enter CSM, they have already made the decision to enter a science orengineering career. Therefore, the students at CSM may be different from other first andsecond year students who are still exploring potential careers.Another concern that should be considered is the limited number of female dominatedand mixed gender teams. Unfortunately, women are a minority in the field ofengineering and comprise only a small number of engineering students. At CSM,females comprise approximately 25% of the student population. This resulted in alimited number of female dominated (n=11) and mixed gender teams (n=8), making theidentification of significant differences difficult. Given these cautionary statements, the
engineering disciplinesi.Engineers in each discipline must, of course, be technically competent in their field. But Page 7.1020.3today’s engineers are also expected to be capable of working within modern “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education”environments. Ability to use information technology, work in teams, understand businessand global culture, communicate, and continue to learn throughout a career have beendefined by prospective employers as vital for success in engineering.Figure 2 illustrates the
EducationReferences1. Lang, J.D., Cruse, S., McVey, F.D., and McMasters, J., “Industry Expectations of New Engineers: A Survey to Assist Curriculum Designers,” Journal of Engineering Education, January 1999.2. Burton, L., Parker, L., and LeBold, W.K., “US Engineering Career Trends,” ASEE Prism, May-June 1998.3. Morgan, R.P., Reid, P.P, and Wulf, W.A., “The Changing Nature of Engineering” ASEE Prism, May-Hune 1998.4. Engineering Criteria 2000, Criteria for Accrediting Engineeering Programs: Effective for Evaluations during the 1999-2000 Accreditation Cycle: Engineering Accreditation Commission. Accreditation Board for Engineering and Technology; http://www.abet.org/download.htm, 30th November 1999.5. Curricula 2002; Manufacturing Education for the
thinking skills,(d) Apply strategies for problem-solving,(e) Demonstrate basic engineering principles of energy conversion efficiency,(f) Develop skills in metalworking and soldering,(g) Stage a competition in which the objective is to travel as far as possible on a smooth floor on 20 ml of ethanol, and(h) Generate enthusiasm about engineering.Modification of Course CurriculumIntroduction to Agricultural Engineering is a one-credit hour course and is specified as a“Discovery” course at the University of Illinois. Discovery courses have the common goal ofhelping freshmen in the transition to the intellectual life of the campus. Apart from introducingthe agricultural engineering discipline and career opportunities, class
and Astronautics at M.I.T.,where he teaches courses in aerodynamics and numerical methods. His research interests focus on thedevelopment of next-generation computational tools for aerospace applications. In 1996, he received anNSF CAREER award.DIANE H. SODERHOLMDiane Hauer Soderholm is the Instructional Designer in the Department of Aeronautics and Astronauticsat MIT. She collaborates with faculty to investigate, pilot and implement new teaching approaches,designs and revises courses and curriculum, and participates in the many educational initiatives in whichthe department is currently engaged.DORIS R. BRODEURDoris R. Brodeur is the Director of Learning Assessment in the Department of Aeronautics andAstronautics at MIT. She is responsible
student pre-requisites. The project topic was attractive to the students because of theirinterest in pursuing careers in the area of the project or in pursuing an advanced degree in thearea.III.2 Description of the Sample Project In order to demonstrate how a design project can be designed to satisfy the currentinterpretation of multi-disciplinary teamwork in a design project, we will describe a project thatinvolved the transmission of compressed video over the Internet. This will allow the utilizationof the Internet for video-conferencing, diagnostic medical procedures, and industrial processcontrol as well as many other technologies. Students were required to investigate problemsassociated with the transmission of real-time audio and video
professional degree?Notable in the comments that were considered as not directly related to the TC report, category(5), included an anonymous comment that market forces should be used to improved CE salaries.Several other comments concerned the role and training of technologists versus engineers. Dr.Doug Hambley wrote that, “Raising the entry standard to a master’s degree will not guarantee ahigher standard of performance on the job, and it may drive a lot of potentially brilliant engineersinto other careers.” This type of comment showed up in many of the statements submitted.The Task Committee for the First Professional Degree – Final Report and Board ActionThe Task Committee presented their final report to the ASCE Board of Direction on October
author acknowledgessupport from the National Science Foundation Career Program, award number CMS-0134571. Page 7.1317.9Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering EducationBibliographic Information1. W. McKeachie, Teaching Tips: Strategies, Research, and Theory for College and University Teachers. 10th ed.Boston: Houghton Mifflin (1999); C. Bonwell and J. Eison, Active Learning: Creating Excitement in the Classroom,ASHE-ERIC Higher Education Report No. 1, 1991; K. A. Bruffee, Collaborative learning
Session 2793 Using Model Rocketry to Introduce Students to Aerospace Engineering Eugene E. Niemi, Jr. Mechanical Engineering Department University of Massachusetts Lowell Lowell, MA 01854Abstract This paper summarizes five years of experiences with a mini-design module intended todevelop the interest of freshmen in aerospace engineering as a career. Model rocketry was oneof several modules that students participated in during the course Introduction to
experiments are introduced in the Organic Chemistry Laboratory andthen are never addressed again. This philosophy propagates a student perception that basicchemistry is not very important to their careers. To counter this perception, we will link organicchemistry with reaction engineering and chemical process pathways courses through a series ofcommon experiments. This will illustrate to the student the importance of using chemistry fun-damentals to design chemical reactors.Reaction Engineering ExperimentsWe are proposing to develop and implement a set of 4 experiments. Each of these experimentswill be integrated through various levels in the curriculum.Micro-Mixing ExperimentIn practice the issue of mixing and chemical reactions is economically very
unique aspects of each site visit canallow the same visit to serve several courses.Manufacturing is another example of how the students can learn more by seeing the facility. Anational curriculum for middle and high school students began in 1994 to introduce students tothe modern factory5. Teachers were introduced to the program through a video professionallyproduced by a television station. It set up teacher workshops and had interviews with thecompanies to learn how to prepare student’s visits. Teachers in social studies, science,communication skills and career training shared materials. One field trip could cover these cross-curricular areas to make the most of the event.Using a residential construction site for several courses in a
theory, and otherapplications, there are some students who still do not see why they should learn the subject. It isthe author’s opinion to let the students know their question is valid and they should seek answersas they learn more about electrical engineering. They should keep the question in their mind. Page 7.828.7 Proceedings of the 2002 American society for Engineering Education Annual Conference & Exposition Copyright @2002, American Society for Engineering EducationThey should keep asking the question throughout their careers and see if they find betteranswers. The important point for the student is to
which was gratefully utilized for this pilot experiment. · The results of this pilot laboratory were overwhelming, as students responded more than favorably in both their coursework and course evaluations. This was the first time in the history of this author’s teaching career that students did not want to leave after the three- hour “lecture-laboratory” had ended. · Subsequently to this, several additional laboratory courses were held in this facility. A proposal to the College of Engineering dean was made to assist in obtaining larger quarters for the successful endeavor. · Major domestic and international ICS manufacturers were invited to the university for a presentation about the benefits of
an appreciation of the importance of data replication or good teamwork in a laboratory setting.] 4. Organization—organizing different values into the beginning of an internally consistent value system. [Examples: adopt a systematic approach to problem solving; demonstrate recognition of a need to balance freedom and responsibility; formulate a career plan.] 5. Characterization by a value or value complex—internalizing a value system and behaving accordingly in a pervasive, consistent, and predictable manner. [Examples: work independently and diligently, function effectively in group activities, act ethically
skills, which enables them to create new products and services [7]. urthermore, these programs have the potential to not only positively impact students’ academicFperformance but also offer them chances to enhance and refine essential skills vital for their future careers, such as presentation, communication, and teamwork abilities [8]. There are also benefits on the psychological level and that co-curricular activities provide a chance to develop initiative, identity work, and new social skills [9]. espite their perceived benefits, ICPs can also bring challenges for students that impact theirDexperience negatively. These challenges encompass aspects such as funding, organization, team dynamics, outreach, and accommodations
benefit ofbeing able to see how an industry operates and decide if they wanted to work in this industry or not.Overall, students had a positive perception of industry internships and noted how their experienceshad been valuable to their educational and career goals. The results from the surveys corroborateprevious research findings 1,2,14,15, while results from the semi-structured interviews add to theempirical data in this area of research with a focus on challenges, benefits, and perceptions that maycontribute to an overall positive internship experience.The findings from this research have implications for engineering students, engineering faculty, andindustry partners. Students may look at others’ perceptions of internships to help in their
environments thatpromote STEM literacy and practices among elementary students and teachers with a particular focus on energy-relatedconcepts.NIKOLAOS GATSISDr. Gatsis is an Associate Professor in the Department of Electrical and Computer Engineering at the University ofTexas at San Antonio, where he currently holds the GreenStar Endowed Professorship in Energy. His research interestsinclude optimal and secure operation of smart power grids and other coupled critical infrastructures, including waterdistribution systems and transportation networks. Dr. Gatsis is a recipient of the NSF CAREER Award and the UTSAPresident’s Award for Research.MELISSA SANABIAMs. Sanabia received the Bachelor’s in Computer Engineering from the University of Texas at San
exams.The other factor was that some students dropped the course, because either they could not keep upwith the course requirements, or were not performing well in previous exams. One more reason wasthat some students were failing the course, but they could not drop the course, because of theuniversity policy of exceeding the withdraw limit during college career, thus they were not takingthe remaining exams during the semester. Proceedings of the 2024 ASEE Gulf-Southwest Annual Conference West Texas A&M University, Canyon, TX Copyright 2024, American Society for Engineering Education 8Table 2 compares the grade
flagshipinstitution and the largest provider of tech workers in the region. This tri-institution collaborationleveraged existing relationships as an opportunity to expand current efforts to broadenparticipation in STEM majors and careers between the state’s flagship institution and the twoHBCUs. The goal of this coalition was to identify barriers to pursuing and earning STEM M.S.and Ph.D. degrees faced by Black, Latinx, and Native American students from the threeinstitutions; to identify and cultivate internal champions and mentors who can help to overcomeinstitutional biases; and to develop a framework for these institutions to work together in creatinga pathway to graduate degrees that could be extended to other institutions.Following a mixed methods
unrecognized effects! Background RPS & Case Study Methods, Data Collection, and Analysis Results and Discussion Final Thoughts 2As algorithms proliferate across domains, their development for analysis,prediction, and generation tasks raises questions about fairness, justice,and inclusion. One primary reason is algorithmic data bias, a commonphenomenon across datasets and systems that reflects incomplete ormisused data. With the incentive to make generalized systems that cando everything, everywhere, data bias reflects the data makeup and howit leads to systematically unfairly generated decisions or outcomes.As future engineers, analysts, and scientists, it is fundamental thattechnology students are made aware early in their careers
implementing safety protocolsand guidelines to combat these alarming statistics. Identifying potential hazards andsystematically documenting factors that could lead to accidents in the future is a crucial skill inengineering. Although there are various methods for recording these hazards on constructionsites or predicting potential accidents, mastering this skill requires time and expertise, which canpose challenges for young engineers starting their careers. As the demands of their professionbecome increasingly rigorous, newly graduated engineers often undergo intensive training fortheir job sites. Instilling a deep understanding of safety concerns within them is essential, as oneof their critical responsibilities is preparing incident reports at
teach workshop participants regardless of their computing platform.Fig. 5 | Jupyter notebook training module: Snapshot of the RMD hands-on module using Jupyter notebook.Participants were able to go through the training modules on Google Colab from their laptop without any softwaresetup. The first CyberMAGICS workshop was held virtually on June 30 – July 2, 2022 (Fig. 6). The36 participants from 16 institutions included graduate students, postdocs and early-career faculty.A large number of participants were female and minority, and the institutions included HBCUand MSI such as Howard University and California State University, Northridge. The scheduleincluded lectures and hands-on training on QMD, RMD and NNQMD simulations, AI formaterials
education research center around recruitment and retention, engineer identity, engineering design instruction and methodology, learning through service, problem based learning methodologies, assessment of student learning, as well as com- plex problem solving. Her other research interests lie in cardiovascular fluid mechanics, sustainability, and K-12 engineering outreach. Dr. Pierrakos is a 2009 NSF CAREER Awardee. Dr. Pierrakos holds a B.S. in Engineering Science and Mechanics, an M.S. in Engineering Mechanics, and a Ph.D. in Biomedical Engineering from Virginia Tech.Dr. Annie Soisson, Tufts University Annie Soisson is the Associate Director of the Center for the Enhancement of Learning and Teaching (CELT) at Tufts
project are to: 1) Provide an innovative network of support and communications among University-based outreach project directors and educational evaluation experts, creating a learning community to promote sharing of best practices and innovation that will deepen the impact of NCSU’s pre-college STEM programs on students’ future academic and career choices. 2) Develop and demonstrate a system of data-driven planning and analysis guided by best practices to facilitate longitudinal assessment of participant outcomes through development of a common STEM Outreach Evaluation Protocol as well as a database integrating records of NCSU K-12 outreach participants with NC Department of Public Instruction
context design of supply chains and logistic processes grows inimportance. There are also other trends worth mentioning, in particular in the context of the most recentglobal industrial recession, such as: • Growing anti-globalization and protectionist sentiments • De-industrialization of the highly-developed economies • Accelerated progress of technologies. The extended world-wide effects of recession and what is referred to as a “jobless”recovery from it, bring into focus the skills that future engineers should acquire in the course oftheir studies in order to be successful over the lifespan of their professional careers. A goodmodel to pursue in the curriculum updates or development is a T-shaped profile1 of a futureengineer
information literacy, medialiteracy, and information, communications and technology literacy), and Life and Career Skills(such as flexibility and adaptability, initiative and self-direction, social and cross-cultural skills,productivity and accountability, leadership and responsibility) as proposed by the Partnership for21st Century Skills.15-17This paper describes in detail how a second semester cornerstone (and pillar) course(Introduction to Chemical, Food, and Environmental Engineering Design) for CE, FE, and EE ishelping students to develop their creativity, as well as its alignment with the Investment Theoryof Creativity developed by Sternberg and Lubart.5-8 As stated previously, ITC comprises sixresources for creativity: intellectual processes
possibly different exams to be generated.6. Combining face-to-face and distance-education coursesAnother opportunity to teach two sections as if they were one is to combine the work fora face-to-face and distance-ed (“online”) section of the same course. Of our respondents,26 of them thought this would save time, and 13 didn’t (Figure 5). The reasons in favorof it saving time mirror those for teaching multiple face-to-face sections. For example,“I've done this dozens of times over a 40+ year career. Definitely easier because there isonly one set of exams and assignments to prepare and you are focused on the topic. Seecomment above about two sections of the same course in the same semester. [11]”Just as with multiple on-campus sections, questions
and Engineering:2000, National Science Foundation, Arlington, VA, 2000 (NSF 00-327).7. Adelman, C., Females and Men of the Engineering Path. A Model for Analysts of Undergraduate Careers, U.S. Department of Education, Office of Educational Research and Improvement, Washington, D.C.; U.S. Government Printing Office, 1998.8. Seymour, E., and Hewitt, N.M., Talking about Leaving: Why Undergraduates Leave the Sciences, Westview Press, Boulder, CO, 1997.9. Williams, F. M., Emerson, C. J., “Feedback Loops and Critical Mass: The Flow of Women into Science and Engineering,” presented at Gender and Science and Technology (GSAT 10), Denmark, 2001.10. Ro, H., Marra, R., Terenzini, P., Trautvetter, L., Walser, A., and Lord, S. “If You
underrepresented groups in mathematics, science and engineering. Page 24.1013.1 c American Society for Engineering Education, 2014 Programs to Enhance Retention and Success of Students Enrolled in Two-year College Engineering Programs Dr. Courtney Hadsell, Christine Burwell-Woo, Dr. Amelito EnriquezAbstract:A majority of California community college students enter college with low levels of preparationfor college level work, especially in STEM (Science, Technology, Engineering and Math). As aresult, community college students wishing to pursue careers in Engineering are often
, define boundaries,research various sources and come up with a range of alternative solutions. In other words,the project brief or aim should not narrowly specify the solution or what should be built.Projects should allow for some freedom of expression and some experimentation in order forstudents to select the most appropriate solution. Some projects should allow for theconsideration of not only technical aspects, but also economic, socio-cultural and ethicalfactors.The closer the projects are to commercial reality the better, as it trains students to handle real-world problems that they may face in their professional careers. Exposure to a number ofopen-ended projects ranging in focus and complexity helps with student learning andconfidence3,4