historically marginalized populations at higher education institutions. Currently, Dr. Rodriguez is involved with several large-scale interdisciplinary research projects focused on institutional environments and STEM identity development are sponsored by the National Science Foundation (NSF) and the Kapor Center. In recent years, she was selected as an Early Career Awardee and Faculty Fellow with the American Association of Hispanics in Higher Education (AAHHE) and a NASPA Emerging Faculty Leader. She also received the Barbara Townsend Early Career Scholar Award by the Council for the Study of Community Colleges (CSCC) and gave the distinguished ASHE-CAHEP Barbara Townsend Lecture. To learn more about her current projects
, think-pair-share activities using real-world examples,polling on mechanics concepts, and strength-based projects. Classroom activities were carefullycrafted to align with neuroinclusive teaching practices, aiming to empower every student, withparticular emphasis on supporting those who are neurodivergent. Instructors and the threeteaching assistants provided consistent support during these activities, while students had theopportunity to explore the application of mechanical concepts in topics of personal interestthrough strength-based projects. Having a tenure-track faculty member as one of the instructorsenriched the experience, providing interested students with the opportunity to participate inresearch-focused strength-based projects using
Postdoctoral Researcher Award at the University of Michigan; and serves as a PI/Co-PI on multiple projects funded by the National Science Foundation. He currently serves in editorial capacity for the Journal of Women and Minorities in Science and Engineering, International Journal of Mechanical Engineering Education, and Journal of International Engineering Education.Jeff Knowles, Oregon State University Dr. Jeff Knowles is an engineering instructor at Oregon State University who began teaching courses in 2015. His current pedagogical research is related to barriers associated with implementing Evidence-Based Instructional Practices (EBIPs) in STEM-related courses and determining what affordances can be granted to overcome
focuses on devising new and adapting existing project-based learning pedagogies for educating the next generation of engineers. ©American Society for Engineering Education, 2024 WIP: An Interdisciplinary Subject on Hardware Accelerated ComputingAbstractIn this paper we report on the initial design and delivery of a hardware accelerated computingsubject targeted at an interdisciplinary cohort of engineering and computing students. Within thesubject, students explore different approaches to accelerating computationally intensivealgorithms through customized hardware, with a particular emphasis placed on the use of FPGAsand high-level synthesis (HLS) tools. The subject aims
engineering and management, road safety, public transportation, pavement design, and engineering education. He has more than 35 years of professional and academic experiences.Dr. Abdelhaleem Khader, An-Najah National University Dr. Khader is the head of the civil and architectural department at ANNU. He is an associate professor in Environmental Engineering with 10-year experience in graduate and postgraduate education, mainly: community-based learning, project-based learning, distant learning. and competency-based learning. He participated in many virtual exchange projects, including one between ANNU and two US based institutions (Clemson University and Bucknell University). Dr. Khader is a Fulbright Alumni and a IIE
effects of these tools.This technology has widespread application throughout the STEM field from writing/correctingcode in any language to brainstorming ideas for the next big project, or even producing fullywritten research papers (although not this one). However, LLM’s are not well understood andwhile many students hail them as a quick way to finish homework assignments, there areperceptions from students for both the positive and negative roles there may be in learning andunderstanding core concepts.This paper investigates the use of this technology and implications in and for the design process.In particular, large language models may be utilized to aid in generative forms of brainstormingas well as convergent synthesis of ideas, adding to
; Urban Design, CU Boulder d. Engineering Management Department, CU Boulder INTRODUCTION PROJECT DESCRIPTION 3 Action Research (AR): CONCLUSION Involves a systematic process of acting, observing, reflecting, and re- PALAR is a valuable framework for engineering
was the nation’s first in sustainability. His research, which has been widely published, focuses on renewable energy systems and sustainable building strategies to reduce the negative impacts of urbanization.Allison Antink-Meyer, Illinois State University Allison Antink-Meyer is a pre-college science and engineering educator at Illinois State University. ©American Society for Engineering Education, 2024 Smart Wireless Weather Station and Climate Console (Resource Exchange)STEM-based University Pathway Encouraging Relationships withChicago High schools in Automation, Robotics and Green Energy(SUPERCHARGE) is an NSF-sponsored project where universityfaculty and
, 2024AbstractThere is substantial opportunity for engineering graduates to enter the workforce to engage in afulfilling career and achieve social mobility. Still, there is a lack of adequate support forlow-income, academically talented students. The purpose of this poster is to describe theinterventions designed to support S-STEM scholarship students at Rowan University in the firstyear of our S-STEM project. Our S-STEM project objectives are threefold: 1) Providescholarships to encourage talented students with low incomes and demonstrated financial need toinitiate and graduate from engineering majors in the College of Engineering at Rowan Universityand subsequently enter the engineering workforce or a graduate program; 2) Develop a supportsystem that
), American WeldingSociety (AWS) and American Materials Society (ASM) International. ©American Society for Engineering Education, 2024 Assuring Student Success in Engineering Technology ProgramsAbstract. Being more diverse than traditional engineering programs, Engineering Technology(ET) programs offer a significant vehicle for advancing equity and inclusion in STEM educationand workforce. For example, the share of black students in 4-year ET programs is almost threetimes that of black students earning 4-year degrees in engineering (10.7 percent versus 3.8percent) [1]. Also, based on 2020-30 employment projections by US Bureau of Labor Statistics[2], there is a great demand for ET graduates (e.g. mechanical engineering
research paper synthesizes findings from two research grants studyingHyFlex instruction in a first-year design course. “HyFlex” is a method providing students with autonomy toparticipate in person or online and, in many cases, fluidly blends the two based on the instructor or students'individual needs. While HyFlex is not new, it has become more feasible since COVID, as technologies haveimproved and cultural acceptance of remote work has evolved. Our two funded projects have resulted in avariety of specific research studies that are published in papers. This research paper follows a compilationmethod to review and synthesize multiple findings, sharing each as data sources and draw conclusions acrossthe larger set of results with implications for
Paper ID #40960Effectiveness of Scrum in Enhancing Feedback Accessibility among UndergraduateResearch Students: Insights from Integrated Feedback Dynamics FrameworkSakhi Aggrawal, Purdue University Sakhi Aggrawal is a Graduate Research Fellow in Computer and Information Technology department at Purdue University. She completed her master’s degree in Business Analytics from Imperial College London and bachelor’s degree in Computer and Information Technology and Organizational Leadership from Purdue University. She worked in industry for several years with her latest jobs being as project manager at Google and Microsoft. Her
that meets twice a week. There is one 50-minute session and one 110-minute session. The shorter session is used to introduce important concepts through a traditional lecture session, and the longer session is used for the laboratory portion of the course.• The course consists of 6 laboratory sessions, a midterm project, and a final project.• Homework assignments are used to reinforce lecture and laboratory topics.Grading Policy:Homework 30%Laboratories 30%Midterm Project 20%Final Project 20%Pick and Place MechanismThe course is based on a recently developed pick and place mechanism [6] that is shown inFigures 1 and 2. The mechanism is a one degree of freedom (i.e., one motor as
biomechanics and orthopaedic research, and his pedagogical interests include first year engineering, computational analysis, and design. ©American Society for Engineering Education, 2024 Longitudinal Assessment of the Achievement of the Desired Goals and Characteristics of a First Year Engineering Course RedesignKeywords: first year, design, course redesign, project-basedAbstract(Complete Evidence-based Practice)For nearly 20 years, the first-year introductory engineering course at Bucknell Universityfollowed a seminar-based format. This course was successful, but opportunities for improvementwere apparent in recent years. The desired outcomes and associated characteristics werereconsidered with the
Engineering Education from Virginia Tech. Prior to his current appointment, he worked as a Postdoctoral Researcher and Assistant Research Scientist at the University of Michigan. He is the recipient of the 2018 Outstanding Postdoctoral Researcher Award at the University of Michigan; and serves as a PI/Co-PI on multiple projects funded by the National Science Foundation. He currently serves in editorial capacity for the Journal of Women and Minorities in Science and Engineering, International Journal of Mechanical Engineering Education, and Journal of International Engineering Education.Dr. Maya Menon, New Jersey Institute of Technology Maya Menon is a Postdoctoral Research Associate at New Jersey Institute of Technology. She
faculty development. ©American Society for Engineering Education, 2024 Reframing Racial Equity Year 2: Examining Scripts of WhitenessOverviewThis EHR Racial Equity project, sponsored by National Science Foundation’s Directorate forSTEM Education (EDU)/ Division of Undergraduate Education (DUE), aims to shift the wayfaculty understand racial equity in engineering education. Rather than treating“underrepresentation” as a problem that needs to be solved (representation is not the same aspower, after all), the literature illustrates that the culture of engineering creates an inhospitableenvironment for students and faculty of color [1], [2], [3]. The invisible and normalized nature ofWhiteness has led to
problems, developing knowledge that supports designers and decision-makers. Dr. Layton is an expert on bio-inspired systems design, with a focus on the use of biological ecosystems as inspiration for achieving sustainability and resilience in the design of complex human networks/systems/systems of systems. Examples include industrial resource networks, makerspaces, power grids, cyber-physical systems, supply chains, innovation processes, and water distribution networks. ©American Society for Engineering Education, 2024 Quantitative Network Analysis for Benchmarking and Improving Makerspaces: Project OutcomesAbstract: Makerspaces on university campuses have seen
Professional Engineer (Alaska), Project Management Professional, LEED Accredited Professional in Building Design and Construction, and Envision Sustainability Professional. His research interests include engineering education; infrastructure; sustainable design; and clean, renewable energy. ©American Society for Engineering Education, 2024Integrating Professional Credentialing in Sustainability into Civil Engineering Curriculum: A Case StudyAbstractThe concept of sustainable development rose to prominence with the publication of OurCommon Future as an output of the United Nations’ Brundtland Commission. Recently,increased emphasis on the impacts of climate change and globalization has
earlier, allowing students to focus on‘understanding’ the content rather than just ‘knowing’ the content [8]. The difference being thatlecture based teaching tends to focus on theory and strict processes, limiting students to findingone particular ‘right’ answer. Active learning methods, such as flipped-classrooms,think-pair-share activities, and case study reflections, push students to defy their normalcognitive boundaries of what engineering “is” [9, 10]. This education method can ease the oftenfrustrating transition that seniors experience during capstone design courses where students areexpected to translate isolated concepts learned in classrooms to suddenly very technicallycomplex projects [11]. The frustration that students experience
two middle school afterschool STEM clubsthat are implementing youth-led design workshops into their program. Along with the researchteam and afterschool coordinators, youth leaders design and develop engineering workshops thatpromote belonging in engineering and center preventing harm (in engineering). In these designand development meetings, youth leaders learn about technologies that are new to them, identifyproblems in their communities, and work with the team to design each session of the workshop.In sharing ownership of the project, we hope to further the sense of belonging and solvecommunity-based issues. In the poster-presentation, we will report on the early findings andlessons learned during the implementation of this program.Goals
considerations by promoting sustainability andresponsible resource use [4]. Social responsibility involves engaging with communities tounderstand their needs and concerns. Engineers should actively involve local communities in thedesign and implementation of projects, ensuring that solutions meet their requirements andrespect their cultural values. Engineers should prioritize environmentally sustainable practices,considering the long-term impacts of their projects on ecosystems and natural resources.Global competencies and social responsibility are particularly important for chemicalengineering undergraduate students to understand for several reasons. Chemical engineers oftenwork on projects and processes that have a significant impact on society and
) program he was the instructor of Coding Academy in which he was able to teach Python to high school students from various backgrounds.Stephanie Weiss-Lopez Stephanie Weiss-Lopez has overseen GEMS since 2020 as a Project Manager and Coordinator. Ms. Weiss-Lopez is a UIW alum with a degree in Meteorology, currently the AVS Laboratories Project Manager, and an MBA student at UIW. She has over 18 years of management and leadership experience and has been a member of the AVS labs since 2018. Ms. Weiss-Lopez has experience in personnel development, scientific research, and grant writing. During Ms. Weiss-Lopez’s leadership GEMS implemented and distributed over 450 free STEAM kits during the COVID-19 pandemic. Ms. Weiss
) supportsystem now includes a semester-long faculty learning community (FLC), individualizedmentoring, and professional development and courses for STEM teaching assistants and graduatestudents. Working as a team that includes engineering, science, and writing studies faculty,academic professionals, and graduate students, we approach the problem using atransdisciplinary action research (TDAR) framework [12], [13], simultaneously trying newinterventions and researching their effectiveness. Our interventions are co-designed and co-delivered. Our research is similarly transdisciplinary, from the data collection and analysisthrough synthesis into manuscripts and future interventions.One current project examines the effectiveness of this support system at
Exploration to Develop an Engineering Identity in Low-Income StudentsAbstractEast Carolina University (ECU) was funded by a multi-institutional Track 3 S-STEM Grant#1930497 in January 2020. The funds from this grant have been used to recruit and support threecohorts of students at ECU and three partnering community colleges. The project is referred tointernally as the PIRATES project for Providing Inclusive Residential and Transfer EngineeringSupport. In addition to funding scholarships, the research aim of this project uses Lee andMatusovich’s Model of Co-Curricular Support for Undergraduate Engineering Students [1] tostudy best practices in co-curricular support for both students who start their pathway towards
, Geometric Abstraction, and Mathematics as they relate toengineering and art. Woven into the theoretical content are hands-on projects where studentslearn basic sketching skills, hand build a ceramic still-life piece, visit local galleries andmuseums, and, using elements or art and principles of design, turn data into data visualizationsand data physicalizations: data-driven physical artefacts whose geometry or material propertiesencode data. Students use an adapted Jansen and Dragicevic [1] information visualizationpipeline to move from raw data to data wrangling to visual and physical presentation. This paperpresents examples of the process and concludes with observations and lessons learned.Figure 1. Informa0on visualiza0on pipeline. Jansen and
physicsprior to enrolling in project-based engineering courses. This pathway works well for somestudents but excludes many. Rather than serving as a gatekeeper, our integrated human-centeredengineering pathway will serve as a gateway, thus increasing retention and attraction toengineering, among all students but particularly among those currently struggling to find a placein engineering. We will furthermore develop a sense of community and professional identityamong students through a comprehensive approach that includes advising, mentoring,internships, research opportunities, outside speakers, and more.Our work is guided by four main research questions:1. Are we better able to retain students in engineering on a Human-Centered Engineering pathway?2
sense of belonging [5]. This is reflectedlocally in a university-wide survey conducted at our university, where more than 80% of studentsfelt they needed more support from faculty and around 64% felt they needed more opportunitiesto participate in classes [4]. From the authors’ experience, the lack of opportunity for engineeringpractice has a clear and notably negative effect on undergraduate clubs, impacting students’ con-fidence and ability to materially contribute to applied projects and pursue other independent andextracurricular educational opportunities. We found that the time constraints of a third or fourthyear engineering student dissuade them from joining clubs, leaving the majority of new club mem-bers as first or second year. With
connection toindustry and through changes in the four essential areas of a shared department vision, faculty,curriculum, and supportive policies.During the last year of this project, we conducted an audit of our activities taken during the six-year project to identify which were most impactful for the culture building in the department andwere relatively easy to implement and adopt by other departments. We shared our audit processand results at the 2023 ASEE conference [1]. This audit process helped us identify ten significantendeavors, each of which included multiple activities. These ten endeavors include creating amission statement to drive culture change, fostering the new culture in retreats, improvingdiversity, equity and inclusion (DEI) in
Texas A&M University, which included over eight years of research experience on STEM education. Having spoken widely on STEM education internationally and throughout the US, Dr. Alaqra has also been part of large-scale STEM education research projects funded by the National Science Foundation, National Institute of Health, and Department of Education. Dr. Alaqra’s research agenda has emphasized culturally relevant teaching and learning through designing culturally sensitive learning environments for students to improve STEM self-efficacies and interests. Research interests include: STEM education, culturally relevant instruction, STEM self-efficacy, community-based learning, and 21st Century skills.Pamela
Paper ID #43071Sustainability-focused Digital Case Studies: Enhancing Engineering EducationDeepika Ganesh, University of Michigan Deepika is a second year Ph.D. student at the University of Michigan, School for the Environment and Sustainability. She specializes in Education for Sustainable Development (ESD) and is curious about informal education spaces, especially outdoor and digital spaces, and their role in contextual learning environments. Her most recent projects include program evaluation for the Next-Gen Scholars program aimed at first generation and underrepresented masters students in her department, and studying