Paper ID #47049BOARD # 326: BASE Camp at Mines: NSF BPE Track 4 Phase 1: Year 1Dr. Danni Lopez-Rogina, Colorado School of Mines Danni Lopez-Rogina has a Sociology PhD from the University of Colorado Boulder with additional certifications in College Teaching and Behavioral Statistics. They work as a Post-Doctoral Researcher at the Colorado School of Mines. They specialize in race/ethnic relations, immigration, and social inequality. Danni is interested in building programs and curriculum that focus on shifting the tone from shame and anxiety on what people did not know to a proactive desire to rebuild institutions
Paper ID #48892Modification of a 1-Person Submarine for Remote Control OperationMr. Vamsi Sripada, University of Bridgeport Vamsi Sripada is a Engineering Assistant at University Of Bridgeport, Bridgeport, Connecticut. Vamsi’s work is related to Electrical and Electronic Systems focused on the projects in Extreme Environment Lab under the supervision of Dr. Jani Pallis and received his MSc in Electrical engineering Degree in Dec 2023.Mohammad Omar AL-Torzi, University of Bridgeport Mohammad Al-Torzi received his Master’s degree in Mechanical Engineering from the University of Bridgeport. His academic background
MATLAB LiveScripts are considered helpful in improving MATLAB skills in upper-level courses [4]. Thecollaboration, development, implementation, and lessons learned during this process weredocumented and presented at FYEE2024 [1]. After positive feedback during the 2024 FYEEconference and another year of piloting the Activity Centric pedagogy, the self-paced MATLABLive Scripts have been further refined with clearer directions and continue to be a good learningtool in a classroom with a wide range of learning skills.Workshop participants will receive the contents of and engage in Module 1 which spans five,ninety-minute lectures for class sizes of approximately 30 students. The Module begins with thehands-on activity, Bungee Action Figure [3
. This paper outlines the experiences and insights gathered by the researchers,offering valuable guidance for future teams undertaking similar studies. The objective of theresearch is to illuminate the distinct factors that influence the educational decisions of Blackstudents, thereby enhancing the understanding of diversity within STEM disciplines. Byexploring these motivations, the study aims to inform educational policies and practices thatcould better assist underrepresented groups in their pursuit of STEM careers.Literature ReviewThe dynamics of researcher interactions during collaborative grant projects have beenextensively studied, revealing critical insights into the nature and impact of these collaborations.Bian et al. [1] emphasize
Paper ID #46937Lessons Learned: Adoption of ASCE BOK3 Student Outcomes Consistentwith ABET 1-7Prof. James H. Hanson, Rose-Hulman Institute of Technology Dr. James Hanson is Professor and Department Head for Civil & Environmental Engineering at Rose-Hulman Institute of Technology. His teaching emphasis is structural analysis and design. He has conducted research on teaching students how to evaluate their analysis results.Dr. Kevin G. Sutterer, Rose-Hulman Institute of Technology Kevin Sutterer is Professor of Civil Engineering at Rose-Hulman Institute of Technology in Terre Haute, Indiana.Dr. John Aidoo, Rose-Hulman
Engineering Technology Students Acquisition of theEngineering IdentityAbstractThis paper presents a work in progress (WIP) for an NSF project examining first-generation (FG)engineering technology (ET) students, focusing on their academic performance, development ofengineering identity, and utilization of social capital in comparison to continuing generation(CG) peers. This project employs a two-phase mixed methods approach. It will evaluate theacademic performance of FG versus CG engineering students while leveraging the theoreticalframeworks of engineering identity development [1] and social capital [2] to explore theirexperiences. The project's aim is to inform the design of a comprehensive program that enhancessupport for engineering technology
Paper ID #47482BOARD # 223: AI-UPP IRES Year 1: Program Development and InitialLessons LearnedProf. Mark A Chapman, University of San Diego Mark Chapman is an associate professor at the University of San Diego in the Department of Integrated Engineering. His interests lie in the fields of skeletal muscle mechanics, muscle disease, exercise physiology, international education and engineering education. He earned his MS and PhD in bioengineering from the University of California, San Diego and a B.S. in biomedical engineering from the University of Minnesota. ©American Society for Engineering
Paper ID #49224BOARD # 258: IUSE: Cohort 1 Results of A Model for Human-CenteredEngineering EducationDr. Amber F Young-Brice, Marquette University Dr. Amber Young-Brice is Associate Dean for Academic Affairs and an Assistant Professor in Nursing at Marquette University. She has a master’s degree in nursing education, a PhD in nursing, and is a certified nurse educator with 15+ years of teaching experience. Dr. Young-Brice’s program of pedagogical research explores the relationship between the influence of non-cognitive factors, such as grit and self-regulated learning, and the successful trajectory of students
Paper ID #45250Work-in-Progress: Development of an HBCU/Research 1 Collaborative toIncrease African American Semiconductor Manufacturing ResearchersDr. Laura Sams Haynes, Georgia Institute of Technology Dr. Laura Sams Haynes is faculty and Director of the Office of Outreach in Electrical and Computer Engineering at the Georgia Institute of Technology in Atlanta. Laura is passionate about developing and launching various outreach initiatives for K12 Atlanta Public Schools (APS) partners, including students and school counselors, as well as fostering HBCU partnerships, collaborations, and pathways, often with a focus on NSF
Paper ID #47038BOARD #122: Using Internships as Means for Indirect Assessment of ABETCriteria 3 ”1-7” Student OutcomesDr. Robert B Bass, Portland State University Robert Bass, Ph.D. is an associate professor in the Department of Electrical & Computer Engineering at Portland State University. His research focuses on electrical power systems, particularly distributed energy resources. ©American Society for Engineering Education, 2025 Work In Progress: Using Internships as Means for Indirect Assessment of ABET Criteria 3 “1-7” Student OutcomesMotivationThe Electrical &
Paper ID #46630BOARD # 474: Years 1 & 2: Investigating the Computer Science as a Career(CSAC) S-STEM Program and Computing Identity Development for Studentswith Financial NeedDr. Sarah Rodriguez, Virginia Polytechnic Institute and State University Sarah L. Rodriguez is an Associate Professor of Engineering Education and an affiliate faculty member with the Higher Education Program at Virginia Tech. Her engineering education research agenda centers upon engineering and computing identity development of historically marginalized populations at higher education institutions. Currently, Dr. Rodriguez is involved with several
Paper ID #48301BOARD # 226: ASEE Faculty Teaching Excellent Task Force: IUSE ICTCapacity Building grant results and Level 1 Registered Engineering EducatorPilot RolloutDr. Donald P. Visco Jr., The University of Akron Donald P. Visco, Jr. is the former Dean of the College of Engineering at The University of Akron and currently a Professor of Chemical & Biomolecular Engineering.Dr. Jenna P. Carpenter, Campbell University Dr. Carpenter is Founding Dean of Engineering at Campbell University. She is Chair of the ASEE Long-Rangge Planning Committee and the ASEE Strategic Doing Governance Team. She is a past Vice President
Paper ID #45718BOARD # 228: Can we improve student success and retention by trainingundergraduate civil engineering majors in effective self-regulation of learning?(NSF IUSE:EHR ESL Level 1 Grant)Dr. Ann (Beth) Wittig, City College of New York at City University of New York (CUNY) Dr. Beth Wittig is a licensed professional environmental engineer and LEED Accredited Professional, with a Ph.D. in chemical engineering. After years as a consultant and field engineer, she is now an Associate Professor at The City College of New York, the chairperson of the Department of Civil Engineering, and an ABET program evaluator
Work in Progress: Can studio-style instruction promote the application of engineeringprinciples in biomedical problem solving. Analysis of type 1 diabetes treatment designssubmitted by biomedical engineering students in their sophomore and junior year studio.Mridusmita Saikia1 and Stephanie Fuchs11Meinig School of Biomedical Engineering, Cornell University, Ithaca, NY, USAAbstract: Solving complex global problems requires innovative thinking and efficient design. Inour role as engineering educators, we endeavor to create the future generation of engaged andcreative problem solvers. In this study we explore whether studio-style instruction, a pedagogicaltool recently incorporated into our biomedical engineering curriculum, can be used to
works issued aspart of the U.S. Atomic Energy Commission (AEC) depository program. From the mid-1940s to mid-1970s the U.S. Atomic Energy Commission (AEC) operateda depository program with selected libraries. The program distributed technical informationabout atomic energy in various formats – paper, microfiche, microopaques. - and receivinglibraries were tasked with making these materials available to the public [1]. While there wassome overlap with AEC material distributed via the Federal Depository Library Program(FDLP), the majority of items – hundreds of thousands of titles – were distributed only via theAEC depository program. These library collections remain largely invisible primarily due to thelack of cataloging. Historically
inequities [1]. Several studies highlight the broader challengesfaced by this population in STEM education and higher education. For instance, a studypublished in Educational Researcher found that minority students are disproportionatelyunderrepresented in special education, including programs that could lead to STEM fields [2],[3]. Additionally, research on inclusive higher education programs indicates that students withintellectual disabilities often lack access to postsecondary education opportunities, limiting theirparticipation in fields like engineering [4]. These systemic barriers contribute to theunderrepresentation of individuals with intellectual disabilities in engineering design and relateddisciplines, further reinforcing inequities
,leading to increased wear and tear on components and a reduction in their operational lifespan.A solution to this problem could save companies money in repair and replacement costs, as wellas reduce production downtime associated with equipment failure. Regular monitoring of greasecontamination is therefore essential.To address this issue, researchers at Louisiana State University (LSU) developed an effectivemethod for assessing grease contamination by measuring the contact angle between a greasedsurface and a water droplet, as illustrated in Figure 1. This figure shows how the contact angle ismeasured between a greased surface and a droplet of water [1]. They have teamed up withKoehler Instrument Company, Inc. to develop a reliable, compact
. To achieve this goal, new and relevant techniques must continue to bediscovered to keep up with the industry's growth. The primary factor moving forward in theindustry is reducing carbon emissions as environmental issues such as global warming continueto rise. Global warming is a growing problem, and carbon emissions are the main contributor tothis issue [1]. Carbon emissions profoundly affect the environment, primarily through climatechange. Carbon dioxide (CO2) is a greenhouse gas (GHG) that traps heat in the Earth’satmosphere. Earth needs greenhouse gases to keep the average surface temperature abovefreezing. However, by adding additional carbon dioxide to the atmosphere, society issupercharging greenhouse gases, causing global
inclusive engineering education.IntroductionThe construction of the U.S. interstate highway system—spanning nearly 41,000 miles—was amajor engineering achievement of the 1960s. However, this period of infrastructure expansionexacerbated racial inequities across many American communities. Numerous highways wererouted directly through vulnerable urban areas, predominantly Black neighborhoods, furtherentrenching segregation and displacing residents [1]. Civil engineers of the time oftenoverlooked the social ramifications of these large-scale projects - sometimes unintentionally, butat other times deliberately. Historically, engineering education has primarily emphasizedtechnical skills, fostering a disconnect between engineering practices and the
engineeringcourses, then a results and discussion section, and finally a section to conclude.BackgroundLiterature ReviewThere has been an argument for giving social science issues more prominence in engineeringcurricula, as a thorough understanding of the social world is crucial to successful engineering [1].Holistic engineering education combines traditional engineering coursework with subjects likeeconomics, sociology, psychology, business, and other disciplines, creating engineers who arecapable of leading multidisciplinary teams and driving innovation [2]. In essence, holisticengineering education integrates all knowledge to some purpose [3]. The aim is to produceengineers who are capable of engineering in sustainable and socially responsible ways.In
plausible [1]. While the nuclear industryhas long sought to increase its workforce, the United States’ recent commitment to triple itsnuclear capacity by 2050 has intensified this need [2]. National Labs and the private sector alikeseek employees with nuclear and nuclear-related expertise, even as student and public interestremains somewhat lower than other engineering disciplines and careers [2]. At the same time, thenuclear community continues to seek a diverse workforce, knowing that diversity improves workquality and innovation across project teams and organizations. Nuclear engineering as adiscipline has also committed to, in recent years, rectifying injustices of the past, whereminoritized communities were taken advantage of
components of the learningenvironment, such as levels of student engagement, student performance in the course, andstudent ratings of the class. Understanding the implications of class time in engineering could bea significant factor in improving student success rates. In the current study, the implications ofstart time on student engagement, student perceptions, and academic performance in two secondyear public engineering courses are investigated.This study includes data from multiple semesters of each course during which the classes havebeen offered at varying times between 8:30 am and 1:55 pm. The course content and structurehave remained consistent across the semesters. Department logistics determined the schedulingvariations and created an
been identified as one’sconfidence in successfully performing tasks associated with conducting research and has aninfluence on research-oriented goals, expectations of performing research, and effort spent onconducting research [1], [2]. Importantly, the research training environment is a predictor ofstudents’ self-efficacy beliefs. Critical is the student’s belief that their training environmentsupports and promotes research and independence [3]. Mentorship has been found to be asignificant predictor of self-efficacy regarding general research methods, which is a componentof overall research self-efficacy for graduate students [3]. Recent research shows that peers andmentors have a “deep impact on the level of self-efficacy and persistence
California wildfire map for the year of 2017, we can use ‘I need a map showing theburnt areas due to wildfire in California use for 2017’. Based on the input, the Chat GPTplatform provides the code required to put in the GEE platform. While working on it, we facedseveral challenges to have an accurate map because of the image source. There can be severalsources from which we can obtain satellite images. Based on the accuracy of the source file, theoutput image quality may vary.In this study, we have looked at three different datasets for acquiring satellite images. Below is adescription of the dataset, source, and relevance to our project. 1. MODIS Active Fire Detections (MODIS, 2023) • Description: Near real-time detection of fires using
choose LTspice over other commonly used SPICE based circuit simulation software suchas PSpice and NI Multisim? The main reason is that LTspice is both full-featured and freelydownloadable [1], [2]. A major advantage of using LTspice is that it is free to students andfaculty in the truest sense; i.e., no licensing expiration issues, and no limitations in terms ofnumber of components and/or circuit nodes. There is also no limit to the types of simulation thatcan be run (dc operating point, transient, ac analysis, dc sweep, small signal transfer function,and noise analysis). Numerous SPICE directives are available, including parametric analysis,temperature analysis, Fourier analysis, and Monte Carlo analysis. The simulation skillsetdeveloped using
programmedto do so. Machine learning algorithms are used in a wide variety of applications, such as inmedicine, email filtering, speech recognition, and computer vision, where it is difficult todevelop conventional algorithms to perform the tasks needed [1-3].ML is an emerging area of importance for a wide range of applications. ML has become arevolutionary modern engineering tool to solve real-world engineering problems. It is essentialfor engineers to know how to apply machine learning algorithms to their large amount of datathat is generated by the sensors. Because of the availability of computing power, more and moreengineering problems have been reformulated and solved using this data-driven approach.The field of machine learning is growing
of thinking in STEM [1], [2], [3]. Creativity is a keyaspect of engineering education, but is rarely positioned as central to the training of engineers[4], despite its necessity in formulating ideas during the iterative process of designing, creating,and testing products. The work of engineers is critical to the development of real-world solutionsfocused on the needs of users, and an increased focus on creativity could play a major role innovel engineering designs.Our work draws on the connections between engineering education and crafting practices toinvestigate the role of crafting in engineering. In this work-in-progress paper, we seek tounderstand engineering undergraduates’ crafting and disciplinary practices, connections betweenthe two
growth of data science as adiscipline reflects the increasing demand for data analytics to address global challenges andoptimize processes in sectors including engineering and education. ASEE recognized thisrecently by establishing a Data Science and Analytics Constituent Committee in 2023 to “buildand support member interest in data science and analytics as it relates to engineering researchand education” [1].As higher education institutions continue to adopt new data science curricula, many academiclibraries are finding ways to support this shift [2]. This support ranges from more passivesupport, such as providing information through LibGuides and websites, to more active support,such as providing data science workshops [3] that include such
Fall2024, with 1,726 in Engineering alone [1]. With so many students, it can be challenging toadequately meet the breadth of needs and wants across the student population. The authorsbalance this by taking a cost-benefit approach to assessment. Broadly, we consider an eventsuccessful not just based on attendance, for that can vary greatly between small and large events,but also time and cost for developing these events. For low-investment programs, single-digitattendance is celebrated, especially in first iterations of events. For high-investment programs,success is measured relative to the work and cost of the program.The core mission of this work is to increase graduate students’ sense of belonging as part of thevibrant, large campus experience