and build excellent senior capstone projects even in thetime of physical isolation assuming that inexpensive rapid prototyping machines are available andappropriate pedagogical tools are implemented.1. Introduction Senior capstone projects are crucial components of most engineering curricula. They areoften used for assessing many student learning outcomes (SLOs) for accreditation purposes,recruiting of new students, and retaining the current students. These projects represent hands-onstudent-team efforts in engineering design and often require substantial laboratory andmanufacturing support using well-equipped machine shops and qualified staff. This workcompares three senior design project sets from three consecutive years (pre
cases by December 2019 due to a new virus in the cityof Wuhan, in the province of Hubei, in China 1 , considerably far removed from the continentalUnited States (US). Very little was then known about SARS-Cov-2 or COVID-19, especially tomany at the large U. S. research university in this study. The semester had reached its mid-point,Spring Break, when the World Health Organization (WHO) officially began using the globalpandemic terminology 2 . The virus had high transmission, hospitalization 3 , and mortality rates 1,4 .The carriers of the virus could be pre-symptomatic 2 or asymptomatic 4 among the manythen-unknowns of COVID-19 leading to many concerns about community transmission 5 . Tominimize transmission and overwhelming hospital resources
ecosystem model. She is also a Co-PI on an NSF S-STEM grant called ENGAGE which is working to make a more robust transfer pathway for local Community college students. Dr. Thompson is a Co-PI on an NSF ADVANCE grant called KIND with other universities within the CSU. She is a co-advisor to Engineers without Borders, Critical Global Engagement, and oSTEM at Cal Poly. © American Society for Engineering Education, 2022 Powered by www.slayte.com Work in Progress: Gamification of education: Using Bartle’s Taxonomy for inclusive educational practicesAbstractAccording to an online source [1] in 2021 “the average player plays video games for five hours aday
benefits easily explain the reason behind the growing incorporation ofglobal elements to engineering education in institutions around the world. However, the numberof study abroad students from the engineering field still lag that of other disciplines, such asbusiness, and liberal arts. As shown in Figure 1, in the United States, only 4% of all study abroadstudents in 2019/2020 are engineering students, whereas business and management studentsmake up 21% of the numbers (Institute of International Education, 2020). There are considerablereasons for this: academic rigor, administration hurdles, the need for separate bilateralagreements with each partner institution, the loss of institutional knowledge when a faculty oradministrator leaves the
students. Efforts to broaden participation in engineering haveachieved modest progress as students, especially those from historically marginalized groups,lack structured support towards academic success [1]. First-year, team-based design coursespresent a unique opportunity to foster inclusion through active, collaborative learningexperiences [2, 3].Undergraduate teaching assistants (UGTAs) often play an important role in building communitywithin first-year courses. UGTAs promote student engagement, serve as peer mentors, andimprove students’ perception of a course. Through their work, UGTAs build their own technicalskills, practice effective communication, and gain leadership experience [4-6]. UGTAs oftenreceive training on technical knowledge
of active learning. Content analyses of survey responses suggest that active learningin a remote setup is well perceived and helps the class attendance rate, despite some logisticchallenges with the hardware lab component.1. IntroductionThe COVID-19 pandemic has impacted education in different aspects. Several studies reported thechallenges with online teaching before and during the pandemic [1]–[5]. With the transition toremote instruction to mitigate the spread of COVID-19, many instructors and students expressedthat their experience has degraded compared to the regular face-to-face class meetings. Thestudents' attention spans in remote classrooms were lower than ever before. In addition, manystudents expressed that they feel that they no
reservoirs, housing construction, among others. He was also a Project Management Associate for a Habitat For Humanity housing project in the USA. (ii) RESEARCH: MiguelAndrés' research focuses on (1) decision-making for the design and construction of infrastructure projects, (2) the planning of sustainable, smart and resilient cities, and (3) the development of engineers who not only have solid technical and practical knowledge, but also social understanding for, through infrastructure, address local and global challenges on humanitarian, environmental, social and equity issues. (iii) EDUCATION RESEARCH: Related to STEM education, Miguel Andrés is developing and applying contemporary pedagogies and tools for innovation and
Minority-Serving Institutions. He also conducts research regarding higher education focused on the needs and interests of underserved populations and advancing understanding of Minority-Serving Institutions.Breanna Michelle Weir Bailey (Professor)David Hicks David Hicks is an Associate Professor in the Electrical Engineering and Computer Science Department at Texas A&M University-Kingsville. Previously he served as Associate Professor and Department Head at Aalborg University in Esbjerg, Denmark. He has also held positions in research labs in the U.S. as well as Europe, and spent time as a researcher in the software industry.Nitilaksha HiremathRajashekar Reddy Mogiligidda (Lecturer 1)Jingbo Louise Liu (Full Professor
development of the survey instrument is described, alongwith initial tests of validity and descriptive statistics reported from students majoring in computerscience and other fields.IntroductionComputing disciplines, as with many engineering disciplines, face a profound diversity challenge:white and Asian men are over-represented among students, professionals, and faculty, with othergroups underrepresented. Computing faces the additional challenge of a decade of surging demandfor professionals and increased enrollment in academic programs. Data from the ACM NDC [1]and Taulbee [2] surveys shows improved representation in awarded bachelor’s degrees, but theshift is not dramatic.One aspect of the larger problem stems from the fact that computer science
first-year students in the School of Computing and Engineering (SCE) at Quinnipiac Universitythrough the implementation of First-Year Academy (FA). Quinnipiac University, a privateinstitution in northeastern United States, is a comprehensive university with nine academic units,including SCE. Retention rate of SCE first-year students lags the national retention rate ofengineering programs. The goal of SCE is to have a retention rate that is on-par with the nationalaverage rate of 80% for persistence to sophomore year [1] in three years and to surpass it by fivepercentage points, at 85%, in the fourth year.Through institution-specific data, students in SCE tend to leave after their first year primarlybecause of struggles with the transition from
andknowing that we lacked the means to offer an Electric Machines lab via such a modality—aliterature search and a web search [1] - [4] were conducted to explore the available options. Thefindings of particular interest included a simulator that mimics the hardware/software in ourphysical lab [5] and a YouTube video describing a simulator that had been made asynchronouslyaccessible to remote students via a Linux utility.The appeal of the simulator we found is best conveyed by a summary of its capabilities.Students can use it to: place realistic “images" of equipment modules into a virtual workstation,add the necessary electrical connections, place a drive belt on machine pulleys, adjust instrumentsettings, take measurements using instruments having
operation of the garden lights andhow they can be modified to provide various laboratory exercises. Examples of laboratoryexercises are presented, and experimental results are discussed.IntroductionSolar panels, LED lighting, and rechargeable battery energy storage are used in manyapplications and products of everyday life. Many engineering technology students mayeventually find careers in fields that involve these energy conversion technologies [1]. Tointroduce first-year students to some of the concepts involved in these technologies and increaseawareness of solar energy [2], a laboratory exercise was developed around the components of aninexpensive solar garden light fixture. The laboratory is part of the introductory electrical circuitsand
Society of Professional Engineers, Cobb Chapter, a Member of the American Society of Engineering Educators ASEE, and a Member of the Institute of Transportation Engineers, USA. Dr. Okhio has carried out experimental and numerical investigations of, and developed statistical analysis tools and computer codes, for the numerical simulation/calculation of complex flows. He has been co-PI in a few successful research efforts including those related to NASA, WPAB, GE, NSF, NRO, ARO, ORNL, Honeywell, KCP, to name a few. He has also been the co-PI on Department of Energy sponsored Project called Minority Serving Institution Partnership Project MSIPP on Advance Manufacturing which involved the (1) use of research activities to
. 1 1. Introduction We live and work in a global environment that presents many new and universalchallenges for engineers and, as engineering educators, it is not sufficient to prepare students toonly understand the fundamentals of technical skills. We must also prepare them to workeffectively in global environments and across different cultures (Warnock et al., 2008, Stablein etal., 2022). With increasing awareness of the importance of undergraduate students to have globalexperiences and, in part, as a result of the global pandemic, the opportunity for CollaborativeOnline International Learning (COIL), though it has been around for 15 years, has recentlygained traction. COIL provides a pedagogical method to deepen the global
and awareness of the impact of climate change on their careerpath.Section 1: BackgroundThe University of Wisconsin-Stout holds the values of polytechnic education, based on the“Wisconsin Idea” – a long tradition that embraces the principle that education should influencepeople’s lives beyond the classroom. We strive to provide students with a learning environmentthat addresses current issues affecting their career path, and raises awareness of how theirknowledge, creative ideas, and communication skills will impact the world we live in. In thisspirit, cross-disciplinary faculty at the university of Wisconsin-Stout engaged studentsin developing a renewable energy system for a local building site. Students learned about thedesign process
interdisciplinary to appeal to students from all engineering fields but include technicaland discipline-specific content to aid students in career path decisions. Class sizes andpedagogical choices such as project-based learning are frequently constrained by the number anddisciplinary background of available faculty instructors.Prior work by our group has presented a framework for balancing competing curricular andadministrative needs [1]. Over the past six years, through stakeholder feedback and formativeevaluation, we have developed and continually refined a large-enrollment (ca. 650 students) one-semester FYE course taught by one to two faculty members. This course features a mixture ofinteractive didactic content and two multi-week, open-ended design
manufacturing methods. © American Society for Engineering Education, 2022 Powered by www.slayte.com Industry Hubs: Integrating Industry Perspectives in Design Education1 IntroductionThere is growing recognition globally that universities will need to adapt their curricula to ensurethey are graduating students who can succeed in our increasingly volatile, uncertain, complex,and ambiguous world. This call to action is being driven by many stakeholders includingindustry [1]; accreditation bodies who are beginning to require outcomes-based assessment [2];and internal university stakeholders [3], including students [4]. While there are manyframeworks which describe the
these marvels firsthand during the final two weeks of the term. This paper providesan overview of the Engineering Marvels course, including a list of topics covered, types ofassignments, a travel itinerary, and a cost breakdown for students, faculty, and the university.Lessons learned throughout the planning and execution of the course are also provided to helpfuture educators wishing to implement similar courses into their curriculum.Pedagogical MotivationExperiential learning is a type of active learning where students perform an activity [1], andadditional learning takes place when reflecting on the experience [2]. Field trips have beenshown to improve student motivation and lead to the development of personal connections withengineering [3
professoriate ages and due to the COVID-19 pandemic. The number ofnew faculty with disabilities is also expected to increase because greater numbers of individualswith disabilities are graduating with PhDs in STEM and are thus potential candidates for joiningthe professoriate [1]–[3]. Because students benefit from role models who reflect their ownidentities—as well as from exposure to instructors and mentors with diverse backgrounds—it isworthwhile to cultivate a diverse faculty, including disabled faculty [4]. People with disabilitiesbenefit from meeting or learning about role models and mentors that have navigated issuessurrounding accessibility and accommodations in education and employment settings [5], [6].The AccessADVANCE project was funded in
the course.IntroductionAt the onset of the Covid-19 pandemic in March 2020, most higher education institutions realizedthat face-to-face learning was suddenly untenable and unreliable causing them to consider up tofifteen alternative modes of instruction and content delivery for their students over the remainderof the 2020-2021 academic year [1]. One appealing and flexible alternative is known as hybridflexible, or the Hyflex course format.Hyflex is an instructional format that combines face-to-face and online learning. This approachwas first developed in 2005 at San Francisco State University [2]. In this model of learning, everyclass session and learning activity that is offered face-to-face in a campus classroom is alsooffered
in most mathand science classrooms. Students “develop computational thinking when they approach a new sit-uation with an awareness of the many ways that computers can help them visualize systems andsolve problems” [1]. In this program, students are exposed to the use of a computer to effectivelyprogram a useful tool for public safety. “The use of digital tools to test and compare solutions toan engineering design problem” [2] is demonstrated as students use Python coding to program thetraffic lights and as the instructor is able to provide real-time feedback to the students in a remoteenvironment.In our course, students were provided technical documents and were instructed on how to bestfind information in them in order to complete
requiring technical electives be taken. To consider this issue, a review of ABETCriterion 5 on the curricular requirements established by ABET for accreditation is helpful [1].Currently, ABET requires an engineering program to have 30 credits of math and basic science,45 credits of engineering topics, and a sufficient number of credits to meet a university’s generaleducation requirement. This last number will vary, but as an illustration consider it to be 21credits. This means that for a program which requires 120 credits for graduation, there are 24credits which the program can use at its discretion. In reality, most programs will use more than45 credits in engineering topics; in many cases, the program believes that more knowledge isrequired for
[1]. Declining costs are expected to continue [2], [3] and further promote thistransition. Solar energy represents a contribution towards such a transition and is a major growtharea for energy generation in the United States. The Inflation Reduction Act, passed in summerof 2022, has allocated hundreds of billions towards clean energy incentives [4] that will stimulategrowth of renewable energy in general, including solar photovoltaics (PV). The Department ofEnergy estimates that the US will need 1,600-3,000 GW of total installed solar capacity by 2050to meet climate goals [5]. Reaching this amount would necessitate quadrupling the currentannual solar deployment rate. Growth in solar jobs to meet these needs is already happening [6]and is
between Kansas, U.S. andKirgizstan, substantial cultural variances and mental models. The present report focuses on themost significant dilemmas faced by the students when working on complicated topics ininternational teams.1. IntroductionIn Spring 2018 one of the authors of the present study participated in Fulbright Specialist programin the Central Asian region (Uzbekistan, project FSP-P001840) helping the local faculty and schooladministrators to revise their STEM curriculums and research methodologies at the local hostinstitution of higher education. While being there, it was clearly noticed that Uzbek and Americanresearchers have different meanings for the same words or linguistical phrases. For example,concepts of “learning”, “conducting
mechanicalengineering course on Dynamics of Machines to (1) give students access to real-world learningexperiences and (2) explore and identify the ways in which an interdisciplinary design projectthat combines key components of EM, STEAM and bio-inspiration impacts students’ learning.The results include initial findings from a thematic analysis of the data collected usingphotovoice reflections. Adopted from the relevant studies in the literature in the context of EMcurricular activities, photovoice reflections combine pictorial and textual data and constitute aportion of the project’s conclusion section submitted by students. The paper then discusses futuresteps on the use of interdisciplinary design projects which provide real-world experientiallearning
at a four-year university isapproximately $1240 [1]. At the University of British Columbia (UBC), the average cost oftextbooks for undergraduate students rose from $893 in 2021 to $1,253 in 2022. As a result, astaggering 70% of undergraduates reported not purchasing textbooks [2]. The high cost oftextbooks can negatively impact students’ access to learning materials, course selection, andacademic performance [3, 4]. The COVID-19 pandemic has further exacerbated the situation,challenging institutions to continue working on innovative approaches to affordable andequitable higher education [5].Open education resources (OER) are learning resources that are openly licensed and freelyaccessible for users to adapt and share. The use of OER can help
Activity. She obtained a Ph.D. in English Literature from Chiba University in 2002. Her current main research interests are: 1) how including humanities courses in an engineering education curriculum can help students to gain flexibility, and an appreciation of equity, and a greater richness of ideas; 2) finding and solving the systematic issues impacting the effectiveness of engineering education, specifically in the context of project-based learnings; and 3) assessing the impact of interdisciplinary engi- neering project-based learnings. Below are her recent presentations at international conferences: WERA 2022, APAIE 2022, IIAI DSIR 2021, IIAI DSIR 2020, WERA 2019. She obtained the Outstanding Paper Award in DSIR
areas since this promotes theirscientific and technological advancement. It is well established that several factors areassociated with attracting and retaining students in the STEM fields, including an affinitywith the discipline, a sense of belonging, interest in the field, self-efficacy, and prioreducational experiences, among others [1, 2]. One indicator of academic progressioncommonly used in educational management is the student retention rate. Academicprogression reflects the ability of the educational institution to achieve the retention of itsstudents. High retention rates imply good institutional management, low dropout rates, and,consequently, positive economic benefits for the families of students and the State itself [3,4].Beyond
pandemic, andviolence against unarmed Black people brought the nation to a racial reckoning. Structuralracism in the form of redlining, lower pay, unequal access to education and healthcare, and manymore forms of institutionalized bias laid a foundation for disproportionate negative health andenvironmental impacts for minoritized groups in the U.S. [1], [2]. The coronavirus pandemic,whose peak in 2020 in particular had a disproportionate effect on Black and Latinx patients,highlighted the inequalities faced by these populations who often had higher exposure to thevirus, more underlying health conditions, and less access to healthcare than their whitecounterparts [3]–[5]. The Black Lives Matter movement and the protests following the murdersof