among instructors [13]. These challengesnecessitate thoughtful planning, coordinated execution, and frequent assessment of studentoutcomes to ensure that team teaching remains effective.In engineering education, team teaching takes on additional layers of complexity. The technicalrigor required in engineering courses demands a blend of expert knowledge and pedagogicalunderstanding. However, teaching teams may find it challenging to coordinate professionalinteraction among skilled instructors and ensure that all perspectives are integrated seamlesslyinto the course content [14]. In addition, engineering educators may seem reluctant to share aclassroom with peers or even uncomfortable at being assessed by students and peers alike [15].Looking
gesture production in bilinguals, gestural effects on learning, visual attention to hand movements, and the role of expectation in communication. Her work has been published in journals such as the Journal of Experimental Psychology: Learning, Memory and Cognition, as well as in peer-reviewed conference proceedings. Her work is also highly interdisciplinary, crossing the fields of cognitive science, embodied cognition, psycholinguistics and education. She serves as the honorary secretary of the Educational Research Association of Singapore (ERAS) for 2024-2026.Dr. Ibrahim H. Yeter, Nanyang Technological University Ibrahim H. Yeter, Ph.D., is an Assistant Professor at the National Institute of Education (NIE) at Nanyang
. Interestingly, “Projects”elicited mixed responses, featuring both the most and least favored aspects. Other best-likeaspects emerged around the Engineering Design Process, and Flexibility and Creativity, whilethe least-liked themes included Assignment and Writing, and Timeframe.Table 2. Top Three Best and Least liked Aspects of the Courses. Best Liked Aspects Count Freq (%) Least Liked Aspects Count Freq (%) Projects 207 70 Assignment and Writing 108 36 Engineering Design Process 156 39 Projects 73 24 Flexibility and Creativity 100 25 Timeframe 22 7Concerning Projects, students highlighted
● Her interests include reading, music, and computers. ● Challenges in the classroom involve a "quiet refusal" and verbal repetition. Kiernan 21 Career Readiness Track ● She completes tasks when given clear instructions and modeling. ● Performs significantly below her peers in reading, writing, and math. Matt 18 Diploma Track ● He excels in classroom activities, blogging, and creating
findings presented here are limited and preliminary, we found that the STEMsemester provided elementary PSTs with the opportunity to develop rich integrated STEMlearning experiences. We do note that more than half of these projects did not incorporateauthentic engineering design challenges. However, the projects that did include and centeredtheir lesson around an engineering design challenge had knowledge of the various steps of theengineering design process and a robust understanding of the impact of their topic locally as wellas globally. A future iteration of the STEM semester with this shared assignment would include amicroteaching session, where elementary PSTs could receive specific feedback from peers andinstructors about the engineering
thinking • Communicating with peers assists in either confirming evidence or critiquing ideas using evidence • Enables students to use their developing scientific, Consolidation/Integration mathematical, and technical skills with reading and writing like professional engineers TransferCase Study Development and Research MethodsThe purpose of the work described in this WIP is to create representations of engineering workand careers for elementary-age students through the use of engineering case studies. Through thedevelopment work described here and the ultimate implementation of
might be apparent to college students but not to elementary students [22].Another form of fixation is the students’ tendency to stick to their first design idea [23], [24],[25]. Students either stuck to their initial design idea throughout the whole design process orproduced presumably novel ideas yet with little deviation from the original. Luo (2015) noticedthat the first design ideas were the most frequently chosen by elementary students to furtherdevelop. Two other articles pointed to students resisting feedbacks from teachers and peers aboutimprovement on their design [24], [25]. In both studies, elementary students were asked toexplain their proposed design to the class and receive feedback from the teachers and their peers.The authors
Commitment of Community Collaborators in Engineering Education and Industry (Work in Progress) AbstractThe underrepresentation of neurodiverse individuals, particularly those with autism, in the field ofengineering has been well-documented. The inclusion of these diverse learners must involve innovativepathways to engineering instruction. Additionally, steps must be taken to ensure inclusion and success inboth educational and workplace settings through individualized supports and by effectively preparingeducators, peers, and employers. Engineering Community Inclusion of Individuals with Autism (ECIIA), anNSF-funded project, will employ virtual reality (VR) technology to engage more autistic high
policymakers. This study investigates these possible directions through a lens of majorestablished models of integrated STEM education. Although extensive research has been doneon integrating AI with STEM, work is lacking that translates this concept into concrete entrypoints for integration. To address this gap, this research uses a systematic literature review (SLR)approach focusing on preservice teachers’ (PSTs’) perceptions of AI in STEM education. Usingthe PRISMA model, we gathered related empirical, peer-reviewed articles published from 2020to 2024. Of the 250 initial studies, 26 met our eventual criteria. Content analyses of these surveysrevealed several aspects that may be used to further understand PSTs' perspectives on AI'sinvolvement and
open-ended questions to gauge the satisfaction of learning outcomesof the course. We obtained a total of 30 pre- and 25 post-survey responses. We highlight a fewrelevant survey questions here and point the reader to Appendix A for the list of all questions. (a5) [Likert scale] I am confident in the ability of AI to solve the most complex problems in the world in the future.(a10) [Likert scale] I have advisers and/or role models in AI and CS (other than my parents). (b1) [Open-ended] What do you know about neural networks (write in one sentence without looking it up)? (b2) [Open-ended] What kinds of problems do people in AI work on? What kinds of medicine and healthcare problems do you imagine can be solved with AI?To facilitate
optimization for aerospace applications.Sohini Gupta, Wheeler High School Sohini Gupta is a junior high school student at Wheeler High School, a distinguished magnet program in Marietta, GA. She is passionate about STEM, particularly engineering. Committed to pursuing a career in STEM despite challenges faced by underrepresented groups, Sohini actively seeks opportunities to engage in hands-on projects and STEM-related activities. She aspires to inspire her peers by being a proactive role model in the scientific community.Dr. Ibrahim H. Yeter, Nanyang Technological University Ibrahim H. Yeter, Ph.D., is an Assistant Professor at the National Institute of Education (NIE) at Nanyang Technological University (NTU) in Singapore
scientific articles, but thanks to Professor Haifeng Wang, Google, and YouTube, I was able to digest them and put them into writing. In addition, I believe my review also allows my peer high school students to take a look at this newfound topic and the broader topic of triboelectric nanogenerators to see how we can expand this research and technology for it to become safe during clinical trials and established as a new alternative to battery-powered pacemakers, helping planet health and the health of other patients, as this alternative can help reduce health risks and surgeries associated with the traditional pacemaker. Other than that, this is a fascinating topic that can be taught in a high school health sciences
underrepresented students from yourschool/program for this field trip? he writes:“I believe more than underrepresented students wanted to attend the trip, but were saddened tohear it was targeted towards these populations which they did not identify with. If possible,multiple trips per school year (perhaps one fall, one spring) would help bring in more students. Itis difficult to comment on benefiting underrepresented students, as Duke (as are most colleges) isexpensive. Some students were attending simply to see what college life was like, while othersmay be specifically thinking about Duke as their post-secondary education. I believe those thatidentified as underrepresented students still found enjoyment and a ‘place’ with Duke, but morecommentary on
) Adding to the summary table (see example Summary Table below in Part B): - Direct students to appropriate column and activity. - Students will come to consensus on how the task demonstrates the phenomenon. - Students will come to consensus on why this task is important for understanding the phenomenon. Task #3: Agenda: Justice and Writing - Reintroduce students to initial hypothesis Wrap-Up - Justice 12: show students below picture and answer
instructions to serving as a facilitator and advisor, allowing students to work on challenges and failures on their own and with their peers. 2. Assessing the feasibility of implementing the curriculum in rural STEM classrooms: Teacher’s feedback during learning community sessions, interview and focus group responses, and responses to the Stages of Concern (SOC) questionnaire from the Concerns- Based Adoption Model (CBAM) suggest that teachers were engaged with the program and found the model usable and feasible to implement. 3. Collecting initial data on the program’s effects on the classroom environment and student’s engagement and interest in engineering: the researchers collected evidence on changes to
focused on youth with these identities.Search strategyWe used a standard systematic review approach following the PRISMA guidelines [23]. Wesearched three education-related databases: ERIC (EBSCO), Education Source, and AustralianEducation Index (also known as “International ERIC”). We composed a search string usingkeywords for concepts related to our objective (Table 1), and completed the search in December2023. We limited our search to 1993 onward, papers written in English, and peer-reviewedresearch work.Table 1: Search terms used. Search strings for each concept were combined with AND to createan overall search string. Note that listing “science” or “engineering” alone in the content conceptgave many extraneous results, so content and type
, prior experience with coding was not assumed and pre-written codes were embedded in the curriculum unit. These block-based codes could be adaptedto specific design choices and student contexts. In an effort to develop a flexible curriculum tomeet a variety of student interests, multiple stress-related contexts (i.e., test anxiety, sports,gaming) were provided for students to choose.Researcher-Teacher PartnershipTwo teachers implemented the curriculum unit three days apart. They both participated in aweeklong curriculum-writing workshop during the summer, two months prior to implementingthe unit. During this workshop, the teachers role-played as students while the researchers (actingas the teachers) demonstrated a science-content focused
? Jury deliberation is when evidence is • What would be the burdens if the defendant examined and conscientiously negotiated wins the case? to reach a consensus on a decision. • What are the advantages and disadvantages of laws that protect solar panel owners? Students imagine multiple futures Eliciting FUTURES Reasoning through ethical depending on which side wins the case. For integrity their state legislature, students work in • What would be the impact in 5 years if the teams to write a bill that 10 years from
diagrams to both novice non-technical peers and technical computer staff. Observations from the lessons revealed that role-play induced an experiential learning opportunity requiring the mapping of an abstract data flowdiagram to real life scenarios. An implication of the study is that instructors integrating role-playstrategies should commence with shorter variants, and gradually move on to longer and moreadvanced activities. In another study that leveraged role-play in exploring students’ software andgame development processes, Decker and Simkins (2016) integrated aspects of role-play in asoftware engineering course project, where students were the proprietors of a game developmentstudio. The role-play initiative provided students with
no input,with input from peers, or with input from the teacher. A key aspect of their study was exploringthe positions that students take up as they experience design failures. Students take on multiplepositions including observer, tester, idea–sharer, tinkerer, and director. The context of these andother positions determine the extent to which they are productive. For example, Silvestri et al.observed power struggles and disagreements among some student teams as students within themtook up different roles (e.g., one student shifting from observer to tester to director, ultimatelynot including other team members in the design process after failure). Parry and I also observedhow team conflict can challenge productive responses to design