engineering and construction context aims to engage engineering and constructionmanagement students in world history in a way that is more interesting for them than a typicalhistory course. Essays throughout the course ask them to reflect on aspects of the projects thatdirectly relate to construction such as (1) challenges that were encountered during theconstruction, (2) examples of modern structures that were inspired by the projects, and (3) howconstruction techniques and project management have evolved over time. Students are alsoasked to reflect on political, economic, and social aspects of the projects, which help to engagethem in the historical context and be exposed to the fact that many complexities of constructionprojects go beyond just
change, it is clear that we need to develop a deeper understanding of the experiences andsupport systems that enable women to thrive in CE.This study sought to address the ongoing gender gap in CE by examining the essence of the livedexperiences of four women during their first year in a CE program, with a focus on the sourcesof their self-efficacy. Self-efficacy is an essential construct in understanding women’s success inCE, as it directly affects their motivation, resilience, and performance. Drawing from Bandura’stheory [1], self-efficacy is shaped by four main sources: a) mastery experiences that buildconfidence through achievements, b) vicarious experiences that strengthen confidence byobserving others' success, c) social persuasion, such
The Development of Concept-Space, a Digital Workspace that Mirrors How the Brain Organizes and Expands Knowledge, Reveals Positive Impacts for Learners, Teamwork and Teachers.1. IntroductionA tool that facilitates effective communication of knowledge and ideas in a way that mimics howthey are generated in the mind is likely to aid in accomplishing three key objectives: 1)enhancing learners' ability to comprehend and construct complex concepts, 2) facilitating thecreation of a shared understanding among teams, and 3) aiding teachers in assessing thecomprehension of their students and the orientation of their teams. This idea started a researcheffort in 2010 to develop such a tool [1], which crystallized in 2020 into the principles
article as supporting text. The combination of hands-on practice andsubsequent research equips students with enough information to discuss the phenomenon.Learning outcomes are assessed through a group presentation about the phenomenon to classmatesand instructors. This project-based learning (PBL) methodology was previously discussed byCutri, Eiras and Mattasoglio Neto [1]. In summary, the authors reported that the laboratorypractices enhance student's understanding of theory in addition to reading and interpreting ascientific article and reproducing an experiment reported in that scientific article. During projects,students act more independently and develop skills to experiment and research, to collect, interpretand use data, and, consequently
efficacy of theEOP-aligned module in fostering a deeper understanding of environmental sustainability and riskassessment among engineering students.IntroductionEngineering education is at a critical juncture where the infusion of sustainability into thecurriculum is not just beneficial but essential. As society grapples with the depletion of naturalresources, the rise in emissions and waste, and the impact of climate change, engineeringcurricula must evolve to address these challenges [1-2]. The integration of sustainability conceptsinto engineering courses is pivotal to cultivating a workforce capable of creating a moresustainable future. Prior research highlights significant gaps in the current engineering educationparadigm, particularly in its
confidence instrument, during aggregate evaluation, showed statistical significance. Overall the majority of students rated their abilities, as defined in ABET 5 and ABET 7, as somewhat or much better following the assignment. Improvements to the method are discussed. Future research should include data analysis by race as well as gender.I ntroduction There are certain criteria every accredited engineering program must meet in order to maintain their accreditation with ABET. Among the criteria is that students complete a culminating major engineering design experience[1]. At the Thayer Schoolof Engineering at Dartmouth, the culminating experience, also referred to as the capstone course, counts toward the
required by employers. As more data and analytical methods becomeavailable, more aspects of the economy, society, and daily life will become dependent on data-driven decision-making. Recognizing this shift, the National Academies of Sciences (2018)emphasizes that academic institutions must prioritize developing "a basic understanding of datascience in all undergraduates" to prepare them for this new era [1]. This is particularly crucial forSTEM graduates, who must develop varying levels of expertise in working with data – the abilityto understand, interpret, and critically evaluate data, as well as to use data effectively to informdecisions. The recent emergence of large language models (LLMs) such as ChatGPT, which arebecoming increasingly
, with potential for broaderapplication across institutions.IntroductionComputing and technology occupations are predicted to rise by 7.3% in the next decade,outpacing the national average grow rate of 4.8% [1]. Along with a skilled workforce, theindustry needs to maintain a diverse workforce reflecting the community. Currently only 25.8%of computer and mathematical occupations employees are women. Among those, only 23.1% areAsian, 8.7% are Black/African American, and 7.8% are Hispanic/Latinx [2].Black women alone comprise 7% of the U.S. population [3] and yet make up only 0.5% ofcomputer science degrees awarded [4] and just 3% of computing professionals [5]. Black womenalso face specific barriers from just being black and a woman. [6], [7], [8
thisproject will be disseminated through demonstrations on the university’s mobile laboratory for K-12students and through peer-reviewed publications. Keywords high-altitude, balllooning, roboticsIntroduction High-altitude ballooning has long served as an inexpensive flight platform for testing re-mote sensing instrumentation for Earth and space applications, communication systems, and otherspaceflight hardware, offering quick turnaround and operational flexibility [1]. The versatility ofa high-altitude balloon flight provides a multidisciplinary platform for experiential learning, en-abling students to design and execute a wide range of experiments shaped by both educationalobjectives and technical constraints. HAM (an acronym for High
slides and blackboard/whiteboard were also obtained. Similarly, each conventional video is manually screened to ensure thecorrectness of the videos for this category. The selection criteria ensured a balancedrepresentation of both learning approaches to facilitate a robust comparative analysis.Figure 1: The examples of videos using the conventional teaching method. It shows the use of text,image, and diagram centered instruction approach for the teaching of robotics.It should be noted that the videos emphasizing embodied learning can also involve power pointslides through the entire instruction process. For this condition, the videos focusing on the use ofhardware and gesture through the entire instructional process will be classified as
modifications.IntroductionCapstone courses in engineering education denote critical milestones, with the overall goal toprovide students opportunities to apply their understanding of the overall curriculum in real-world challenges [1, 2]. A key component to have a successful capstone experience is the abilityof students to engage in both divergent and convergent thinking [3], as such, the overallcurriculum must provide design learning experiences that provide students with the fundamentalskills, knowledge, and opportunities to practice both divergent and convergent thinking.Oftentimes, these opportunities exist in explicit design courses. Additionally, design coursesmust engage students in design thinking processes, providing a framework for students tonavigate and
Real- World Integration1 IntroductionThe World Economic Forum (WEF) has highlighted the importance of complex problem-solvingin its Future of Jobs reports of 2020, 2023 and 2025, consistently ranking it among the top skillsneeded for the future workforce [1], [2], [3]. Further, WEF emphasized that skills requiringnuanced understanding, like complex problem-solving, show a limited current risk ofreplacement by GenAI [1], which highlights its critical importance in current and future jobsregardless of discipline. In engineering, the International Engineering Alliance (IEA), supportedby the World Federation of Engineering Organization and the United Nations Educational,Scientific, and Cultural Organization, released
Self-Regulation of their LearningIntroduction & BackgroundFirst-year engineering programs are an increasingly popular inclusion into 4-year engineeringbachelor's degree curricula and have become an important touch point for students to getacquainted with the field of engineering and the foundational skills necessary to be successful inthe engineering program/degree of their choosing. Topics most frequently covered in this firstyear that are widely considered foundational skills for any engineering discipline that studentsmay matriculate into include: problem-solving, teamwork, technical communication,programming, computer-aided design, the engineering design process [1], [2], [3]. Additionally,some programs and institutions have started
course redesign effort for Engineering Statics. She received her Ph.D. from the Rotorcraft Center of Excellence at Penn State University and is one of the campus leaders of Wolfpack Engineering Unleashed. She has launched and is currently chairing the College Teaching Committee for the NC State College of Engineering. ©American Society for Engineering Education, 2025Flipping the Engineering Mechanics Classroom: A Survey of Instructional ApproachesIntroduction and Motivation:A flipped classroom seeks to increase engagement and center student-teacher interaction bymoving the lecture outside of the designated class time and bringing problem solving, orhomework, into the classroom [1]. Through this central
COI tools offers a replicable framework for enhancing inclusive STEMinstruction and cultivating more equitable learning environments.This work will be presented as a traditional lecture at the conference.Keywords: STEM education, COPUS, culturally responsive, engaging pedagogy, classroomobservationsIntroductionCreating inclusive and equitable learning environments in STEM education is essential to addressthe longstanding underrepresentation of marginalized groups. [1] Tools like the ClassroomObservation Protocol for Undergraduate STEM (COPUS) have proven valuable in capturingteaching practices and student engagement, providing educators with data-driven insights into theirclassroom dynamics. Simultaneously, growing attention to cultural
(TEN) at a large, multi-campus R1 institution tosupport faculty needs for implementing evidence-based pedagogy. Our goal for creating the TENwas two-fold: (1) to establish a centralized academy for pedagogical development initiatives toreduce institutional barriers for faculty, and (2) to provide mechanisms to support faculty forimproving their courses using evidence-based pedagogy. The TEN facilitated facultypedagogical development through a Summer Institute (SI) and Semester Support Groups (SSGs).Centralizing outreach and expanding the offerings available to faculty simplified the discoveryand enrollment of pedagogical development activities. Participants in the TEN developed atransformation plan for their course, and artifacts such as
Mechanics, ActiveLearning, Classroom Participation, Inclusive Learning, Gamified Learning Strategies,Educational Innovation in STEM.1. IntroductionActive learning—where students meaningfully engage in tasks, discussions, and problem-solving—has been widely recognized as an effective strategy for improving conceptualunderstanding and student performance in science, technology, engineering, and mathematics(STEM) fields [1]. Prince defines active learning as any instructional method that encouragesstudents to actively participate in the learning process rather than passively absorbing informationthrough traditional lecturing [1]. Research consistently shows that these methods not only improveacademic achievement but also foster higher-order thinking
developing solutions forpeople requires making value-laden judgments. These judgements are often against ill-defined,ambiguous, and competing social and/or technical criteria and constraints. For example, inaviation, engineers make decisions based on various sources of information. However, thesources of information accessible to aviation engineers can shape their judgements and decisions,such as the decision to continue flying or ground aircraft with faults [1]. Existing researchsuggests engineers and managers base these critical decisions on their assumptions, limitedavailable knowledge, operational urgency, and their perceptions of risks [1]. These studiessuggest the need to understand how engineers navigate information-rich environments to
. IntroductionHistorically, our educational system has primarily benefited students from higher socioeconomicbackgrounds while disadvantaging those from marginalized communities [1]. This lack of inclusivity hasbeen a significant factor in the disconnect many students from diverse backgrounds feel towardstraditional pedagogical approaches, such as didactic instruction [2,3]. Traditionally, physics has beentaught didactically, where teachers present content in a lecture format, expecting students to absorb asmuch information as possible [4]. However, research indicates that this method has resulted in minimalpositive outcomes in students’ understanding and engagement with physics [5]. Because of this, there hasbeen a shift towards more interactive and student
lack of representation andpre-college support—often leave students feeling unprepared for academic progression andcareer readiness. Consequently, many students turn to external online courses, such as thoseoffered by Coursera, CodePath, or Breakthrough Tech AI, to bridge these deficiencies.External online courses have gained popularity due to their accessibility, self-paced structure,and ability to offer industry-relevant skills that may be underrepresented in traditional curricula.A 2021 report by Class Central [1] highlights that over 220 million learners worldwide haveregistered for massive open online courses (MOOCs), a trend driven by the flexibility andtailored learning these platforms provide. However, while these courses offer
: Project-based integration of societal context with engineering communication and computational thinking in an upper-level civil and environmental engineering course1. IntroductionWe present a project-based approach to integrate technical analysis within societal context,computation, and effective communication, in an upper-level civil and environmentalengineering course. These skills are essential for engineering education to meet the evolvingdemands of engineering in an increasingly interconnected world [1]. Our approach resembles the"teaching factory" model [1], inspired by the medical teaching hospital, where engineeringstudents engage in real-world processes under expert supervision, where technical training isconscious of
receiving supportfrom religious or spiritual communities. In turn, this spirituality and faith can inculcate a positiveworldview, a sense of purpose, and compassion for others (Park et al., 2020),. We also measure FictiveFamilial Capital, which includes connections with people who are not related to students by birth oradoption, but who may feel like family away from home because of a shared identity or experience(Duran & Pérez, 2019). Table 1, available in the Appendix, offers more information on our scale itemsand their origins. Before describing our data and methods in more detail, it is important to note that the CCWframework has increased in popularity among STEM educators and researchers. Indeed, twenty-twopapers have been
Joseph J. Brown leads the Nanosystems Laboratory and serves as Associate Professor and Chair of the Department of Mechanical Engineering at the University of Hawai’i at M¯anoa. He joined UH in 2017. He received an A.B. in Engineering Sciences from Dartmouth College in 2000, and M.S. and Ph.D. degrees in Mechanical Engineering from the University of Colorado Boulder in 2008 and 2010, respectively. He is author of 26 journal articles, 18 conference papers, and 1 book chapter, and an inventor of 11 U.S. patents. He is also a member of 5 professional societies: ASME, IEEE, MRS, ASEE, and AAAS. ©American Society for Engineering Education, 2025 Enhancing Lab Learning and Graduate Aspirations
implementation in low-resource settings. Bydemonstrating how culturally relevant, gamified engineering challenges foster both engagementand STEM self-efficacy, this research offers a framework for designing inclusive STEMeducation initiatives that inspire long-term interest and participation among underrepresentedstudents.IntroductionDespite significant advancements in education, STEM fields continue to exhibit a persistentunderrepresentation of marginalized groups, particularly among K-12 students. Black, Hispanic,and Native American individuals collectively make up only 11% of the STEM workforce in theUnited States, despite representing over 30% of the overall population [1]. This disparityunderscores systemic inequities, including limited access to
computer screens or textbooks frequently used in traditionaleducation.As education embraces innovative methods to overcome these challenges, Virtual Reality (VR)has emerged as a promising tool that creates personalized and immersive learning environmentstailored to diverse student needs. VR enables students to immerse themselves in virtual 3Denvironments where abstract concepts can be visualized and manipulated in real time, makingcomplex ideas more intuitive and accessible 1 . For instance, rather than passively reading aboutthe generation and propagation of electromagnetic waves in a textbook, students can interact withand explore these phenomena in a simulated setting. Studies have demonstrated that integratingVR into education enhances
teaching assistant for both mechanical and electrical engineering courses including Introduction to Mechatronics for which she received thDr. Kimberly LeChasseur, Worcester Polytechnic Institute Dr. Kimberly LeChasseur is a researcher and evaluator with the Worcester Polytechnic Institute. She has a dual appointment with the Center for Project-Based Learning and the Morgan Teaching and Learning Center. She holds a PhD in Educational Leadership ©American Society for Engineering Education, 2025 Closing Equity Gaps in Statics for BIPOC Students with a Free-Body Diagrams AppObjectives: This paper 1) examines the potential of an FBD App to close equity gaps in
sets. These methods were oftenreferred to as using “big data.” The use of machine learning in engineering has been well-documented throughout the engineering profession. Researchers have examined differentapproaches and applications of machine learning in modeling the physics at the heart of multiplefields of engineering design, such as fluid mechanics and heat transfer [1], [2]. Le Clainche et al.[3] review the numerous ways that machine learning can be applied to improve aircraftperformance. Their detailed discussion of the potential application of machine learning and AIprovides numerous examples of how these tools can be applied across multiple disciplines withinaerospace engineering, such as fluid mechanics, aerodynamics, aeroacoustics
aheterogeneous group comprising prior enlisted military veterans (i.e., those who have served inthe enlisted ranks of the U.S. military but no longer serve) and those who concurrently serve asenlisted service members such as in the Armed Forces Reserves or National Guard whileattending college [1]. Compared to their civilian counterparts, SVSM have a strong potential tobring intersectional diversity [2], along with matured technical skills and teamwork andleadership experience.While institutional support has been shown to positively influence student success andexperience [3], the efficacy of targeted support for SVSM in college has fluctuated due to a lackof standardized best practices within and across institutions [4]. Improving programs for SVSMin
cultivating more equitable and inclusive learning using a data analytic approach to identify factors associated with engineering students’ academic performance. Her teaching and research have been awarded Engineering Dean’s Emerging Innovation in Teaching Professorship. She is also the recipient of the Canadian Wighton Fellowship in 2022 and the Northrop Frye Award in 2023. ©American Society for Engineering Education, 2025 1 Work-in-Progress: Development of AI-Assisted, Immersive Virtual Reality Learning Module to Enhance Operation and Procedural Accuracy for Laboratory Education
ofdiverse professional backgrounds and to function effectively on a team [1]. Researchers [2]further expanded the purposefully general criteria provided by ABET “into six main groups:problem-solving and Critical thinking, Communication, Team Work, Ethical Perspective,Emotional Intelligence, and Creative Thinking.” While these researchers provided an analysis ofthe literature, they also identified that many engineering students are ultimately deficient in theirability to communicate effectively. This sentiment was also recognized by Riemer [3], whoreferenced studies by [4] and [5].The ProblemMany engineering programs have limited ability to add courses, as university general educationrequirements and accreditation requirements challenge programs to