Presidential Early Career Award for Sci- entists and Engineers (2010), and a National Science Foundation CAREER Award (2009). Her Auburn University awards include the Excellence in Faculty Outreach (2015), an Auburn University Alumni Pro- fessorship (2014), the Auburn Engineering Alumni Council Awards for Senior (2013) and Junior (2009) Faculty Research, the Faculty Women of Distinction Award (2012), and the Mark A. Spencer Creative Mentorship Award (2011). Dr. Davis is the past chair of Auburn’s Women in Science and Engineering Steering Committee (WISE) and the faculty liaison to the College of Engineering’s 100 Women Strong Alumnae organization which is focused on recruiting, retaining and rewarding women in engineering
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 entrepreneur- ship and economic development. She is now a professor of integrated engineering at Minnesota State University, Mankato, in the Bell Engineering program and the managing partner of Kaizen Consulting. c American Society for Engineering Education, 2019 Infrastructure Sinkholes: The Pretense of Operating Gender-Neutral Organizations Erodes Engineering EducationAbstractThis paper draws from the framework of Feminist Scholar Joan Acker’s
as “Engineer for a Day” for Middle School StudentsAbstractMerrimack College, a small, liberal-arts college, has a long-standing tradition of service learning,and standing relationships with local after-school programs in under-served communities throughour Service Learning Center. However, these service experiences have not been integrated intothe engineering curriculum. The motivation to integrate engineering majors into this particularservice learning project is to demonstrate to engineering students that: - engineering careers can provide great benefit to local communities, - although just starting college studies, first-year engineers can mentor youth who may never have
thoughts,actively searching for knowledge, and making inferences, has been identified by theAccreditation Board for Engineering and Technology (ABET) as necessary for life-long learningand an effective work career skill [2]. Although metacognition is key for students’ self-directedlearning, explicit instruction in metacognitive skills has been rarely integrated into engineeringprograms. One notable exception has been the Iron Range Engineering program (IRE). IRE isan innovative engineering program located in Virginia, Minnesota where students explicitlyengage in activities to become familiar with, develop, and apply metacognitive skills within areal-world problem-based learning (PBL) environment.The goal of our IUSE NSF project has been to study
programs at our university. The objectives of the program are to: (i)expand and diversify the engineering/technology workforce of the future, (ii) develop linkagesand articulations with 2-year schools and their S-STEM (Scholarships in Science, Technology,Engineering and Mathematics) programs, (iii) provide increased career opportunities and jobplacement rates through mandatory paid co-op experiences, and (iv) serve as a model for otheruniversities to provide vertical transfer students access to the baccalaureate degree.The program is in its third year. It recruited its first group of 25 students in Fall 2017, andanother group of 27 students in Fall 2018. We hope to recruit 26 more students in Fall 2019 for atotal of 78 vertical transfers. The goal
finish youreducation, to what extent would you enjoy a profession or career that usually requires each of thefollowing?” For each of the 34 items, students responded using a scale from "1" (not at all) to“5” (very much). These items loaded onto six factors: 1) framing and solving problems, 2)design, 3) tinker, 4) project management, 5) collaboration, and 6) analysis. The internalconsistency for both the professional and academic factors was based on Cronbach’s Alphavalues gathered from a dedicated research study involving these scales and range from 0.74 to0.88 [13]. Demographic information was also collected on participants’ self-reported gender,race/ethnicity, and first-generation status.Research DesignParticipants were asked to complete the
evaluating teamwork models, statewide pre-college math initiatives, teacher and faculty professional development programs, and S-STEM programs.Dr. Marisa K. Orr, Clemson University Marisa K. Orr is an Assistant Professor in Engineering and Science Education with a joint appointment in the Department of Mechanical Engineering at Clemson University. Her research interests include student persistence and pathways in engineering, gender equity, diversity, and academic policy. Dr. Orr is a recipient of the NSF CAREER Award for her research entitled, ”Empowering Students to be Adaptive Decision-Makers.”Dr. Rebecca Brent, Education Designs, Inc Rebecca Brent is President of Education Designs, Inc., a consulting firm located in
as the Director of Recruiting for the College of Engineering and is responsible for recruitment and diversity efforts at both the undergraduate and graduate levels.Ms. Amy Suzan Klinkovsky, Texas A&M Engineering Amy Klinkovsky has nearly 25 years experience in communications, 17 of those in higher education. Her career with Texas A&M Engineering began in 2016 after having spent eight years in Los Angeles, California, where she earned a master’s degree and worked in the entertainment and non-profit industries. She has a passion for creating opportunities for students with diverse voices to share their stories. c American Society for Engineering Education, 2019
University, Pomona in June 2018. During his senior year at Cal Poly Pomona, CJ contributed to the design and manufacturing of the Radial Wave Engine. After graduation, he worked as a Research Engineer testing the Radial Wave Engine at the Air Force Research Laboratory in Dayton, Ohio. Continuing his career in the Aerospace industry, CJ works as a Design Engineer at HiRel Connectors, Inc.Mr. Colby Stark c American Society for Engineering Education, 2019 Development of a Novel Engine Test Rig for Research and Educational PurposesAbstractThis paper overviews a senior design project conducted by three undergraduate engineeringstudents at California State Polytechnic
Engineering Education, 2019 Diversifying Pathways in Cybersecurity through the Design of Holistic CompetitionsAbstractCybersecurity competitions are touted as a good method for getting high school studentsinterested in career paths in cybersecurity fields. From observations of high school cybersecuritycompetitions, we find that typical high school cybersecurity competitions focus narrowly oncomputer-technical competencies. A byproduct of these competitions is to create an intimidatingatmosphere that rewards young adults who are already proficient in computer IT activities, but adiscouraging environment to students who may have burgeoning interests in cybersecurity.Additionally, the skill set needed for cybersecurity
responded that they gained better understanding of research and science,indicating that the exposure to research with fundamental science offered by this program, at anearly stage of their educational career, provided students a better understanding on the researchprocess, where to start if given a real-world problem, and how to implement the researchoutcomes to tackle the problem. Traditional education focuses on the understanding of theory,but not necessarily applying it to real-world problems. This summer internship opportunityallowed students to relate theories to real-world problems, something that is not always offeredin the classroom. In addition, this process better prepared students to take on future research intheir field and helped
and thephysical capabilities and limits within their assigned career fields and systems. They need to notonly be “users,” but to become problem solvers that use engineering principles to deviseenhanced capabilities essential to achieving and maintaining dominance in critical domains.Proficiencies are organized into two broad categories: Fundamental Domain Knowledge (i.e., knowledge of basic engineering principles across a variety of physical domains.) Problem-Solving Process (i.e., using a top-down, systematic problem-solving method…to address ill-defined problems.)”To ensure effective implementation of these new outcomes, the Academy established OutcomeTeams, composed of faculty across the institution and appointed by the
ofEngineering, which states in The Engineer of 2020: Visions of Engineering in theNew Century that “engineers must understand the principles of leadership and beable to practice them in growing proportions as their careers advance” [2]. Afollow-up report by the NAE, Rising Above the Gathering Storm, Revisited:Rapidly Approaching Category 5, further confirmed the importance of STEMleadership [3]. In response to this call for greater emphasis on leadership inengineering education, engineering colleges and departments have builtpartnerships with industry and corporate partners to help shape engineeringcurricula. In these partnerships, it has become apparent that industry is alsolooking for academic programs to extend their focus beyond technical
affected their definition. As anexample, we identified two quotes that may indicate broader themes:“I once had an opportunity to talk [to] a panel of women working as biomedical engineers at [companyname], where they said they chose this career because of how they can directly see how their work ishelping others.”“Based on lectures and speakers at my high school, engineering can be described most simply as theapplication of knowledge to solve practical problems.”These two quotes both highlight influences on students’ definitions of engineering. Many studentsidentified people as a source of information that had helped them build or change their definition.Examples included a parent, sibling or relative, working engineer, high school teachers, and
year student awareness of the possible career paths in surveying engineering.Future work will focus on implementing version one of the immersive laboratories, as well asincluding more terrains (from off campus locations), surveying exercises (e.g., total station andtopographic mapping), and making refinements in the handling of the instrument and virtualreality environment.AcknowledgementsStudents Eric Williams, Vincent Pavil, John Chapman, Joe Fioti, Malcolm Sciandra, andCourtney Snow are acknowledged for their involvement in the data collection and modeling ofthis research.References[1] F. M. Fung, W. Y. Choo, A. Ardisara, C. D. Zimmermann, S. Watts, T. Koscielniak, E. Blanc, X. Coumoul and R. Dumke, "Applying a Virtual Reality Platform
Disciplines. San Francisco, CA: Jossey-Bass, 1990. 3. Reference omitted for purposes of blind review 4. R.B. Landis, Studying Engineering: A Roadmap to a Rewarding Career. Los Angeles, CA: Discovery Press, 2007. 5. ALEKS – McGraw-Hill, https://www.aleks.com/.
development for students within the community, and tutoring. The popularity of thistype of living arrangement grew as did the retention numbers for students who lived in the ECSLLC at any point in their academic career. With the demand to live in this type of communityincreasing, ECS advocated to critical campus partners to move to a new residence hall facilitywith increased bed space in order to expand the program. In Fall 2013, the ECS LLCtransitioned to become Teal Residential College (TRC), which now serves 350 students of allclassifications through a residential college model.Teal vs. Non-TealA comparison of several key student success factors allows for a holistic look of the impact ofthis type of intensive living-learning environment. Figures
still-new Ingram School of under the guidance of an advisory council made up ofEngineering. During work on an NSF funded grant, nanotechnology experts from academia and industry.we were able to infuse ethics related modules in 13 One important goal of the project was to recruit,different courses, across three colleges and at all engage, prepare, and encourage students fromlevels of undergraduate study. Three members of our traditionally underrepresented groups into careers inteam (Hanks, Tate, Trybula) were PIs or Senior Science and Engineering. In our third year we revisedPersonnel on the NSF grant project, and the fourth the curricula in the introductory course to
was not theprograms should be called “Applied Engineering.” case with all companies and so there was a need for more “hands-on” graduates. As a result four-year engineering technology programs came on line and the first one1. Introduction accredited by ABET was at Brigham Young University inThe author’s career focus for many years has been in 1967. [2] Other followed quickly such as at the Universityengineering technology. It may be of interest on how he of Houston in 1968 and Purdue University in 1969. At thebecame interested in
initiative and translate her passion for STEM into opportunities that will attract, inspire and retain more girls in STEM to make it the new norm. She has also architected SFAz’s enhanced Community College STEM Pathways Guide that has received the national STEMx seal of approval for STEM tools. She integrated the STEM Pathways Guide with the KickStarter processes for improving competitive proposal writing of Community College Hispanic Serving Institutions (HSIs) and is currently a co-PI on the HSI ATE Resource Hub. Throughout her career, Ms. Pickering has written robotics software, diagnostic expert systems for space station, manufacturing equipment models, and architected complex IT systems for global collaboration
worked for nine years in the manufacturing and service industry as an Industrial Engineer prior to her academic career. c American Society for Engineering Education, 2019 Understanding competencies transfer during internships in undergraduate industrial engineering students: a case study at the [blinded]IntroductionDespite engineering programs designing curriculum with the goal of preparing students forindustry demands, there is still a disconnection between industry expectations of the workforceand the preparation of engineering graduates [1-3]. One way to prepare engineering students tomeet industry expectations is by involving them in real world experiences where they cantransfer some of the knowledge
of the Women in Engineering sem- inar courses. For the past decade, Dr. Zurn-Birkhimer’s research has focused on broadening participation of women and underrepresented group in STEM fields. Recently, she has been investigating the intersec- tion of education and career path with cultural identity and is developing strategies to inform programming and policies that facilitate recruitment and retention of underrepresented populations in academia. In 2012 Dr. Zurn-Birkhimer was presented with an Outstanding Alumni Award from the Department of Earth, At- mospheric, and Planetary Sciences at Purdue University. She also serves on their Alumni Advisory Board. Dr. Zurn-Birkhimer earned her B.S. in Mathematics from the
students’ perceptions of robotics in terms oftheir interest in future scientific or engineering related majors in college or careers, and have foundthat students have a positive attitude towards robotics [5], [6]. In this paper, we aim to develop amore nuanced understanding of student attitudes towards robotics-based lessons in terms of moreimmediate effects such as whether the students would like to have more robotics-enhanced coursesin their school curricula. Researchers have also previously suggested that robotics-based lessonsmust be developed so that the students can easily see a connection between the robotics activityand learning goals [3].In this work, we do not prescribe any specific pedagogical methodology, however all
determine the feasibility of a potential solution at all stages of itsdesign, from its inception to its complete implementation. Most seasoned engineeringprofessionals appear to have a strong sense of intuition, but they often find it difficult to explainto younger professionals how they gained their intuition other than simply by experience. Byshortcutting this process, early-career engineering professionals will be able to quickly provideand assess solutions, leading to more opportunities to uncover new discoveries and much-neededinnovations for society.Building intuition also fosters confidence [43] and can subsequently foster greater persistenceand resilience in engineering majors and careers. Engineering disciplines, often described as
claim that over-assimilation is a problem. It contains situations such as “Sitting in lecture and taking examsmakes me feel like a data point. In a weird way it makes me feel similar to other students” and “Ifelt similar going to the career fair and trying to find a job.” In these descriptions, studentsimplicitly expressed a lack of distinctive characteristics. Also, as Figure 2 shows, in theanonymity class, the intensity rating of “anonymity/faceless” was high in an absolute and relativesense, a pattern that indicates over-assimilation. Students did not explicitly express wishes fordistinctive characteristics in the exemplary situations, although in the career-fair situation above,the student may have implicitly signaled a desire for a
development of systems thinking and innovative thinking skills in engineering students. Before returning to graduate school, Kirsten worked for several years as a project manager and analytics engineer in the transportation industry.Dr. Alejandro Salado, Virginia Tech Dr. Alejandro Salado is an assistant professor of systems science and systems engineering with the Grado Department of Industrial & Systems Engineering at Virginia Tech. His research focuses on unveiling the scientific foundations of systems engineering and using them to improve systems engineering practice. Before joining academia, Alejandro spent over ten years as a systems engineer in the space industry. He is a recipient of the NSF CAREER Award, the
my 30 years of experience in the chemical and environ- mental industries to the undergraduate classes and curriculum development. My focus through most of my career has been on Chemical Process Safety, Environmental, Health and Safety, and, Air Pollution En- gineering. These fields draw on virtually every part of chemical engineering, but they also draw heavily on other disciplines, including social justice and law, leading to programs that are heavily multidisci- plinary. Also, my experience has spanned many types of industries, from traditional chemical companies, to electronics and microelectronics, to pulp and paper, metal foundries, and even wineries and breweries. The result is a rich, integrated background
. The visits took place over a three-month span in fall of 2017 with the goalof capturing “... promising models, policies, practices, and/or strategies to help propel morestudents toward degree attainment in science, technology, engineering, and mathematics (STEM)fields and toward strong preparation for success in STEM careers [14, p. 187].” The selectionprocess of the nine institutions included discussions amongst individuals within organizationsincluding the University of Pennsylvania’s Center on Minority Serving Institutions (CMSI), theUnited Negro College Fund, Hispanic Association of Colleges and Universities, AmericanIndian Higher Education Consortium, and the Asian & Pacific Islander American ScholarshipFund. The report states that
inclusive, engaged, and socially just. She runs the Feminist Research in Engineering Education Group whose diverse projects and group members are described at pawleyresearch.org. She received a CAREER award in 2010 and a PECASE award in 2012 for her project researching the stories of undergraduate engineering women and men of color and white women. She has received ASEE-ERM’s best paper award for her CAREER research, and the Denice Denton Emerging Leader award from the Anita Borg Institute, both in 2013. She was co-PI of Purdue’s ADVANCE program from 2008-2014, focusing on the underrepresentation of women in STEM faculty positions. She helped found, fund, and grow the PEER Collaborative, a peer mentoring group of early
semester and only spike the few sessionbefore exams.All students including those in engineering benefit by developing strong study groups with theirpeers and collaborating throughout their undergraduate career. Engineering programs frequentlycontain team-based projects in courses that help students develop teamwork and managementskills for use in their professional careers. Helping students work with their peers for academicsupport is an important skill that most successful students develop over time. This develops thenecessary collaboration skills that today’s students need to possess post-graduation.Underclassmen also benefit by learning collaboratively from upperclassmen in their majors [4].Additionally, students retain a larger quantity and