Paper ID #43066The Future of Learning: Harnessing Generative AI for Enhanced EngineeringTechnology EducationMr. Jody Lee Alberd, Austin Peay State University Mr. Jody Lee Alberd is an Assistant Professor with the Department of Engineering Technology at Austin Peay State University (APSU) from where he earned his Master of Science in Engineering Technology. Mr. Alberd’s industrial career as a Manufacturing Engineer included working with several renowned companies such as Trane Technologies and Electrolux North America. Prior to that, he served in the United States Navy during a 20-year career that included service during
, if women do notparticipate in engineering across various fields, their perspectives on design solutions are absent[3]. This is significant, considering that a diverse team can better understand and represent end-users' needs in problem-solving [1].Differences in gender socialization, linked to environmental factors such as family values, socialexpectations, and representation in traditional and digital media, among others, are identified asone of the reasons for gender biases among individuals. Therefore, family and education arecrucial in career choice [2]. Efforts from academia and industry are essential to promote a changein the volume of female participation in these fields [1]. This challenge should be viewed as asocietal one involving
that meet Quality Matters (QM) standards. She was the faculty advisor to student research teams, where two teams made the final round of the AACC Community College Innovation Challenge (CCIC) in 2016 and 2017. Dr. Delahanty has developed and conducted STEM focused outreach initiatives to community groups and in K-12 schools with a higher percentage of underrepresented and underserved students. Prior to her teaching career, Dr. Delahanty was an electrical engineer at General Electric Company in both military and commercial satellite communications. ©American Society for Engineering Education, 2024 Gender-Based Comparison of Creative Self-Efficacy, Mindset, and Perceptions of
research question, “What are the industry perspectiveson assessed strengths and challenges related to professional and engineering design skills ofbioengineering seniors?”Building on prior coursework, the senior design capstone experience provides students with theopportunity to apply concepts and develop important skills necessary for transition to theirprofessional careers. In the bioengineering undergraduate programs at the University ofCalifornia San Diego, the senior design experience culminates with an event calledBioengineering Day (BE-Day), in which senior students present posters on their design project.Students have the unique opportunity to interact one-on-one with industrial professionals todiscuss their projects. After visiting with
students in engineering education programs buttressour point [8]–[10]. These studies suggest that international engineering education graduatestudents complain about not being heard or understood, and lack a sense of belonging as theynavigate the limited opportunities available to them by virtue of their international studentstatuses. Responding to a call to genuinely support international engineering students’ well-beingand career development and counteract their othered experiences [10], this work aims to compareand contrast the experiences of initiating and sustaining two student-led international ethnicengineering education scholarly communities for Chinese and African groups. In this paper, weoperationalize international ethnic groups as
, therefore, recognizes the value and existingcontributions of engineering instructional faculty and seeks to provide the support structures thatacknowledge their desire to build their leadership capacity towards educational change.Drawing upon prior work exploring EIFs [5], [6], [7], our EIF case study research [8], [9], andexisting educational development scholarship, a professional development program wasdesigned, which included a group coaching component. The AMPLIFY Institute encompassed atwo-day, on-site “kick-off” workshop, virtual coaching sessions, and a virtual celebratory event.These activities brought together thirty-six EIF participants from thirteen HSIs across the UnitedStates, from different disciplines, and levels of their careers
groups. This observation is consistent with national trends showing underrepresentation ofLatina/o populations in STEM disciplines.[1], [2] With this motivating background, a study hasbeen undertaken to explore the social, cultural, educational, and institutional factors affectingmatriculation of undergraduate Latina engineering students into graduate engineering programsand/or industry careers. A research team was formed with four members (co-authors of thispaper) from diverse backgrounds but a common commitment toward an asset-based approachthat avoids marginalizing individuals in the research design process and by selecting respectivemethods.[3] Results of these team discussions and decisions sought balance between variousphilosophical
tothe temperature’s recorded impact of heat generation in the critical path of the process.Cybersecurity Integration in Florida’s AS Engineering TechnologyIn the 2023-2024 academic year, the Florida Engineering Technology Associate of Science (AS)degree will review and update its statewide technical standards and benchmarks as mandated bythe Florida Legislature and overseen by the Florida Department of Education (FDOE) Career andAdult Education Division (CAED) [7]. As a result of a recent NSF-ATE project [8],cybersecurity skills were broadly identified by Florida’s manufacturing industry as a necessaryskill for AS graduates of Engineering Technology. Many questions about the inclusion ofcybersecurity skills have been raised with the ongoing
the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 315community college, technicians, supervisors, or manufacturing personnel who want to movetheir career on the different level. Some students might also move to this major from otherprograms.3. Design of New ProgramODU is launching a dedicated MFET program. Previously, the MET program had aconcentration in manufacturing systems. The MFET program has been established in partnershipwith Institute for Advanced Learning and Research (IALR) a workforce developmentorganization, and Patrick and Henry Community
careers.Introduction and First ResultsThe IPERF program recruits, trains, places, mentors, and funds early-career STEM doctoraldegree recipients to participate in innovative research and hands-on entrepreneurship training atsome of the nation’s most promising early-stage companies. These companies, identified by theNSF, are active NSF Small Business Innovative Research (SBIR) and Small BusinessTechnology Transfer (STTR) Phase II grantees. IPERF program continues to build upon thesuccess of its predecessor program, the ASEE/NSF Small Business Postdoctoral ResearchDiversity Fellowship (SBPRDF) program, with new policies and objectives. The central aim ofthe IPERF program is to accelerate small business innovation by increasing the number ofScience &
Open CommunicationImposter syndrome refers to feeling like a fraud when one is objectively competent [3]. Whenindividuals struggle with imposter syndrome, they often discount their abilities and attribute theirachievements to luck or external factors [3]. The fear of being exposed can lead to heightenedstress and anxiety levels. Millennials and Gen Z tend to experience higher rates of impostersyndrome compared to other generations, possibly due to the increased pressure for academicand career success in the digital age [2]. Additionally, these younger generations are more likelyto report and be diagnosed with feelings of depression and anxiety.In the focus group interviews, several new hires identified feeling a heightened sense of
and repairing the ship’s electrical and electronic equipment to ensure that it isoperating as safely and efficiently as possible [8]. To prepare the future workforce for the blueeconomy, the Marine Engineering Technology Department at Texas A&M University hasdecided to develop two minors and a state-of-the-art engine room simulator laboratory. ETOprogram to address industry needs. The first minor in Marine Engineering Technology isdesigned to increase awareness about marine engineering careers, and the second minor inMarine Electro-Technology is designed to provide foundational courses so students can obtain anETR rating upon graduation.2. Future Industry Needs and ETO ProgramThe workforce will need to grow in tandem with the growth of
Copyright ©2024, American Society for Engineering Education ETD 435 • Increased hands-on experience: Students who participate in hands-on activities are more likely to learn and retain information. Hands-on activities also help students to develop the skills that they will need to be successful in their careers. • Enhanced familiarity with technical terminology and methods: Early exposure to technical terminology and methods can help students to develop a strong foundation in their field of study. This can make it easier for them to learn new concepts and to apply their
summer 2012 internship program,students designed a five-story steel special moment-resisting frame, and evaluated itsperformance under four selected ground motions. The students optimized the structural designthrough iterative computer-based dynamic time history analysis. Structural analysis programSAP2000 was incorporated into the design process for students to examine story drift, and thecapacity of the structural members. The ten-week program was found to be successful inengaging community college students in the civil engineering career thereby helping train futureAmerican workforce for seismic hazard mitigation.IntroductionEarthquake engineering is concerned with design and analysis of structures to withstandearthquakes at specific
largelyunchanged since 2003 [3]. Findings regarding math and science interest and confidence seem toconvey a similar story; in one study, while science interest remained unchanged throughout astudent’s high school years, significant losses occurred in science confidence and math interestand confidence during these years [4]. These are alarming results, as these high school levelmath and science courses act as gatekeepers to STEM degrees and careers. One step towards overcoming this issue is to develop an understanding of what impacts astudent’s choice to attend college and to major in a STEM field. It is well understood that astudent’s interest in STEM develops through exposure at an early age [5]. While this interest ismaintained through middle
though they are teaching it totheir peers, which increases their own understanding.Role PlayingRole playing can be fit into any engineering class in different degrees. In Personnel andSupervisory Methods, role playing is instrumental in having the students apply what they arelearning to pseudo real life simulations. It is not as effective as an internship or a servicelearning project, but it does afford the students the safety of the classroom. In design and theoryclasses, role playing can be used where team projects have been assigned, if, at the completion ofthe project, the students are required to make a presentation in the role of designing engineer.This is a real life situation in which they will find themselves during their careers. Role
meet the challenges in their future careers. In thispaper, the instructors of IMSE 564 will share some experiences in teaching the course, anddiscuss how the learner-centered environment was established for the class.KeywordsEngineering education; Lean manufacturing; Learner-centered environment.1. IntroductionAt Kansas State University, Product and Process Engineering (IMSE 564) is an engineeringcourse offered once a year to the senior undergraduates by the Department of Industrial &Manufacturing Systems Engineering (IMSE). It is a required course for the students whose majoris Manufacturing Engineering, and the students with other majors may take it as an elective. Inthe course, the students learn how to design the economic production
IACassessment is qualitative. Table 1 shows how these tools are used in assessment.The direct method for evaluating whether the objectives of the program are beingachieved is to obtain the employment history of program alumni to find out the extent towhich the program prepared them to be successful in their chosen careers. Thisinformation has been obtained indirectly, through the Alumni Survey, carried out by the 1. Faculty Develops Initial Set of Program Objectives 2a. IAC 2b. Alumni 2c. Employer ISC Comments Survey Survey Input
population dynamics related to ethnic minority and majority citizens. e. Diversity Implications for Career – Understanding how diversity impacts the academic discipline, career and professional development. 2. Personal Attributes – Traits needed by those who live and work in a diverse world. a. Flexibility – The ability to respond and adapt to new and changing situations. b. Respect – An appreciation for those who are different from one's self. c. Empathy – The ability to understand another person's culture by listening to and understanding their perspective. 3. Skills – Behaviors and performance tasks needed to live and work in a diverse world. a. Cross Cultural
NASA(3a) Articulation with between Hostos Community College (HCC) and City Tech.HCC engineering program is located within the Math and the Natural Science Departments. It wasestablished in 2003 by Dr. Nieves Angulo, to meet the needs of the growing number of minoritystudents who are interested in pursuing a career in engineering. The purpose of the program is tooffer the first required two years in Mechanical, Electrical, Civil and Chemical engineering tostudents planning to enter and continue studies in those fields. The program has grown rapidly sinceit began in 2003 with fewer than 10 students to reach 164 students in the Spring of 2010, making itone of the fastest growing programs at HCC. Enrollment has increased 41.2% from the spring 2009
design, interest in pursuing engineering as a career,and increased technological literacy” (pp 49-50).13 However, despite the critical need forstudents in 21st century society to possess problem solving skills and basic technological literacyto be informed decision makers, technology and engineering education has received littleattention in K-12.13The ISTEM approach is reinforced further in the National Science Education Standards forScience and Technology, Benchmarks for Science Literacy, and Standards for TechnologicalLiteracy, all of which suggest that science and technology instruction can be treated ascomplements to emphasize connections between the natural and designed worlds.14,15,16 Aspectsof scientific inquiry (the use of evidence
Machinery ConferenceOklahoma City, Oklahoma2: WikinomicsHow Mass Collaboration Changes EverythingDon Tapscott and Anthony D. Williams3: Green EngineeringEnvironmentally Conscious Design and Operation of Chemical ProcessesDavid T. Allen and David R. ShonnardeBiographical InformationBarrie Jackson graduated in Chemical Engineering from the University of TorontoJackson was employed by Shell Canada for over 33 years, a career that took him to the UK, Europe andthe United State. His career while varied was predominately Chemical Process design and Development.After early retirement from Shell Canada he has been at Queen’s University as an Associate Professor inthe Department of Chemical Engineering. His main interests are Process Design and
journals and to present theresults of their effort at national and international technical conferences. Bothprograms require participants to present their research efforts at the annual NJITResearch Symposium. The aim of these programs is to foster an interest in thestudents to continue their education in Graduate School and obtain advanceddegrees. The primary aim of the McNair Program, however, is to produce morefaculty members from the underrepresented student body by allowing them togain an insight into the research process, learn about Graduate Schools and learnabout an academic career. The URE Program allows students to perform researchand independent study under the guidance of a Faculty Advisor. The programprovides academic and educational
4depth as one progresses through it will not provide a sufficient preparation for appliedengineering positions.Employment and Career Prospects Including Design: For most positions in industry other thanresearch and development, employers generally do not distinguish between engineering and four-year engineering technology graduates1,3,4,7. This aspect has not changed since the 1960s.Industry is satisfied with both engineering and engineering technology graduates in appliedengineering positions, with the notable exception in some states of professional registrationissues (addressed later in this paper).We remark that a hallmark of engineering programs is design. Any engineering program on theapplied side of the spectrum must also embody
disaster social impact and equity in their education.Despite the importance of incorporating community resilience and equity concepts into thecurriculum, it is not a trivial task due to the concepts’ complexity. These concepts are definedbased on other complex subjects, such as multi-criteria decision-making, systems analysis, riskanalysis, and socioeconomic disaster impact analysis. It is one of the reasons why these conceptsare often taught in more advanced graduate-level courses, if at all, instead of undergraduatecourses. However, introducing these concepts early on is crucial, since the vast majority ofpracticing structural engineers start their careers after their undergraduate program. To addressthese issues, we adopt an active learning
currently the director of the Cultural Competence in Computing (3C) Fellows program and the NSF-funded Alliance for Identity-Inclusive Computing Education (AiiCE). She also serves as senior personnel for the NSF-funded Athena Institute for Artificial Intelligence (AI). Her career in higher education began at Howard University as the first Black female faculty member in the Department of Computer Science. Her professional experience also includes Winthrop University, The Aerospace Corporation, and IBM. She is a graduate of Johnson C. Smith University (B.S., ’00) and North Carolina State University (M.S., ’02; Ph.D., ’05), becoming the first Black woman to earn a Ph.D. in computer science at the university and 2019
How supportive has your faculty mentor been about your academic goals? Level of support Q6 How supportive has your faculty mentor been about your life goals? Q7 How easy has it been to discuss ideas about elective options with your faculty mentor? Q8 How easy has it been to discuss ideas about career options with your faculty mentor? Comfort level in Q9 How easy has it been to discuss ideas about internship options with your faculty mentor? academic topics discussion Q10 How easy has it been to discuss ideas about research options with your faculty mentor? Q11 How helpful has your faculty mentor been in balancing your class
Paper ID #41416Community College Undergraduate Research using a Student-Driven andStudent-Centered ApproachDr. Elizabeth A Adams P.E., California Polytechnic State University, San Luis Obispo Dr. Elizabeth Adams is an Assistant Professor at Cal Poly in San Luis Obispo, California. She a civil engineer with a background in infrastructure design and management, and project management. Her consulting experience spanned eight years and included extensive work with the US military in Japan, Korea, and Hawaii. In 2008 Elizabeth shifted the focus of her career to education and academia, later receiving her Ph.D. in Civil Engineering
math, science and engineering fundamentals. The programprovides opportunities for team-based, industry supported research and design projects,thus preparing graduates for careers in for-profit or nonprofit organizations, or to furthertheir education in graduate school.The educational objectives of the General Engineering program are to produce graduateswho, during the first few years of professional practice will: Be employed by industry or government in the fields, such as, design, research and development, experimentation and testing, manufacturing, and technical sales. Assume an increasing level of responsibility and leadership within their respective organizations. Communicate effectively and work
Living in an International World: Assessing Students’ Global Awareness Somer Chipperfield, Kelly Yoder, Sadan Kulturel-Konak, Abdullah Konak Penn State Berks AbstractEngineers are now often working internationally and across diverse cultures in today’s globaleconomy. Therefore, students should become increasingly globally aware in order to be betterprepared for a career in an international knowledge-based society. Measuring students’ globalawareness is not a simple task. In this paper, our primary emphasis is on understanding Science,Technology, Engineering and Mathematics (STEM) students