MCCCD to offer our firstBachelor’s degree in Artificial Intelligence and Machine Learning scheduled to launch in the Fall2025.The National Sciences Foundation (NSF) awarded a second track S-STEM grant to CGCC tosupport engineering, and artificial intelligence students called Scholarships, Mentoring, andProfessional Support to Improve Engineering & Artificial Intelligence Student Success atCommunity Colleges. The grant program started in Fall 2023 with a cohort of six students,continued in Spring 2024 with 14 recipients and will serve at least 48 students until 2028. Thisgrant, entitled Reaching Engineering and Artificial Intelligence Career Heights (REACH),empowers students with scholarships, personalized academic mentoring, and industry
changes in students' innovativeattitudes. The results showed a modest increase in innovation self-efficacy post-intervention, butno significant changes in innovation interests or career goals. Additionally, the study compareddata from 2021 and 2022, indicating that while there was no notable impact on innovation self-efficacy from enhanced mentoring, there were increased levels of product and process innovationin the 2022 cohort. Our pilot study acknowledged limitations such as the optional nature ofmentor meetings and the fact that identifiers were not collected so paired comparisons of pre andpost ISE could not be made. This is important because different numbers of students completedthe pre and post-surveys.The updated curricular intervention
Paper ID #42306Board 376: REU Site: Lowering the Carbon Footprint through Research inPropulsion and Power GenerationDr. Catherine G. P. Berdanier, Pennsylvania State University Catherine G.P. Berdanier is an Associate Professor of Mechanical Engineering at Pennsylvania State University. She earned her B.S. in Chemistry from The University of South Dakota, her M.S. in Aeronautical and Astronautical Engineering and her PhD in Engineering Education from Purdue University. Her research expertise lies in characterizing graduate-level attrition, persistence, and career trajectories; engineering writing and communication
schoolteachers, and industry professionals recruited to be teachers to acquire the technical knowledgeand certifications and pedagogical skills to teach renewable energy in their classrooms; 3)develop and implement a 2+2+2 pathway through partnership with high schools and universitiesto allow students interested in renewable energy careers to have a defined career ladder withmultiple exit points integrated with industry certifications and college certificate and degreeattainment; 4) conduct continuous assessment and evaluation with imbedded targeted research ofcurricular and professional development strategies to ensure that student, faculty, and industrygoals are attained; and, 5) disseminate both the products and the partnership process to maximizethe
AC 2011-12: PARAMETRIC MODELING, RAPID PROTOTYPING, ANDA WALKER ROBOTRandy Shih, Oregon Institute of Technology Randy Shih is a Professor in the Manufacturing and Mechanical Engineering and Technology Department at Oregon Institute of Technology. He worked as a design engineer in the automobile sector prior to starting his teaching career in 1984. He has over 25 years of experiences in the areas of CAD/CAE; and he is the author of fifteen CAD/CAE textbooks that are currently being used by many universities and colleges in North America. Page 22.1138.1 c American Society for
respectively from the Pennsylvania State University. He began his teaching career at Penn State Erie, The Behrend College in 1992. He teaches, does research, and advises student projects related to the applications of finite element analysis (FEA) to the solutions of difficult engineering problems. Mr. Johnson had 11 years of industry experience before he began his teaching career. He began his engineering career at Boeing Aerospace Company then was employer by Airco Carbon, and Swanson Analysis Systems Inc. Mr. Johnson is a member of the Western PA ANSYS User’s Group, the Society for Experimental Mechanics, and the American Society of Mechanical Engineers (ASME
Education, 2011Engage K-12 Students in Electrical and Computer Engineering (ECE): Outreach with K-12 STEM Schools through ECE Project ActivitiesIntroductionThis paper discusses the set up and delivery of electrical and computer engineering(ECE) projects with science, technology, engineering, and mathematics (STEM)components to inspire K-12 STEM students to pursue higher education and careers inECE. These projects form part of the “Engage K-12 students in ECE” program and aredelivered through outreach1-2 with K-12 STEM schools. The forms of outreachconsidered are (a) direct (b) extended. The focus of this paper is on the implementation ofdirect outreach. In direct outreach, the students in the K-12 school programs participatein the ECE Day event
Connecticut and also worked for fouryears as an engineer at Pratt and Whitney Aircraft Inc. Page 4.442.4 :DUG &ROOHJH RI 7HFKQRORJ\ MECHANICAL ENGINEERING TECHNOLOGY (B.S.) 1999-2000The Bachelor of Science (BS) with a major in Mechanical Engineering Technology (MET) degree program will prepare students for careers in themanufacturing and mechanical design industries. The program focuses on manufacturing processes and material design, testing to industry standards,hands-on training in design and drafting using computer technology and balancing design objectives with production constraints. Graduates work asmembers of a
department of Electri-cal Engineering at Michigan Technological University in the areas of design, modeling andsimulation of GaAs-based very high-speed integrated circuits are outlined.I. IntroductionActive research experience is one of the most effective techniques for training and motivat-ing undergraduate students for careers in science and engineering. National Science Founda-tion recognizes this and supports undergraduate research under two programs: a) Under their“REU Supplements” program, NSF encourages principal investigators of NSF-fundedresearch grants to include one or two undergraduate students in their existing projects; b)Under their “REU Site” program, NSF provides funds to set up undergraduate research sitesconsisting of nearly ten
the following architectural designstudios, architectural engineering and architectural design students are not separated by major,in order to encourage a sense of mutual understanding within our studio culture. The belief ofour school aligns with Mario Salvadori’s proclamation: “The architectural engineer and thearchitect must strive, by all means at their disposal, toward a better understanding and a morefruitful collaboration”.4 The focus of this shared beginning course is to provide an orientationfor students considering either architectural engineering or architectural design as aprofessional career. Thus, the course endeavors to introduce students to the requirededucational processes and career opportunities available in either
, Proceedings of ASEE Conference, Charlotte, NC, 1999.3. Froyd, J.E., Building Effective Industrial Relationships: The Foundation Coalition Experience, Purdue University, 1995.4. Liaw, B., The ECSEL’s Integrated Approach to Industry-Academe Relations, Purdue University, 1995.5. Semas, J.H., University-Industry Research Partnerships: A Balanced Look at the Ethical Issues, High Technology Careers Magazine, 1999.6. Cho, M.K., University-Industry Research Must Get Scrutiny, The Chronicle of Higher Education, Section Opinion, Page B4, August 1, 1997. Page 5.12.4ALI EYDGAHIDr. Eydgahi is an Associate Professor of electrical
. This need is eloquently expressed in the executive summaryof a 1992 NSF report (11) emanating from a “Presidential Young Investigator Colloquium on U.S.Engineering, Mathematics, and Science Education for the Year 2010 and Beyond.” Thissummary states: “Numerous reports and studies have expressed serious concerns that the U.S. educational infrastructure is ill-prepared to meet the challenges and opportunities of the next century. The low level of scientific and technological literacy in our society is deplorable, and the trickle of talent flowing into careers in engineering, mathematics, and the sciences from all segments of society is deeply disturbing. The poor condition of our educational infrastructure is
about mathematical work than other students.12The lowest mean of 2.88 shows that engineering students felt that calculus was not a usefultool they would use regularly during their engineering courses and careers. Attitudes towardmathematics indicated students’ perceptions of the usefulness of mathematics.13 Theimportance or relevance a student attaches to his/her study of mathematics is related to his/her perception of its usefulness. The usefulness of calculus for educational and career goals isone factor affecting participation in mathematics. A better understanding of the importance ofcalculus in a wide range of careers and in engineering education is important for students asthey make decisions about how much mathematics to take in
Paper ID #14324Teaching Creative Problem SolvingLaura Lee Lang NBCT, Sauk Prairie High School Laura Lang is a National Board Certified Teacher who began her career as a chemical engineer at Dow Chemical Company. She has used this valuable experience to teach and model engineering practices while problem solving or during labs with her physics students at Sauk Prairie High School where she has taught for the past 30 years. She is also currently teaching a University Physics course at Madison College. Page 18.28.1
. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and postsecondary classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her work focuses on defining STEM integration and investigating its power for student learning. Tamara Moore received an NSF Early CAREER award in 2010 and a Presidential Early Career Award for Scientists and Engineers (PECASE) in 2012. Page 18.24.1 c American Society for Engineering Education, 2015 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K
(IRB). This outcome of this survey is expected to give usclear assessment of the usefulness of this research experience in terms of the knowledge studentsgained in specific research topic, the skills they developed during the research course, whetherthis experience positively impact students’ academic performance and help them to identify andfind their future job. Furthermore, this survey will also be distributed to our graduates who arecurrently working in industry or in graduate school for the past five years to see whether thisexperience helped them in their career specifically at the start up. In order to ensure accuratefeedback from3. Industry and Academia Interface: A Case Study from Texas A&M at Qatar’s Fuel Characterization
. Page 15.346.1© American Society for Engineering Education, 2010 Describing the Migration of Students within EngineeringAbstractThe number of students leaving their initial engineering discipline for other engineeringdisciplines and other fields of study is significant. This paper displays and describes thedevelopment of a model of the pathways taken by these students through their undergraduateacademic careers. Specifically this paper looks at the migration of engineering students withinvarious disciplines of engineering. This study uses the records of over 135,000 engineeringstudent records from the Multiple-Institution Database for Investigating EngineeringLongitudinal Development (MIDFIELD). This research shows that
participating units. The scholars receive $1,000 per quarter until theycomplete their first co-op experience. The pre-co-op support does not exceed seven quarters.NSF and RIT are each contributing $500 per quarter per scholar. After their first co-opexperience, the scholars retain the $500 per quarter scholarship from RIT until they graduate atthe end of 12 academic quarters.We have been successful in developing a partnership among the four academic departments, andthe coordination mechanisms with supporting units that include the Undergraduate Admissions,Financial Aid, Registrar’s Office, Academic Support Center, and Career Services3,4. This paperdescribes the relationships and mechanisms we have developed with these supporting units toadminister the
Early and Sustained Gender Equity Programs Enrich Pipeline of Female Engineers Leslie Wilkins, Isla Yap, Sheryl Hom, Christine L. Andrews Maui Economic Development Board/Women in Technology ProjectIntroductionLaunched in Fall 1999, the Women in Technology (WIT) Project encourages women and girls topursue science, technology, education and math (STEM) careers in the counties of Maui, Hawaiiand Kauai in the state of Hawaii.Among programs in the United States addressing the under representation of women in STEM,WIT is unique in several ways: While most such programs in the United States are administered by government or educational institutions, WIT is administered by
research, the other primary goal of the RET was for the teachers to develop classroom modulesbased on their research experiences. These modules were to be used in their classes as both hands on learningexperiences for their students, and as stimulators for students to consider career opportunities in engineering.During the RET time, Fickert and Jones designed two inquiry-based units to use in each of their classrooms.Jones says of his RET experience, “I use a great deal of discussion in my classroom to promote inquiry in myclassroom culture. One aspect of that culture is the students’ perception of the teacher as an expert on certain topics.The experience with CAVE allows me to put myself in a professional setting if I find the opportunity to use
, as well as theproduction process of lip gloss and lipstick. Participants work in teams to formulate lipproducts of different consistencies and colors. Each team creates its own line ofcosmetics, and presents the finished products to faculty and other participants at the endof the module.It is expected that the workshop will encourage young women to consider engineering asa course of study and/or a career, thereby attracting new and more diverse engineeringtalent to the workforce.IntroductionJust sitting in front of the television for an hour or looking at magazine displays ingrocery stores, one realizes that a significant portion of the cosmetics industry is targetedto young women in their early teens. Specialized product lines that rely on
Chancellor of the Ohio Board of Regents Roderick G.W. Chu, knowledge is thekey source of economic growth and higher education institutions must help Ohio’s employersmeet their immediate needs for knowledge workers and move aggressively to encourage youngOhioans to pursue careers in the knowledge-based industries 1. Charged with the Ohio Board ofRegents Access and Success Challenge 2, the School of Technology at Kent State University has Page 7.59.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition. Copyright © 2002, American Society for Engineering
, Principles Practice Build career Teach Supervise, Observe skills, Faculty Principles Assess See new technology Industry Mentor, Mentor, Assess graduates, Advise on Set priorities Spec future needs content Figure 1MTF FACILITYThe Microelectronics Teaching Factory exemplifies the best in public/private partnerships. It ishoused in a building that was constructed using $6M of
professional organizations on campus, which helppromote these organizations to prospective new graduates. The American Foundry Society isone such professional organization, but one who feels that the future success of the metalcastingindustry is largely dependent upon obtaining the best, brightest, and most dedicated collegegraduates. Rather than waiting for students to graduate, AFS gets involved from the verybeginning of a student’s college career. Students are able to participate in professional meetings,conferences, and research projects, as well as network, obtain internships or permanentplacement, and receive scholarships directly from the society. The society and industry benefitsbecause a large majority of the students who were involved with
systems thataugment workers and provide a safer working environment.The increasing prevalence of Industry 4.0 technologies in the process industry amplify an alreadysignificant skilled labor shortage in the US. A further hindrance is the low public visibility of theactivities and work roles in the process industries, often only visible in challenging applicationswith inherent safety risks, security concerns, and intellectual property protections.The first step to improving the workforce shortage is to improve awareness of the industry, itsimpact, and its career paths to the next generation preparing to enter the workforce. Atechnology-forward showcase of the process industry can recast perspectives and entice studentsand parents to further
).Many studies consider factors that could have an impact on motivation. For example, severalstudies have considered student’s feelings about performance in courses or career outcomes.Lukes and McConnell [1] found that high performing students tend to be more motivated byavoiding a negative emotion than by approaching a positive emotion. Lockwood et al [3] studiedhow students’ perspectives on performance affects what type of role models can impact theirmotivation. Students focused on avoiding negative outcomes are more motivated by negativerole models to avoid, while students focused on pursuing positive outcomes were moremotivated by positive role models.This study presents the results of a survey that was given to Thermodynamics I students
build their identitythat includes or supports both their engineering and LGBTQIA+ identity? 13What is your campus/program currently doing to help a student explore and buildtheir identity that includes or supports both their engineering and LGBTQIA+identity? We plan to take notes and include thoughts/comments for each question. 13Personal Identity development• For many their LGBTQIA+ identity and engineering identity seems incongruous• LGBTQIA+ youth (and professionals) need more information about how the various steps and stages of their engineering career will look to
furthereducation. Furthermore, the use of various technologies, such as 3D printers, and tools to buildprototypes significantly benefits students in their future careers. The paper concludes withrecommendations for implementing the design-project approach.Introduction Traditionally, engineering education emphasized disciplinary knowledge. In contemporarymechanical engineering education, university graduates are acknowledged for their extensivescientific expertise, covering engineering science, mathematics, analytical techniques, andresearch. Despite this, there is a notable gap as they fall short in acquiring critical skills expectedin the industry1. Over the last decade, the world has experienced rapid changes characterized by significantshifts
Director of the Engineering Leadership Minor. She obtained a B.S. in mathemat- ics from Spelman College, a M.S. in industrial engineering from the University of Alabama, and a Ph.D. in Leadership and Policy Studies from Peabody College of Vanderbilt University. Teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in science, technology, engineering, and mathematics education. Primary research projects explore the preparation of engineering doctoral students for careers in academia and industry and the development of engineering education assessment tools. She is a National Science Foundation Faculty Early Career (CA- REER) award winner and is a
resources, site development, lighting, HVAC, andappearance. The practicing engineers from these companies, through their involvement, providevaluable feedback to the faculty and students that enriches the overall experience gained in thecapstone design course. This feedback helps improve student performance on their projects andprovides them with additional tools to carry forward into their engineering careers [4].Internships and Co-opsInternships and co-op programs facilitate a seamless transition from academia to the engineeringprofession by offering students immersive industry experiences. Such programs provideopportunities to work alongside experienced engineers, exposing students to real-world projectsand industry practices. These experiences