, focusing on the ways in which industry influence affectsstudent experiential opportunities, student competencies, financial support, and futureopportunities.V. Features of productive industry involvement in engineering technology programsIndustry advisory boards can influence the creation, implementation, and sustainment of anengineering technology program through several factors that promote highly skilled graduatesready to be hired by industry. In the following sections, we analyze the particular ways in whichthe IAB can support students’ career readiness and the educational institution.Experiential learning opportunitiesHigh industry involvement in experiential learning opportunities gives students a chance to seewhat it is like to work in
identity and create afeeling of authenticity in the field.Introduction and Literature ReviewThe benefits of engineering internships to students have been well established in literature [6],[7]. Internships provide opportunities for professional development (such as the improvement oftechnical and communication skills) as well as a look into what a career in engineering entails[8], [9], [10]. Literature has also established the positive influence of quality mentorship onstudents and how these relationships can help retain students in their respective fields [11], [12].It has also been found that internships can impact the persistence of underrepresented groups inengineering [13], [14]. Engineering workplace cultures are frequently male dominated
and a group research project.The GCSP and the EYE program cover the cost for this DCC certification for all active scholars.e. Social ConsciousnessThe social consciousness component involves scholars with service-learning and K-12 outreachprograms to better prepare our students to be contributing citizens locally, nationally, and/orglobally. Many students enter college wanting to pursue a career to serve others and seeengineering careers as altruistic in nature [6]. To develop and deepen scholars’ social awarenessand demonstrate motivation to bring technical engineering experiences to bear on societalproblems, each scholar takes advantage of opportunities provided by service learningorganizations. An example could be volunteering with the
of their findings and describe how their conclusions may be applied to real-world engineering challenges with bioadhesives. Team-based discussions were included in theactivity as an equitable and inclusive way to promote student learning [37,38]. After thesesummaries, instructors prompted the entire group with questions relating directly to the results oftheir activity (e.g., Which adhesive was stronger? Why?) and more open-ended questions thatchallenged students to think about real-world applications of bioadhesives. After the guideddiscussion, students were encouraged to ask any questions they had about the activity,bioadhesives, and careers in STEM. To conclude the module, students were given a post-test andpost-survey to assess learning
. She primarily teaches thermal-fluid sciences as well as introductory and advanced design courses.Amelia Elizabeth Cook, Lipscomb University Amelia Cook is an undergraduate student in the Raymond B. Jones College of Engineering at Lipscomb University. Amelia is studying mechanical engineering and, following her graduation, will be starting her career in engineering consulting as an EIT. She is currently researching the connections of humanitarian engineering projects affecting views of diversity, inclusion, equity, and professional development.Lewis Ngwenya, Lipscomb University Lewis Ngwenya is an undergraduate student at Lipscomb University. He is studying electrical and com- puter engineering and plans to get some
Paper ID #38084STUDENT PAPER: What We Learned, When We LearnedIt, and How We Learned It: Takeaways from an Institution’sAerospace Engineering Capstone ExperienceClaire Schuessler Claire Schuessler is a Master of Science in Engineering student with an Aerospace and Mechanical Engineering concentration at Saint Louis University's Parks College of Engineering, Aviation, and Technology. She also has a BS in Aerospace Engineering with a minor in Engineering Mathematics from SLU, and she is a member of SWE and AIAA. She will be beginning her career as a Systems Engineer for Raytheon Intelligence & Space.Samantha
Engineering and an M.S. degree in Industrial Engineering from Jordan University of Science and Technology (JUST) in 2005 and 2007, respectively. He received his M.Eng. degree in Industrial Engineering/Human Factors and Ergonomics and a Ph.D. degree in Industrial Engineering and Operations Research from The Pennsylvania State University (PSU) in 2010 and 2012, respectively. Dr. Ashour was the inaugural recipient of William and Wendy Korb Early Career Professorship in Industrial Engineering in 2016. Dr. Ashour’s research areas include data-driven decision-making, modeling and simulation, data analytics, immersive technologies, and process improvement. He contributed to research directed to improve design and engineering
representationof women in science (62%) while Argentina has 52%, Chile trails with 30% [2].STEM disciplines mirrors this underrepresentation, with areas such as computer science, physics andmathematics the least represented by women [1]. Factors that influence career selection in STEMdisciplines are deep-rooted gender stereotypes in Latin America, reflected both at family and societallevel [4], [5], [6]. Many countries and / or universities have yet to incorporategender equality as policy.Various initiatives are being developed that focus on promoting equality and empowerment of women(UN and UNESCO) [1] [2] The European W-STEM project coordinated by a research group operatingout of a university in Barranquilla, Colombia, has focused on three relevant
Paper ID #33231Scaling and Sustaining of a Liberal Arts Speaking Course That TargetsEngineering StudentsDr. Marcy Bloom Milhomme, Pennsylvania State University I am an Assistant Teaching Professor for subjects like rhetorical analysis, civic engagement, individual public speaking, small group communication and I’m the Lead Instructor for public speaking for engi- neers, where I teach engineers how to develop a technical message but for a non-technical audience. I’ve also worked in industry, where I developed training programs and other organizational development solu- tions for common workplace problems. My career has been
’ learning in a mechanism design class. As such, students wereasked to submit reflections at the end of each project. Following are some example promptsgiven to the students for reflection:1) Draw a concept map that shows the connections you have made between engineering andstorytelling.2) What does "Storytelling with Machines" mean for you personally beyond the class?3) What were your top 3 learnings from this class? Why?4) What was the most challenging aspect of the class?5) How will you apply what you learned in this class in your career?These reflections prompted the students to think about the connections they were able to makebetween storytelling and engineering, reflect on the challenges and successes, and lessons learntthrough the process of
Paper ID #33129Students’ Perceptions of Engineering Educators: Building Relationshipsand Fostering Agency in Outreach (Fundamental)Dr. Kelli Paul, Indiana University-Bloomington Dr. Kelli Paul is a postdoctoral researcher in science education at Indiana University. She received her Ph.D. in Educational Psychology specializing in Inquiry Methodology from Indiana University in 2006. Her research interests include attracting and retaining students in STEM, development of a STEM identity and STEM career aspirations, and the development of instruments and evaluation tools to assess these constructs.Ms. Karen Miel, Tufts
personal judgements about their abilities to achieve specific goals[11]. Indeed, some work has shown that students’ beliefs about their past achievement well-predicts their future performance [12]. Math self-efficacy refers to one’s specific beliefs aboutunderstanding math concepts and applying related skills [13]. For engineering students, mathself-efficacy is important because it may impact general engineering self-efficacy and in turnretention and performance [14-16]. The Mathematics Self-Efficacy and Anxiety Questionnaire(MSEAQ) is one instrument available for quantifying math self-efficacy. The MSEAQconsiders five dimensions of math self-efficacy, including: General Mathematics Self-Efficacy,Grade Anxiety, Future Courses/Careers, Asking In
remixes an old toy. The prototype should change the look and feel of the toy, or the toy’s role in our life, using new materials.The kits also included all required materials and tools, open-ended questions, images ofexamples, and career awareness information. Families were guided through an engineeringdesign process – research, plan, create, test, improve, and communicate.ParticipantsThe first year of the project included three families and the second year of the project included18 families. These families lived in the Midwest and Northeast regions of the United States.Across the two years, there were 16 female and 14 male child participants between 6-12 years ofage and 14 female and 10 male caregiver participants. The self-identified
: Word cloud visualization of the college-level challenges faced by the participantsIn addition to a word frequency query, a coding analysis was performed on the responses toquestion M1 from the matching survey to distill this qualitative information. In doing so, fourinductive codes were generated by the researcher while reading and sorting the data: academics,path uncertainty, personal and social struggles, and time balance. The “academics” code wasused to label any struggles related to coursework, such as low grades, dropping courses, or poorstudy habits. The “path uncertainty” code broadly labels any lack of clarity in students’ academicor career trajectory in engineering, such as being unsure about their major or having troublefinding an
introduction to work done by professional chemicalengineers, the resources available to help them be successful at KU, the curricular requirementsand expectations of chemical engineering students, and possible career opportunities; 2) anintroduction to engineering ethics, basic safety considerations, teamwork, and technical writing;and 3) an introduction to basic material and energy balances and fluid flow. This course was theonly chemical engineering course the students took during the freshman year. While teaching the first semester sophomore Material and Energy Balance course between2009 and 2012, students often remarked that the freshman class was boring and that they still didnot understand what chemical engineers did. Based on this feedback
burden are both crucial underlying elements to this program’ssuccess, but the importance of hands-on, experiential activities that help the student visualizetheir professional career cannot be under-estimated.I. IntroductionThe purpose of land grant institutions of higher education, as defined under the Morrill Act, is toprovide opportunities for the residents of their home states to achieve a collegiate education at areasonable price and enhance the educated work force living within the state. Unfortunately, thedecline in state support for these schools and the rising costs of operation have forced land grantschools to admit more out-of-state and international students that pay tuition upcharges for theirincoming classes, at the expense of in
Centerfaculty member to undertake an independent research project in that faculty member’s lab. Thepandemic made this immersive experience impossible, so instead we brought the research to thestudents via Zoom. Faculty recorded and shared videos describing their work for the students towatch. We then asked these faculty to join our live Zoom meets to speak with the students andanswer their questions on a variety of topics including research, careers, college, etc. While thiscannot replace a physical day in a lab, we were at least able to show the students the breadth ofexciting research happening in the ASSIST Center, and hopefully engage their interest in STEM.Program Implementation - Transitioning from summer to academic term programAfter the summer
resilience, optimization techniques/design automation, and hardware security.Mr. Taylor Steven Wood, Pennsylvania State University, University Park Taylor received his B.S. degree in Physics from Brigham Young University, after which he worked for 5 years as a semiconductor engineer for Micron Technology in Boise, ID, specializing in numerical and computational data analysis. During this time, he also volunteered extensively with the educational arm of the Micron Foundation, bringing inquiry-based STEM outreach lessons to K-12 classrooms throughout the Boise area and serving as a career mentor to high school students interested in pursuing engineering as a career. Taylor’s role at CSATS focused on interfacing with science
development. Findings can be used to inform newapproaches for developing and assessing engineering outreach programs. IntroductionThe engineering education community recognizes the lack of diversity in the field and is activelyworking to break down barriers that inhibit the participation of women and minoritized racial andethnic groups in engineering education and engineering careers. Despite these ongoing efforts,engineering enrollment is below optimal levels and there continues to be an overall lack ofwomen and students from minoritized racial and ethnic groups within engineering fields (Daviset al., 2012). For example, over the past five years, engineering degrees were earned by studentsfrom
embedded. Evidence of gendered and race-baseddiscrimination is particularly robust, indicating that women and faculty of color experience arange of overt and covert inequities throughout their professional careers when compared to menand white faculty respectively [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] [11, 12, 13, 14, 15, 16, 17, 18, 19, 20].Covert inequities and microaggressions as they play out in 2020 in colleges and universities inthe U.S. are often very difficult to address because they are subtle, even invisible (especially tothe often well-intended perpetrator); other equities are still far from subtle. In STEM fields,gendered discrimination issues have often been described with the “leaky pipeline” metaphor:women leave STEM fields in greater
careers in intelligent transportation systems. Students have been part of a multi-disciplinary,eight-week summer research experience that integrated curricular and extracurricular activities. Verybriefly, workshops, trainings, site and lab visits, hands-on data collection and sensor involved research oncampus and on other university campuses targeted critical skills with a problem-based learning approach.The students also participated in a series of critical thinking sessions presented by the project team ondefining a research problem, literature search, and the research process (Pierce et al., 2019, Comert et al.,2020).The numbers of participants in past two summers were 8 and 7, respectively. The students were teamed inmultidisciplinary groups
work15 in an environment that mimics the actual construction management process. ¾ To integrate within the revised course the following topics: Construction Terminology and Accreditation, Ethical Dilemmas, Resume and Career Plan, Engineering and Tech Expo (visit and summary paper), Professional & Trade Organizations, and Guest Speakers.MethodologyThe basic methodology for the development and delivery of the revised CM&E 111 is presentedbelow. ¾ The author attended the ACCE2 Mid-Year Meeting held in Phoenix (February 2012) to discuss first-year construction management courses with construction management program directors at the Baccalaureate Program Chairs Meeting. Approximately forty- five (45) ACCE
: renewable resources, andglobal warming; b) Economic: renewable resources, and efficient use of resources; and c)Health and Safety: clean water and hunger.Life Long Learning: Three themes emerged: a) Credentials: professional engineering license(PE) and professional development (PD); b) Career Path and Progression; and c) On theJob/Apprenticeship, or PD from employer.Communication: Two types: a) Clients/Public (nontechnical audience); and b)Colleagues/Other Engineers (technical audience). 152Others: The research team focused on two aspects of motivation: intrinsic and extrinsic. Forexample, the questions: Why are you interested in becoming an engineer? Where do you seeyourself in 5 years? 10 years? (Warm
Professor of Practice Department of Engineering Technology Texas State University AbstractThis paper presents a framework for the design of augmented reality expeditions in engineeringeducation settings to motivate student learning of engineering fundamentals and careers. Theimpact of social distancing has been significant for students of all ages and there is a great needfor additional and creative online learning resources. The engineering field has an opportunity tonot only motivate and support student learning, but to do so by featuring the very innovativenature of engineering as a tool to develop those experiences. A case study regarding
-based and all-class discussion activities that draw upon criticalquestions of applying these concepts. In so doing, we intend to help students think and behave asprototypical engineering leadership practitioners. IntroductionThe typical engineer spends the majority of his or her career either in a team or in managementand leadership roles1. Even entry-level engineers are expected to function well as team membersand exercise leadership as appropriate to a role. One can therefore consider the practice ofengineering as a triad composed of technical competence, management, and leadership with noclear dividing line2. For these reasons, companies seek graduates with leadership skills 3. However,industry offers
as SRAM, DRAM, and flash. The main target application of resistive memory technologies is for large data storage and the main targeted market is replacement of computer DRAM main memory and SRAM cache. In this research, we propose a unique application for resistive memory technology and that is to realize non-volatile single-bit latch element that can be used for building reconfigurable logic circuits. The results of student surveys on the experience of student participants with the research internship strongly suggest that such an experience is very valuable in encouraging students to purse STEM research careers. Moreover, this experience enhances students’ technical research skills such as scientific thinking, ability to
suggest that such an experience is very valuable in helping thestudents decide if they want to purse STEM research careers. Moreover, this experienceenhances students’ technical research skills such as scientific thinking, ability to analyze andinterpret results, and presentation skills. 1. IntroductionThe motivation behind this work was to offer research experience to undergraduate students andinspire them to pursue higher education and research careers. Research experience is nottraditionally offered in an undergraduate curriculum, especially for community college students.An effective approach to address this gap is to offer summer research experience forundergraduate students. An effective research experience for undergraduate students
Paper ID #25276Using Topological Data Analysis in Social Science Research: Unpacking De-cisions and Opportunities for a New MethodDr. 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 fos- ter or hinder belongingness and identity development. Dr. Godwin graduated from Clemson University with a B.S. in Chemical Engineering and
as a project management consultant. Her research contributes to the advancement of labor and personnel issues in engineering broadly and specifically in the construction industry through two research areas: untangling the complex relationship between activities people become involved in — operationalized as engagement — and the technical and professional out- comes gained — operationalized as competencies. The broader impact of this work lies in achieving and sustaining productive, diverse and inclusive project organizations composed of engaged, competent peo- ple. Dr. Simmons’ research is supported by awards from NSF, including a CAREER award. She oversees the Simmons Research Lab (www.denisersimmons.com), which
, liberatory maker spaces, and a RED grant to increase pathways in ECE for the professional formation of engineers.Dr. Marie C. Paretti, Virginia Tech Marie C. Paretti is a Professor of Engineering Education at Virginia Tech, where she co-directs the Vir- ginia Tech Engineering Communications Center (VTECC). Her research focuses on communication in engineering design, interdisciplinary communication and collaboration, design education, and gender in engineering. She was awarded a CAREER grant from the National Science Foundation to study expert teaching in capstone design courses, and is co-PI on numerous NSF grants exploring communication, design, and identity in engineering. Drawing on theories of situated learning and