Paper ID #38384Understanding the Academic Journey of an International West AfricanEngineering Graduate Student in the United StatesMr. Daniel Ifeoluwa Adeniranye, Florida International University ’Daniel Adeniranye’ holds a bachelor’s degree in Mechanical Engineering, a joint and dual master’s de- gree in Petroleum Engineering and Project Development from IFP School, France and the University of Port Harcourt, and a Project Management degree from the University of Southampton, United Kingdom. He is currently a Graduate Assistant at the School of Universal Computing, Construction, and Engineering Education, where he seeks to
engage with tailored concepts aimed at bridging their mathproficiency gap to excel in Math 126E (Pre-calculus). Consequently, in a co-requisite pre-calculus setting, students receive an additional two hours of instruction dedicated to learningalgebraic fundamentals. A comprehensive review of current literature on innovations andinterventions targeting enhanced mathematics outcomes underscores several promisingremediation approaches. These include active learning methodologies, hands-on projects,inventive interventions resembling comic books, mentorship programs, integration oftechnology, personalized one-to-one assistance, and peer study groups [3]. Based on [4],successful methods directly tackle identified math skill deficits.The research
incorporating inclusiveteaching practices across the curriculum. Further, while the underrepresentation of AfricanAmerican, Latinx, and Native American engineers increases as level of education increases,support focused on retention of graduate students from diverse backgrounds is limited. This projectaimed to promote inclusive teaching practices within a graduate program in chemical engineering.The project involved a) fostering inclusive teaching practices in select core graduate courses, b)offering workshops on inclusive teaching practices for faculty and graduate teaching assistants,and c) data collection from students on department climate, sense of belonging, classroomengagement, and barriers faced. In this paper, we have discussed the inclusive
. 𝑄 = 𝑘𝐿∆𝑇 𝐸𝑞𝑛 5 It is assumed that the heat transfer is one dimensional. Since most students takethermodynamics in their junior year and heat transfer in their senior year, a complicated heattransfer analysis would be beyond their experience and education. For a finite elements course,this could be an excellent project. Once boiling begins, the first time is stopped and recorded and the second time is started.During the boiling process, the mass of the control volume decreases with the exiting vapor. Themass continuity equation is shown in Equation 6. 𝑑𝑚𝑐𝑣 = −𝑚̇𝑒 𝐸𝑞𝑛 6
Paper ID #18449A New Pathway: A Software Engineering Master’s Program for Liberal ArtsGraduatesProf. linda m laird, Stevens Institute of Technology (School of Systems & Enterprises) I am an industry professor in software engineering at Stevens Institute of Technology. Prior to that, I ran large development projects at Bell Labs/Lucent. c American Society for Engineering Education, 2017 A New Pathway: A Software Engineering Master’s Program for Liberal Arts Graduates Linda M. Laird engineers and executives who
grown in prevalence, butthe most enduring model of undergraduate research is the apprenticeship-model, where studentswork directly under the mentorship of a faculty member[10].The University of Nebraska-Lincoln established the Undergraduate Creative Activities &Research Experiences Program (UCARE) in 1998. UCARE provides $1,000,000 in stipendsannually for approximately 300 to 350 undergraduate students across all majors. UCAREparticipants showcase their primary outcomes in a yearly Undergraduate Research Symposium.Programs such as UCARE allow students to work alongside faculty members, engaging inhands-on research and creative projects, enhancing their academic and professional development.Cunning et al. (2024) presented a reflection of
the social fabric. Her mission is to expand who is heard and can contribute to the disciplines as society demands professionals with backgrounds as diverse as the challenges we face. Greses’ scholarship advocates to include the rich trove of insights from multicompetent groups in creating engineering solutions and scientific ideas. Before her time at Stanford, she was a bilingual educator at low-income elementary schools in Texas. As a civil engineer, Greses led EU funded projects in the Caribbean to create educational opportunities for coffee farmers and their families. She also holds two Master’s Degrees in Civil and Environmental Engineering from the University of Puerto Rico at Mayag¨ ezu and in Education
them to engage with the values they construct regarding what engineering is and howthey want to participate.Especially with the increasing emphasis on the sociotechnical aspect of engineering in thecurricula [8], [9], [10], students are vocalizing their aspirations for a more humanizing, equitable,and justice-oriented engineering, one that works with communities, not on them [11]. However,through the contact points with the industry, the industry continues to project images ofengineering as technocentric, capitalist, neglectful of justice issues, and unattentive to its impacton the communities [3], [12]. These images leave students to experience tensions between theiridentities and the industrial culture, as manifested in the above quote of an
initiative can tend towards zero. Intuitively one would think that resources wouldcontribute to exponential growth within an initiative. However, the Directors felt that no matterhow large the number of resources thrown at a project, without synergy there is little chance oftrue success. This is why it is part of the foundational factors in the model. Furthermore, theDirectors recognized the importance of acquiring monetary resources but were more focused onacquiring resources that could help fuel synergy. For example, one director was very focused onhaving time spent teaching in the interdisciplinary initiative count towards a faculty member’steaching load and service. This resource allocation would allow members to dedicate more timeand effort
, Gulf Coast Center for Addressing Microplastic Pollution (GC-CAM), and the founding faculty advisor for the Society of Sustainable Engineering. He teaches a mixture of undergraduate and graduate engineering courses. Dr. Wu is a committee member for Transportation Research Board (TRB) AJE35 and AKM 90, a member of American Society of Civil Engineer (ASCE), American Society for Testing and Materials (ASTM), and Academy of Pavement Science and Engineering (APSE), as well as an editorial member for Journal of Testing and Evaluation and International Journal of Pavement Research and Technology. He serves panel member for several NCHRP and ACRP projects. He is also a registered professional engineer in Alabama and LEED
Computer Engineering, Virginia Polytechnic Institute and State University. She received her B.Eng. and Ph.D in Computer Engineering and Informatics from the Polytechnic School, University of Patras, Greece. She has extensive experience on building data management and database solutions for large-scale systems in collaboration with industrial and governmental agencies, and academic partners. She has published her work in peer-reviewed international conferences and journals. Her current research interests include data management, data valuation and AI and engineering education. Her teaching/mentoring activities focus on developing and offering classes in project-based learning environments as well as, advising and
the world [4]. In the classroom setting, presentingdiverse perspectives by encouraging students to listen to and consider the stories of their peerscan broaden the students’ understanding of the myriad of experiences that exist directly aroundthem. This positively impacts the class environment as students who feel more connection andbelonging will be more likely to engage in discussions and course assignments in a moremeaningful way [4].ObjectivesThe overall objective of the story sharing exercise is to foster a sense of belonging and promoteinclusivity for first year students. The motivation for the project stems from institutional researchthat shows that pre-major students, women, and students of color at Western WashingtonUniversity have a
, the results of the program will be discussed in detail,as the program has created tangible, measurable, and sustained results over a period of five yearsfor both students and faculty.Retention…and a bit of recruitment tooAccording to the National Center for Education Statistics (NCES) there are almost 4,000 degreegranting institutions in the US [7], with just over 18.5 million students enrolled in degree-granting postsecondary institutions as of 2021 [8]. Projections illustrate enrollment is notexpected to get back to the highs of 2010 and 2011 over the next ten years, and while projectionsfor the number of degree granting institutions are not provided by NCES, this number has beensteadily declining over the last ten years [7] [8]. These
(HBCU) since the project began in 2019. The study compares the studentswho participated in ECP, using various measures of engagement, motivation, cognitive processes,and collaborative learning experiences between spring 2022 and fall 2023. A well-developed andvalidated instrument, the Motivated Strategies for Learning Questionnaire (MSLQ), was adoptedfor this study, as well as a self-developed questionnaire to measure students’ engagement duringthe implementation of pedagogy. The study contributes to the current understanding of the efficacyof ECP in enhancing learning outcomes. The study found a sustained level of cognitivedevelopment and motivation among the students, but there was a decline in peer learning andcollaboration. It provides
from Bangladesh University of Engineering and Technology in 1991 and 1994, respectively. He then earned the Doctor of Engineering degree (equivalent to Ph.D.) from Muroran Institute of Technology, Japan in 1999. His research interests include optical communication, wireless communication, digital image processing, computer security and solid state devices. He has received a US patent on Optical Pattern Recognition. He has published more than 160 publications in peer-reviewed journals and conference proceedings. He has successfully completed several research projects sponsored by different federal and private institutions, including US Army, National Science Foundation, and Department of Energy. He served as an
projections to advocate for a particularproduction schedule. This assignment particularly emphasized communications skills incomposition, use of references, graphical elements like tables, line graphs, and images.Summative #2 required students to make design recommendations for a new Melissa and Doug®product that would launch rubber bands a specified target distance. The benchmark product wasa popular rubber band shooter by another manufacturer (Model PL7920, Funtime; Figure 2b),which was physically on hand for students to work with. Students were asked to derive from firstprinciples the expected target distance based on rubber band stretch, to redesign the rubber bandstretch mechanism to achieve desired target distance, and use propagation of error
discussion on additional applications of theLogical Model, such as analysis and design of experiments, will be presented in a later paper.1. Introduction and literature reviewLike any scientific study, a simulation project involves a defined sequence of steps. The processbegins with establishing a clear problem statement and study goals, leading to actionablerecommendations to support decision-making. Crucially, after model development, simulationstudies require debugging, verification, and validation. However, some students struggle todistinguish between these terms.Debugging entails meticulously examining a model for errors. This encompasses syntax issues aswell as semantic or logical errors that can lead to misleading output. Fortunately
-centered learning tools are valuable in engineering and technologydegree programs. Still, barriers exist to their incorporation, such as faculty resistancedue to factors like tradition, self-perception, and incentives [13, 21]. Other obstaclesinclude time constraints, increased preparation demands, challenges in large classes,and resource limitations [21]. Instructors often cite feeling a loss of control or inadequateteaching skills when implementing active learning [21].Academic Success in Engineering A student's academic success in engineering degree programs involves acombination of course grades, including projects, exams, and additional courseassignments that ultimately make up a GPA [20, 21]. Along with these elements ofsuccess in
context of their empirical experiences. Elaborate Tailored to extend learning, this phase involves more intricate or extensive project work. Students are encouraged to refine their solutions, incorporate advanced technologies, and consider the broader societal and environmental implications of their work. 3 Evaluate The evaluation phase transcends traditional assessment methods by incorporating peer reviews and reflective practices on the design process and final outcomes. This comprehensive assessment strategy focuses on both technical skills and the overall problem-solving methodology, highlighting the
worked.Other forms of data were collected for the larger project, including the written reports groups submittedand transcripts of individual interviews with participants. For the purpose of the analysis presented here,these forms of data were not considered; however, they did influence our thinking about how studentsapproached the laboratory activity.Video transcripts of laboratory work were transcribed verbatim and broken into thematic episodes. Inprevious work (Gavitte, in review), episodes were systematically coded to quantify and categorize thetypes of engineering epistemic practices that were elicited by students while completing the laboratorywork. In this study, we build on that analysis by elaborating on the nature of those epistemic
-campuscondensed summer laboratories. This delivery format ensures that each distance programhas exactly the same content as the on-campus program. One major limitation of thecurrent delivery mode of the DEDP is that it normally takes two (2) to three (3) weeks,sometimes even longer, for the video taped lectures to reach off-campus students. As aresult, students enrolled in the DEDP program are at times more than three weeks behindtheir on-campus peers in submitting the required assignments, projects, and tests. Thisdelay also generates additional load for faculty in terms of grading and advising on-campus and distance students at different points in the course. In general, facultymembers consider that under these circumstances a distance student requires
in the ComputerEngineering program at California State University, Fullerton is used as an example. However,the proposed methodology for instruction development can be applied to other courses inengineering as well. Proceedings of the 2013 American Society for Engineering Education Pacific Southwest Conference Copyright © 2013, American Society for Engineering Education 400 +++ (a) Implementation Process1) As and when topics are covered during the course of a semester, the instructor for EGCP 281course assigns a project that involves a literature review on
ideal transmission lines is taught by following a similarsequence of three step set up, as shown in Figure 13. After these exercises, students easilyrecognize different configurations of impedance matching networks and make lumped element,transmission line matching circuits or a combination with ease.Initially, ideal transmission lines are used, and they are subsequently replaced by microstriptransmission lines to investigate how real-life parameters affect the circuit design, as well asdesign restrictions for specific application or implementation of impedance matching network. Atthe end of this sequence students undertake a patch antenna project, where they design, simulate,fabricate and measure a square- patch antenna. (a)Three step
(MGS), has been conducted as part of a joint researchactivity between NASA and DARPA in order to assess technology development and investmentby both agencies. The goals of the MGS study are technology, concept, and architectureassessment/forecasting for manned servicing missions within the next 5 to 10 years.The MGS research project is decomposed into five constituents; Team 1 - Hardware to GEO,Team 2 - Crew to and from GEO, Team 3 - Human Presence, Team 4 - Human/RoboticsSynergy, and Core Team - Project Definition and Synthesis. As a member of Team 2, theAerospace Vehicle Design Laboratory (AVD Lab) is responsible for the assessment oftechnology/vehicle requirements to transfer crew to and from GEO. This article summarizes the
the drop diameter6,7.For this project we used Diamond Jet Silver Nano Ink printed on to Epson paper. Usingthe DMP-2800 fiducial camera the drop diameter was measured to be 30 µm. If the dropspacing is to close, then the ink tends to pool up causing inconsistent print quality. If thedrop spacing is too large then the ink may not be continuous. We found that using a dropspacing of 25 µm provided sufficient overlap and avoided pooling up of the ink. In one ofthe samples it was observed that the resistivity was not uniform on the x and y axis. Inthe x direction the resistivity measures about 0.5 Ω/cm, however in the y direction itmeasured 100 KΩ. This is due to drop spacing being too large and the tendency of theink to flow in the direction of
, % discipline, % Professional practice issues Curricular 18 Societal impacts of engineering and technology Engineering decisions in the face of uncertainty Chemical 64 Computer 39 Safety Chemical 72 Computer 37 Engineering code of ethics Curricular 14 Civil 59 Biomed 41 Sustainability and/or sustainable development Civil 63 Biomed 24 Ethical failures/disasters Curricular 17 Chemical 54 Mech 43 Ethics in design projects Environmental protection issues Chemical 57 Computer 16 Responsible
Committee provides a link to Ethics Resources and Organizations. __ IEEE Society on Social Implications of Technology http://radburn.rutgers.edu/andrews/projects/ssit/default.htm “The scope of the society includes such issues as environmental, health and safety implications of technology; engineering ethics and professional responsibility; history of electrotechnology; technical expertise and public policy; peace technology; and social issues related to energy, information technology and telecommunications.”Proceedings of the 2004 American Society for Engineering Education Midwest Section Conference __ The ASME Professional Practice Curriculum
industry, nanoelectromechanical systems,microelectromechanical systems and nanotechnology applications for fuel and solar cells. In the Introduction to Nanotechnology course which is offered in Fall 2007, the similartopics will be covered at introduction level. There will be homework, term project, exams andlaboratory sessions. A nanotechnology laboratory is being developed in the Department ofMechanical Engineering at Wichita State University, and dedicated to do a number ofnanotechnology experiments for students. We plan to have undergraduate students work on theelectrospinning method in the nanotechnology laboratory. Students will produce nanofibersusing the described electrospinning method and then characterize properties such as
research interests includeElectronic Commerce, Adoption of technology, project Management, and best practices inmanagement of IT. 232 Using Internships and Input from Businesses to Guide the development of a Computer Technician CourseAbstractThis paper discusses the process of developing a computer technician’s course for the Associatedegree program in computer systems. The paper discusses how the faculty perceived a need todevelop such a course, and the process used to develop it. Students who had internships wereasked to list the activities they did in their internships. And then this list was used to develop asurvey that was then sent to department’s advisory board, as well as to
, synchronization, source coding, and multiplexing for the undergraduate student2.Employing a computational script in MATLAB, as some texts do, merely verifies the analyticalequation. Even a short inclusion of simulation techniques with a block diagram interface as ademonstration does not seem to imbue the undergraduate student with the same level ofconfidence that PSD, Pb and BER measurements and audio .wav file verification madethroughout the course and laboratory can provide.The digital communication system laboratory or projects using MATLAB/Simulink thataccompany the lecture course allows the exploration of topics in simulation which are not in thetext and whose results are more experiential1,4. The incalculable value for the undergraduatestudent