college career to ease them into it and get them used to taking information from the catalog/website and using it.” “Provided real-life experience in being able to read and interpret manufacturer's catalog/website, a skill that will be useful in an engineer's career. It is important to include lessons in college that will be used in our careers, rather than always focusing on just theory and textbook teachings.”Comments indicating the usefulness of vendor catalog in the jobs students held after the classand before graduation. “I used different catalogs at work, not those specific ones we used in ME 367.” “Utilizing vendor catalogs during class was extremely helpful during my summer internship.” “I think the introduction of
from this experience? - The workshops covered information I anticipate I will use in my future academic or professional career on a 5-point scale (strongly disagree, somewhat disagree, neither agree nor disagree, somewhat agree, and strongly agree) with the list of all workshops. - What were the workshops that helped you the most for the project? Why? - What changes would you like to see to the workshops? - What kind of support would have been beneficial? - Are there particular topics that you would have liked to have seen covered more or less? - Would you recommend this experience to other students? Why or why not?One team member led the data analysis of qualitative data by reading through all
marginalized groups [6]. Engineering isone of the fastest growing career paths in the United States and will require the appropriateeducation of a diverse population to fulfill those needs [7]. As the U.S. population keepsdiversifying [8], it is critical we ensure that students from different backgrounds have the supportthey need to transition to a successful path in engineering and other STEM areas.ContextThis evidence-based innovation project is taking place at the University at Buffalo, where thefirst-year engineering seminar EAS199: Engineering Principles takes place. The inception of thecourse re-design was previously reported [11] with the intention of enhancing retention ofstudents at the first year. The overall goal is to provide a better
EA education presently offered is inadequate, with most participants indicating thatU.S. universities are not adequately preparing electrical engineering students for careers in GlobalEngineering (used in the workshop as a synonym for Humanitarian Engineering) or for graduatestudies in Global Engineering (Table 4 and Table 5). Although it is perhaps not surprising that agroup of EA educators and stakeholders would see a need to expand EA education, it is moresurprising that they also felt that the quality of EA education is low. The opinions about thequantity and quality of EA are largely unchanged from the previous year’s workshop [16].Table 3: Responses to the prompt “What is your opinion of the quantity (number of universities)offering
-structured understanding, where theycan describe multiple dimensions of sustainability but struggle to articulate the relationshipsamong them.Student mental models may influence their career plans and professional motivations. Forinstance, engineering students associate their professional goals more with environmentalsustainability and view the implementation of sustainable development as a professionalrequirement not a personal one [13, 16]. There remains a need to further understand howengineering students perceive sustainability and climate change and how these complex social-ecological-technological systems (SETS) influence not only their career plans but also theirprofessional practice [2]. By gaining insights into students' perceptions of
initiative since his freshman year, first as a student, then as an instructor for the past two years. With three years of industry experience, he offers a first hand perspective on the design subjects he teaches, including 3D design and fabrication. Currently, he is a manufacturing engineer for the company Precision Swiss Products. In his free time, Qingyuan enjoys teaching his Pomeranian, Biscuit, new tricks.Mr. Matthew Kaltman, University of California, Santa Cruz Matthew Kaltman is a senior Robotics Engineering student at the University of California, Santa Cruz. Throughout his academic career he has fallen in love with low-power agricultural sensing solutions, and is continuing this passion as an Undergraduate
holds the position of Lecturer at Lusail University, Qatar. Prior to this, she served as a part-time Professor at Conestoga College, Canada, and as a Solution Engineer at CONSULTEK Corporation, Canada. Muna was also a Program Coordinator and a Research Associate at Texas A&M University, Qatar, for more than five years. Throughout her extensive career, Muna has garnered substantial expertise in instructing a wide array of courses, spanning both theoretical and practical subjects. Her teaching portfolio includes Digital Design, Big Data and Data Analysis, Mathematics, Electrical Circuits Theory, Electronics, and Control Theory. Muna’s commitment to academia extends beyond the classroom. She actively engages in various
application-focused and hands-on learning, perhaps to a greater extent than in engineering” [1, p. 167]. As a result, the ETcurricula incorporate more laboratory-based courses. While the ET curricula also contain coursesin engineering sciences, these courses are redesigned with an application focus in mind to teachstudents how concepts from engineering sciences are applied in practice [1].Although there are differences in the training of engineering technology graduates as comparedto that of their engineering counterparts, there is a significant overlap in the career trajectories ofthe two degrees. The Engineering Technology Council of the American Society for EngineeringEducation notes in its goals that while “the degree is engineering technology
also served in key leadership positions. Dr. Matusovich is recognized for her research and leadership related to graduate student mentoring and faculty development. She won the Hokie Supervisor Spotlight Award in 2014, received the College of Engineering Graduate Student Mentor Award in 2018, and was ©American Society for Engineering Education, 2024 Paper ID #41056 inducted into the Virginia Tech Academy of Faculty Leadership in 2020. Dr. Matusovich has been a PI/Co-PI on 19 funded research projects including the NSF CAREER Award, with her share of funding being nearly $3 million. She has co-authored 2
not only very critical for the state of Ohio, Michigan, Indiana, but also for all USmanufacturing hubs [9].In June 2017 advisory panel of key business and industry representatives from across the state ofOhio were identified and invited to review the Engineering and Science Technologies andManufacturing Technologies Content Standards and advise the Ohio Department of Educationwith an objective to prepare students for careers in design, operations, manufacturing and STEM.The outcomes of the review have standardized multiple competencies that can lead to careerpathways in advanced manufacturing and robotics, including robotics operation, roboticsprogramming, computer integrated manufacturing, digital electronics and circuits
]. Multiple types of game-based learninghave seen success in the classroom including augmented reality (AR), virtual reality (VR), seriousgames, and stimulations with varying degrees of success which are dependent on the material typeof engineering courses [6]. AR and VR are great instruments for visual based learning concepts,and they provide comprehensive learning experiences thereby helping students to relate it to theirintended career path. These platforms will help students with virtual experiential learning [4], [7].Games are helpful in socializing users with one another through “communication, cooperation,competition, and conflict” which are all important aspects covered in general freshmen andsophomore engineering courses that have a focus on
tofollow Juan’s path; to attend college and seek a professional career. Thus, getting married toJuan, allowed Shelly to be the first in her family to attend college. During her educational andprofessional career, she had the support and mentorship of Juan and Steve. This continuoussupport and her twenty-year teaching experience led her to form a family support group to helpclose the gap between families and school. The support group’s goal was to influence families tobecome more involved in their children’s education.We, and many others who knew Steve’s work, feel fortunate to continue Steve’s legacy inhelping families who want excellence and equity in their children’s education. We understandthat inequities still exist in our educational systems
engineeringclasses in high school, but later notes that he chose to attend Lipscomb due to the HE programoffered through the Peugeot Center. Though service was not indicated as his primary reason forchoosing engineering, it seems that S17 saw the benefits of service through engineering, and thisheavily impacted his college choice. In contrast, S34 clearly stated his desire to “work on stuffthat’s gonna help people” as his reasoning for choosing engineering as a career path. He alsomentioned experiences with building things and a working knowledge of engineering from themilitary as influential as well.According to two studies, very few engineering students choose the major to help society or forsocial good at 3.3% (n=390) and 14.4% (n=97) respectively [21
as polytechnicinstitutions. Engineering has not, however, been broadly embraced by liberal arts institutions,often being seen as being overly career-focused and not sufficiently broad in its educationalapproach. Liberal arts institutions also tend to be much smaller in size, which can make itchallenging to furnish an engineering program with the specialized facilities and equipment itrequires. Furthermore, liberal arts institutions typically have comparatively larger core curricula,which can make it challenging to design a robust engineering curriculum that is completable infour years.A few small engineering colleges exist (e.g. Harvey Mudd, Rose-Hulman, and Olin College)whose enrollment ranges from a few hundred to a couple thousand
% 26% 13% San Francisco State Univ. (Site 6) 1,550 25.7% 37% 45% 34% Total across sites 7896 28.2% 27.6% 34.4% 21.5%Table 1: CS population information for alliance sites, including demographic percentage of Latinx student, retentionin the major (from CSU institutional dashboards)The goal of the alliance is to improve retention of Latinx students in the first years of theircomputing career. We have introduced two styles of curricular activities both centered in sociallyresponsible computing and with the aim of providing students with an enhanced sense ofbelonging and better industry preparation yielding positive impacts on
. Piotrowski, K., 2018, “Adaptation of the Utrecht-Management of Identity Commitments Scale (U-MICS) to the measurement of the parental identity domain,” Scandinavian Journal of Psychology, Vol. 59 No. 2, pp. 157– 166. https://doi.org/10.1111/sjop.1241612. Godwin, A., Kirn, A., 2020, “Identity-based motivation: Connections between first-year students’ engineering role identities and future-time perspectives,” Journal of Engineering Education, Vol. 109 No. 3, pp. 362–383. https://doi.org/10.1002/jee.2032413. Hazari, Z., Sonnert, G., Sadler, P. M., Shanahan, M.-C. C., 2010, “Connecting high school physics experiences, outcome expectations, physics identity, and physics career choice: A gender study,” Journal of Research in Science
gap is not novel to engineering educationresearch and is often overcome with on-the-job training that help prepare recent graduates fortheir transition into the workplace. While most would agree that complete preparation for allengineering careers is not the intent of a student’s engineering education, it would be fair to saythat addressing this gap holds value for the major stakeholders. We define the major stakeholdersas the student, faculty, and engineering practitioners (or firm/agencies) that will employ thestudent.Students value opportunities to “practice the engineering profession” and have exposure toengineering processes through authentic projects [5]. In a recent study, students completed anengineering course on changeable and
ofengineering, preparing students for a broad spectrum of roles in research, design, anddevelopment. These programs provide a strong theoretical understanding of engineeringprinciples, allowing graduates to contribute to cutting-edge innovations and theoreticaladvancements. Ultimately, ET in both community colleges and traditional engineering programsplays a crucial role in the engineering landscape, each attracting many students with uniqueinterests and career aspirations. Whether one chooses to pursue an ET program, geared towardsapplied skills and immediate industry integration, or a traditional engineering program, focusedon comprehensive theoretical knowledge and diverse engineering applications, they will findrewarding opportunities in their
focusing solely on technical specifications orassumptions.Educators can prepare aerospace engineering students for their future careers by equipping themwith the appropriate HCD skills and mindsets to design high-performance aerospace systems thatare user-friendly, safe, and reliable. Students develop critical thinking, problem-solving,communication, collaboration, and empathy skills, which are essential to graduate to working onmultidisciplinary and multicultural teams. HCD education and experience with design thinkingcan also help students understand the latest trends and technologies in the aerospace industry andinspire them to pursue their passions and interests in this field.Learning Progressions in Engineering EducationLearning progressions
providing a tangible representation of materials and structuralconcepts, these models allowed students to interact with physical structures and gain practicalinsight into engineering principles. The use of real materials, including concrete, steel, and wood,provided an authentic experience that allowed students to understand the behavior of materialsunder real-world conditions. The process of developing these scale models involved closecollaboration between faculty members and industry professionals.IntroductionEngineering universities around the world acknowledge the importance of cultivating a foundationfor students to gain practical experience in their careers [1,2]. Over the years, teaching methodshave evolved, and so has civil engineering. In
knowledge and hands-on application, fortifying the workforce withspecialists equipped to contribute effectively to the ever-evolving landscape of AM. In doing so,they act as a catalyst for career advancement and industry innovation, aligning with the essentialmission of AM education—to create a cadre of qualified individuals capable of harnessing thetransformative potential of 3DP technology [41]. Figure 4: Tooling U-SME is one of the most popular training and certification programs in AMAM Hardware and Equipment in Educational SettingsThe presence of AM hardware and equipment within educational settings serves as a key playerin the pedagogical landscape, facilitating immersive learning experiences. Academic institutions,from technical colleges to
participants’ sentiments offeeling lost, particularly when attempting new tasks, and the subsequent discovery of resources toalleviate such sentiment. Participants expressed how they overcame and were transformedthrough persistence to moments of triumph when treading uncharted territory. They describedhow they were able to move through their often initial feelings of disorientation. Participant’srelationships between experiencing newness of environment and tasks in the REU to theirexperiences of solving programming problems, successful debugging, and other computingtasks.Figure 1: EventuallyThis image reflects how this building is a maze and how my computer science career is full ofunexpected turns. Some of the turns will not always get me the results
indicated they use ChatGPT for academic or research purposes viewedthe tool as more useful and more accurate than those who do not use ChatGPT in that context.FIGURE 1: Likert scale chart of student ChatGPT users and their perceived accuracy andusefulness of ChatGPT. n = 42.Survey -Student ResponsesWe surveyed 43 students in total and 42 reported having experience using ChatGPT. Studentswho used ChatGPT were invited to share up to four of their interactions with ChatGPT. Wecollected 49 unique ChatGPT interactions, which were organized into three categories:career/professional, class/research, and personal interest (Figure 2). Career/professional entailedquestions where students asked ChatGPT potential interview preparation questions and hadChatGPT
Development, International Journal of Production Economics, Quality Management Journal, International Journal of Project Management, Management Decision, and Total Quality Management. He has served as a reviewer for NSF CAREER award (Innovation and Organizational Science Division).Sanjiv Sarin, North Carolina A&T State University Sanjiv Sarin is a Professor of Industrial Engineering and Associate Dean of the College of Engineering at North Carolina A&T State University. He received a Bachelors degree in Chemical Engineering from the Indian Institute of Technology, New Delhi and a Ph.D. in Industrial Engineering from the State University of New York at Buffalo. He is a member of ASEE and IIE, and a registered
into a carnivalatmosphere. The IT-Olympics is not just a competition, but rather a celebration of IT which isopen to the public. Family members, high school counselors, teachers and the general public canwatch the students in their quest to be the best or can explore IT careers and opportunities ontheir own. The competition floor is encircled with vendor booths for students to explore and talkto companies about IT careers or new technology. Even younger family members can enjoy theevent. There is an interactive Lego area just for their enjoyment.The real-time challenge concept stems from the two years of pilot project high school cyberdefense competitions that were the precursor to the IT-Adventures program.9 Cyber defensecompetitions have
AC 2011-2460: STUDYING THE IMPACT ON MECHANICAL ENGINEER-ING STUDENTS WHO PARTICIPATE IN DISTINCTIVE PROJECTS INTHERMODYNAMICSMargaret B. Bailey, Rochester Institute of Technology (COE) Margaret Bailey is Professor of Mechanical Engineering within the Kate Gleason College of Engineer- ing at RIT and is the Founding Executive Director for the nationally recognized women in engineering program called WE@RIT. She recently accepted the role as Faculty Associate to the Provost for Female Faculty and serves as the co-chair on the President’s Commission on Women. She began her academic career as an Assistant Professor at the U. S. Military Academy at West Point, being the first woman civil- ian faculty member in her
AC 2011-1868: TRANSFORMING THE PRACTICES AND RATIONALEFOR EDUCATIONAL PROGRAMS TO AID ACADEMIC RESEARCHERSIN TRANSLATING RESEARCH INTO INNOVATIONS AND VENTURESJudith Giordan, NCIIA Judith C. Giordan has held executive and leadership positions in R&D and operations spanning a 30 year career. Currently, Judy is Director of VentureWell (www.venturewell.org) a venture development and funder; Managing Director of Steel City Re, LLC, an intangible asset services firm; Senior Advisor to the National Collegiate Inventors and Innovators Alliance; a member of the Board of Directors of start- up companies, and Professor of Practice in the College of Science and Technology of the University of Southern Mississippi from
University of Northern Colorado, a M.S. in Petroleum Engineering from the University of Wyoming, and a Ph.D. in Mechanical Engineering from the University of Idaho. She is a licensed Professional Engineer.Capt. Susan Donner Bibeau, U.S. Coast Guard Captain Bibeau is a 1980 graduate of the United States Coast Guard Academy, one of the first women to graduate from the U.S. military academies. Her 30 year career with the Coast Guard includes two commands, six years of sea duty, and a nine year assignment as Director of Admissions at the Coast Guard Academy. She will join the staff of Three Rivers Community College in April 2011 as the Director of Student Development. Captain Bibeau holds masters degrees in Systems Management
AC 2011-111: DISK BRAKE DESIGN CASE STUDY IMPLEMENTATIONMETHOD AND STUDENT SURVEY RESULTSOscar G Nespoli, University of Waterloo Oscar Nespoli is a Lecturer in Engineering and Mechanical Design and Director of Curriculum Devel- opment in the Department of Mechanical and Mechatronics Engineering at the University of Waterloo (Waterloo). Oscar joined Waterloo following a 23 year career in research, engineering and management practice in industry and government. His teaching and research interests are in the areas of engineering design methodologies, design practice, engineering education and high performance, lightweight, com- posite materials design. Oscar is passionate about teaching engineering and, as part of his
2 1 1 effectively in multidisciplinary teams. 0 50% 25% 25% Strongly Strongly Question Agree Agree Disagree Disagree6 Participation in the biodiesel refinery project will make me 0 4 0 0 more likely to consider sustainable design options in my future 0% 100% 0% 0% career.7 I would recommend future students to participate in 0