REU site lies in our program’s ability to combine training in multiscalemultifunctional advanced composites with entrepreneurship principles and ideals. It involves asuccessful collaboration between the Industrial and Manufacturing Department and the JimMoran Institute "JMI" of Global Entrepreneurship (FSU College of Business). The appeal andcompetitiveness of the program to STEM undergraduates is evident from the over 90 applicantsannually from all branches of engineering and the sciences. Each summer since 2011, tensuccessful candidates have completed several structured, vigorous, yet fun-filled sessions
Computer Programming course for the past 4 years. After his PhD he wants to gain insights and first-hand experience in the industry and then make a switch to academe. He is really passionate about teaching and thinks teaching can bring about massive changes in this world.Dr. Jennifer Robinson Glenn, School of Industrial Engineering and Management, Oklahoma State University Dr. Jennifer Glenn is currently a Lecturer in the School of Industrial Engineering and Management (IEM) at OSU. She attended Oklahoma State University, earning bachelor’s and master’s degrees in IEM. After graduating from OSU, Jennifer continued her education at the Georgia Institute of Technology where she earned her M.S. in Statistics and a Ph.D. in
Paper ID #22147Building Your Change-agent Toolkit: The Power of StoryDr. Jennifer Karlin, Minnesota State University, Mankato Jennifer Karlin spent the first half of her career at the South Dakota School of Mines and Technology, where she was a professor of industrial engineering and held the Pietz professorship for entrepreneurship and economic development. She is now a research professor of integrated engineering at Minnesota State University, Mankato, and the managing partner of Kaizen Academic.Prof. Rebecca A. Bates, Minnesota State University, Mankato Rebecca A. Bates received the Ph.D. degree in electrical
. Thismodel consists of a network of STEM-focused charter schools in urban locations across the statethat have been developed in partnership with the state’s flagship research-intensive university,purposely with its engineering technology college. The uniqueness of this model is that it hasbeen created with a goal of cultivating an environment of academic excellence and collegereadiness, specifically for minoritized youth, through experiential learning where students learnby attempting to solve authentic problems through industry-sponsored design challenges andprojects. This innovative university-school collaborative model has been implemented sinceAugust 2016, and has expanded to include 3 urban school locations as of 2021.To date, however, little
Director for the VT PEERS (Partnering with Educators and Engineer- ing in Rural Schools) program at Virginia Tech. This NSF funded program is housed in the Engineering Education Department and provides contextual, culturally relevant engineering curriculum and support in partnership with educators and local industry in three targeted rural schools systems in Virginia. Ms. Lesko leads the implementation team for VT PEERS and facilitates relationships with the educational and industry partners in the project. Her past research focus on rural and vulnerable community development through art and collaborative narrative praxis and influences her current engagement and practice. She has worked to address policy needs in
local companies face in hiring and retaining talentedengineering students, particularly in regions with limited access to skilled engineers. It highlightshow a small, teaching-focused private university can build effective partnerships with localcompanies by introducing high-demand semiconductor fields through field trips, industryengagement, and market-driven courses. The paper explores efforts to align semiconductorengineering curricula with industry needs, enhancing students' hands-on skills through real-worldapplications and impactful course development. By fostering collaboration with companies ofvarying sizes, the authors present a win-win strategy that prepares students for semiconductorcareers while addressing workforce needs, offering
provides a convenient form of knowledgetransfer to people who cannot be full- or even part-time students at community colleges oruniversities. This factor impacts industry representatives, displaced workers, and low-incomelearners. Usually, online education consists of online lectures and tutorials designed so users cancomprehend the studied subject. The missing piece of online education is the lack of hands-onactivities. To address this issue, Michigan Tech's Mechatronics program [1] and West ShoreCommunity College [2] collaborate on researching, developing, and implementing a state-of-the-art teleoperated robotic workcell (TRW) to enable enhanced remote training for industrial robots.The system is designed to provide training opportunities to
and can apply a collaborative and cooperation approach to conflict resolution and constructionissues. Students must be required to work in teams as opposed to in isolation. Students possessdifferent backgrounds, skillsets and perspectives that should be brought together in problemsolving. Lessons learned regarding the use of IPD in an educational setting has shaped additionalcurriculum development with building information modelling and related software [10].Motivation may also play a factor in the success of developing integrated curricula. The mainmotivation for industry to move towards collaborative working and the use of BIM has beenpressure from major Clients and various governments, and the opportunity for improved profitsand
opportunities, strengthening educator relationships and regional collaborations, anddesigning initiatives that connect classrooms with real-world engineering applications. Project OverviewThis CAREER project initially aimed to explore engineering career pathways for students inrural Appalachian communities, particularly in Southwest Virginia, by building on priorinitiatives. The original goals focused on understanding how engineering interest develops overtime, from middle school through post-secondary education, and utilizing programmablemicrocontrollers to sustain this interest. These efforts were designed to involve partnerships witheducators and industry stakeholders in the region. However, the COVID-19
, Columbia, SC 29208 3 EPRE Consulting LLC, Columbia, SC 29208 *Corresponding Author: zsjiang@sfsu.eduAbstractWith increasing demands for high performance in structural systems, Smart StructuresTechnologies (SST) is receiving considerable attention as it has the potential to transform manyfields in engineering, including civil, mechanical, aerospace, and geotechnical engineering. Boththe academic and industrial worlds are seeking ways to utilize SST, however, there is asignificant gap between the engineering science in academia and engineering practice in theindustry.To respond to this challenge, San Francisco State University and the University of SouthCarolina collaborated
industry: A case for an academic programAbstract In today’s construction industry, we have been seeing a growing number of complex andhigh quality construction projects all around the world using BIM (Building InformationModeling) technologies. In order to get the most benefit out of BIM, there is a dire need forefficient standards and robust educational programs and courses to train skilled professionals tosupport the implementation of BIM in the construction industry. BIM enables team collaboration, assisting project managers to more reliablycommunicate project’s intent to all stakeholders in a timely fashion. It promotes accuracy andprocess optimization, saves time, and reduces waste. It is therefore
into the engineering curriculum. While industry hashistorically been a partner in academic capstone courses at many universities15, they are nottypically very involved in curriculum development. A mitigation of the skills gap requires boththe supply of real world problems and guidance on the theory and concepts to be taught.The Learning, Training and Development group at Boeing has engaged in collaborative researchand development and established certificate programs with a variety of leading universities in theUnited States and abroad. In the fall of 2011, stakeholders from Boeing, Brigham YoungUniversity, Georgia Institute of Technology, and the University of Puerto Rico at Mayaguezeach took a series of small steps signaling the beginnings of