Section Conferencedesign was economically feasible. However, the group followed the existing plan very closelyand pushed back when asked to investigate other methods as they had a feasible design.Group 5 focused much effort on alternative mining methods. The high water table made itimmediately apparent that traditional truck and shovel operations would be complicated. Thestudents knew of dredges but had no previous design work with them. They researched pipe sizesand pump characteristics required for the mining operation. They designed an onboard primarysizing circuit to reduce material handling costs and a discharge into the pit to eliminate finerecirculation. The initial box cut to float the dredge was another opportunity for novel ideas
pandemic. In-person workshops with this structure continue in theUnited States and have also been hosted in Spain and Germany in the past two years. Virtualworkshops continue to be held to further reach international audiences. The idea of makingsmall changes to incorporate process safety into any chemical engineering course remains acornerstone of the workshop with multiple breakout sessions designed to show faculty that thismethod can be done with relatively little effort while satisfying ABET outcomes. Furthermore,this can be done without department permission or making changes to the four-year plan. It ismy opinion that process safety should be a core chemical engineering course, but I also believethe more students are exposed to process
understanding contract documents and drawings,along with technical terminology, symbols, and abbreviations. Their learning, as it focused on thebasics, additionally introduced them to the most common materials used in Construction in theUnited States along with the codes that determined the local building practices. Overall, the goalof CNST 112 is to ensure that the students come out of the class equipped to read plans, doquantity takeoffs, and understand construction materials and methods.ChallengesChallenges faced by the instructor were the classroom setting and the huge amount of lecturematerials that were given by the previous instructor only a week prior to the beginning of thesemester. Due to overwhelmed enrollments, the lecture room had to be
background would do more on engineering math component, whilethose with physics background would do more in the science component. The other reason wastraced to the fact that faculty members interested in the muon project were around 5 days a weekto answer all of the students’ questions, unlike the high school participants who are facing withscheduling conflicts and could only be on campus on designated time slots with extra demandsfrom High School System-wide exam and training schedules.DiscussionExpansion of the pedagogy for medical related student projects as orthopedic robots is plannedfor the College Now students. The plan has been based on survey data which showed arelatively high demand from high school students in the field of medical
completed a lesson plan incorporating aspects of what they learned and presentedwhat they learned to a panel of stakeholders. Over the next year, the teachers were encouraged to stay connected with the facultymentors, and if they wanted to stay part of the research team, they were welcome to help whereable. The teachers could help write research papers, attend conferences, or whatever could helpadvance the project. During the school year, teachers were observed twice as part of theassessment of the RET program. They taught the prepared lesson to students, and studentscompleted surveys regarding their STEM understanding, one prior to the lesson and one after thelesson was completed. UTA also helped teachers provide engaging and interactive
incorporating AI into civil engineering consisted of using AI for learning,drafting, building information modeling (BIM), editing videos, creating presentation slides,planning cities, writing code, collecting data, analyzing data in real-time, doing research,communicating, auto-populating bid forms, assessing risks, tracking construction progress, andfinding design standards.The final objective in conducting our survey was to gather information on civil engineeringstudents’ understanding of the ethical concerns and professional responsibilities of using AI.When asked about the ethical concerns of AI in an open-ended question, the most commonresponses (49%) were related to potential inaccuracies in AI output including output containingnon-credible
had muchsuccess in the short term (although studies often lacked longer-term data). But these programs areresource-intensive, normally involving substantial costs related to planning, staffing, housing,activities, and evaluation. It is important that institutions that sponsor – or that are consideringsponsoring – a SBP understand what program features contribute to accomplishing program goalsand, perhaps more importantly, which features may impede those goals. A necessary first step tothis process is understanding the landscape of research on SBPs. This paper is a contribution tosuch an effort, as it seeks to explore the question, What does previous research indicate aboutengineering summer bridge programs?A previous review of literature on
supplying equipment used inthe genocide in Gaza (e.g., [1]), the objection of the Navajo Nation to planned deposition ofhuman remains on the Moon [2], and the increase in stratospheric pollution due to rocketlaunches and satellite re-entry [3]. How technology is affecting the war in Ukraine, the JamesWebb Space Telescope's latest findings, and SpaceX developments are other relevant examples[4]–[6]. Even viral platforms, such as TikTok and Instagram, are being used to promptdiscussions about the defense industry’s involvement in undergraduate education and studentrecruitment (e.g., [7]–[10]).While these social impacts of aerospace engineering are discussed in the media, they are absentfrom many undergraduate aerospace curricula. There is little-to
level of the assignment, acknowledging thediverse needs of students. Late Assignment Policy • Quizzes—need to be done on time; no make-up; for absences due to academic activities, let the instructor know before the quiz. • Applications and other assignments—1 to 2 days late, email the instructor; more than 2 days, email the instructor and tell them when you expect to get it done. • End Assessments—you must email the instructor and clear it with them first; make and communicate a plan of when it will be finished.Quizzes have the least impact on the grade and, thus, the least room for variation. Theyare also formative for the instructor to ensure students understand material
difference being that the listdeveloped in class provides more explicit details. From this exercise, considerations aroundreproducibility were gradually introduced, starting with a new question: “How will you preserveyour progress along each step of the scientific method?” As a class, simple approaches werenoted. For research design and planning steps such as initial observations, research questions andhypotheses, here is an overall summary of the concepts noted: ● Write down ideas in digital documents such as Google Docs, where collaborators can share this information through email, social media, or other online locations, with varying permissions for viewing or editing. ● Write down ideas on physical paper to quickly draw visual
proposed course plan, includingthe topic of the research they would like to perform with the SPECTRA scholars or examples ofpotential research projects. Four ACE Fellows were working in the program at the time of ourstudy; all four Fellows had had the opportunity to lead a research project, but at the time ofinterviews only two had had the chance to teach at a partnered technical college. During theresearch course, the students and ACE Fellows work closely together to produce and implementstudent-led research projects facilitated by the ACE Fellow. The relationship between the ACEfellow and the SPECTRA scholars resembles a near-peer mentoring relationship. This paper aims to observe the relationship between the students and the ACE
0.8692 -1.284 0.2106 Significance codes: 0 ‘***’ 0.001 ‘**’ 0.01 ‘*’ 0.05 ‘.’ 0.1 ‘ ’ 1 Multiple R-squared: 0.7079, Adjusted R-squared: 0.6855 F-statistic: 31.51 on 2 and 26 DF, p-value: 1.126e-07Results for Exam 2 are shown in Table 2 and Figure 4 and indicate that CATE usage was notsignificant. As seen in Table 2, the coefficient for CATE is negative. This would be a terribleresult, but for the lack of significance for the variable! After experimentation and reflection, aworking hypothesis has emerged; CATE coverage of the topics associated with Exam 2 needsimprovement! Exam 2 covers AC analysis and transients. Plans are to expand practice withcomplex arithmetic and solving differential
allows students to get very familiarwith these systems and learn to use them in an easier and more accessible way. [9]Using digital twins can also allow students to practice with industry machinery, without the schoolhaving to spend the money on the actual machinery. Digital twins can allow engineering studentspractical knowledge and practice with heavy machinery, planning construction sites, and evensoftware. [18] Using digital twins to simulate real life industry situations can help students learnto prioritize tasks and work on their decision making. [20], [24]5. Digital Twins Increasing Diversity and InclusionDiversity in the engineering field has increased over the last decade, and it is just as important tobe aware of as the actual academic
. Thestudents are first required to contact the faculty coordinator at their respective institutions, whoplay pivotal roles in identifying suitable projects for the students interested in the internshipprogram. The mentors, who are typically faculty, from participating member institutions have tosubmit project proposals in the STEM areas that are relevant to the National Aeronautics and SpaceAdministration’s (NASA’s) mission and are aligned with the needs of the future workforce. Thestudent recruitment plan targeting women and members of underrepresented minorities wasincluded. Each project included the learning outcomes, timeline, mentoring plan, and expecteddeliverables. For each project, financial support for one to two students was requested
hardware systems, ECE education issignificantly inaccessible to learners who are blind or have low vision (BLV). Thus, it isimperative that we assess and evaluate any accounts of blind ECE learners to critically redesignECE pedagogy to meet their preferences and needs and prioritize their inclusion. TheChallenging and Rewarding Experiences (CARE) methodology is a recent framework thatpromotes an in-depth assessment of student-centric perspectives on ECE course offerings, withthe intention of informing instructors of necessary change to be introduced to the courseofferings to improve students’ experiences and align their expectations with the planned courseobjectives. In this paper, we apply the CARE methodology to conduct a comprehensive
conducted the observation during the activity sessions, documenting observations andnoting any unique participant behaviors in field notes. These field notes served as the basis foridentifying patterns and themes. The course instructors also shared their observations madeduring the activities and throughout the planning stages leading up to the class activities.Focus groups were convened to solicit feedback from students who utilized the app during theclassroom activities. The objectives were to (a) gauge the usability and user friendliness of theapp, (b) identify the app's strengths and weaknesses, and (c) identify potential areas ofimprovement. Two weeks after the last class activity using the app, student participants wereinvited to participate
: Inclusion/exclusion criteria for papers. Criteria were determined prior to searching. Inclusion Criterion Justification K-12 participants The study should focus on outreach to pre-college participants, since this population is the most common demographic for STEM outreach and may be the most likely to change career plans toward STEM. This included adults studying K-12 content. STEM program * The studied program or activity should be focused on introducing participants to STEM, either overall or in one aspect. If there is no STEM content, STEM attitudes are unlikely to change. Outreach ** The activity
-termchallenges and operating in reactionary mode. There was a sense of cultural decay, as leadersstruggled to notice what the organization was doing well. The dean, his executive team, and theDirector of Leadership Development began to lay plans for a concerted, systemic leadershipdevelopment program that would help College leaders to remember and imagine the organizationat its best, with its strengths at the forefront of their minds. Carrying these goals, the leadershipdirector then partnered with a positive leadership external consultant to produce a year-long,research-based Michigan Engineering Positive Leadership Program, driven by several questions:What kind of culture do we hope to create with the engineering leaders? How can we focus onthe
theycan meet the energy demand of a growing population for both the short-term (5 years) andlong-term (100 years). In their analysis, the students first consider providing power throughlocally available natural gas and coal which has an expected finite lifetime based on the Hubbertcurve for coal and natural gas extraction. The first plan then for energy is to potentially use thesefossil fuel resources in conventional combustion power plants that follow thermodynamicscycles such as the Rankine, Brayton and Combined Cycles. The students are given specificationsfor existing power plants and are allowed to refurbish and or retrofit the components to predictenergy production. Their simulation analysis is done with a series of MATLAB® codes that
2018, the nstitute was elevated in status and renamed the School ofEngineering and Technology (SET). Yet, the new status did not seem complete withouttraditional technical programs such as mechanical and civil engineering. Furthermore, UWT’sapproved campus master plan included a new academic building to be added to the campusfootprint near 2020 which would facilitate expansion of its growing business school and newdegree programs in several engineering disciplines including mechanical, industrial and civil(none of which existed at that time). Therefore, before embarking on a request for authorizationand funding for the new building and programs, consultants were brought in to help prioritizewhich programs should be the first priority. After
intricate problems that maybe challenging for typical algorithms in the traditional engineering curriculum. With theexplosive proliferation of embedded systems, and the IoT, controlling complex actuators andsensors in real time is increasingly feasible. Many engineering applications generate vastamounts of data, and deep learning algorithms are effective at recognizing patterns andextracting meaningful insights from these large datasets [5]. Thus, an appreciation of deeplearning methods will contribute to better engineering decision-making processes [6]. Inaddition, deep learning enables better automation, optimization, and control [7]. From designoptimization to production planning, engineers can leverage deep learning to streamlineworkflows and
590 engineering degree program studentsenrolled in an engineering graphics course, whose distribution among grade levels is inTable 1. Data for the sample arrives from the existing IUSE project and the universityOffice of Institutional Research and Planning (OIRP). Table 1 Distribution of Students by Grade Level (n=590) Grade Level f % Grade Level f % Freshman 132 22.37 Junior 111 18.81 Sophomore 297 50.34 Senior 50 8.47 Table 2 describes the dependent variables that will undergo a descriptiveanalysis and survival analysis to identify rates and potential patterns related to retentionand
instructors at Duke University has been positive.Observed improvements to student learning is noted below with each course or program.However, no formal assessment has been done, although some plans are suggested at the end ofthis section.As described below, the implementation of the materials at Duke has been as little as oneconcept or idea per course, or as broad as all materials within a course that fills a whole semester(Table 4). Depending on the learning outcomes of a course, a rigorous approach to needs findingmay or may not be appropriate. At Duke, we have found that upper-class and graduate studentsare better positioned for this work; alternatively, more time needs to be dedicated, such as in theDukeEngage program. For a faculty member
will graduate in 2024, said “this experience helped hersolidify her post-graduation plans” [5].Participating faculty appreciated both the immediate impact on their programs and futureprospects. “‘With this program, we are serious about building long-lasting multifacetedrelationships that give electrical engineering faculty at minority-serving institutions bothrecognition and support for their critical efforts to inspire, train and educate – year after year –diverse cohorts of electrical engineering undergraduates who are prepared to go on to electricalengineering graduate programs, if they choose,’ said Truong Nguyen, the electrical and computerengineering professor at the UCSD Jacobs School of Engineering who runs the program” [5
use SEPTs.Specifically, we present the preliminary design of a qualitative study, including a surveyinstrument to assess familiarity with software engineering terminology and use of SEPTs. Oursurvey is based on the Software Engineering Body of Knowledge (SWEBOK) Guide, whichoutlines a generally accepted, standard body of knowledge expected of practicing early-careersoftware engineers. We design the survey to be accessible even to those unfamiliar with thespecific software engineering terminology used in the SWEBOK Guide. In addition to the surveyitself, we describe our planned approach to conduct a thematic analysis of participants’ responses,using the taxonomy of the SWEBOK Guide as an analytical framework.We hope that our study will help
likeresearching it. And I was like, yeah, I know, I really want to do this. I’ve not really thought aboutchanging my major. [...] I do like horticulture, which deals a lot with how infrastructure impactsthe environment. I think it’s interesting, but I’m not in love with it. If I were to change, or if Ihad a different spark at some point in my life, I would change to that.Motivation and ChallengesAcademic Challenges: I knew math was going to be hard going into it. And failing this Calc IIIclass really made me think it's time to start a back-up plan, even though I really don’t want to.I’m taking it again this summer, but if I fail it twice, maybe it’s a sign that I should switchmajors. Someone I know told me to switch professors. So, I have the top
individual ICAs are more effective atencouraging students to actively participate in their learning. Since cooperative learningactivities can require significant instructor time investment to be planned and might consumevaluable lecture time, only notable supplemental benefits of this learning technique might justifythe time commitment [1]. To the best of our knowledge, existing comparative studies in thisdomain are limited and do not specifically analyze student performance on a variety of formativeand summative assessments in an undergraduate mechanical engineering course [10]. Thecurrent study aims to fill that gap in literature. The methodology presented in this study andsample assessment questions provided in the Appendix can easily be utilized
famous female AfricanAmerican Mathematician Dorothy Johnson Vaughan, Colombian planetary geologist AdrianaOcampo Uria, a Japanese American meteorologist Tetsuya Theodore Fujita, Mexican Americanastronaut Jose Hernandez). This is incorporated as a puzzle progression theme within the levelsof the subgame. At the beginning level in the subgame, students are “solving” simpler problemsor are guided through solving longer problems. Then, at the intermediate and advanced levelsstudents are “solving” more complicated and longer problems with less guidance.The research plan includes first testing the games in co-requisite pre-calculus Math 126E/26B atUNLV and CSN in Spring and Summer 2024, then refining the game and testing it again. Thegame on basic
. Integrating forced displacement into engineeringeducation offers an opportunity to expose students to the potential of using their technical skillsto address complex societal challenges. It can also demonstrate the limitations of approachingsuch issues from a single perspective and the shortcomings of working within isolateddisciplines. Though the aim of such a course is to instill in students a long-term desire to engagewith the issue of forced displacement, framing concepts this way can also empower students totackle similarly complex issues requiring interdisciplinary thinking beyond their time in theclassroom. Course Planning and Development Recognizing the need for courses/modules meant to equip
requirementrefinement as they plan out their solutions. In the implementation and testing phase, studentsfocus on building and testing their solutions. Over the first several years since migrating to a 1-semester course, instructors havenoticed several patterns in the types of projects pitched from sponsors and for which of thoseprojects, students tended to struggle more than others. Considering the semester schedule, coursestaff identified 4 opportunities in the calendar to host workshops to serve a similar role to JiTTlearning modules; where students would refresh or acquire new skills and knowledge which theycould immediately apply to their projects [12]. These workshop sessions have no strictassessment of learning but are intended to be interactive