approaches between student-centeredactivities and instructors’ talks, prescribed by the model, lead to positive learning outcomes.Content is presented as problems for in-class learning activities that replace traditional lectures.This engages students in purposeful learning and promotes the development of classroomdiscourse. Students are encouraged to take ownership and to be accountable for their learning.1,2Building on our improved understanding of how students learn and how we support theirlearning, we proceed to examine instructional approaches for learning content that demandshigher cognitive abilities. The current study investigates issues in instructional design concerninglearning requirement in flipped lectures.Background Flipping
education. Byexploring local environmental justice issues and emphasizing the necessity of integrating theseissues into the curriculum, we can prepare the next generation of engineers to address real-worldchallenges and engage in equitable problem-solving. Given the profound implications ofengineering solutions on both environmental sustainability and societal well-being, EJE stands asa pivotal bridge between educators and students, fostering meaningful connections by exploringlocal environmental justice issues. Many educators struggle to effectively incorporate environmental justice topics intoengineering education [1], [2]. K–16 education discourses and curricula frequently overlookenvironmental justice issues, neglecting to highlight the
). This lack of achieving a full 10-minute interview is aninteresting observation, and could indicate potential factors like lack of skills and confidence forthe novice in conducting the interview or disconnect from the practice scenario to engage in ameaningful interview. This is a topic that will be considered in the future research. Additionally,10 minutes is a very limited time to demonstrate the full range of interviewing skills taughtduring the training. It also reduces the amount of opportunities for mistakes, which mayinaccurately represent the readiness of the student to conduct longer interviews. The shortness ofthe interviews also impacts the NVivo coverage calculations of the codes. If the entire interviewis very short, each sentence
access. Open-source robotics builds on the principles of open-source hardware and software. Theyboth encourage publicly available models that afford collaboration through modification, making,selling, improvement, and distribution. This represents a shift in the traditional method thatacademics use for research and publishing but a necessary one to increase diversity, equity,inclusion, and justice in STEM. By not restricting access to work behind journal paywalls orconference fees, communities with limited resources can still benefit from them. The “Robotics for the Streets” initiative was implemented in 2022 through the generoussupport of the Open-Source Hardware Association and Sloan Foundation to diversify STEM byusing open-source
, 30, 34]. Hence, the majority of stud-ies reporting benefits of LLMs focus more on student engagement, interaction patterns, and be-haviors, or student perceptions, such as satisfaction, perceived benefit, self-efficacy, or motiva-tion [33, 37, 25, 39, 40, 41, 26, 42, 7, 43, 27, 44, 45, 46].We discuss the relevance of this work at further length in Section 5 but note here that our studydiffers significantly in context, as our tasks are not assessing programming ability specifically,but broader knowledge and problem-solving skills related to computer engineering and embeddedsystems.3 MethodsTo test the potential impact of LLMs in SRL, we designed a 2-stage study consisting of a coun-terbalanced repeated measures experiment, and a
of the Sophomoreswere unaware that their instructor was the one making these cartoons, as some studentsexpressed surprise upon learning it and said they thought it was just some clip art being pastedinto their notes. This seemed to change their receptiveness. The author apparently didn’t realizehe hadn’t engaged in as much discussion about the cartoons with the Sophomores as he hadwhen teaching the Juniors the previous semester. Also, the students being fully aware that thecartoons were actively being made (and just for them) created a more interactive experience.There was also a difference in the attitude of these particular grouping of students, where theJuniors were much more receptive to whimsical content than the Sophomores.Measuring
. ©American Society for Engineering Education, 2025 Adaptive Course Enhancement through Iterative Reflection-Based Intervention DesignIntroductionStudent feedback can shape teaching practices and improve course design [1, 2]. Although manyinstitutions collect student feedback, the pedagogical value of this practice depends on instructors’engagement with the responses [3, 4]. By listening to student feedback, instructors can tailortheir courses to students’ needs, fostering a dynamic and adaptable learning environment. Thetiming and structure of the feedback collection also influence its impact. Mid-semester feedback,for example, allows instructors to adjust courses in real-time, which benefits current and futurestudents [5
materials for a growing number ofproducts including paper, particle board, animal bedding and bioremediationaids [2]. The stem, leaves and flowers of the plant are shown in Figure 1. Figure 1 Kenaf PlantLEGEND: 1. Flower, 2. Stalk-Outer Fiber = Bast (40%), 3. Stalk-Inner Fiber = Core (60%) Page 24.838.2Increasing needs for environmental protection has attracted the international community to thedevelopment of raw materials based on kenaf fibers that can replace wood and fiberglass with lessadverse impact on the environment. The kenaf plant’s short term growth cycle allows it
: the force it mustproduce. This study is implemented using waterjet-cut specimens of identical shape but increasingthickness tensile tested to failure on an Instron 5967 Universal Testing Machine.KeywordsRemote Lab, Online Student, Universal Mechanical Testing Kit, FreeLoader, Stress-StrainIntroductionStudy of material properties is important for engineering courses including Mechanics ofMaterials, Manufacturing, and Design. Hands-on learning is vital for engineering students tothoroughly understand material properties, their impact on physical behaviors, and practicalapplications leading to design principles. Mechanics of Materials is often taught as a laboratorycourse featuring research-scale tensile testers to extract empirical stress
-trained K-5 teachers and to bring valuable contextualexperiences to our future teachers, and subsequently their K-5 students, through substantialand relevant T&E content. If these goals are achievable then the MST program could have along-term beneficial impact on student outcomes in STEM and non-STEM subjects at theNational level, impacting grades K-5(8), and eventually 9-20+.Many articles have discussed the qualities of effective teachers.1-3 A list of qualities providedby Darling-Hammond is reproduced below. 4 1) strong general intelligence and verbal ability that help teachers organize and explain ideas, as well as to observe and think diagnostically; 2) strong content knowledge- up to a threshold level that relates to what is to
andcollaborations. Subsequently, intercultural communication training will afford women of colorengineering faculty with an additional capital at their disposal when navigating interculturaldifferences in their career advancing international mentoring relationships, networks, andcollaborations.Promising Practices at the University of Maryland, Baltimore County UMBC is a nationally recognized leader in preparing underrepresented minority (URM)students for careers in science and engineering through its Meyerhoff Scholars program and alsofor increasing the number and diversity of Ph.D. graduate who go on to academic careersthrough its NSF-funded PROMISE: Maryland’s AGEP program, and the NIH MeyerhoffGraduate Fellows program. UMBC is also a recipient of a now
technologists. The strategy is to engage high schoolstudents in engineering activities through engineering and engineering technology clubs (calledJETS clubs) in the nine-county region around Charlotte1 (the clubs were established during thefirst year of the project). As members of the club, students participate in fun and engaging hands-on activities and competitions designed to pique their interest engineering and engineeringtechnology. Each school opens membership in the club to all high school students, but teachersparticipating in the project are encouraged to ensure that at least 50 percent of their members arefrom underrepresented groups (females, African American, Native Americans, and HispanicAmericans). Throughout the academic year, UNC
extracurricular programs are targeted towards a discipline,they typically focus on connection-making and sense of community, while impact on academicperformance is often inconclusive [17, 22].Other early interventions have been integrated into STEM courses themselves, where both thestudent identification and intervention are entirely contained within the course. Lavelle andKeltie describe an intervention for engineering students in a calculus class [19]. At-risk studentswere identified based on their performance in the first written exam and then invited to meettwice with an academic advisor. The intervention was elective, leading to low participation(12%), and no statistical impact on academic performance could be concluded. Vandenbusscheet al, on the
theobjective of supporting other change journeys in undergraduate engineering education. A widerange of practices were identified to be effective including developing the initiative around oneor more real, compelling problem(s), engaging stakeholders on a continuing basis tocommunicate motives for change; managing tensions and sharing successes; investing in facultyand staff development to support the desired changes; asking students to share their stories withthe broader community highlighting benefits from the initiative; institutionalizing the changeobjectives in formal plans, programs, policies, and positions within the school, and formallyevaluating the impacts of the change(s), and sharing and rewarding successes. This paper aimsto contribute to
successful programs CWIT has used to enhancediversity and inclusion of underrepresented groups in the engineering and computingprofessions. These programs are designed to support the academic, leadership andprofessional development of undergraduate students and fall on two ends of aspectrum of support: pre-college programs and pre-professional programs. We willengage CoNECD attendees by sharing how these practices were motivated,developed, and implemented, as well as how we assess our impact and tips fortransferring these practices to other settings.The Big PictureVisionCWIT community members are prepared andempowered to be change agents in creatingtechnology workplaces that are diverse, equitable,and inclusive.CWIT MissionThe UMBC Center for Women
? Concepts Question 2: What do you think about the examples Effectiveness of Peer Collaboration and solved in class collectively as group? Engagement Question 3: What is your opinion on the instructor Increased Understanding and Confidence using visual supplements when solving problems? Question 4: What do you think about the rigor of Embracing the Challenge and Valuing this course compared to others? Rigor Question 5: What did this class teach you about Increased Knowledge of Dynamic Nature Engineering? of EngineeringCollectively, the themes that emerged in the study provide insight into students’ experiences withthe approaches and technique implemented by the
their impact on public health,” [14]. The development of a new courseat the Missouri University of Science and Technology described in this paper, “Public Health forEnvironmental Engineers,” builds upon and utilizes available materials from 180.601.01Environmental Health organized by Professor Jonathan Links at The Johns Hopkins University[15] as well as the REHS/RS Study Guide (Fourth Edition) published by the NEHA [16]. Inthree offerings of, “Public Health for Environmental Engineers,” to a total of 79 students in theSpring Semesters of 2016, 2017, and 2018, a blended format, a flipped classroom, masterylearning, and a buffet of optional summative assessments used to assign a final grade has beenutilized to teaching environmental health
) teams.Cohort 2It is important to note that Josiah's team and Amber's team were in different cohorts andthe instructor made several changes across these cohorts. In cohort 1, members of Josiah'steam were given specializations tied to the design problem of algal biofuel production—growing, harvesting, and extracting the fuel. Based on student feedback, the instructordecided to have every student in cohort 2 consider each phase on production. We presentdetailed analysis of the impact of these changes elsewhere, but refer to them in ouranalysis.AnalysisWe reviewed the original records from the cases, re-transcribing segments of data notalready transcribed with verisimilitude, including notable pauses, cross talk and non-lexical conversational sounds [20
development, 44(2), 43-58.[4] Zhang, D., Zhou, L., Briggs, R. O., & Nunamaker Jr, J. F. (2006). Instructional video in e- learning: Assessing the impact of interactive video on learning effectiveness. Information & management, 43(1), 15-27.[5] Miller, C. J., McNear, J., & Metz, M. J. (2013). A comparison of traditional and engaging lecture methods in a large, professional-level course. Advances in physiology education, 37(4), 347-355.[6] Johnson, D. W., Johnson, R. T., & Stanne, M. B. (2000). Cooperative learning methods: A meta-analysis.[7] Shi, Y., Zhang, J., Yang, H., & Yang, H. H. (2021). Effects of interactive whiteboard-based instruction on students’ cognitive learning outcomes: a meta-analysis. Interactive
Paper ID #30667The RED Teams Start Up Session: Leveraging Research with Practice forSuccess in Academic ChangeDr. Julia M. Williams, Rose-Hulman Institute of Technology Dr. Julia M. Williams is Professor of English at Rose-Hulman Institute of Technology. Her research areas include technical communication, assessment, accreditation, and the development of change management strategies for faculty and staff. Her articles have appeared in the Journal of Engineering Education, In- ternational Journal of Engineering Education, IEEE Transactions on Professional Communication, and Technical Communication Quarterly, among
effective communication,and strengthen collaboration efforts.PBL is extremely beneficial in developing problem solving skills for the future workforce inSTEM professions. Problem solving is crucial because the development of problem-solvingskills encompasses different teaching strategies to equip students for solving problems andpresent theoretical ideas to take on more concrete meanings. PBL with hands-on and activeparticipation facilitates problem-solving process. Students study a problem from then curriculumusing PBL, which has a positive impact on student attainment of professional skills. The goal ofPBL strategies is which instruction encourages STEM students to collaborate to understandconcepts. 3D printing affords STEM learners with a
was a topic of conversation stimulated by the statedperception in the Hispanic community that engineering is regarded as a rewarding career. Theunderrepresentation of women in engineering was another topic of conversation. For someparticipants, especially those who were unfamiliar with the role of community colleges ineducating commuter students, this was a time to reflect on how most URM STEM students in theUS start their college education.After a couple of trials, we realized the importance of providing an institutional context to anchorthe importance of mentorship, especially in minority-serving institutions that have a culture of“servingness” (Garcia et al, 2019). This should allow further conversations on the rolesinstitutions play in
continueto be affected by environmental injustices, such as the location of toxic waste sites and interstatehighways in their neighborhoods thus causing disproportionate health effects to residents [3].Environmental justice is a core component of the Creative Engineering Design (CED)introductory-level high school course that is currently being developed and piloted in support ofthe NSF ASPIRE Engineering Research Center’s engineering workforce developmentpre-college efforts. CED is a project-based engineering course that engages students, especiallythose from underrepresented and underserved communities, in exploring ASPIRE’s goal ofwidespread and accessible vehicle electrification as a solution to transportation-related air qualityand climate
improving online education. Although using videolectures is not a new concept, Rose [3] showed that even when offering online videos forstudents to watch, instructors should find a way to make the content personalized. Rose indicatedthat online courses still required instructor influence for students to be engaged in a class. Fromthis work, various online courses had their instructors create videos for students to watch. Eventhough these videos covered the 'usual' course topics like providing explanations of courseassignments, syllabus requirements, discussing weekly topics, review for exams, and providinganswers to student questions, the personalization had a positive impact on students.2.3 Hybrid learningAnother way to run a class is a hybrid
andethnicities. It may behoove schools to tap into the momentum of increased service learning inconjunction with humanitarian engineering education to engage diverse students. Understandingthat the grand challenges and applying them as frameworks for curriculum development is a keyway to integrate disciplines and enrich STEM literacy skills. Curriculum development under theframework of these grand challenges provides opportunities for students to engage in long-termprojects across disciplines and also provides a university-wide forum for professors tocollaborate on projects. Engineering educators must listen to the call of students who now morethan ever engage in service-learning activities and have a heightened awareness of a globalissues directly
years since it startedoperations, UTRGV can be proud of a mission on-route: to provide a high quality, innovative,and affordable education to the students of South Texas, Texas, the United States and the world.The University will transform Texas and the nation through student success, research, healthcare,and commercialization of university discoveries1. A temporary vision that has become astatement broadly implemented throughout the different Colleges and Schools within UTRGV,engages faculty and staff into expanding the possibilities from the current multicultural andmultidisciplinary programs to cross-border collaboration.Collaboration with universities across the border provides an opportunity to deliver a betterservice to the bi-national
him to laboratories in the US, Canada, and Singapore; where he specialized in the development of rare-earth-based nanomaterials for advanced multimodal and deep tissue imaging. As an educator, he aims to bridge gap between the theory and practice in engineering education. His recent interest centers on the creation of engaging at-home and laboratory experiments, enabling students to experience firsthand the practical applications of engineering principles. ©American Society for Engineering Education, 2024Bridging the Gap: At-Home Experiments Connecting Theory and Practice in Chemical Engineering EducationABSTRACTThe 2022 report by the National Academies of Sciences
studentunion craft center [10] and an electrical and computer engineeringprofessor. Students were surveyed about their (self-reported) academicmajors. The students come from a wide range of campus majors,including literature; theater; astronomy; management; communications;linguistics; psychology; women, gender, and sexuality studies; publichealth; engineering; sociology; art; and accounting as shown in Fig.2. Inthis figure, “CHC” represents participation in Commonwealth HonorsCollege, which is a dual-major category. The majors having the largestrepresentation are theater and engineering. On the first day of class,students were asked to self-assess their knowledge background in Figure3.Studentbackgroundelectronics and computer programming, with results
needs and styles of practicing engineers [adultlearners] can be daunting. Older students present the instructors with unusual challenges sincethey don't necessarily respond well to traditional methods of teaching5. However, it is stillnecessary to make every effort to ensure the delivery of quality instruction is deemed “useful” bythe participants. This means that as a result of participating in the short course the learner feelsthey have received instruction that facilitates “deep learning” which allows him/her to performtheir job functions better (i.e. enhances their practice of engineering)6.One means of ensuring impactful short course instruction is the development of an evaluationsystem that assesses the delivery and cost-effectiveness of
mentoring practicesAbstractThis full research paper discusses the experiences of five Latiné/x faculty in engineering andwhat motivated them towards developing equity-minded educational practices for theirundergraduate students. The five faculty participants provided written reflections on how theirlife and professional experiences have informed said practices. From a social constructionismparadigm and using narrative inquiry methodology, a combination of in vivo and descriptivecoding (first cycle) followed by emergent and focused coding (second cycle) were used by thefirst three authors to generate a codebook. The theoretical frameworks of Community CulturalWealth, LatCrit, and Hidden Curriculum guided the data analysis and interpretation