time, in addition to gaining hands-on experience with a naturaltreatment system.Constructed Wetlands Modules. The constructed wetlands modules were developed usingstandard fish tanks purchased at a local pet supply store. The fish tanks were 24.1 inches long,12.6 inches wide, and 17 inches high. A perforated PVC drain pipe was installed along thebottom of the tank, which was connected to a valve on the outside of the tank where effluentsamples could be collected. The soil composition in each constructed wetlands module had thefollowing soil mixtures: Tank 1: 40% compost 60% sandy loam Tank 2: 30% compost 10% shredded bark 60% sandy loam Tank 3: 20% compost 20% shredded bark 60% sandy loam Tank 4: 10% compost 30
transition from craftsman production to mechanization; to mass production to power-steam, petroleum, and electric; to electronic and IT systems and automation, industrialEngineering has expanded and morphed to include relevant areas as they developed.According to Encyclopedia Britannica, we are currently in the beginnings of the 4th IndustrialRevolution; data, artificial intelligence, augmented reality, 3D printing, etc. (1) This makessense given over the past two decades, industrialization has become increasingly digitized. Thisdigitization has led to immense data sets within and around the production process. IndustrialEngineers being efficiency experts can analyze these data sets and improve the productionsystem. Given such, it is a logical step
Engineering Department at Cal Poly Pomona started a video tutorial library onYouTube named CPPMechEngTutorials that has grown to over 600 videos across 16 courses(https://www.youtube.com/channel/UCZScjkZuVuvwa-JVA3mHO3w). The video library was acollaborative effort that involved over half of the department’s full-time faculty who eithercreated videos, allowed their lectures to be recorded, or contributed ideas and feedback duringthe planning of videos. The videos have accumulated over 11 million views and the YouTubechannel has over 100,000 subscribers as of May 1, 2022, making the video library one of CalPoly Pomona’s largest outreach efforts. Since the YouTube platform provides limited options forthe organization of videos, links to the videos are
numerous professional societies to supplement his teaching and research, including ASCE, ACI, ASEE, ASC, ATMAE, and TRB. His research output has been well disseminated as he has published thirty journal papers and thirty-nine conference papers. His research interests are 1) Creating Innovative Sustainable Materials, 2) Digital Construction, 3) BIM and VDC, 4) Virtual Testing Lab, 5) Construction Education, and 6) Sustainability.Amy Lewis (Assistant Professor)Irish L Horsey (Interim Department Chair and Assistant Professor ) Dr. Irish Horsey is currently serving as the interim department chair and assistant professor of construction management at Kennesaw State University. She has been a faculty member at KSU since 2017. As a
competition that educates students through project based learning and prepares them for careers in the buildings industry. Michael holds a bachelor’s degree in Physics from Muhlenberg College, and a master’s degree in Energy Systems Engineering from Lehigh University.Jessica StershicTaylor Ryan © American Society for Engineering Education, 2022 Powered by www.slayte.com The Future of Building Science Education with the U.S. Department of Energy Solar DecathlonBackgroundResidential and commercial buildings accounted for 39% of energy consumption in the UnitedStates in 2021 [1]. This places buildings ahead of the industrial and
Reductiondescribes 6 different measures that can be taken to address risk and uncertainty when the risksare identified on a per-task basis. The next 5 sections consider risk management alternativesfound in Spiral, Agile, Knowledge Factory (Lean), FMEA, and JAD practices from industry. Thesection with our Discussion, borrows from all 7 sources of scheduling and risk managementpractices to propose an alternative and more suitable set of practices specifically to address risksto the schedule in student capstone projects. The final section contains the Conclusion.Current LiteratureIn 2014, Vanhanen and Lehtinen [1] surveyed papers on capstone projects searching fordiscussions of risks. Out of 67 papers discussing capstone projects and the issue of risk, only
& simulation-based learningon students’ learning and motivation, two groups are compared: control (simulation-based only)(1), and intervention (nonlinear story and simulation learning game) (2). The control group iscomposed of students who used simulation models with a traditional case study format. Incomparison, the nonlinear story and simulation learning game group is represented by thestudents who are taught with the aid of the game learning module. The results of this studycompared the groups in terms of students’ motivation, engineering identity, and learningoutcomes. The data of the control and intervention groups were collected in Fall 2020, and Fall2021, respectively. The intervention group showed higher overall motivation and
-face semesters, students are put into teams of 3 to 4 and given modules todevelop and practice these skills (two for Arduino, two for PLCs).Due to the COVID-19 pandemic, ENGR 111 was augmented into a synchronous remote courseto avoid close proximity and shared tools in the makerspace. Arduino programming instructionwas performed using Tinkercad (tinkercad.com), a website that allows for Arduino programmingand circuitry simulations. PLC instruction was performed utilizing a free online PLC simulatorwebsite, “PLCfiddle” [1].At the end of each semester, students take a survey on their perceptions of the course. Includedin this survey are questions pertaining to programming instruction. These questions assessstudent confidence in programming and
Paper ID #37337Seeing Vs. Being: Film Representations of Women inEngineeringJessica LivingstonRichard A House (Associate Professor) © American Society for Engineering Education, 2022 Powered by www.slayte.com Seeing vs. Being: Popular Film Representations of Women in EngineeringIn media representations of engineers and engineering, concerns of diversity and inclusionordinarily start with a simple yes or no question: Among our onscreen engineers, are women andpeople of color represented alongside white men? [1] Implicit in this question is the central logicadopted as a slogan by The Geena Davis Institute on Gender
from this opportunity [1] and [2]. Our graduatecertificate fills this opportunity gap by leveraging students' unique backgrounds and experiencesto broaden the participation of computing professionals.The U.S. Bureau of Labor Statistics has demonstrated a need for a larger U.S. workforce incomputer science. As a result, there has been a rise in coding bootcamps, MOOC certificates,and micro-credentials to gain access to computing. According to the U.S. Bureau of LaborStatistics (BLS) Occupational Outlook Handbook, employment in computer and informationtechnology occupations is projected to grow 11% by 2029, much faster than the average for alloccupations. Within computer and information technology occupations, the employment ofsoftware
continue addressing with the STEM Pride at UM initiative.IntroductionPeople who identify as sexual and gender minorities, i.e. members of the LGTBQIA+ 1 community,face numerous challenges when studying in science, technology, engineering, and mathematics(STEM) fields, which leads to a decreased retention of these students [1], [2], higher rates ofcloseting [3], and increased rates of mental health issues [4], [5]. These challenges were largelyunexplored in the past, but there has been a recent increase in the number of studies focusing onLGBTQIA+ students in engineering and STEM [6]. These studies have found increaseddiscrimination, harassment, and bullying towards LGBTQIA+ students, and a chilly climate inSTEM, described as implicit or explicit
) Historically, harassment has been categorized based on legal definitions, verbal and/orpsychological, and behavioral. For instance, Fitzgerald and colleagues (1997) categorized sexualharassment under three main subtypes (also known as the tripartite model): gender harassment(e.g., sexual hostility, sexist hostility), unwanted sexual attention, and sexual coercion. Othershave categorized four varying definitions of sexual harassment: (1) legal, (2) psychological, (3)sex-based, and (4) behavioral and categorized them under objective (i.e., quid pro quo) andsubjective categories (e.g., hostile work environment) (Berdahl, 2007; Fitzgerald et al., 1997;O’Leary-Kelly et al., 2009). In addition, harassment can be identity or non-identity-based (Raver&
participants significantly in various ways. With support of social relationshipdevelopment activities, students’ academic goals should be fulfilled in the class.This study examines the relations between social development activities and students’ grades.The objectives are to: 1) Identify potential latent factors using six (6) social developmentactivities and 2) identify a potential association between those factors and students’ grades. Theliterature review describes past and current research on social development activities andrelationships among class participants used to justify this paper. Exploratory factor analysis(EFA) and structural equation modeling (SEM) are the methodologies used in this paper toidentify any relation between social
crucialfor today's engineers [1], [2]. Engineering graduates should be able to handle complex engineeringsystems and problems. Their design solutions must meet the needs of stakeholders at different levels,from direct users to regulatory entities. To achieve these goals, educating engineering students in systemsthinking, which can facilitate such goals, is crucial to the students’ success and requires a teaching andlearning approach that is supported by a socio-technical context-rich environment. Instead of offering aproblem statement with pre-defined knowledge, educators should begin with presenting an engineeringproblem to students, training them on how to obtain and extract proper information to identify the trueproblem themselves. Students will
Engineering Library identified Esploro, a research information management system poweredby Ex Libris, because there are several advantages: (1) we have full control of metadata; (2)publication records are indexed and searchable in our library catalog system; (3) publicationrecords are discoverable by search engines; (4) Smart Harvest, an automated content harvestingfeature, can load publication records from a variety of sources; (5) a complete list of publicationscan be easily generated for grant applications and reviews. Since the College of Engineering isthe first college to adopt Esploro, there is no standard workflow for us to follow. We developed aworkflow by trial and error: (1) making an initial estimate of the volume of the publicationrecords
, Undergraduate ResearchIntroduction and Relevant LiteratureThe idea of incorporating industry practices into software engineering education is not entirely novel.There is literature discussing the benefits students experience when software engineering courses aretaught in coordination with industry professionals. Generally, students appreciate when their courseworkis going to be relevant preparation for the industry, especially when those courses use industry tooling todo so [1]. More specifically, students appreciate tooling that provides automated feedback rather thanhaving to wait on a mentor or professor [2]. Such tooling is even more beneficial to students when theyare involved in the creation of the test harness itself as it prepares them for the
service desks to staff training projects[1]–[3]. This term appears to be used broadly, compared to the more narrowly focused terms“embedded” and “boutique.” At Oregon State University (OSU), this service most closelyresembles that of a hotel concierge [1]. OSU staff from across the library worked at a mobilestation positioned near the library’s entrance for the first few weeks of each semester. AtStanford University, monthly training sessions have been used to teach library staff membersabout services and resources across the library and to prepare them to refer users to those mostqualified to assist [2]. In both examples, staff across the library are equipped to serve asknowledgeable representatives for the breadth of library services both
” courses—relies crucially on concepts covered in the first few weeks of the course. If a student does notbuild an understanding of the foundational concepts covered during those first weeks, they willbe unable to understand the remaining material in the course. Such students either strugglethrough the rest of the course as they try to learn past material and keep up with the current topic,or they withdraw from the course entirely. Thus, helping students understand the concepts in thefirst weeks of the course is essential to their continued success. Methods for identifying andhelping students who are likely to struggle in CS1 courses would be widely applicable,particularly since those courses are known to have a low passing rate (68%) [1].Students
, motivated, and successful future engineers.Keywords: Peer-to-Peer Learning; Education Community; Student Support; EngagementIntroduction Historically, most engineering curricula in university settings are developed and structured at aninstitution level based on an “engineering science” model or the grinter model where engineering is taughtafter a solid foundation in science and mathematics [1]. For many engineering programs, the first two yearsof the curriculum represent this engineering science approach where it has largely remained changed sincethe late 1950s [2]. During these early years, it is generally accepted that there is a convergence of factorsthat lead to student attrition [3]. Representative factors that play a role in attrition
integrated LEGO® products intoundergraduate engineering classrooms to facilitate active learning experiences in engineeringdesign. These experiences allow students to develop core technical proficiencies primarilyrelated to robotics and computer programming. As Ethan Danahy et al. explain, using LEGOMindstorms products, engineering students are able “to grapple with questions of sensoraccuracy, motor latency, response times and priorities without having to have extensiveexperience in circuit design, assembly-level programming or in artificial intelligence” [1]. Asstudents build and program various kinds of robots using LEGO Mindstorms, they learnimportant principles of robotics design. Their experiences in the classroom thus demonstrate themerits of
Half-Fulfilled Promises: Creating a Veteran-Friendly Space in Engineering Graduate Programs AbstractThis qualitative study explored essential components of veteran-friendly communitydevelopment in an engineering graduate program. Through the analysis of faculty mentors’ andstudent veterans’ in-depth interview data, we identified four themes: (1) Mentors’ empatheticunderstanding, (2) Celebrating and utilizing military assets (3) Creating a military-safe spacewith multiple layers of support, and (4) Half-fulfilled promises. Findings from this studyilluminate significant challenges in creating a veteran-friendly space inclusive of all veterans,especially historically minoritized student
Education, 2022 Powered by www.slayte.comLessons Learned from Collaborative Initialization of Machine Learning Classand STEM Contest with University and Industry PartnershipIntroductionUniversity and industry partnerships have been effectively providing mutual benefits to bothparticipating universities and industries, and the real-world engineering problems and networkingopportunities provided during collaboration give students unique learning experiences [1-4].Various models and frameworks in university and industry partnership have been introduced withdifferent collaborations [5-7]. Small-sized schools in particular benefit greatly from partnerships[8]. Some partnerships target not only higher education but
National Guard according to Brigadier General Peter Deluca, the ArmyEngineer School Commandant in April 2013[1]. Roughly 80% or 64,000 serve in the ArmyReserve and National Guard making these service members high value targets for recruitmentinto engineering and engineering technology programs. The Air Force Reserve and NationalGuard have similar statistics worth considering as well. An important aspect of recruiting is akeen understanding of the motivations of the prospective pool of applicants.The reasons for enlisting in the military have been studied often since the establishment of theAll-Volunteer Force in 1973. Charles Moskos, a well-respected military sociologist, viewedpeople’s motivations for joining the military as either “institutional
Engineering1. IntroductionMany institutions of higher learning are working towards increasing student diversity andinclusion in engineering programs. This study explores the current research trends anddemographic makeup of university engineering programs. The goal of this study is to gain insightinto these trends and better understand the challenges to diversity and inclusion efforts withinsystems engineering education. This study can provide a foundation to advance diversity andinclusion in systems engineering education toward a more heterogeneous engineering workforce.2. Literature ReviewThe literature contains various definitions for diversity and inclusion [1]. Because this studyfocuses on diversity and inclusion within systems engineering
(CBAM) which has helped researchersunderstand and monitor developmental processes for individual instructors adopting changes ineducational institutions. Thirty-two STEM instructors participated in eight focus-groupinterviews about barriers to their implementation of active learning in an online context. Througha two-cycle coding analysis based on “Levels of Use”, a diagnostic dimension of the CBAMframework, we demonstrate that most of the instructors were struggling with the initial steps oflogistical implementation and acquisition of new skills. We further determined three types oflogistic issues: 1) having issues beyond instructors’ control in online environments, 2) strugglingwith classroom management and organization, and 3) lacking
in a class. In large classes many students do not raise theirhand in lecture or go to office hours, and thus have very limited direct interaction with facultymembers or instructional assistants. Students who report more interaction with college facultymembers tend to show greater social integration into the college setting, and better academicperformance [1], [2], [3]. A nationally representative survey of over 30,000 college graduatesfound that the ability to identify one adult mentor at college predicted greater work engagementand subjective well-being in the years after college [4], [5], [6]. Interaction with faculty has beenshown to be especially important for Underrepresented Minority students [7]. In large publicinstitutions it can be
instructor used a variety ofdifferent activities to engage students in the learning experience, including self-directedness, life-centered experience, collaborative learning, and expecting a payoff. The instructor shared thatprevious professional development opportunities and extensive experience trying and improvingteaching practices were influential on their current approach to teaching. The results highlight theimportance of professional development for teachers, that it must incorporate specificapproaches.IntroductionRapidly growing technology combined with increasing job responsibilities and fast-pacedworkplace environments is driving more adults to engage in professional development andcontinuous learning in their lives and careers [1]. It is
alternative approach to engineering ethics education involves framingand cultivating virtues to guide the way students learn to behave, think, and feel in order to do themorally right things, for the right reasons, and in the right ways (Pierrakos, 2019). This argumentfor character education suggests that while current engineering ethics education typically focuseson student decision-making during specific times of ethical dilemmas, character educationfocuses on the practice and acquisition of virtues that prepare students for their own ethicaldecision-making in any complex situation (Pincoffs, 1986). This approach serves several,simultaneous roles: (1) it provides a common, accessible language for students to (2) engage inethical discussions and
, safety, and security. Consequently, it is imperative that engineers enter the professionfully prepared to make ethically sound decisions in response to the ethical dilemmas andchallenges they may confront. While every engineering discipline has a code of ethics to guidedecisions that have ethical implications [1], codes of ethics have several limitations. First, theycannot possibly capture every potential situation that may arise where ethical decision-making isnecessary. Second, they are of limited use when faced with ethical dilemmas for which there isno clear choice that does not carry some degree of ethical risk. The overarching motivation forour work is to address the need for a practical framework that can be used to teach ethicaldecision
at the process level for optimal output. This complexity for large systems isdifficult to manage based on the number of inputs and expertise required to determineanomalies. AI can help solve these issues by mapping large datasets and inputs into predictiveoutcomes, which can be monitored for variation and quality, while XAI can be utilized to probeand identify the operational complex system for features that significantly affect output and thusbe able rectify before system failures.IntroductionThe Cynefin framework identifyes management problems into four distinct categories, obvious,complicated, complex, and chaos [1]. In general, to solve or manage problems requires an abilityto act, probe, sense, categorize, and respond, but the precise