that the minor is new and that the first cohorts were relativelysmall, the number of students completing the survey was modest (n = 15). Results indicate thatstudents were motivated to minor in Applied Computing by a desire to improve their dataanalysis skills and better prepare themselves for the job market / graduate school, as well as abelief that programming is a necessary skill for the future. A large majority of students indicatedthat their peers, instructors, and homework assignments supported their learning very well,whereas they found topics covered and course projects to be less supportive, followed by pacingof course content. With respect to career plans, a majority of students agreed that the minorprovided them with their desired
creativity flourish, especially in engineeringprograms. ICPs allow for cultivating critical thinking, creativity, and networking across alldisciplines [1]. Participation enables students to foster innovative ideas and apply them to real-world scenarios [1]. Students can develop leadership qualities by navigating a technical andinnovative ecosystem, like an ICP, that provides practice opportunities [2]. The success of ICPsrelies on the effective implementation of best practices by their organizers and coordinators. Anorganizer must keep the best interests of their participants in mind when planning, running, andexecuting these competitions and programs [3]. Organizers play a pivotal role in shaping theeducational landscape for ICP participants by
, period of retirement, and averageage at death (career and retirement planning).Mortality data from the National Vital Statistics System show large differences in the“expectation of life at age x.” The tabulated value at age 22 for a male American Indian orAlaska Native is 65.3 years and for a female Asian it is 21.1 years longer at 86.4 years.Differences like these are substantial, of major social importance, and highly relevant forpersonal financial planning by students—now and as retirement nears.We assert that engineering economy courses should include the use of relevant demographicbased information for personal financial decision making. Students will begin making financialdecisions regarding insurance, investing, and retirement planning
, not only mentions outreach as a viable path to follow, but evendiscusses displays like those that this paper concentrates on. The article calls for a systematicapproach towards diversity efforts, with assessment as an integral part of any program. [12]RECENT OUTREACH HISTORYMost outreach done by the Engineering Library is in collaboration with programs created by themain university library. For these events (Open House, De-stress Fest, etc.), the EngineeringLibrary acts as a satellite location, with much of the planning and direction coming down fromthe University Libraries' Outreach Coordinator. The staff has some local control, but the dates,times, and focus of the events are set by someone else.A former librarian had begun a small program
. Our analysis of these failures showed two majorproblems. First, students do not have experience with how things are made. So, they areunable to produce the detailed designs required by a waterfall planning scheme. Second,they are afraid to start building subsystems, so they delay building until the last moment.This leaves student teams without time to fix failures, revise their plans, and integrate com-ponents. So, we chose to utilize an agile project management technique used extensively inthe software industry. We implemented a variant of scrum project planning, which is basedon starting with a top-level design, start to build subsystems for that design, and modifyyour design as you learn. It is a structured and supervised try–fail–fix
computing and engineering teams on eachclient campus collaborated to expand the pool of women students who apply to, enroll in, andgraduate from their majors; in the past, departments have competed for the same pool of women.Our approach to accomplish this goal included: 1) client departments working together toincrease their pool of potential women students, instead of raiding each other’s limited numbersand 2) client teams collaboratively creating and implementing a strategic recruiting plan andadopting a minimum of two retention strategies.Progress was measured against three objectives: 1. Increases in number and percent of female applicants, admissions, and enrollments 2. Enrollments of women increase in client departments at a faster rate
Paper ID #12801Work-in-Progress: Student Dashboard for a Multi-agent Approach for Aca-demic AdvisingDr. Virgilio Ernesto Gonzalez, University of Texas, El Paso VIRGILIO GONZALEZ, Associate Chair and Clinical Associate Professor of Electrical and Computer Engineering at The University of Texas at El Paso, started his first appointment at UTEP in 2001. He received the UT System Board of Regents Outstanding Teaching Award in 2012. From 1996 to 2001 he was the Technology Planning manager for AT&T-Alestra in Mexico; and before he was the Telecom- munications Director for ITESM in Mexico. His research areas are in
inequality in the world (African Development Bank, 2007) with aGini coefficient estimated at 0.58 by the 2009/10 household survey, which is one of the highestfigures of any country in the world (World Bank, 2009). The country has an estimated annualGDP per capita of USD 5293. However, it is worth noting that from 1980-1990 Namibia had aGDP per capita which was higher than that of both China and Thailand. But, over the interveningtime both countries’ rate of economic growth have greatly exceeded Namibia’s and, as a result,Namibia’s GDP per capita ratio is currently much smaller than either of those two countries(National Planning Commission, 2012).Despite this disparity in economic growth rates, the country is slowly emerging from thecompounding
learner must possess decision making and problem solving skills in order to use the new ideas gained from the experience.Course Approach, Learning Objectives, and Delivery MethodThe specialty contracting construction management course described above was designed tointroduce students to the construction methods for various work items common to commercialbuilding construction. Therefore the course was developed and delivered with the followinggoals: • Understanding the types of materials used in fabrication and installation of mechanical, electrical, and plumbing building systems. • Understanding how to read project plans and specifications for mechanical, electrical, and plumbing systems. • Knowing the different types
personalized learningmodel (PLM) for graduate education within the Department of Chemical and Petroleum Engineering. Thismodel aims to transform and modernize graduate STEM education through a personalized, inclusive, andstudent-centered approach, which will, in turn, advance existing knowledge on the relationship betweenpersonalized learning and student outcomes.The principles of personalized learning guide the PLM. It is comprised of five components. The first threecomponents provide an intentional approach to learning: Instructional Goals developed for each studentbased on a learner profile and individual development plans (IDP), a purposeful Task Environment thatbreaks the traditional three-credit coursework into modules and co-curricular
degrees from the University of Washington. He is the author of the text Embedded Microcontrollers, which covers assembly and C programming in small real-time embedded systems, and has been teaching the upper level embedded systems and senior project courses in EE/EET at WWU for 30 years.Dr. Derek M. Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. His dissertation research focused on developing Computer-Aided Process Planning methods and software tools to support automation of machining on Mill/Turn machining centers. Follow- ing his Ph.D., he worked for several years with the NSF Engineering Research Center for
, and mental models were introduced. Examples were sharedby faculty who had already begun to incorporate sustainability concepts into their courses.During the workshop, the participants planned concrete changes to their own courses anddiscussed changing the curriculum across the 4 years of the undergraduate experience. BackgroundTraditionally, sustainability has not been part of the standard engineering curriculum. Bysustainability we mean meeting human needs (current and future) within planetary boundaries,covering social (including diversity, equity, and inclusion, DEI), environmental, and economicaspects. As an additional challenge, various disciplines across the campus are siloed, so thatstudents in business, the arts, engineering
environment results in universitiestending to teach theoretical concepts and rarely providing a hands on production experience. Inthis paper we describe a unique hands on production learning experience provided to sophomoreindustrial engineering students at Mercer University. These students design and develop theprocess and participate as production workers and industrial engineers for producing 3Dyearbooks for the Georgia Academy for the Blind. These student experience first-handproduction concepts such as process planning, manpower allocation, assembly lines, cycle time,fixtures, bottlenecks, rework, quality, etc… This experience is the first time some of thesestudents have been exposed to and/or participated in production of an actual
engineering self-efficacy (ESE). Students were asked to indicate frequency oftypes of interactions with faculty (e.g., discuss plan of study; discuss future career plans)and extent to which they experienced negative attitudes from faculty. Engineering self-efficacy (e.g., succeed in engineering curriculum; excel in engineering major) was assessedusing items from a published instrument on engineering self-efficacy, and the scaledemonstrated internal consistency. Overall, students who reported more frequentinteractions with faculty (more than once), and lower perceived negative attitudes fromfaculty indicated higher levels of engineering self-efficacy. Further, we examined resultsfor sub-groups of specific underrepresented students (women; transfer
Training curriculum teaches STEM educators to work in high-functioning teams to focuson specific audiences of prospective female students for targeted recruitment instead of relyingon the traditional broad brush approach of generic STEM career awareness. The team-based, 12-week WTE Online Training combines asynchronous video modules and assignments with liveinteraction and feedback from the trainer in Team Coaching and Live Question & Answer Calls(see Figure 1). The WTE Online Training System also includes nine months of team-basedFollow-Up Support for plan development and implementation that culminates in a GroupPresentation Call where teams present their outcomes.Participants in this NSF Project’s Online Training are now able to see
out a box, like a rectangle with a laser cutter, and I added this cool design on there as well. Overcome 9% I'm ready for any challenge … I have to keep trying even though if, like sticking say when the computer was shutting down on me, I just didn't give up. point Not give up when I have sticking points, but keep trying. Multi-step 13% My confidence level is pretty high. We've got a project going on, plan actually, we're in the process of just the very basics of creating a vacuform table, so we've started a base. We're attaching the legs very soon… Project 9% I think that's a pretty easy project
has served the USAF as a developmental test engineer responsible for planning and executing complex weapon system test and evaluation. He is a member of IEEE and the Tau Beta Pi honor society. c American Society for Engineering Education, 2019 Tips and Tricks for a More Effective You: Lessons Learned From a USAFA CadetIntroduction: Established as a means of preparing students to serve as officers in the Air Force, theUnited States Air Force Academy (USAFA) focuses on developing well-rounded leaders whoare charged with excelling in a military environment. This objective is achieved by focusingon the idea of a well-rounded person, as cadets are
Communities”. The partnership between the MAGIC team and theGerontology Department was initially brought about through a conference that is sponsored bythe Mid-America Institute on Aging and Wellness. At the beginning, discussions and planningmeetings for the partnership included many different departments and units throughout campus.In particular, several Engineering faculty produced contributions to the overall project. All of thefaculty members contributing to the present article were involved to varying degrees with theinitial discussions planning of the overall collaboration.The Minka house is characterized by a small and efficient floor plan design that is easilyaccessible, to allow for a longer period of independent living by the residents
weighted survey sample of roughly two thousand early careerengineering graduates. The research is broadly situated in social cognitive career theory anddraws data from the Pathways of Engineering Alumni Research Survey (PEARS), which was apart of the National Science Foundation (NSF) funded Engineering Pathways Study (EPS).Analyses for this study followed a two-step process. First we categorized the engineeringgraduates into seven occupational groups, and then we compared these seven groups along sixother measures of doing engineering work. Four years after graduation, graduates employed inengineering and computer-related occupations tended to identify themselves, their currentposition, and future plans as engineering-related, while graduates
work with the assignment grading rubric and instructor materials toidentify areas for potential improvement. The instructor, using the materials prepared for the WATTStutor-training, provides feedback on areas of concern. Students then visit the writing center to getindividual peer feedback. Finally, students create a plan that combines the varied feedback sources forrevising their writing. This allows students to engage at multiple stages and take ownership of theirrevision process. This work-in-progress paper discusses an interdisciplinary approach to fostering student engagementin the iterative revision process. We used Kang et al.’s Design-Based Change Model (DBCM) [2] as aframework to envision, plan, implement, and sustain practices in
physical activity levels to travel modes, transportation mobility for the transportation disadvantaged, and the development of planning and transit performance measures for access to opportunities, integrating sustainability into the engineering curriculum and creating an engi- neering sustainability minor. He has published several articles in the Transportation Research Record, other journals and conferences on these and other related topics. He is currently serving on the Transportation Research Board (TRB) Committee on Aircraft/Airport Compatibility and is a past member of the TRB Committees on Traffic Flow and Characteristics and Transportation Network Modeling. Stephen is also a member of the Ameri- can Society
experimental and theoretical STEM research. Additionally, students were expected toselect a future research topic with the assistance of an active faculty researcher who was willingto serve as a mentor; design and present a research prospectus, complete a mini review of literaturerelevant to their chosen research topic; and to make preliminary plans for starting the researchproject in the following semester.Although designed with the best of intentions, the course ran into substantial institutionalroadblocks that prevented its continuation. The paper concludes with a summary of the discussionsheld with stakeholders about the course, its goals, and its challenges, and the evolution from acourse-based strategy into a more institutionally viable
new course entitled “Solar PV Planning and Installation”, (ii) summer workshopsfor K-12 students through Center for Pre-College Programs (CPCP) at NJIT, (iii) facultydevelopment workshops for the instructors of other 2- and 4-year institutions, (iv) undergraduateresearch and senior design projects, and (v) development of a dedicated public website to includeall the lecture notes, laboratory experiments, video recordings, publications, guidelines todevelop similar courses, and other instructional materials. This paper summarizes and presentsthe comments and feedback from external advisory committee (EAC), external evaluator, facultydevelopment workshop participants, K-12 workshop participants, and the students enrolled in thenew course. It
-efficacy as educators, empowering them to contribute moreeffectively to learning environments. We have offered the course in the Spring quarters of 2021,2022, and 2023. In each iteration, we sought to actively demonstrate evidence-based inclusivepedagogical techniques through our course design and instruction. In the future, we plan to 1)evaluate the effectiveness of our course design on participant accomplishment of learning goals,and 2) examine the impact of course participants as TAs on the broader bioengineeringcommunity.Course Design: Enabling effective learning of pedagogical skillsCourse Learning Goals: We designed a course to address a critical need in the training ofgraduate TAs by allowing them to build pedagogical skills before their
build on this research by extending mechanistic reasoningas a lens to understand how non-science major undergraduates in a teacher education programexplain machine learning examples––including sociopolitical impacts of those systems. We alsoexamine how the teacher candidates (TCs) construe preliminary lesson plans for how they mightintegrate machine learning in their teaching with young adolescents.MethodWe conducted a design-based research study [10], [11], [12] within a science education methodscourse at a large land grant university in the northeastern United States. The course is a requiredcourse for TCs who will teach middle level grades (grades 4 – 8). Twenty-three of the 25 TCsenrolled in the course consented to provide their assignments
derived quantities such as volumetric ormass flow rate. Students work with a number of types of probes (Kiel probes, pitot-static tubes),measurement systems (square edge orifice plate, venture tube), and experimental equipment tomake these measurements. The students use National Instruments data acquisition and controlhardware and LabVIEW software extensively in the lab portion of the course.This two credit course, one credit lecture and one credit lab, places a high level of emphasis oncritical thinking and originality through several open-ended laboratory assignments and a groupproject. These activates focus on planning an experimental program, designing the measurementsystem, reducing the data, and interpreting the results. Students will
institutions.3 Virginia Tech’sRising Sophomore Abroad Program (RSAP) is one approach for offering a global engineeringexperience for students. RSAP provides students with an opportunity to expand their globalcompetencies while learning about differences in political, technological, social, cultural,educational and environmental systems through experience.In this paper, we provide a program overview for RSAP and present quantitative and qualitativeassessment results for the 2014 cohort. Based on these analyses, we propose a refined, more in-depth evaluation/assessment plan for 2015 to measure the extent to which RSAP studentparticipants achieve program outcomes—this plan can serve as a model for other similarprograms that seek to demonstrate
was matched based on complementing skills andinterests. Creating such collaborative teams was intended to promote both horizontal and verticallearning in an interactive environment, thus laying the pathway to mold independent researcherswho are also team players. During this time, they were immersed in hands-on researchexperiences comprising of a transformative research project, capsulated technical sessions andcomplementary lab practice, field tours, research seminars, and professional developmentworkshops; this on-site experience was supplemented with a 1-year follow-up for continuedinteraction, growth, and guidance for pursuing advanced study. Student deliverables includeddissemination of research results, and a follow-up plan tailored to
assessment, LCA), several guestspeakers on the topic of DEI, pedagogical methods (such as socio-technicalapproaches and the use of artifacts as examples), and discussion of meaningfulassessment approaches. The event was held away from the Engineering buildings in avenue with transformable seating and discussion formats tailored for each activity,facilitating full focus and involvement. Particular attention was paid to the daily lunchesas an opportunity to build community and demonstrate sustainability behaviors. Theworkshop culminated with planned course modifications that were to be implementedduring the following Spring and Fall semesters.The participants found the immersive experience powerful and motivating. However, thefour-day time commitment
ethical considerations, and its potential impact on society. Networking Opportunities Students had the opportunity to network with other students, mentors, and industry professionals.The feedback from the camp was overwhelmingly positive as the students andparents relished the opportunity to learn about topics driving their world andtheir community. The camp also brought awareness of how technology isshaping the world around the students. 8 Future Plans and Next Steps The Gaskins Foundation plans to continue offering the Ethical AI Camp