soil samples, a soil moisture sensor, an Arduino Uno, and a datastreamer installed on Microsoft Excel. Learners were able to conduct the experiment using thishands-on device. The instructor explained the investigations' background concepts to them. Thesamples were prepared at various moisture levels and given to the learners to use in theexperiment. Using a data streamer, they were able to read moisture content readings in real-time.Prior to testing, Arduino code had been integrated to allow for simple conversion from electricalto digital phase. In other tests, the Arduino has produced consistent results for various datagathering and streaming tasks [21]. At the end of the experiment, the learners were able toanalyze, understand, and draw
Paper ID #38794A Hands-On Concrete Laboratory Framework for Construction Manage-mentEducationDr. Philip Warren Plugge, Central Washington University Dr. Plugge is an full professor at Central Washington University in Ellensburg, Washington teaching heavy civil construction management. Professor Plugge has earned a Ph.D. in Education and Human Resource Studies with a focus in Civil Construction Management. ©American Society for Engineering Education, 2023 A Hands-On Concrete Laboratory Framework for Construction Management Education P. Warren
sponsoredresearch design projects or community service design-build projects.The capstone course consists of a project completed over two semesters, giving the students anopportunity to apply and integrate their civil engineering knowledge from multiple sub-disciplines in an open-ended project. Paramount to the capstone experience is the application ofthe engineering design process. By implementing the Steel Bridge and Concrete Canoecompetitions as a project in the capstone course, it ensures that the projects have dedicatedleaders, advisors, time, and resources to facilitate competing at a high level. The capstoneprogram includes both group and individual graded requirements broken down into coursedirected group deliverables (25%), individual ABET student
Paper ID #39438Board 41: WIP – Community of Practice as a Theory of Change forInfrastructure EducationDr. Kristen L. Sanford P.E., Lafayette College Dr. Kristen Sanford is an associate professor of Civil and Environmental Engineering at Lafayette Col- lege. Her expertise is in sustainable civil infrastructure management and transportation systems, and transportation and infrastructure education.Dr. Frederick Paige, Virginia Polytechnic Institute and State University Dr. Frederick (”Freddy”) Paige is the founder of the STILE (Society, Technology, Infrastructure, and Learning Environments) Research Group, Assistant
scenario is well described in a written manner withwell-defined constraints such that there exists a singular “correct” answer [3]. In order to moreeffectively prepare students for careers within the field of engineering which necessitates thatgraduates have the ability to generate solutions to ill-structured problems, the ABET EngineeringAccreditation Commission (EAC) [5] has emphasized the importance of integrating such ill-structured problems within civil engineering curriculum. ABET EAC has identified complexproblem solving skills (Outcome 1) as one of its defined learning outcomes. Specifically, thisincludes the “ability to… solve complex engineering problems by applying principles ofengineering, science, and mathematics.” Concurrently, ABET
Paper ID #36811Refining Instructional Modules for Engineering Lab Writing Using aCommunity of Practice ApproachDr. Charles Riley, Oregon Institute of Technology Dr. Riley has been teaching mechanics concepts for over 15 years and has been honored with both the ASCE ExCEEd New Faculty Excellence in Civil Engineering Education Award (2012) and the Beer and Johnston Outstanding New Mechanics Educator Award (2013). While he teaches freshman to graduate- level courses across the civil engineering curriculum, his focus is on engineering mechanics. He im- plements classroom demonstrations at every opportunity as part of a
graduates and projected needed civil engineerscontinues to grow. With recent investment in infrastructure through the Infrastructure Investmentand Jobs Act, additional civil engineers will be needed to design, build, and maintain civilinfrastructure. An innovative summer course at Purdue University aims to decrease the spacebetween the needed civil engineers and students graduating with an undergraduate civilengineering degree by helping pre-college students understand what types of problems civilengineers solve. This one-week course focuses on exposing students to both the depth andbreadth of civil engineering and has explored various topics, including resiliency versussustainability, design for tomorrow’s loads and problems, the use of novel
, group structure, high stakes tests) [26-28], instead offering opportunities to recover from poor grades (e.g., submit test corrections forpartial credit, drop their lowest score) and build a growth mindset [e.g., 29]. Instructors shouldalso consider hidden curriculum related to overwork [30-32]. If we imply that engineeringstudents should always be studying, this might contribute to poor mental health. It might alsodiscourage students from persisting in engineering to earn their degree or enter the engineeringworkforce. Alternatively, we can encourage students to develop a healthy balance which includesattending to the eight dimensions of well-being via an array of activities.References[1] National Academies of Sciences, Engineering, and
development in civil engineering. The research questions intended tobe addressed through this study are outlined as follows: (i) How does participation in an integrative design project involving 3D printing with concrete influence students' understanding of engineering design processes? (ii) To what extent do projects incorporating emerging additive technologies like 3D concrete printing enhance students' skills in experimental design and material design concepts within a civil engineering curriculum? (iii) Given that prototyping is not commonly emphasized in civil engineering, what are students' perceptions of the value and relevance of prototyping in civil engineering after participating in the
the top ten percent of her class from the Architectural Engineering program at Cal Poly, Abby Lentz worked as an intern at her current place of employment while simulta- neously earning her bachelor’s and master’s degrees. In school, her senior project in building restoration, master’s research in earthquake resiliency, and seismic retrofit work on a school in Nepal with Structural Engineering Students for Humanity added to her passion for engineering. Miss Lentz believes in structural artistry, that as an engineer her innovative designs add beauty to the built environment and maintain structural fidelity to form and function. Miss Lentz values the integrated design build process and enthusiastically works with the
seek to create an infrastructure that would eliminate disabling barriers,and work with stakeholders historically impacted but often ignored. Integrating a social justicemindset in engineering would normalize universal design while reducing the social acceptabilityfor “unforeseen” consequences.” This group subsequently convened bi-weekly with the aim ofcollaboratively developing a series of comprehensive lessons that could be shared with the largerCIT-E community of practice and would follow the established CIT-E lesson template.Motivated by the literature mentioned previously, the group decided to focus on the use of casestudies of past and current infrastructure projects that resulted in social inequities as a vehicle.Case studies have been
model devices, systems, processes, or behaviors. 5.4 Apply an engineering design process to create effective and adaptable solutions. 6. Humanities and Social Sciences: Graduates apply concepts from the humanities and social sciences to understand and analyze the human condition. 7. Disciplinary Depth: Graduates integrate and apply knowledge and methodological approaches gained through in-depth study of an academic discipline. 7.4 Synthesize knowledge and concepts from across their chosen disciplines. 7.5 Contribute disciplinary knowledge and skills as a part of a collaborative effort engaging challenges that span multiple disciplines.The CES serves as a vital contributor to the institution reaching its APGs
toward community needs. It also,importantly, requires that students tie their work with the community to a deeper understandingof their discipline.Service learning plays an important role in engineering education because it connects the oftentheoretical engineering curriculum to the world they are seeking to better. Historically, mostengineering classes have been heavily focused on imparting science and math knowledge to thestudents. The students often solve simple technical problems or design well-defined technicalsolutions to theoretical problems. There is, therefore, a gap between what students are toldengineering will be (changing the world) and what they are practicing as students (theoretical,well-defined problems). Project-based service
professional skills is an integral part of an effective undergraduateABET- accredited engineering program. Engineering programs throughout the country havedeveloped a variety of methods to hone these professional skills and a capstone project experienceis typical. The structure of these courses has evolved to incorporate changes in pedagogy,technology, needs of industry and changes in ABET accreditation requirements. There arenumerous examples in Engineering Education literature of successes in capstone courses includingtips and cases studies of programs running effective capstone projects. For example, Yost and Lane[1] reported the evolution of the civil engineering design capstone experience at a researchuniversity, discussed measures to assess
Constr. Challenges a Flat World, Proc. 2012 Constr. Res. Congr., pp. 2129–2138, 2012, doi: 10.1061/9780784412329.214.[16] K. E. Björnberg, I. B. Skogh, and E. Strömberg, “Integrating social sustainability in engineering education at the KTH Royal Institute of Technology,” Int. J. Sustain. High. Educ., vol. 16, no. 5, pp. 639–649, 2015, doi: 10.1108/IJSHE-01-2014-0010.[17] R. Rahat, V. Ferrer, P. Pradhananga, and M. ElZomor, “Developing an effective front-end planning framework for sustainable infrastructure projects,” Int. J. Constr. Manag., vol. 0, no. 0, pp. 1–18, 2022, doi: 10.1080/15623599.2022.2105282.[18] ISI, “Envision: Sustainable Infrastructure Framework Guidance Manual.” Institute for