students had highermedian and mean exam scores as compared with students who took the conventional course,with significantly more students earning 100% on the final exam. Student feedback was alsovery favorable, with high marks given in all categories. Written student feedback indicated thatthe hands-on approach was highly valued. Many indicated that making the programmingtangible made the concepts more clear.Introduction and BackgroundWest Virginia University uses a common first year program for its Engineering curriculum,which includes two consecutive introductory courses. The second course is primarily dedicatedto teaching fundamental Matlab programming as an engineering tool. Such programs arecustomary in common first year curricula.1-4 The
theredesigned undergraduate engineering economics course that was part of the eFellows program.Instructional ContextTwo large sections of an undergraduate Engineering Economics course were delivered inhybrid/buffet mode during the Fall 2012 semester, following a successful pilot and fullimplementation in earlier semesters. A thorough discussion of the course structure, components,and preliminary implementation results may be found in Grasman et al.13 As previouslydescribed, a variety of course components were utilized. The course components may becategorized as: 1. Online Resources a. WileyPLUS, the online learning environment associated with Principles of Engineering Economic Analysis 5e by White, Case and Pratt3, consisting of a
has become an integral component in engineering education.Senior capstone courses and first-year engineering design courses are becoming ubiquitouswithin an undergraduate engineering education. It has been suggested that attention be paid tothe formation of teams and that training in how to work as a team occurs early and often inengineering education.1 Effective teams can provide many benefits to students, including anincrease in knowledge and skills, such as communication, from working with people unlikethemselves. Furthermore, such skills undoubtedly transition into myriad facets of life aftercollege—rendering the skills an invaluable asset for engineering students.Formation of Teams and Team Dynamics in Engineering EducationTeams and
framework for an information visualization arealso presented.1. Background and MotivationTechnology has the potential to aid instruction, but the simple act of using technology to deliverinstruction does not improve the instruction being delivered [1]. In order to have a positiveimpact on student learning, instructional technology developers must draw on what is knownabout how people learn and then use technology to improve the quality of the instructionalmaterials. This often involves collaboration between researchers with backgrounds in educationand those with backgrounds in software, or other technologies. This paper serves as a case studyof one such instructional software development process, the development of the Adaptive Mapdigital textbook
, watching on-line videos of the tornadoand taking a field trip to neighborhoods impacted by the tornado (see Figure 1). During the fieldtrip they took pictures of the damage (see Figure 2) and recorded their observations andquestions.After the field trip and a short introduction to knowledge building theory, students spent oneweek collaboratively developing knowledge building questions on Knowledge Forum. They didthis by posting their observations (with pictures from the site and other pictures and videos theyfound on the Internet), as well as their initial theories and questions about their own and theirclassmates’ observations. Figure 3 shows part of the Knowledge Forum workspace developedduring the first week and shows how students built upon
. ©American Society for Engineering Education, 2023 Why Not Studios? – What Engineering Can Learn from Architecture and Art & Design ProgramsAbstractEngineering, like architecture and art & design, is well served by creativity. Architectureprograms, both building and landscape, emphasize creativity and encourage exploration of thestudent’s capacities for creative design through intensive immersion in “studio culture.”Although art & design programs do not typically tout the benefits of studio culture to the degreethat architecture programs do (e.g. [1]), studio classes also play an important role in most art &design programs. Studio inculcates an atmosphere of intellectual curiosity
. 1. IntroductionThe U.S. Environmental Protection Agency (US EPA) was established to, among other things,ensure that: 1) all Americans are protected from significant risks to human health in theenvironment where they live, learn, and work; and 2) enforce federal laws protecting human healthand the environment. Despite this effort, low-income communities, particularly those of color, stillexperience disproportionately negative impacts from environmental contaminants when comparedto low-income white communities (Cutter, 1995; Taylor, 2000; Bullard, 2001; Maantay andMaroko, 2009) due to unequal exposures to environmental stressors such as soil, air, and waterpollution (Bullard, 2001; Wilson et al., 2008; Fan et al., 2019). Environmental justice
results. Furthermore, the authors utilized a MATLAB library (PIVlab) for dataanalysis instead of the Android app in the mI-PIV for enhanced control and analysis capabilitiesand increased accessibility. As a first step, the current study has developed a single instructionalPIV and complementary instructional modules as a proof of concept. In the next phase, the authorswill develop the remaining members of the array and implement them in their undergraduate fluiddynamics and experimentation classes. © American Society for Engineering Education, 2024 2024 ASEE Annual Conference2 Particle Image Velocimetry (PIV) Figure 1 - Typical experimental setup for PIV recording in wind or
of professional skills in burgeoningengineers [1], [2]. Thus, there is a demand for student development processes and experiencesthat facilitate the acquisition of both technical and professional skills. For this project,professional skills, often referred to as “soft skills,” include a variety of competencies such ascommunication, teamwork, professional and ethical responsibility, and more as determined byABET and delineated in the results of this paper. Unlike technical skills, professional skills takemore time to develop and sharpen [3]. Additionally, they are not as amenable to course-basedlearning often due to their “untestable” nature. Whereas a chemistry class might be able to teachtechnical skills and then assess the outcomes by way
(ASCE) report card gave US infrastructure a C- rating [1].ASCE reports that in the U.S., a water main breaks every two minutes, 43% of U.S. roads areconsidered poor or mediocre, and overall the infrastructure Americans rely on every day is outdated and failing [1]. For civil and environmental engineers, failing infrastructure presents anopportunity to incorporate new ideas and design infrastructure better suited for the future. Tomeet this challenge, engineers need to be able to examine the past, understand what has and hasnot worked, and how to approach design to prevent future failures.Within the context of civil and environmental engineering, failure has come at a high cost to thepeople who rely on infrastructure systems that no longer work
theSCOPUS database using the query [“artificial intelligence” OR AI] indicates that annualpublications on AI have increased by almost an order of magnitude from 2004 to 2023. Therelease of ChatGPT by OpenAI in November 2022 and then Google’s release of Bard in March2023, along with other similar chatbots, has resulted in more direct access to AI tools. Despitethe accessibility of tools such as ChatGPT, the use of generative AI is variable among differentpopulations and industries [1, 2].The influence of AI has extended to civil engineering although adoption into professionalpractice appears cautiously slow [3, 4]. Available AI models are well-suited for civil engineeringapplications [3]. In scientific literature, there are many examples of AI and
massmoment of inertia times angular acceleration JO α terms. An example of a generic KD-FBD pairis shown in Figure 1. A less discussed, but equally important set of diagrams that are alsointroduced in Dynamics involve the impulse-momentum principle. These diagrams are typically Figure 1 KD-FBD pair of a generic object moving and rotating in spaceintroduced to show the change in momentum and the impulses involved during impact. Anexample of a generic “Final-Initial-During” impulse-momentum trio is shown in Figure 2.Figure 2 Final-Initial-During trio of diagrams of a generic object moving and rotating in spaceOne reason for the emphasis that instructors place on selecting correct systems and drawingproper diagrams in Statics and Dynamics
Paper ID #41963Sustainable Innovation and Entrepreneurship Short Course in EcuadorDr. Pritpal Singh, Villanova University Dr. Pritpal Singh is Professor of Electrical and Computer Engineering at Villanova University. He received a BSc in Physics from the University of Birmingham, UK in 1978, and Masters and Ph.D. degrees in Applied Sciences/Electrical Engineering from the University of Delaware. He joined Villanova University in 1984 and has been faculty member there ever since. He has served as the Chair of the Middle Atlantic Section of ASEE, Zone 1 Chair, and has organized and hosted three regional ASEE conferences
office hours, recitations, and tutoringsessions, to support students in their academic journeys. When instructional conditions changedue to institutional, national, or global crisis, students are prone to be increasingly disconnectedfrom their peers, instructors, and institutions [1]. Changes in peer-to-peer connections andinstructor availability consequently compromise learning community facilitation. The purpose ofthis study was to analyze trends in learning community facilitation before, during, and after adisruption, as indicated in course syllabi.BackgroundLearning Community Presence in Higher EducationA learning community is defined here as a system wherein there are opportunities for opencommunication and collaboration between students
Engineering Education, 2024 Industry Perspectives on Professional and Design Skills of Bioengineering Senior StudentsAbstractProfessional and design skill development is an essential part of engineering education [1], yet,according to industry feedback, many students struggle to satisfactorily develop these skillsduring their time as undergraduates [2], [3]. Despite numerous approaches to improve students’preparedness for the work environment through academia-industry collaborations (see [4]), theperceptions of industry experts on strengths and weaknesses of current senior engineeringstudents remain widely unspecified in the literature. In this work, we are using a systematicapproach and framework to examine the
thathave the biggest impact to the conventional 4th year senior design project model as shown inFigure 1. Director of Industry Relations A. Industry Partnership B. Capstone Project C. Benefits of Project D. Roles of People Industry Sponsor Student Faculty Fig. 1: Relationship Among Team for
resolution of global challenges.Defining SustainabilityEnsuring a precise and well-defined understanding of sustainability is of paramount importancein this study. The term "sustainability" is one that permeates various fields of study, rangingfrom environmental science to business development. Its versatility and multiple applicationsacross disciplines necessitate a clear and explicit definition to avoid ambiguity and ensureconsistency in our analysis. With this recognition, a definition of sustainability was crafted fromdefinitions available from the widely recognized 1987 United Nations Bruntland Commissiondefinition of sustainability [1] and University of California Los Angeles’s definition ofsustainability present within its publicly available
into smaller parts, andable to explain or determine what the root cause of a problem is.Keywords: affective domain, attitudes, undergraduate engineeringIntroductionLearning is an integral part of our lives. Each one of us learns the same things differently based onour preferred way of learning. We can learn by building mental models; through feelings,emotions, attitudes; and by physical movements. Based on this, the domains of learning are broadlycategorized as cognitive (knowledge), affective (attitudes), and psychomotor (skills) [1]. Eachdomain of learning focuses on one of three ways the brain can be engaged in learning. Thecognitive domain is focused on mental processes or thinking, the affective domain focuses onfeelings, attitudes, and
monitor how they approach the process and their need to maintain the integrity of thereview process.IntroductionFor decades, the practice of granting faculty tenure has been a contentious issue. Since 1940,when the American Association of University Professors (AAUP) and the Association ofAmerican Colleges and Universities (AAC&U) proposed the modern structure of tenure andacademic freedom [1], there have been both proponents and critics of tenure. Proponents arguethat tenure helps ensure that faculty can pursue their work without fear of retribution, includingjob termination, due to controversial ideas or findings. Additionally, they argue that tenure is noteasily earned and granted, and the process of earning tenure helps ensure that those
assessment of the demonstrator’s effectivenessas a teaching tool.IntroductionThis paper completes a work in progress that was presented at the American Society ofEngineering Education (ASEE) National Conference in Baltimore, MD in June 2023 [1]. Thefocus of that work was to establish the background, development, methodology, and assessmentmethods for the Power Demonstrator Board used in an Infrastructure Engineering course.Civil engineers design, manage, and implement the large civil works projects that societyrequires to function. These civil works projects require trained professionals to ensure the publicinvestment in all aspects of infrastructure is appropriate and safe. Unfortunately, civil engineersare not traditionally well-trained in the
socialunrest, as well as fires, hurricanes, floods, and other emergencies [1] may also cause disruptions.Such disruptions, on the student side, may lead to, among other things, feelings of isolation,anxiety, and stress [2]; reduced motivation, self-efficacy, and achievement [3]; and retentionissues [4]. The use of a learning management system (LMS) has been shown to mitigatechallenges associated with disruptions, prompting researchers to better understand the degree towhich LMS features are used and how they can be used more effectively. This study wasconducted to discover how instructors utilized a LMS before, during, and after a disruption.Findings from this study can be used by policy makers and educators to plan how best to useLMS features given
requires creativity, innovation,and collaboration to resolve these issues. Higher education institutions are the ideal environmentfor cultivating these essential qualities. However, Historically Black Colleges and Universities(HBCUs) often do not prioritize the development of creativity, innovation, and collaboration intheir educational approach for students [1]. Nevertheless, in recognizing the potential impact,there exists a unique opportunity to leverage HBCUs in enhancing diversity, equity, andinclusion in STEM education as well as in the engineering industry. By placing emphasis onnurturing creativity, innovation, and collaboration within the academic environment of HBCUs,students can be better equipped to tackle environmental challenges
to be an excellent way to moveforward.IntroductionFor advancing research and innovation, the scholarly development of graduate trainees inScience, Technology, Engineering, and Mathematics (STEM) fields is indispensable. GraduateSTEM education, as highlighted by [1], is critical in fostering the development of futureresearchers and innovators, thus contributing to advancements and the betterment of society. Asimilar sentiment is expressed by [2] regarding the significance of strong STEM educationprograms in cultivating a proficient labor force that can propel economic expansion and innovationin a world that is becoming more competitive. This advancement necessitates not only specializedexpertise but also proficient scholarly
findings demonstrate that our approach shows promise forachieving these objectives through the implemented coursework.IntroductionThe engineering profession has always aimed to serve society’s needs. However, in some cases,engineering designs and products benefit some at the detriment of other groups [1], [2]. Withjustice issues affecting millions around the world, many engineering programs have startedintroducing modules and themes in their curriculum to educate students on such injustices andoffer approaches to help them address these issues. The environmental engineering discipline isuniquely positioned to recognize environmental injustice, understand its adverse health andeconomic outcomes, and advance ethical approaches and solutions to
insights. This preliminary analysis serves as a foundation for deeper investigationsinto spatial skills within the MET program. While the data shows promising trends, furtherexamination and collaboration are essential to unlock the full potential of spatial skills assessmentand its impact on education and interdisciplinary cooperation.REFERENCESDuffy, G., Power, J., Sorby, S., Bowe, B. (2018). Differentiating between Spatial Ability as aSpecific Rather than General Factor of Intelligence in Performance on Simple, Non-routineProblems in Mathematics. Engineering Design Graphics Journal, 82(1), 43-46.http://edgj.org/index.php/EDGJ/article/view/682Lubinski, D. (2010). Spatial ability and STEM: A sleeping giant for talent identification anddevelopment
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
identifying themistakes, and potentially correcting the mistakes to develop a correct solution. Conventionalproblem solving involves the presentation of a problem statement, known values and possibly adiagram and requires students to develop the full solution. This problem-solving modality iswhat is found in a typical end-of chapter problem set.There have been numerous studies examining these different problem modalities from aninstructional and learning viewpoint. Research on worked example problems have shown thatthey are particularly useful when first learning a topic as it reduces the cognitive load required onthe student [1] and can be more useful than conventional problem solving in terms of learningachieved per unit time invested by the
professional development programs for STEMaudiences.Introduction and Project GoalsThe CyberAmbassadors pilot project (NSF Award #1730137) developed, tested and refined highlymodular, customizable curricula to help the cyberinfrastructure (CI) workforce build the communications,teamwork and leadership skills necessary for success in interdisciplinary, computationally-intensive work[1]. Cyberinfrastructure refers to both the physical hardware, computing and communications resourcesrequired to create the types of advanced computing systems commonly referred to as “supercomputers” aswell as to the individuals who have the skills and expertise to develop and maintain these resources.Cyberinfrastructure is an emerging career field, whose initial members
expected outcomes, limited support, and shortfall in contemporary technicalknowledge and hands-on competency. To establish an effective industrial collaboration, theFaculty of Engineering at the University of Hong Kong has established the Tam Wing FanInnovation Wing (a.k.a. the HKU Inno Wing) [1]. This center is designed to engage studentsin real-life projects, providing them with hands-on experience.We propose and implement the Inspire-Equip-Showcase (IES) framework to prepare studentsfor successful industrial collaboration. In the 2023/24 academic year, a cohort of studentsunderwent pre-collaboration training activities under IES with a focus on the theme of AI androbotics. The training covered fundamental competencies such as Robot Operating
and attitudestowards uncertainty and robust decision making for climate change adaptation and riskmanagement.The first author of this paper is a PhD student, an EED member, and would like to self-nominatethis paper for the best student paper award. Thank you for your consideration.Key words:climate change adaptation, robust decision making, game-based learning, innovative pedagogy,uncertainty, risk1.0 Introduction1.1 Decision Making under Deep Uncertainty (DMDU) Problems can be defined as deeply uncertain when impact analysts cannot agree on theconceptual models that could be used to represent probable futures, the probability distributionsrepresenting uncertainty of parameters in the future, and/or how to value the different outcomes[1