Universities (AACU), employersprioritized critical thinking, written communication, teamwork, and information literacy skills in theirnew hires [1]. However, recent graduates consistently rate their preparedness in these skills higherthan their employers do [1]; the largest gaps were found in critical thinking, communication, andinformation literacy. Project-based learning (PBL) is widely recognized as a valuable educational toolbecause it requires self-directed learning, communication, and teamwork [2], allowing students toacquire many of the very skills deemed most valuable in the professional world. It has been shownthat knowledge gained by working through ill-structured problems is deeper, more transferable, and isretained better [3]. While all
data visualization, in particular on the topics of time-varying multivariate data visualization, flow visualization, as well as information-theoretic algorithms, graph-based techniques, and deep learning solutions for big data analytics. © American Society for Engineering Education, 2022 Powered by www.slayte.com TreeVisual: Design and Evaluation of a Web-Based Visualization Tool for Teaching and Learning Tree Visualization Brendan J. O’Handley1 , Yuheng Wu2 , Haobin Duan3 , Chaoli Wang1 1 University of Notre Dame, 2 Peking University, 3 Huazhong University of Science and TechnologyAbstractTrees are a
programs have been a source of inspiration for more recruitment intoSTEM due to their integrated and interdisciplinary approach to learning and skill development [1–3]. Theavailability of such programs is one step toward meeting industry demands for highly trained science,technology, engineering, and math (STEM) professionals, which are growing at a rate not supported bycurrent post-secondary student enrollments [2, 4]. Pre-college efforts to excite students about possiblecareers in STEM have been made primarily in isolation from one another, including professionaldevelopment designed to prepare and train teachers to successfully implement a program and encouragestudent participation.The e4usa+FIRST program is an unprecedented effort that
, andtechnical writing, and more. The skills learned by this project were invaluable and importantexperiences within engineering. This Energy Wheel not only provides scientists and engineerswith more valuable information about alternative energy, but also is capable of educating theeveryday person about the basics of engineering as well as the importance of renewable resources.IntroductionThis paper shares a sample project illustrating a new teaching approach via innovation. One of theobjectives of the Experiential Engineering Education [1]-[3] and this paper is to reformengineering education by moving away from the boundaries of traditional classroom-basedapproaches to project-based approaches using real world situations. This new teaching approachcan
several adverse effects on humanperformance and health [1]. Workers suffering from exposure to the cold can experience thermaldiscomfort, increased strain, decreased performance, and cold-related diseases and injuries suchas frostbite and hypothermia. It affects people in a long list of industries. In -20°F temperatures, astrong wind can make it feel closer to -55°F, and frostbite can happen within 5 minutes [2]. In coldweather, our bodies constrict the blood vessels that keep our extremities warm and redirect thatblood flow to the core to keep our vital organs warm. As a result, our hands and feet get cold moreeasily and are more susceptible to frostbite, which results in the hardening of the skin.One common reason for cold hands is inadequate
student group.ReferencesAnderson, Amelia. "From mutual awareness to collaboration: Academic libraries and autismsupport programs." Journal of Librarianship and Information Science 53.1 (2021): 103-115.Anderson, Amelia. "Autism and the academic library: A study of onlinecommunication." College & Research Libraries 79, no. 5 (2018).Cho, James. "Building bridges: librarians and autism spectrum disorder." Reference ServicesReview (2018).Gaines, Kristi S., and Zane D. Curry. "The inclusive classroom: The effects of color on learningand behavior." Journal of Family & Consumer Sciences 29 (2011): 1.Lawrence, Emily. "Loud hands in the library: Neurodiversity in LIS theory &practice." Progressive Librarian 41 (2013): 98.McAllister, Keith, and
creating teams and assigning a group project isinsufficient to help undergraduate students develop teamwork skills. Instructors need to helpstudents become cognizant of their teamwork skills, such as conflict resolution, scrum values, andcultural self-awareness. In this research paper, we intend to understand the perception of studentsenrolled in a sophomore-level system's course regarding conflict resolution skills, scrum values,and cultural self-awareness. We also want to understand how the perception of these values isrelated to one another. In the light of this study, we want to answer the following research questions(1) How do students' reported conflict management skills relate to their reported scrum values? (2)How do students' cultural
discussion of ethical issues in the classroom prior to theinterview, yet instructor attitudes shifted markedly in support of incorporating ESR in theclassroom as a result of the interview process itself. Taking into account faculty’s perception ofobstacles to discussing issues of ESR in coursework, we propose next steps toward making ESReducation in the QIS classroom a reality.Introduction and backgroundEthics education is increasingly being recognized as an integral element of STEM education.Engineering disciplines have long recognized the importance of ethics in education, with theASEE issuing a statement on the importance of explicitly addressing ethics education in theclassroom as early as 1999 [1]. ABET lists 7 documented student outcomes to be
performance. In a collaborative effort, the instructor and the studentdecided together on the grade submitted. Students were asked to assign themselves a gradesupported by evidence (evidence could include instructor feedback; examples of growth,improvement, and independence such as learning a new skill or concept beyond the scope of theclass; and the students’ own sense for their mastery of the course material). The followingprotocol/procedure was used by both instructors for the interviews. First, in an online survey(posted on Google), students were asked to respond to the following questions: 1. If you had to give yourself a grade for this course, so far, what would it be
development described in the previous paper demonstrated the importanceof understanding the culture in which educational decisions are made, for those decisions area reflection of the society in which they are made. Opportunities taken, and opportunities lostare a function of those mores; for some a decision will be an opportunity to be taken, and forothers it will be an opportunity lost.This study confirms the importance of “culture” in educational decision making, be it interms of career choice, institutional status, or curriculum and teaching.Following a brief introduction, essentially a short precis of paper 1, answers to fourteenquestions derived from the philosophy of the Percy Report, and other elements of itsdiscussion are given in the light
reviewExperiential learning, or Experience Based Learning (EBL), as a pedagogy is well establishedand dates to the early 20th century and can be attributed as a basis for “active learning” [1].Considering the Index of Learning Styles (ILS) [2] as applied to Construction Students, they tendtowards active, sensing, visual and sequential learning [3] and [4]. Another way to express thedifference between learning styles may be made by using the definition of their major program.Students who enter Engineering Technology (ET) programs may be more interested in “broadlydefined problems” versus Engineering programs which may provide “complex engineeringproblems” [5]. From this perspective, it appears that hands-on, active learning or broadly definedengineering
throughout the world. By 2020, ASCE had conducted 44 week-long, in-person workshopswithout interruption for over two decades. The ExCEEd graduates returned to their home universities andapplied the lessons of this workshop to the classes they teach. The details and success of the ETW havebeen reported in many venues [1-12].In Spring 2020, the COVID-19 pandemic swept the nation and remained a persistent threat throughout2021. As a result, the in-person workshops scheduled for Summer 2020 and Summer 2021 were canceled.This paper is the second in a three-part series that describes and assesses how ASCE re-envisioned theExCEEd asa remote program during this difficult period. The first paper covers the creation of theExCEEd Community Exchange (ECX), a
www.slayte.com Increasing Students’ Group Processing Ability in a First-Year Engineering Design Course Through Scaffolded Team Reflection ExercisesIntroductionFor engineering teams in particular, team function is vital to success both in and out of theclassroom. However, student teams often struggle to identify and address problems within thegroup. Student teams need additional assistance with group processing—the act of reviewingmembers’ actions that were helpful or detrimental to achieving team objectives and determiningwhich efforts to stop, start or continue [1]. Given the importance of group processing in ensuringeffective cooperative learning, educators must understand and deploy methods to encourage thedevelopment of this critical skill
additional focus on developing leadership,entrepreneurial skills, and a success mindset. The goals of the project are to (1) increase the numberand diversity of students pursuing degrees in computing; and (2) Add to the body of knowledgeregarding best practices in computing education and promote the employment of computinggraduates to meet the local and regional workforce needs.The project team is led by the College of Engineering and includes THE Community College. Theproject brings together computing academic programs that are offered through the College ofEngineering and programs in the Honors College, an inclusive and unique college designed aroundhigh-impact educational practicesThe paper will address second year project activities including
studentsexhibited significant changes in Cognitive Empathy in Needfinding, but students did not exhibitchanges in affective or cognitive empathy in other design phases. However, by employing thesecond configuration, we found that students demonstrated significant and positive changes inImagine-Other Cognitive Empathy in two design phases (Concept Generation and SolutionEvaluation) while exhibiting no changes in Imagine-Self Cognitive Empathy. We also analyzedstudents’ written responses to an open-ended question pre/post-course. This analysis revealedthat, after participating in this course, students: (1) situated users as the primary rationale fordesign work, (2) understood addressing users’ needs as critical to design work, and (3) exhibitedbroadened
exploration of the in/authentic experiences of Black engineering interns (Work in Progress)AbstractIn this paper, we discuss the preliminary results of a project that explored the effect of internshipexperiences on racial and engineering identity development for nine Black engineering students,four women and five men. Specifically, within this paper we highlight the narratives of threeparticipants and outline how their internship cultures affected the extent in which they couldauthentically be themselves in the workplace. This was done through an extension of Faulkner’sconcept of in/authenticity as a theoretical framework [1], [2]. To understand the experiences ofthe engineering students, our methodology followed steps
the National Academy of Engineering [1] overthe last decade to increase the STEM workforce, there has been a resulting push to provide K-12students opportunities to explore fields like engineering. Now, there are many opportunities thatexist for students to explore engineering such as robotics programs, LEGO Engineering, andProject Lead the Way [2]. While these programs might be widely available, there may be timecommitments students have to make outside of the classroom or fees students might have to payto participate. In addition to these programs, standards like the Next Generation ScienceStandards (NGSS) [3] have been developed to integrate “core ideas of engineering design andtechnology applications” into science classrooms across the
’ curiosity and responses to uncertainty. Curiosity occurs when astudent encounters uncertainty and seeks to close a gap in knowledge [1], which can lead to deepand meaningful learning [2]. In research labs, students can extend and apply content they learn inclass and pursue independent lines of inquiry. We ask whether engaging in research experiencescan therefore support and promote students’ curiosity. Eight undergraduate engineering studentsworking in research labs participated in a semi-structured interview about their research andclass experiences. These interviews were coded for themes related to uncertainty and curiosity.This paper specifically investigates causes of students’ curiosity and their responses touncertainty. Students were curious
reconstructed as an onlineflipped classroom; the student performance was compared to that of the previous in-person, non-flipped sections taught by the same instructor. The paper discusses three main design aspects inimplementing an online flipped classroom: 1) syncing the material delivery paces withassignment deadlines, 2) multi-stage assignments on the same topic at incremental difficultylevels, and 3) web-friendly and well-defined deliverables for group problem-solving activities. Inboth sections offered as the flipped online classroom format in Fall 2021, remarkably highstudent participation was observed, with an average of 1.1 students absent out of 88 studentsthroughout the semester. Furthermore, compared to the two previous in-person, non
including cultural aspects critical to Hispanicsand by addressing specific challenges of pursuing an engineering career. With this program, padres andfamilia will be positioned as integral contributors to their student’s success.Extensive background research was conducted to inform the design and development of the EquipandoPadres program. This research had the following two major objectives: 1) Analyze existing programming – Inventory campuses to better understand existing parent engagement programs, with particular focus on programs in engineering and STEM as well as programs focused on supporting Hispanic parents. 2) Understand existing programmatic research – Conduct a literature review to better understand familial
driven purpose, with an externalpurpose, or with a negative connotation. We then performed a multiple linear regression analysisusing Least Absolute Shrinkage Selection Operator (LASSO) variable selection and found waysthat some perception of Calculus exams factors and math test anxiety are interacting with FYEstudents’ future-oriented motivation.IntroductionCalculus is considered an essential tool for engineers and, therefore, engineering majors are re-quired to take a sequence of Calculus courses [1; 2]. In these Calculus courses, students are typ-ically assessed via exams that constitute a majority of their course grade. Therefore, it is imper-ative to consider what messages Calculus exams are communicating to these students and howthose
1 Introduction Globalization, with its increasing effects on society’s morals and boundaries and industry functions, is a fact of the 21st century. Many construction projects today are performed by geographically dispersed multinational teams characterized by different knowledge and skill levels, dissimilar and sometimes conflicting routines, strategies and competencies, diverse access to information and technologies, and different cultures, languages, and time zones. These facts, along with the unique and usually complex nature of international construction projects, make issues such as forming orchestrated teams with effective communication, collaboration, coordination, and conflict resolution
of the ENGR 111 course was analyzed with independent samples t-test to explore ifthere were significant differences in these key constructs that could be ascribed to the onlinemakerspace format vs. normal face-to-face.1. Course DescriptionIn the fall of 2014, the J. B. Speed School of Engineering (SSoE) at the University of Louisville(UofL) commenced an endeavor to overhaul the institution’s existing course(s) focused onintroducing students to the fundamentals and profession of engineering. After a nearly two-yearperiod of development, the resultant two-course sequence, required for all first-year engineeringstudents, was inaugurated in the Fall 2016 semester [1-3]. The first component of this sequence,Engineering Methods, Tools, &
during the quiz assessment. Inthis paper, we will describe the assessment, reflection assignment, and coding scheme, and usecoded student data to test this hypothesis.Keywords: Reflection, Bloom’s Taxonomy, Critical-thinking, Fluid MechanicsAuthors: B.F. Yraguen, A. K. Lummus, H.E. Koolman, R.A. Moore, K.K. FuIntroduction The gap between engineering curriculum and practice has widened in recent years [1].According to employers, students graduating in recent years struggle to navigate less-definedproblem spaces, including navigating constraints and open-ended problem-solving as compared toengineers who graduated ten years ago [2]. Graduates now need additional training in theworkplace to “acquire missing competencies” [3]. Further
involve challenging the students to “gettheir hands dirty” by actually creating and executing an original set of procedures for a labexperiment that the students have devised. One example is part of an introductorythermodynamics course in which students are tasked with “designing an experiment with aspecific purpose such as determining the efficiency of a light bulb as an emitter of light.”1 This“hands-on” approach is believed to be commendable, and is herewith followed, since it providesdirect evidence to satisfy ABET criteria regarding design of experiments. According to their latest criteria for accrediting engineering programs, ABET specifies incriterion 3 (student outcome 6) that undergraduate engineering students should demonstrate
students from underrepresented groups to study and work in STEM fields.Johanna Milord Counseling PsychologyLisa Y Flores (Professor)Rose M Marra (Director) © American Society for Engineering Education, 2022 Powered by www.slayte.com Work in Progress: Faculty choice and reflection on teaching strategies to improve engineering self-efficacyAbstractThis work-in-progress paper seeks to examine faculty choice of teaching strategies to improvestudents’ engineering self-efficacy [1], [2] (belief in one’s abilities to successfully accomplishtasks in engineering) as well as their reflections on the effectiveness of the teaching strategy.Increases in self
education ecosystem is essential to effective educational outcomes andsocietal advancement [1]. Mobile devices such as smartphones, tablets, and tablet computersenable learning anytime and from any location [2], blurring the boundaries between formal andinformal learning [3]. When paired with effective pedagogy, mobile technologies can positivelyimpact the teaching and learning experience for students in high-demand science, technology,engineering and mathematics (STEM) disciplines, increasing the flexibility and ease with whichthey are able to pursue their education while developing their professional identities as engineers[1]. Student retention remains a problem in STEM programs [4-7]. In engineering, many studentsdo not even make it past their
changes. It is especially important to ensureunderrepresented students’ perspectives are not lost or muted within large data sets. Althoughqualitative research is critical, it can be extremely time consuming. A common practice inanalyzing qualitative data is to develop a coding scheme or framework to analyze data, trainresearch assistants (RAs) to apply the framework, ensure sufficient inter-rater reliability, andthen have RAs analyze the data [1-3]. Some researchers also discuss the use of machine learningor artificial intelligence to help throughout the qualitative data analysis process as anotherpathway to analyzing data [4-9]. This paper explores the idea of developing and using acomputer program to assist in coding open-ended survey
, teamwork, and networking. Students who earn a3.4 GPA and a 1050 on the SAT or a 20 on the ACT are guaranteed direct admittance into thePurdue Polytechnic Institute at Purdue University.IntroductionAccording to the Pew Research Center, Black and Latinx workers remain underrepresented inthe STEM workforce [1]. To increase diversity in the STEM workforce, Purdue PolytechnicHigh School (PPHS), a charter school based in Indianapolis, IN, was established to achievebroader academic and workforce goals. The school uses a competency-based model to engagestudents in the classroom. PPHS fosters a sense of community for students by cultivatingdiversity in teachers, focusing on project-based learning, and providing students with aconstructive and collaborative
these positive experiences were based onconnections made with students within the department as well as the friendly environment thatthe faculty fosters. These findings provide a first step in creating a user experience tool toevaluate student experience in engineering departments.IntroductionStudent voice has been increasingly integrated into the design and improvement of educationalexperiences. Student input is increasingly being solicited to enhance student satisfaction [1].Feedback from students has focused on curricular improvements. For example, student feedbackhas been used to solicit input on the used of flipped classrooms [2], course and lab structures [3],and overall course experience [4]. Especially during the COVID-era, student