consideration of thestories we tell as scholars and helps move us towards more critical and nuanced modes ofrepresenting our participants.The Danger of a Single StoryIn her TED talk, Adichie describes how western media project the narrative of African countries.As a child, Adichie read many American and British books where the characters drank gingerbeers, talked about the weather, and had snow, which wasn’t typical in a country like Nigeria.These books opened new worlds for Adichie as a kid and her imagination of how these countrieslooked like. But as she grew up and discovered African books, she related more to them andrecognized herself in them. When she came to the US to attend university, her roommate wasshocked by Adichie’s English-speaking
,experiences, and skills. Guided by self-determination theory, an understanding of implicit biasand stereotype threat, and the large existing body of research on asset-based pedagogy, we seekto support engineering student outcomes by empowering faculty with tools and strategies toincorporate asset-based practices in their courses. We are engaged in a three-year project focusedon assessing the impact of asset-based practices in engineering design courses a large, public,land-grant, Hispanic-serving institution in the southwestern United States, funded by the NSFIUSE:EDU program. Here, we will summarize the design and results from our professionaldevelopment for faculty, including theoretical frameworks and evidence guiding our work. Weshare content
interested in software programming and User Experience designs. He is proficient with C, C++ and Python and familiar with JavaScript, PSQL, Intel FPGA Verilog and ARM Assembly(ARMv7-A). Personal Website: https://junhao.caDr. Hamid S. Timorabadi, University of Toronto Hamid Timorabadi received his B.Sc, M.A.Sc, and Ph.D. degrees in Electrical Engineering from the University of Toronto. He has worked as a project, design, and test engineer as well as a consultant to industry. His research interests include the applicati ©American Society for Engineering Education, 2023 WIP - A Face Recognition Application to Improve In-Person LearningAbstractA face recognition application that enables instructors
skills through START internshipIntroductionA shortage of 3.4 million skilled technical workers by 2022 (or 13% of the U.S. workforce ages25 and older) was predicted by the National Academies of Sciences, Engineering, and Medicine[1]. With the increasing demand for spatiotemporal computing skills in the real-world jobmarket, project-driven internships have become an important source of work experience forstudents with interests concerning geographic information systems (GIS) and related geospatialtechnologies [2]. However, while GIS internships offer benefits to college students, rarely do 2-year college students being trained in this field, even rare to see such internships being evaluated,especially during the
Engineering Education1. IntroductionThis paper presents a description of the first year of implementation of the Iron Range Engineering STEMScholars, funded by the NSF S-STEM award (Award #2221441). The scholarship program includesfinancial support as well as additional mentorship support for scholarship recipients within the Iron RangeEngineering (IRE) program. IRE is an experienced-based, upper-division engineering program, in whichstudents recruited primarily from community colleges around the country, complete their 300 and400-level engineering courses for a B.S. in Engineering while completing co-ops or industry projects. Thepaper outlines first the format of the scholarship program and a summary of the first year ofimplementation, then a
introduceinterdisciplinary topics in a variety of ways supported by the flexibility in homeschoolprogramming, like local cooperatives, online classes, local clubs, and STEM-focused museums[43].Extra- and co-curricular activities complement traditional schooling activities in both formal andinformal spaces. Sheridan et al. uses learning arrangements to describe the compositions of theseactivities, recognizing solo projects, collaborative group projects, equipment training, as labels tovarious making activities [44]. Studies have indicated the importance of students’ involvement inSTEM activities outside of school in developing a future interest in STEM [45]. Morespecifically, it has been found that while females tend to be more attracted to STEM throughschool
exposure toCS, there were very few aspirations for future careers in CS, and short term experiences likecamps weren’t enough to shift career aspirations. However, the researchers did find that girls needto build confidence in and become aware of CS-related coursework to pursue more CS-relatedexperiences [3].In an effort to meet the growing demands of diverse individuals with cybersecurity experience,CSforALL and the Air Force Junior Reserves Officer Training Corps (AF JROTC) collaborated todevelop an intervention that brings cybersecurity as well as computer science (CS) to highschools with JROTC programs across the country. This collaboration resulted in the creation ofthe JROTC-CS Demonstration Project, which launched in February 2020, one month
byreplacing the passive, teaching assistant (TA) led learning that happens in a traditional recitationsession with Peer-Led Study Groups (PLSGs) utilizing Treisman’s model of peer learning.Treisman’s model emphasizes small-group collaboration on the solution of difficult problems [2],[3]. In the PEERSIST model, thermodynamics students work on problems in groups of four tofive, as compared to a traditional recitation section size of 25.The project team initially piloted the PEERSIST model in Spring 2020 as an additional,voluntary hour of collaborative student problem-solving outside of students’ regularly scheduledcourse time. The pilot continued virtually over four semesters during the COVID-19 pandemic.Students in the pilot demonstrated higher
learning outcome identifier tags are used to link the questions on assignments, quizzes, projects,and exams to course outcomes and overall program outcomes. The goal of this pilot effort is to informimprovements to instruction, course design, course objective alignment, and program delivery. The tagdata collected from grading a given assessment is de-identified, cleaned, and entered in a SQL serverdatabase. This data is then processed in a Python-based visualization platform. BackgroundCourse- and program-level assessments help determine student achievement of learning outcomes andsupport data-driven decisions about instructional and learning improvements in courses and curricula. Atthe course level
Paper ID #40437WIP: A 3D-Printed Frames and Machines Activity in StaticsDr. Seyed Mohammad Seyed Ardakani, Ohio Northern University Dr. Ardakani is an assistant professor in the Civil and Environmental Engineering Department and the Coordinator of Statics for the T.J. Smull College of Engineering at Ohio Northern University. He has pre- viously served as Project Engineer at Englekirk Structural Engineers and Lecturer at South Dakota State University. He obtained his Ph.D. in Civil Engineering from the University of Nevada, Reno. His re- search interests include seismic performance and design of reinforced concrete
-in-progress paper presents our PBL redesign of the lecture portion of the coreundergraduate bioinstrumentation courses at WSU and UC Davis, and some preliminary resultson students’ performance and satisfaction.MethodsOur learning objectives for both sites are the same before and after PBL, which is to teachstudents about electronics measurement systems so that they could be better prepared forinstrumentation-related design projects (next semester for WSU; concurrent quarter for UCD).The current version of the lecture used in UCD is a slight rearrangement (due to lab equipment)and addition (due to allocation of academic units) of the version currently used in WSU.Our themed PBL redesign of the bioinstrumentation lectures focuses on general
innovation and economic prosperity nationwide.”The massive investment in time and resources by large businesses and governments will acceleratethe presence of more products that will stimulate human-machine competition in the job marketand at the same time will create a new work environment that can accommodate thousands ofqualified workers.Here, a hands-on project-based AI workshop created to engage and educate high school teachersis designed, implemented, and assessed. Its major goal is to change teachers’ perceptions of AIthrough increased knowledge of AI topics.While the major emphasis of this work is on the content and organization of the workshop, aneducational research question (To what degree the high school teachers engage with AI through
well as, in some cases, Brunel University London and Dortmund University of AppliedSciences and Arts. Two different collaborative courses were held over four semesters withlecturers from the four universities. One of these courses, the International Engineering Project,was based on the Engineering Design Challenge organized by Engineers without Borders UK.Students from a variety of majors (e.g., architecture, civil engineering, IT, electrical engineering,mechanical engineering, environmental engineering, sustainable systems engineering) worked incross-university and cross-discipline groups to solve design challenges for two low-incomecommunities in Peru, and in the following year, a disadvantaged community in Cape York,Australia. The second
Harmony Nguyen is a project coordinator in the Department of Psychology at Penn State University. She received her Bachelor of Arts in Psychology at California Polytechnic State University, Pomona. At Cal Poly Pomona, she conducted research in educational innovation and assessment. In particular, her research focused on supplemental instruction in engineering and how supplemental instruction can support underrepresented minority students in engineering. ©American Society for Engineering Education, 2023 A comparison of students' academic achievement and perceptions in HyFlex and non-HyFlex engineering courses1. Introduction and Literature review on the HyFlex instructional model
into the process to assistchemical engineering graduate students in obtaining robust results suitable for extending PhDthesis work to include fundamental and applied modeling along with experimental results. Wepresent up-to-date results on our latest module concept in creating a microfluidics glucosemonitoring system consisting of a flow chamber and a cell phone-based spectrophotometer.Finally, we conclude next steps for sustainability and continuation of the project, and lessonslearned on strategies for mass production for prospective large-scale distribution.IntroductionIntroducing active learning techniques into classrooms has evidential proof that it has positiveimpact on student learning [1]–[4]. Promoting active learning in undergraduate
, underrepresented minorities(URM) represent an average of 70-90% of enrolled students in both CE and SCMG majors. Aspart of our execution towards the goals and the activities, the project team has implemented thefollowing research plan and activities:Formalize the digital badge program in collaboration with the endorsing agencies: The researchteam met with real-world transportation agencies and collaborated with the North CarolinaDepartment of Transportation and the Institute of Transportation Engineers (ITE) as endorsingagencies. These agencies provided the inputs on the choice of badges and the potential list ofactivities to offer students.Create a digital interface: The research team implemented an interface where students can enrolland track progress
decision-making Leadership Formal and informal leaders, the organization’s expectations of themAlthough there are many definitions and frameworks related to organizational culture, [14] wasselected since it is situated in the university setting.MethodsStudy OverviewThe present study is part of a larger project that explored ethics and societal impacts education inengineering and computing. The aim of the mixed-methods project was to identify potentialexemplars of ethics and societal impacts instruction, including their context and impact onundergraduate students and recent graduates. The first phase of the project was quantitative, andover 1400 educators responded to an online survey. More information on the surveydevelopment and results is
Abstract Oscillators are a very important topic in undergraduate Dynamics, both in a lab and lectureproject setting. This paper shares our experience and lessons learned over many years using twosystems: (1) a low-cost translational damped oscillator instrumented with an infrared proximitysensor, along with LabVIEW and the myDAQ from NI in lab for use in a system identification(ID) problem and (2) a cable-based rotational oscillator in lecture as an integrated theory-simulation-design-manufacturing-measurement final project that permits determination of themass moment of inertia of a symmetric rigid body about a fixed axis. In each case, there is aspectrum of content, from mathematical modeling, to numerics and simulation usingMATLAB/Simulink
workforce. She is co ©American Society for Engineering Education, 2023 Fostering Inclusive Department Climates: A Workshop for Department Chairs at the University of DelawareThis evidence-based practice paper describes the development and implementation of aninteractive workshop for department chairs focused on strategies to foster inclusive departmentclimates at the University of Delaware (UD). Literature on the underrepresentation of women inSTEM suggests climate is a key factor in women faculty’s lower levels of job satisfaction andhigher rates of turnover. Building on this scholarship, multiple research projects at UD motivatethe need for institutional efforts to improve climate and the
Paper ID #38731Comparing Computational Thinking Competencies Across UndergraduateEngineering Majors: A Qualitative AnalysisMiss Na Zhao, Nanyang Technological University Zhao Na is an undergraduate student in the Bachelor of Accounting program at Nanyang Technological University (NTU) in Singapore. She is involved in the Undergraduate Research on Campus (URECA) program and is working on computational thinking projects as part of Dr. Yeter’s Research Team at NTU.Dr. Ibrahim H. Yeter, Nanyang Technological University Ibrahim H. Yeter, Ph.D., is an Assistant Professor at the National Institute of Education (NIE) at Nanyang
emerging state-of-the-art geospatial technology and 3D data analytics.Evolving geospatial industry labor markets are challenging the traditional skillsets developed atconventional S/G programs at colleges. Yet, higher education graduates may still lack decisionmaking and project application skills, and most importantly, the ability to apply the body ofknowledge from their academic training in college courses to solve real-world problems andmeet the skill challenges of the Fourth Industrial Revolution (4IR).To bridge the gap between theory and application of these relevant technologies for industry-ready graduates, hands-on exercises are developed and will be incorporated in a 300-levelphotogrammetry course for SET and Civil Engineering majors
agilityladders, there is no easily accessible method of gathering the data necessary to create and tracksuch a trend. This prohibits users from getting important feedback, which provisions for futuretraining adjustments and offers valuable mental encouragement. Such a solution would beattractive to competitive athletes looking to maximize performance as well as more “ordinary”users looking to improve their quality of life. As proven by the YMCA’s sudden growth becauseof “the real demand for [its] kinder, gentler approach and broadly accessible moves” people youngand old strive for exercises with tangible and measurable returns (Mull, 2022).The aim of this project was to eliminate the weakness of traditional agility ladders usingpiezoelectric (PZT
consistency (learning objectives, main course deliverables)while also allowing individual instructors autonomy over the design project themes and thedetails of course management. Each section of the course was capped at 30 students, but aninstructor could opt to let in a couple of extra students from the waitlist. Students typically workin teams with five students on both an introductory project (somewhat constrained) and a mainproject (very open-ended). The course teaches students an array of technical skills (design,hands-on manufacturing, circuits, Arduino) and professional skills (teamwork, communication).Each section of the course has two undergraduate course assistants who have previously takenthe course. There is also significant support from
Mathematics Education in the Teaching, Leaming and Edu- cational Leadership Department at Binghamton University. Her research interests include (1) examining individual’s identity(ies) in one or more STEM disciplines, (2) understanding the role of making a.11d tinkering in formal and informal learning environments, and (3) investigating family engagement in and interactions around STEM-related activities. Before joining BU, she completed a post-doctoral fellow- ship at Indiana University-Bloomington. She earned a Ph.D. in mathematics education from Clemson University.Dr. Peter N. Knox, University of Vermont Dr. Peter Knox is a postdoctoral associate with Project CORE at the University of Vermont. His areas of interest
) providing opportunities for leadership, mentorship,and networking.xxiiiThe Researcher Incubator technique developed originally by Traum & Karackattu was applied tosuccessfully engage URSP students in the research enterprise. xxiii The Researcher Incubator positsthat if students are 1) taught needed skills, 2) empowered by group work, and 3) vested withserious responsibility they will spontaneously find and/or develop whatever knowledge isrequired to succeed on the project.xxii This technique has proven effective to engage lowerdivision engineering students and even high school students in productive research.Two URSP freshmen were recruited into the project. These students enrolled in a research-for-credit course in parallel with a classroom
strategies for female students to broaden theirparticipation in computing.As a part of the study, we collected data on the introductory course sequence, CS1 Introductionto Programming I, CS2 Introduction to Programming II, and CS3 Programming with DataStructure. The data included quasi-cohort course outcomes, quasi-cohort persistence, retentiongraduation, day 1 to census day enrollment, completion by transfer status, outcomes by major,and student support. In addition, to understand in-depth the level of preparedness and the level ofsatisfaction of women and minority students in computing, we also collected additional data.This effort included collecting the results of midterm exams, quizzes, course projects,assignments, and the final exam from CS1
hydrologic computer models arecreated for present and developed site conditions using information from CAD-file site plans andon-line resources. The longer studio meeting times also allow for incorporation of a class fieldtrip (week 10) to an active construction site and stormwater management facilities wherestudents can see the practices learned in class put to use. The emphasis on active learning ismanifest in the grading scheme for the course. The two exams are worth only 40% of the overallgrade while the before-class quizzes, problem sets, projects, and other active learningassignments are worth the balance.The “studio” designation for classes organized in the longer class-time studio format providesstudents with a more accurate expectation for
positive impacts of diverse thinking in STEM and how to negotiatediversity to the benefit of a team, project, or product. The same students may then be instructedto use number-based peer-assessment tools that compare team member task completion to thedetails of the team contract. The expectation is that such assessment will address team discord,despite the students never being expressly taught about conflict types, resolution strategies, orthe constructive aspects of well-managed conflict in communication and team settings. Such anapproach invites well-organized complaining based on a narrowly structured and poorlyunderstood team contract from students who may have little to no understanding of or patiencefor perspectives and ways of being that
. Students’ attrition occurs most frequently in the first and secondyear of their academic programs; in fact, more than 60 percent of dropouts occur in these years.These rates are especially troubling for undergraduate STEM students from historicallymarginalized communities. Several factors play a significant role in STEM undergraduatestudents’ attrition, such as poor-quality teaching and advising, curriculum difficulty, lack ofbelonging, lack of interaction between students and faculty, financial difficulties, and lack ofhands-on project activities. The goals of this paper are to (1) identify the main factors that hinderundergraduate STEM students’ interest, success, and perseverance, particularly those frommarginalized communities, which
. ©American Society for Engineering Education, 2023A reimagined first-year engineering experience implementation: Structure, collaboration, and lessons learned.AbstractThe reimagined first-year experience at Oregon State University for engineering and computerscience students was first implemented during the 2021-2022 academic year. The newEngineering+ Program is innovative because it was designed to holistically support students asengineers (through redesigned curricula and through co-curricular events), students (throughengineering relevant social justice content), and community members (through team-baseddesign projects matching student interests to interdisciplinary technical themes).The curricula developed by the 40 participating faculty