Number Course Name Pollution Prevention and Green CEE 455 Engineering CEE 446/546 Urban Stormwater Hydrology CEE 447/547 Groundwater Hydraulics CEE 458 Sustainable Development CEE 482 Introduction to Coastal Engineering CET 332* Water Resource Engineering CET 420* Hydrology and Drainage CET 456 Resiliency and Sustainability Table 1. Existing CEE and CET courses included in the minor.The approach balances theory with practical engineering and technology solutions for coastaladaptation and resilience
aneight-year cycle.In May 2019, ASCE published the Civil Engineering Body of Knowledge, 3rd Edition(CEBOK3). ASCE then convened a Civil Engineering Program Criteria Task Committee(CEPCTC) in January 2020 to review the current ABET Civil Engineering Program Criteria andpropose revisions, if needed, based on (1) the publication of the CEBOK3, (2) a major revisionto the EAC/ABET General Criteria which became effective for reviews during the 2019-2020accreditation cycle, and (3) compliance with guidance from EAC/ABET on curricular topics andfaculty qualifications.This paper is the third in a series to describe the efforts by ASCE and the CEPCTC in reviewingand revising the Civil Engineering Program Criteria. The first paper, presented at the 2021
such as Germanyhave advanced the concept of the Fourth Industrial Revolution, often referred to as Industry 4.0[1]. The intent is to integrate design, manufacturing, and consumer activities seamlessly toincrease productivity, reliability and customer satisfaction. An Industry 4.0 manufacturingsystem—also called a cyber physical production system (CPPS)—integrates Internet of Things(IoT), Internet of Services (IoS, or also called Cloud Computing) and cyber-physical system(CPS) technologies [2]. These changes will profoundly impact manufacturing work and workers.Industry 4.0 is projected to add $2.2 trillion to domestic GDP by 2025. The estimated maximumvalue of the operational transformation brought by Industry 4.0 to the global
electronics. The specific areas in- clude single-phase and two-phase cooling with textured surfaces, remote sensing using acoustic emissions and optical imaging, and data-driven modeling of transport processes and multimodal data fusion. His re- search is supported by federal and state agencies including NSF, NASA, AEDC, and ASGC as well as industrial companies including Google and Safe Foods. ©American Society for Engineering Education, 2023Infusing Data Science into Mechanical Engineering Curriculum with Course- Specific Machine Learning Modules Yuhao Xu 1, Bo Zhao 2, Steve Tung 3, and Han Hu 31 Department of Mechanical Engineering, Prairie View A&M
short workshops for faculty jobsearches, but they generally disseminate information and may not be discipline specific. In thesummer of 2021, a pilot program was created to assist women in STEM fields in creating aportfolio of documents to jump-start their faculty job search process.IntroductionWomen continue to remain under-represented in the STEM workforce, including academia.While women constitute 48% of the United States employed labor, only 34% of STEM-relatedjobs were performed by women in 2019. They earn approximately half of all doctorates inscience and engineering in the United States, but women comprise 21% of full science professorsand 5% of full engineering professors [1]. The unemployment rate was higher for women inSTEM than for
as the program chair for the pre-college divi- sion and serving on two task forces with the president to create a framework for ’Weaving in Students vs. Weeding them out’ and a report to NSF for changing students’ mindsets. ©American Society for Engineering Education, 2023 1 Qualitative Study of Women’s Personal Experiences of Retention and Attrition in Undergraduate Engineering ProgramsINTRODUCTION Women’s continued underrepresentation in the field of engineering should continue to beof national priority. From 1997 to 2016, the proportion of women earning degrees in
Mathematics EducationAbstractThis paper shares the initial findings of a three-year research project. Quantitative methods wereused to develop coarse-grained understandings of undergraduate students’ self-regulation ofcognition (SRC) and self-regulation of motivation (SRM) during academic problem-solvingactivities in two undergraduate engineering and mathematics (EM) courses. Two researchquestions were constructed to guide this study: (1) How are SRC and SRM strategies related toeach other while solving EM problems?; and (2) How do students perceive their SRC and SRMstrategies for problem-solving activities in EM courses?Two 2nd year EM courses, Engineering Statics and Ordinary Differential Equations, werepurposefully selected as the contexts of the
. 1Introduction In the United States, the engineering profession has historically and continues to excludeand marginalize certain racial and ethnic populations, including Black, Latinx, and Native people.The engineering profession was founded as a field of predominantly white men who have set thedemographic, narrative, and cultural norms [1]–[4] to the detriment of the equity and inclusionideals that leaders in the engineering field currently espouse [5], [6] and to the detriment of thesocial and ethical responsibilities of the engineering field to serving our diverse communities. Theresult of this foundational exclusion and its perpetuation is the phenomenon often referred to as“underrepresentation” of these racial and ethnic populations in
implement the engineering design process.community goodwill, positivemarketing, and opens doors for Work cooperatively to research and present novel solutions to realfurther collaboration. engineering problems.1. Break down the topic 2. Educate via play and 3. Task with creatinginto learning objectives discussion with experts working modelsRegional cooling technology is Brief lessons on the learning Using basic supplies andcomplex, therefore the overall objectives included lectures tools, students createdengineering was broken down from
computingenvironments [1]–[4]. In many ways, faculty from racial groups that are historicallyunderrepresented in computing (i.e., Black, Latinx, Native American, and Native Hawaiian orPacific Islander) experience similar issues as students of the same identities (e.g., discriminationfrom students, faculty, and staff; campus policing; microaggressions, and other policies andpractices that are inherently exclusive [5]–[7].Scholars are often marginalized when publishing academic papers, facing numerous obstaclesand systemic barriers that can impede their academic success [8]–[10]. Research demonstratesthat racial identity impacts whose work is considered scientific knowledge, reinforcing“idealized notions of meritocracy in science” [11]. Scholars often encounter
. The results of the survey are presentedthroughout the paper and a list of topics for the adequate coverage of structural concepts toconstruction management students is proposed.Keywords: structural, design, concepts, teaching, construction, managementIntroduction and review of literatureConstruction Management is a multidisciplinary profession that requires its adherents to possesscompetences in a variety of subjects. The American Council for Construction Education(ACCE) stipulates in its most recent accreditation standard [1] that, by the time they graduate,students seeking a construction management degree must attain the seventeen Student LearningOutcomes (SLO’s) shown in Table 1, which are being shown in their totality here to provide
transport water to higher altitudes requires pumping infrastructure. In the absence of suchfacilities, communities that reside in isolated areas encounter water scarcity affecting drinking,sanitation, farming, and other needs. These issues can economically be solved by employing ahydraulic ram pump, which does not require electricity to function as they are powered by thewater source itself resulting in a negligible operational cost. The goal of this study was to modifythe design of an existing ram pump to improve its overall performance. A ram pump setup wasbuilt using various materials including valves, PVC pipe and connectors, and digital pressuregauges [3]. Many modifications are implemented to improve efficiency [3-5]. Figure 1 showsthe
an Introduction to Design course. These modules enabled students to experience and practice effective teaming skills through role- playing. The modules focused on how to act and how to respond to promote psychological safety on design projects. Each module was tailored to a different phase of the design process. The themes of the three modules are (1) treating every idea as having potential to contribute to a positive outcome, (2) questioning an idea to obtain valuable insight, and (3) applying the brake to improve a decision. To explore the impact of the modules, we deployed a post-course survey to measure students’ perceptions of psychological safety on their project teams. Compared to control sections of freshman design in
consequences. On the other hand,some devices use instability for their functioning.While this concept is essential, it is usually given limited attention in traditional statics books andlectures. It is generally discussed as just a short section on the equilibrium of a rigid body. Thecurrent treatment of this topic in statics books needs to be revised. Thus, this paper recommendsa more in-depth examination of this topic and provides insights into the pedagogy, potentialactivities, and practical examples to help faculty better integrate the concept of tipping. Theexperimental results highlight the benefits of integrating the footprint concept in the tippingmodule.1. IntroductionThe Consumer Product Safety Commission (CPSC) report [1] estimates an
school year of2025-2026 [1]. A quarter system is based on three 10-week terms in the fall, winter, and spring,that gives enough time for a full 10-week summer term and, although less common than thesemester system, is prevalent across the United States [2]. A semester system is based on two 15 or16-week terms in the fall and spring. Our university was mandated to make this switch, with theprimary reason given to make centralized operations of our university system easier; we are thelast university campus (of 27) in our system on the quarter system [1]. This transition involvescompletely transitioning our entire curriculum in a university wide effort, requiring manydifferent perspectives and opinions. In approaching this process, we found
controlled. Wildfires are caused by variousreasons such as droughts, volcanic ignitions, thunderstorms, and human factors. In the last fewyears, the number, frequency, intensity, and severity of wildfires have increased worldwide.Forests are drier because of the global temperature rises caused by climate change. “Today’sflames are larger, more ferocious, and linger longer than they used to be in many regions of theworld. [1]”. Wildfires release huge amounts of carbon dioxide into the environment andsignificantly impact the local and global climate. Thirty percent of carbon dioxide in theatmosphere comes from forest fire [2]. The increase in the number, frequency, and severity ofwildfires is severely affecting countries economics, ecosystem, and
University California, Berkeley Vermont Clemson University McKendree University of University of University Colorado Wisconsin-Madison Colorado State Queens College - University of Vanderbilt University University CUNY Kentucky DePaul University Rutgers University University of Western Michigan Michigan UniversityAssessing the Current SET Instrument 1. Developing a competency modelSince no formal competency model for teaching had been developed at the University at the time,the Committee began with
, namely, Mechanical,Civil, Electrical, Chemical and Industrial, have courses on materials, both at the undergraduate andgraduate levels as well as funded research projects in materials. Furthermore, the Faculty of Arts andSciences has similar emphasis in materials, in the departments of Physics, Chemistry, Biology and Geology.In sum, the Division of Materials of ASEE is of great interest for our academic improvement [1]. Hence, thispaper!Over the last few years, several natural and man-made phenomena have affected any progress of thissmall island. While the earthquakes and the hurricanes are natural phenomena, not disasters, COVID-19was certainly a man-made cataclysm. We had a severe earthquake, over 7 on Richter’s Scale, plus COVID-19 started
Hopkins University Whiting School’sEngineering Management & Leadership Course Complements Senior DesignIntroduction According to the Accreditation Board for Engineering and Technology (ABET), STEMgraduates must be “prepared with the knowledge, skills and aptitudes to meet workforcedemand” [1]. ABET adopted Engineering Criteria 2000, updated several times since, thatfocused on what students learn rather than what programs teach. The new framework includedskills such as “critical thinking, communication and teamwork” [1]. The guidelines areinfluenced strongly by industry workforce needs as hiring managers turn to ABET-accreditedprograms because they know graduates will have certain skills based on student outcomes” [1]. To prepare
Engineering DesignIntroduction/BackgroundIn its 2022 Report on the state of US science and engineering, the National Science Boardhighlighted the continued need to broaden participation in engineering [1]. This undoubtedlyrequires a multifaceted approach, with higher education playing a key role in attracting andretaining students who historically have been underrepresented in STEM. Evidence howeversuggests that many of these students experience disproportionately higher attrition rates fromscience and engineering programs [2]. In the same study, the authors note a common set offactors which plague attrition in engineering programs, including a lack of self-confidence orself-efficacy, unwelcoming academic climates, as well as sexism and
, as those served as excellent opportunities for students to engage with this subjectmatter in with depth. We share our lessons and challenges in attempting to find adequate means toassess this work in meeting long-term and far-reaching educational goals.INTRODUCTIONCulture and technology interact now more than ever in the history of engineering. While that hasfostered innovation from and into all sectors of life and society, thoughtful consideration of theethics of engineering endeavors and education has not kept up. While there are major ethicalimplications of engineering that go beyond simple academic thought experiments, engineerstypically graduate without a strong sense of ownership of their future ethical responsibilities 1 .Evidence
-curricular supports such as mentoring. His main research focuses on two research questions: 1) What would our energy system look like if we make the shift towards 100% renewable energy and how much would the system cost? The research focuses not on a single energy system (electricity, transporta- tion, agriculture), but the interaction among systems and taking a systems thinking approach. 2) How can learning and educational outcomes be improved with innovative instruction and co-curricular supports? His research has appeared in Discovery News, The Huffington Post, Scientific American, and Rolling Stone Magazine. His outreach to the community has been featured in many local publications. He has presented his work
knowledge depends on a student’shigh school experience as well as college coursework that may take the form of compositioncourses, technical writing courses, writing-intensive courses (WICs), or courses based on abroader curriculum with writing included in many courses (writing across the curriculum, orWAC). The authors of this paper have investigated student laboratory report writing performanceand the influence of each of these prior writing contexts. In prior work, we have described theinitial development of instructional modules that support engineering laboratory report writingwith a particular focus on instructors [1]. In this paper, we describe the process of refining thesemodules using a community of practice (CoP) approach. Thus, this
engineering education (EE) have played a significant role in thedevelopment of countries before, during, and since colonization [1]. Lucena & Schneider [1]remind us that while economic and political conditions may have differed across countries,engineers' primary goal during colonization was to transform nature into infrastructure to becontrolled, get a return on investments, and demonstrate superiority over indigenoustechnology. Across different colonizing powers, engineers filled a role in service to thecolonial project. Over time, as colonies became independent countries, engineering was - andstill is - considered an essential tool for helping these “traditional” societies on the path todevelopment [1]. In addition to engineering, formal
must produce. Conventional tensile testing machinesare available in a range from 0.02 N to 2,000 kN. However, to keep cost low for a mechanics ofmaterials instructional laboratory kit, it is desirable to target the lowest possible force that wouldbe useful in an educational lab setting on a benchtop machine.BackgroundCurrent laboratory-scale stress-strain tensile testing machines are large and expensive, typicallyrequiring institutional capital expenditure to acquire. As such, they are not easily accessible forremote learners, making tensile testing difficult to perform by students taking engineering classesonline. To be accessible and useful for engineering student learning, a benchtop replacement forbrick-and-mortar tensile testers must be 1
has been noted that the national graduation rate for Latinas with a Ph.D. inengineering is very low; only 91 (< 1%) of awardees in 2018- 2019 identified as Latina. Ourresearch investigates the interest of first year engineering students in research, which mightilluminate strategies for addressing the underrepresentation of Latinas in national Ph.D.engineering programs. The purpose of this quantitative study is to characterize early perspectivesabout research, graduate school, and becoming a researcher. A statistical analysis of the resultsfrom a cross-sectional survey was completed. A principal component analysis extracted thefollowing constructs: (1) research self-efficacy, (2) engineering research identity, and (3)perceived cultural
definitions: Identifying requirements, Develop Preliminary Design, DevelopDetailed Design, and Final System Design. The updated phase definitions were created toprovide more structure for the student teams and better capture what the school’s design processwas in practice rather than in theory.This paper will present the original and revised project phases and the review of the designprocess. This process should be of interest to programs with capstone experiences and other teamdesign project courses.BackgroundEngineering is a field that consistently updates with ongoing technological advancements. Theemployers of engineering graduates demand technical knowledge and other professional skills[1]; communication skills, teamwork, multidisciplinary work
tacklethe “messiness” of open-ended design problems.[1] Particularly in large first-year courses,implementing and assessing these open-ended design problems is difficult due to resource(space, staffing, time, financial, etc.) constraints. Finding an appropriate balance betweenconcrete and open-ended design projects is critical to maximizing students’ learning.ENGGEN 115: Principles of Engineering Design is a required first-year course in the Faculty ofEngineering at the University of Auckland. The course was re-designed in 2022 to emphasizedesign process over technical engineering, promote creative problem solving, and to test aconcrete/open-ended balance that might work for the combination of curriculum, student cohort,and faculty arrangement in
environment to be less supportiveoverall [1]. In terms of science, technology, engineering, and mathematics (STEM) majors,studies have also found that first-generation students are 6% less likely to complete a degree inthese fields compared to their continuing-generation peers [2]. Research focusing on theengagement of first-generation college students in engineering is a topic that has not been widelyexplored up to this point. Because of the present battles that first-generation students face, moreresearch on their engagement is essential to aid them in achieving their educational goals.This work-in-progress (WIP) research utilizes the National Survey of Student Engagement(NSSE) as the main data collection instrument [3]. This survey is 40 questions
be afraid of mistakes. In addition, students are more willing to learnfrom their mistakes, which we argue is the more meaningf ul approach to achieving effectivelearning because they are experiencing a better path and interactions for facilitating theirexperience that would result in remembering the learning and the process. I. Introduction The role of educators is to facilitate the students’ journey. Educators create safe space forstudents to learn, make mistakes, emancipate, and create an identity for themselves [1].Educators rely on conventional tools such as lectures, class activities, assignments, quizzes, andexams to educate their students. Over time, more research has gone into other effective learningtools. Research records