responsibilities—key attributes of engineers according to the AccreditationBoard for Engineering and Technology (ABET) [1]. The Studio was established in October 2005as a joint initiative of the College of Engineering and Louisiana State University (LSU)’scampus-wide Communication Across the Curriculum (CxC) program, a program initially fundedby an engineering alumnus, who agreed to a campus-wide program on the condition that it beginin engineering.The Studio began as a support hub for the newly created communication-intensive (C-I) courses,but opportunities to study communications require contexts in which to occur, so the studiomission expanded to include a corporate-sponsored workshop series focused on leadership skillsdevelopment and a tutoring
Yonghee Lee, University of Illinois at Urbana-Champaign Jay Mann, University of Illinois at Urbana-Champaign Chris Migotsky, University of Illinois at Urbana-ChampaignBackgroundThe role of communities of practice (CoPs) in improving teaching has been widely documentedin engineering education literature. Faculty CoPs have been shown to promote the integration ofEvidence-Based Instructional Practices (EBIPs) in STEM courses, enhancing student learningoutcomes and fostering collaborative teaching cultures [1], [2]. CoPs allow faculty to share ideas,support each other, and work together to make teaching better and improve students’ learningexperiences.Previous studies have shown that faculty communities play
competent to tackle the complex safety challengesthat they will encounter in the workplace after school.Keywords:Smart Sensing Techniques, Wearable Technologies, Undergraduate Education, Active LearningStrategies, Situational Awareness1. IntroductionThe construction industry is a dynamic and high-risk field, requiring continuous innovation tosafeguard worker safety and maintain operational efficiency. Despite advancements in personalprotective equipment (PPE) and safety protocols, workplace accidents remain a persistentchallenge due to issues such as limited customization of protective gear, inconsistent safetypractices, and the slow adoption of advanced technologies [1]. Traditional PPE often adheres to a“one size fits all” design, overlooking
.”1 The Authors thank the Office of Naval Research (ONR), DURIP Award #: 158263, for their support.1 IntroductionTechnological advancements towards high-speed links have escalated data rates up to 800 Gb/s,in electrical and optical channels1-5. This is due to the increasing applications in artificialintelligence, autonomous vehicles, internet of things (IoT), wearables, 5G/6G, machine-to-machine communication, and other data-demanding applications1-2. The building blocks for theabove applications can be broadly listed as: single-chip and multi-chip integration, integratedphotonics and power electronics, MEMS and sensor integration, as well as analog and mixedsignals6-10. These different blocks must be integrated into PCBs with connectors
talents [1, 2, 3]. Students show improvements in theirtechnical knowledge and communication skills, gain more professional confidence, and feel betterprepared for their future careers [1, 3]. UREs create a platform for applying theoretical knowledgeto real-world challenges and encourage students to refine their skills, which in turn bolsters theirconfidence and overall growth. Additionally, these experiences offer opportunities for networkingwith leaders in research. Mentorship often plays a pivotal role in improving retention andgraduation rates, helping students secure job positions or gain admission to graduate programs,giving them an advantage over others [1, 2, 3]. Current literature describes undergraduate research mentoring as a two
Engineering Education, 2025 EAGER GERMINATION: TRANSPIRE – Mentoring Postdocs via a transdisciplinary dialogic pedagogy for conceptualizing research questions with transformative potential Linda Vigdor*, PhD (PI), Rosemarie Wesson, PhD (co-PI), Joshua Brumberg, PhD (co-PI)In an episode of Freakonomics,[1] Brian Nosek spoke about one strategy for addressingacademic research fraud – PIs would pre-register their research designs with a journal, to includethe following: The methodology that you’re thinking about doing and why you’re asking that question, and the background research supporting that question being important, and that methodology being an effective methodology. We’ll review that. We
the current context of U.S. higher education and how new technologies cansupport systematic reviews. For example, the NASEM (2024)[1] suggests that more research isneeded to understand how early STEM education innovations can be scaled and sustained so thatstudents can succeed academically in STEM learning through early to postsecondary education.As such, given numerous educational reforms have occurred in the past decade, it is important tounderstand what change strategies have been employed in these reforms and analyze how thesechanges took place. The aim of the overall NSF ECR project is to perform an extensive multi-method metasynthesis of literature published between 2011 and 2023 on strategies for enhancingundergraduate STEM instruction
governance practices in higher education. His research interests include renewable energy, females in engineering, and quality assurance and governance. ©American Society for Engineering Education, 2025Female engineering academics in the Global North and South: An exploration oflanguage of instruction, using Story Circles and Focus GroupsAbstractSustainable and inclusive development would benefit from an increase in female visibilityand leadership in the field of engineering. Particularly in the Global South, engineering iscrucial to development, and increasingly attractive to female students, but intersectionalbarriers restrict employment / career advancement. Our earlier research, published by ASEEin 2016 [1
quizzes helpful, enjoyable, and worthy of inclusion in the course.IntroductionTo many students, learning to program can be initially overwhelming as the students are requiredto learn and master concepts as well as programming syntax. Laying a strong foundation forprogramming skills is critical to prepare a student for success in an introductory programmingcourse. Having plenty of opportunities to practice coding is essential to enable students to learnprogramming concepts effectively. A lack of effective study strategies combined with anoverload of concepts and not enough time lead to reduced retention and higher drop rates inintroductory programming courses [1].Several research teams have considered the impacts of providing students in
engineering fieldevolves rapidly, requiring continuous learning and adaptation. Self-assessment fosters the abilityto recognize knowledge gaps and proactively seek out learning opportunities, a crucial habit forlifelong success. By mirroring real-world practices, self-assessment helps students transitionsmoothly into professional roles. It makes students active participants in their learning process,leading to greater engagement, and enhancing development of professional skills.It is not the author’s intention to present a comprehensive literature review of the self-gradingpractice but rather present a concise report about the status of the work in progress. Some ofprevious relevant published work are listed in the reference section [1-10].MethodAn
tools tocommunicate artistically. To support the learning from the demo, a six-page comic describingthe steps of making milk-based paint was developed and printed, with half of the participantsreceiving the comic as a take-home learning tool. While student learning will always be uniqueper individual, our research shows comics offer a broad promise as a supplemental tool forSTEM education. These studies have the potential to establish groundwork for comics to be usedas supplemental learning tools in the K-12 space.STEAM & Education in 2025Research has shown STEM-based education as a powerful method for developing criticalthinking skills [1]. However, incorporation of an intertwined curriculum remains challenging [2]impacting children as
incorporating newdigital tools into their everyday lives. Recent data reports that Canadians spend an average of 6hours and 18 minutes per day using digital technology [1]. Additionally, as the use of digitaltechnologies becomes more pervasive and multifaceted, it blurs the boundaries betweenindividuals’ personal, academic, and professional lives. This convergence makes it increasinglydifficult to disconnect and decompress, which may perpetuate a cycle of digital dependency [2].These patterns of high digital engagement raise important questions about how individuals relateto technology in their daily lives, and whether those relationships are sustainable. In response tothese challenges, the concept of digital wellness has emerged as a framework for
how a digital thread can be established between the physical system and the digital environment to control the physical system in real time from the virtual environment. This paper is intended to orient the audience toward these solutions as a starting point for discussions and lab activities with their students on how they can use similar strategies to design and implement cyber-physical systems for industrial applications. Background Advances in technology have enabled companies to implement automation to help with a variety of tasks within their organization. The US Department of Defense released their instruction 5000.97 tilted “Digital Engineering’ [1] which articulates the importance of incorporating digital solutions into the
between first- and fourth-yearengineering students that has positive implications for both the mentors and mentees. There issubstantial evidence that near-peer mentoring of and by engineering students helps both menteesand mentors. Students must gain many skills beyond technical knowledge to become competentpracticing engineers. ABET names seven outcomes defining the skills, knowledge, and behaviorsthat engineering students must acquire to be ready to enter the workforce. Among these are anability to “communicate effectively with a range of audiences” and “function effectively on ateam whose members together provide leadership, create a collaborative and inclusiveenvironment, establish goals, plan tasks, and meet objectives.” [1].Employers also
approach addresses the who andwhat of high-quality, relevant program design. Then, the main section unpacks our signaturestrategy – the how of designing targeted, engaging, and demonstrably effective learningexperiences. This strategy, called “Learning Engineering,” offers a research-based, practicalapproach to creating effective learning experiences, avoiding common instructional designpitfalls. Finally, we discuss preliminary, work-in-progress assessment results.1. Online, graduate-level certificatesAmidst the burgeoning array of academic credentials, graduate-level certificates (also known as“micro-masters”) have several key advantages, especially for working engineers. First, they aresmaller and quicker to complete than a full Master’s degree
Pathway, Engineering workforce, GenderDisparities, Academic and Social Adjustment1. Introduction1.1 Significance. The vertical transfer pathway, where students begin at community colleges andthen transfer to four-year institutions, constitutes 12% to 17% of all engineering bachelor's degreesawarded annually [1]. Compared to traditional engineering students, Black and Hispanic studentsare more highly represented among engineering community college and transfer students [1]. Thevertical transfer pathway is crucial for promoting social and economic mobility by providingaffordable access to high-demand engineering careers, especially for lower-income students [2],[3]. Therefore, understanding this important student population is essential to
Engineering at Rutgers University. During the last year at Rutgers University, she led the efforts of the university advancing the careers in STEM for women at Rutgers as an Associate Vice President of the University. Dr. Ierapetritou’s research focuses on the following areas: 1) process operations; 2) design and synthesis of flexible production systems with emphasis on pharmaceutical manufacturing; 3) energy and sustainability process modeling and operations, including biomass conversion and plastics upcycling, and recycling; and 4) modeling of biopharmaceutical production. Her research is supported by several federal (FDA, NIH, NSF, ONR, NASA, DOE) and industrial (BMS, J&J, GSK, PSE, Bosch, Eli Lilly) grants. Among
its importance, limited research focuses on improvingengineering students' problem-solving skills. One reason for this is the demanding technicalcurriculum that fills much of students’ schedules, leaving little time for targeted development ofproblem-solving strategies. As a result, problem-solving is often included as part of broaderengineering courses rather than being explicitly taught and practiced as a specific skill.At the same time, research has shown that engineering students face higher stress levels, puttingthem at significant risk of mental illness compared to the general population [1], [2]. For thisreason, mindfulness has been integrated into engineering education, initially to support mentalwell-being. Subsequent studies have
inclusive teaching framework that improves learning for all students by providingmultiple means of engagement, representation, and expression. It emphasizes flexible approaches,such as offering content in various formats (e.g., text, audio, video) and diverse assessmentmethods to accommodate different needs, particularly benefiting students with disabilities (SWD).Prior research has explored various ways to apply UDL principles in STEM education. Forexample, researchers have developed digital note systems that automatically generate accessiblecontent from lecture videos, combining text, images, image descriptions, and hyperlinks, andallowing instructor customization [1]. These tools have shown promise in improving both contentaccessibility and
OutIntroductionThis paper is focused on the methodology to inspire students to have an earnest aspiration forexperiential learning [1] and to introduce them to new materials characterization techniques througha balanced combination of project-based learning (PBL)[2] and project-led education (PLE)[3]. ThePBL methodology is widely adopted, researched, assessed, and continuously adjusted to newrealities and societal inquiries [4-6]. The method was expanded and reviewed with an emphasis onthe development and acquisition of learning, experimental, and communication skills, practicaldimensions of learning, and relevance to the society in which the students live [7-9]. Here, theadoption of a balanced combination of PBL and PLE was motivated by challenges
Education, 2025 “No one has asked me before”: Reflections on understanding compassion fatigue among computer science researchers, teachers and advocates (Work in Progress)Abstract:The purpose of this Work In Progress paper is twofold: 1) to share the story of the evolution ofour research to rehumanize our community of computing education researchers and educatorsand 2) to share our research findings examining the ways in which people are attending to theirown whole humanness as to continue showing up and working toward liberation day after day.What began as a focus on how teams use data to inform equitable programs, policies andpractices with a lens on intrateam power dynamics and representation, shifted to
participants signed theconsent form before participating.Theoretical Framework and Interview Protocol Development. The development of ourinterview protocol was informed by the Self-Regulated Learning (SRL) theory of motivation(Pintrich, 2004; Pintrich & Zusho, 2002; St. Clair, 1999; Sund & Bignoux, 2018), which providesa framework for understanding students’ decision-making processes regarding class attendance.SRL theory (Figure A.1) posits that learners are active agents who set goals, employ strategies,and navigate challenges to achieve desired outcomes, even in the face of setbacks and challenges(Pintrich, 2004; Pintrich & Zusho, 2002). As students self-regulate, they develop a sense of agency(Kipp & Clark, 2022; Pintrich, 2004
this process. However, manual grading systems facesignificant challenges, including grading inconsistencies, limited feedback, and a substantialburden on human resources. Ensuring consistency across a large team of TAs and deliveringtimely, meaningful feedback to students have become increasingly difficult under theseconstraints. The field of Natural Language has seen robust progress over the past few decades, drivenby advancements in deep learning, computational resources, and the availability of large data [1].Progress in the field of NLP dates back to 1950 when researchers at IBM and GeorgetownUniversity developed a system and successfully converted the collection of phrases from Russianto English [2]. Pioneering work, such as
Ye is a professor of the Institute of China’s Science Technology and Education Policy, Zhejiang University. His research interests include Engineering Education, Science Technology and Education Policy. ©American Society for Engineering Education, 2025 How to Cultivate Digital Engineering Management Talents: A Case on the “Digital Intelligence Innovation and Management” Engineering Doctoral Program1 IntroductionIn the current context of the world’s comprehensive promotion of digitaltransformation, improving the digital literacy and skills of talents is the top priority ofquality education in higher education[1]. In 2022, China released the world’s firsthigher education
education and leadership opportunities for marginalized communities,empowering underrepresented groups to break barriers and drive progress [1], [2]. For women inengineering at HBCUs, this mission holds profound personal and professional implications. Thesewomen navigate a dual identity - pioneering as trailblazers in engineering while contending withsystemic challenges tied to gender and cultural identity in predominantly male-dominated spaces.This study investigates the motivations, challenges, and future aspirations of self-identified womenin engineering at one of the nation’s oldest HBCUs. By examining their lived experiences, thisresearch seeks to uncover the factors driving their pursuit of engineering, the hurdles they face,and the ambitions
educational environments, replacing themwith those focused on serving students and transforming institutions. Addressing disparities incomputing and engineering has been a sustained issue of national concern [1], however littleprogress has been made [2] [3]. Hispanic-Serving Institutions (HSIs)—defined by 25% or moreenrollment of Latinx students—can play an important role in increasing the participation ofLatinx and other minoritized populations since more than a third of the nation’s Latinx CSbaccalaureates are awarded by HSIs [3]. Despite constrained access to funding, HSIs alsoeducate a broad range of students from all racial/ethnic backgrounds, as well as first-generationcollege, and low-income students [4], [5]. Because the HSI
, respiration, cloud simulation, pipe flow, and flight. Thematically-orientedprompts in labels and interactives invite literal and metaphorical connections between scientificphenomena and the audience (Fig. 1b, 1d, 2b, and 2c). For example, in the first TGFM18,Chaosmosis, a video shed lights on the airflow of an opera singer during singing (Fig. 1a), whilea 3D-printed sculpture reveals the cloud-shape of human speech (Fig. 1c). Chaosmosis wasfeatured in the Washington Post20 and other local news outlets, earning recognition as one of DC’s“Two Notable Photo-Adjacent Exhibits” of 202421. (a) (b) (c) (d)Figure 1. Selected exhibit items and audience engagement with Chaosmosis
the literature. Some of these misconceptions havebeen shown to persist between high school students and university students. Improved strategies inclarifying misconceptions to students have also been reported, ranging from individualized remediationto course level strategies. The content of this review should serve as a concise starting point for contentdevelopers and instructors to help engineering students who struggle with math in their curriculum, andto provide specific misconceptions to target in efforts to remediate math understanding for thesestudents.IntroductionA large body of literature exists on math misconceptions (e.g.[1] ) and remediation at primary andsecondary levels of education, and is of great value for informing
integrating project-based learning in the ECE curriculum. Through an isolated and emotional experience, this studywas able to document the effect of project-based learning (PBL) on conceptual connections andearly professional development.IntroductionProject-based learning (PBL) has long been recognized as an integral tool in engineeringeducation, enabling students to bridge theoretical knowledge with practical applications throughhands-on experiences [1-2]. Research demonstrates that, compared to traditional curricula,students in PBL-focused programs exhibit significantly increased levels of self-efficacy, intrinsicvalue, cognitive strategy use, and self-regulation [1]. Furthermore, PBL fosters a greaterabundance of self-regulated learners and
instruction to createclassroom curricula aligned with the Next Generation Science Standards (NGSS). The specificobjectives of the program are to: 1. Enhance teachers’ bioengineering content knowledge and pedagogical skills. 2. Enable teachers to translate laboratory research into practical, NGSS-aligned curricula. 3. Address educational equity by preparing teachers to better support diverse, urban student populations.Adopted in Illinois in 2014 to be in effect by the 2016-17 school year, NGSS required complexcurriculum planning on the part of districts. The framework relates science to students’ everydaylives, ensures students learn about being careful consumers of scientific and technologicalinformation, and prepares them with the skills