structured support to new faculty through mentoring circles led by senior faculty mentors fromacross the college. The program aims to support new faculty in developing a comprehensive five-yearcareer development plan while building strong professional relationships and networks beyond their homedepartments through a strengths-based, Appreciative Inquiry framework.Faculty mentees include newly hired pre-tenure faculty across all tracks—tenure-track, research-track,and teaching-track. The program is intentionally inclusive of all appointment types to ensure that facultyfrom diverse backgrounds and roles benefit from personalized guidance and collective learningexperiences. There are typically 9 to 12 faculty mentees each year.Faculty mentors are
Paper ID #49549Visualizing and Identifying Patterns of Student Flow Through UndergraduateEngineering ProgramsDr. Bonnie S. Boardman, The University of Texas at Arlington Bonnie Boardman is the Undergraduate Program Director and a Professor of Instruction in the Industrial and Manufacturing Systems Engineering Department at The University of Texas at Arlington. Her primary research interests are in the engineering education and resource planning disciplines. ©American Society for Engineering Education, 2025 1
cancareer pathways for new entrants into Clean Energy be made accessible to disadvantagedcommunities?" The research questions determine what skills are essential for CE technicians,what pedagogical methods will best deliver the training, and how to engage candidates fromunderserved communities.This study uses a mixed-methods research plan with a qualitative practice interview and aquantitative online survey to better understand the problem and solutions [21]. Mixed methodsremove the limitation of simplified statistical analysis of quantitative data, allowing a qualitativecomponent for a more comprehensive analysis of the clean energy transition agenda, whichcomprises many political, social, and economic forces [21]. Although more labor intensive
Wheelock, Great Hearts Academy, Irving, TX Raziye Aghapour, Soulmaz Rahman Mohammadpour, Jaivardhan Sood, Victoria C. P. Chen, Ph.D., Erick C. Jones Jr., Ph.D. Industrial, Manufacturing, and Systems Engineering Department University of Texas at Arlington AbstractWe present K-12 educational lesson plans towards conducting college level research in engineering.These experiences are an extension of a National Science Foundation Research Experiences forTeachers project (EEC-2055705), where math and science K-12 teachers are trained to conductresearch on sustainable and resilient engineering systems in various disciplines. For
interest in STEM careers byempowering teacher leaders to enhance their own and their colleagues' effectiveness.Faculty and staff at MTU and NMU are collaborating for MTP to enact long-standing plans forcollaboration to improve teaching and learning in Michigan schools. The partnership betweenNMU and MTU leverages NMU’s strengths in teacher education in pedagogy and praxis andMTU’s strengths in STEM. The project is managed by the PI team at MTU in coordination withrepresentatives from NMU and an external evaluator from Western Michigan University.Program ObjectivesTwenty teachers with master’s degrees are supported as a cohort in their development asteacher-leaders. Years 1-2 of the teacher leadership programming will include training onleadership
simultaneouslyobtain teacher licensure. Students enrolled in this program take an introductory course (TPTE115: Intro to STEM Teaching) that includes instruction on STEM pedagogy, classroomobservations, and service-learning in local K-12 schools. To provide the pre-service teachersenrolled in this course with more exposure to engineering education, we combined this coursewith another existing course (EF 327: Engineering Design in K-12 Education). EF 327 wasoriginally designed as a service-learning course for engineering undergraduate students in whichstudents developed engineering-focused lesson plans and engaged in service learning byfacilitating after-school engineering clubs and family STEM nights at local schools. The newcourse (TPTE 115/EF 327) was co
valued theopportunity to learn topics beyond the scope of the traditional class, which they wouldn’t havebeen able to do in previous years. However, the full qualitative and quantitative effects of theseexperiences on students have yet to be analyzed.For future work, we plan to continue refining this rapid version of the course. Some issues withthe current setup include figuring out the best way to align topics with previous experiences.There were a few moments in the course where the pacing was off (either too slow or too fast)and will need adjustment. Additionally, the course instructors plan to reach out to all engineeringdepartments to understand if there are any additional topics that should be included in theapplications section of the
attends and presents refereed papers at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars, and workshops and has developed courses, videos, and software packages during his career. Najafi has more than 300 refereed articles. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, public works, and Renewable Energy.Dr. Rajarajan Subramanian, Pennsylvania State University, Harrisburg, The Capital College Rajarajan Subramanian currently holds the position of Associate Teaching Professor of Civil Engineering and Construction (SDCET) programs at Pennsylvania State University at
Telecommuting Expectation Models (TeEMs) for predicting the post pandemic Telecommuting Choice and Frequencies using Machine Learning Models. These ➢ Frequency Model models could aid Metropolitan Planning Organizations (MPOs) nationwide to forecast • Frequency model data was highly imbalanced, telecommuting, so that it can be incorporated into Travel Demand Models (TDM) to predict
, such as standardization of the searchprocess and commitment to DEI. Our results indicate that awareness of the barriers historicallymarginalized candidates face and knowledge of the best practices of effective teaching arecritical to an inclusive search. In future research, we plan to disseminate additional findings onfaculty conceptions of inclusive searches and their views on candidate fit. Research Team: Pathway to the ProfessoriateTo promote institutional change, it’s essential to understand why we should care about increasingthe number of Latine STEM TFF members. One way to underscore the crucial role of suchfaculty is by studying their experiences. We conducted 19 semi-structured interviews with LatineTTF in STEM
across campus are able to come together andinteract with each other gaining insight into the different approaches each discipline brings to thetable. A recurring theme noted in the anecdotal evidence: students who deeply engage withmakerspaces often graduate with more competitive job offers or admission to top-tier graduateprograms. While more rigorous research is needed and planned to quantify these correlations,early signs suggest that MSI’s ecosystem plays a meaningful role in both student identitydevelopment and post-graduate success. Beyond usage data, MSI has also strengthened interdisciplinary collaborations andincreased visibility across campus. Faculty from the performing arts, computer science, and thehumanities now
research questions were: 1. How did the engineering students describe their experiences advising their partner? 2. What are the characteristics of the engineering students’ final written project reports? 3. How did the instructors describe aspects of their co-teaching?The analysis of the student surveys revealed five themes: Student Needs and Knowledge Gained;Communication and Empathy; Recommendations from Engineering Students to Partner;Perspectives on Project Rubric; Professor Guidance. The first three of these themes were alsoidentified in the students’ reports. The co-teaching survey highlighted the instructors’perspectives on effective co-teaching elements: classroom applications, relationships,communication, planning and knowledge base
faculty in bothinstitutional policy decision-making processes and the professional development initiatives that canempower them to meaningfully contribute to the change processes stemming from those decisions.Our own institution, UT Arlington, sent a team of faculty members to this institute to examine the roleof our Academic Professional Track (APT) faculty members, our term for non-tenure track faculty.The 4-day workshop was a great success and as a result, a year-long plan is formulated to focus onAPT faculty with a teaching mission to create institutional and far-reaching effects. The plan will beaccomplished by working groups, which will be formed to develop projects and examine identifiedissues. It should be noted that these activities will
students and faculty started a project: ChargerCare.The students variety of specialties allowed them to create an app that could help fellow students,as well as faculty, on campus.The process of creating the app was a lengthy one, as it required involvement from severaldifferent departments on campus. The collaboration was necessary to ensure the quality of theapp, and therefore its effectiveness in addressing the concerns for members of the Universitycommunity. Most of the development time was spent like this, in careful planning to ensure thesuccess of the app from the start. Upon the conclusion of the planning and development process,the app would be released to the University community via the Apple App Store and the GooglePlay Store.3
without changes in outcome. A self-evaluation can be an obstacle for many students[4].Allowing students to make errors and then reflect on why these occurred has been shown topositively impact learning [5]. By articulating the “whys” and “hows” of errors and finding gapsin thought processes and/or incorrect learnings, students can refine their understanding of coursecontent. In this work-in-progress study, we hypothesize that the use of metacognitive tools suchas exam error classification and progress planning in a sophomore level core curriculumphysiology course will lead to more deep/strategic learning and engagement (as opposed tosuperficial/apathetic learning engagement). Furthermore, the evolution of perceived studentstrengths and weaknesses
successfully design andimplement a scaffolded and course-integrated intervention on learning strategies. Weinvestigate how the intervention impacts students’ knowledge, belief, commitment, planning,and attitude of using effective learning strategies and their course performance.Project detailsThe aim of this project (NSF IUSE #2315777) is to develop, implement, and evaluatecourse-integrated learning interventions and their impact on student learning in engineeringclassrooms. The project has two primary objectives. The first objective is to developdiscipline-specific training modules that are grounded in the framework of self-regulated learning(the process of goal setting, planning, self-monitoring, and reflection) (Santangelo etal, 2022).These modules
effectively articulatedtheir data stewardship practices at a Spring 2025 undergraduate research conference.Courses for Undergraduate ResearchersAdditionally, to augment the data stewardship practices of undergraduate researchers,we developed and taught stand-alone courses for undergraduate researchers as well as workshopsfor research mentors.One new course “Understanding Your Research Data” was offered in Spring 2024 & 2025. Thiscourse applies research data life cycle ethical management principles to students’ currentundergraduate research experience. It entails proper research data planning, collection, description,organization, management, visualization, preservation, communication, and ethical use. Studentswill be able to produce research data
workshop grantwas motivated by observations that PI teams often found these data aspects to be challenging tocomplete and that they undervalued how this data can inform their proposals. The workshopswere not intended as comprehensive S-STEM proposal development support across all proposalcomponents.The virtual workshop series addressed challenges from both project development and practicalperspectives, with the goal of enhancing participants’ ability to effectively use institutional datain their S-STEM proposals. The intended outcomes for the workshop participants include: 1) articulating awareness of how institutional/student data can be used to inform their project plans and S-STEM program goals; 2) developing a plan for using
undergraduate students), as-needed check-ins with the advisor during thesemester, and end-of-semester individual development reviews between graduate students andthe faculty mentor to discuss progress and address any potential challenges. In theend-of-semester reviews, before meeting with the faculty supervisor, graduate students areprompted (more information in Appendix) to review their accomplishments and plan the stepsand actions to be performed before their next review. These draft individual development plansare finalized in one-on-one discussion with the faculty supervisor. These practices ensurealignment with the group’s goals, provide timely feedback, and help all members stay on trackwith their deliverables. Furthermore, the practice of
and Education: A Review of Current Trends and Future DirectionsAbstractThe construction sector has experienced significant technological advancements in recent years,with Building Information Modeling (BIM) playing a crucial role in enhancing project efficiencyand collaboration. This study investigates the integration of Virtual Reality (VR) in construction,emphasizing its potential to revolutionize various aspects of the building process, includingdesign, planning, project management, and stakeholder collaboration. VR empowersstakeholders by enabling informed decision-making, issue detection, and operationaloptimization through real-time visualization and simulation in immersive 3D environments.Meanwhile, BIM provides a
[1]. In healthcare, virtual reality simulations enable medicalstudents to rehearse surgical procedures, thereby improving their skills in a low-risk, controlledsetting [2]. This technology has been employed in therapeutic contexts, where immersivesimulations assist patients in surmounting phobias and fears [3]. Rizzo et al. [4] investigated virtualreality as a mechanism for military training, specifically in combat simulation and stress-induceddecision-making, concluding that virtual reality facilitates effective, immersive training thatimproves readiness and situational awareness without real-world hazards. In architecture andconstruction, virtual reality allows designers and clients to digitally examine building plans,offering insights
RobotAbstractThe abundance of connections between art and engineering are opportunities to engageartistically inclined students who may not think of themselves as interested in robotics, and toinspire engineering-inclined students to express themselves artistically. This work presents a toolkit and lesson plan for a hands-on introductory robotics activity centering how art and engineeringinfluence each other. The Artistic Non-Inertial Tracer (ANT) is a three-link robot made oforigami, which contacts the ground through markers that trace patterns as it slithers around. Thedesign is capable of forward, turning, backward, and diagonal motion. Using origami for the bodyhighlights the influence of art on engineering, and the gait traces are a visually
, goals, and student needs. Some ofthe advising models documented in the literature include the following: (a) learning-centeredadvising approach (focused on connecting purpose of education with curriculum and degree),(b) engagement approach (focused on relationship building between student and advisor), (c)developmental advising approach (focused on student development and growth), (d)prescriptive academic advising approach (focused on checklists towards degree completion), (e)proactive advising approach (focused on students initiating advising meetings and advisorstacking those identified as at academic risk), (f) appreciative advising approach (focused oncreating positive interactions to support growth and academic planning), (g) flipped
-driven activities. However, identifyingappropriate intervention points and enacting lasting curricular change can be challenging. Thisinteractive session guides participants from insight to implementation by combining two keyareas: (1) identifying where the entrepreneurial mindset (EM) can be embedded in existing FYEcourses, and (2) developing a strategic plan to support adoption and stakeholder buy-in.Drawing on outcomes from the EMIFY project and theChange Maker’s Toolkit1, this workshopwalks participants through identifying EM opportunities using a community-developedframework (Figure 1) and design heuristic, then transitions to change planning activities thatbuild stakeholder support and implementation readiness
specific tools they coulduse to mitigate such stress (e.g., connecting with others, self-care), which led directly topreviously created content on time management skills.ImplementationWe initially piloted this change as an asynchronous session where students were expected to readlearning pages and complete typical time management assignments such as a time tracker andreflection. The stress toolkit was mentioned throughout the semester and asked about in areflection at the end of semester. The next implementation explicitly incorporated the toolkit intoin-class lecture and several assignments throughout the semester including an assignment todevelop the toolkit, reflections on how they plan to mitigate stress during exams, and a workshopon coping
grants.project design and execution Singing-Dancing Toy Modification ScheduleBeginning in 2022, BME added two Week 1: Structure of the Design Report Week 2: Background/ Problem Definition/Document toy operationservice-learning projects, one to the Week 3: Learn basic lab skills and safety protocolssophomore lab and one to junior lab, Week 4: Plan and circuit diagramspecifically to incorporate more Week 5: Work timeindustry-style design report writing. Week 6: Design evaluation and recommendations
disciplines has been achallenge. The Closing the Gaps initiative in Texas was launched in October 2000. This planaimed to close educational gaps within Texas and between Texas and other states by focusing onstudent participation, success, excellence, and research. In this paper we explore a series ofinterventions in a range of engineering and computer science degrees at the University of NorthTexas. The University of North Texas College of Engineering supports admission of all studentsinto the degree of their choice. We explore the enrollment patterns from the pre-pandemic, post-pandemic, new HSI designation, a resulting NSF grant and planning for implementation of theTexas Senate Bill 17 in 2023. We employ an asset framework through creating a range
progress made in implementing FYE2.0 to date and discusses plans for the future.1.0 BackgroundFirst-year engineering programs (FYE) are a common way for students to be introduced to theengineering profession. [1]. FYE programs typically include one or two introductory courses on avariety of topics. The content of FYE courses can include any combination of topics such as design,communication, professional skills (e.g., teamwork, leadership), and engineering specifictechnology/tools (e.g., MATLAB, CAD) [2]. Fostering interactions between first-year studentsand faculty/upper division engineering students have been shown to aid in the retention ofengineering students. The goals of FYE programs are typically: • Provide FYE students with
situated cognition. He received the NSF CAREER award in ©American Society for Engineering Education, 2025Characterizing Design Activity engagement: Summary of Insights from Year Three – NSF RFEAbstract:In this paper, we aim to highlight how understanding the factors influencing civil and mechanicalengineering students’ engagement in capstone design activities can affect course planning andtranslate to increased student engagement with capstone design activities. We build uponfindings from previous studies as well as current work funded through the NSF RFE programexploring engineering students' engagement and motivation in capstone design activities.Introduction:Capstone design courses
of frustrations experienced by children—difficulties in solutionplanning, material handling, achieving desired outcomes, and time constraints—as well ascaregivers’ frustrations that stemmed from planning and collaborating during the makingchallenge with the child. Findings highlight different strategies that caregivers used to mitigatetheir frustrations, such as providing suggestions, assistance, and emotional support, which helpedmaintain the child’s engagement and motivation to complete the engineering challenge. Ourfindings provide insights on how to effectively design online engineering programs that guideand support rural families to develop positive attitudes toward engineering.IntroductionSTEM programs offered by public libraries hold