this activity was thediscussion students engaged in afterward. Students shared their findings, contrasting them with their initialpreconceptions, allowing participants to present their discoveries and solidify their newly acquiredunderstanding through critical reflection and peer engagement.Jackson’s lesson plan fosters scientific literacy while considering students' local events by incorporatingcontextually relevant research. The goal is for students to connect energy concepts to their own lives andengage in discussions about how global issues affect their local environment. This is intended to empowerthem to make informed decisions about energy use and contribute to a more sustainable future.Through thematic analysis [23], we identified four
format of the online courses.Overall, students want a flexible, affordable, and supportive online program that aligns with theircareer aspirations and allows them to manage their time effectively.Question 11 of the survey asked for any other comments (Figure 11), and the comments providedrelate to program interest, expected workload, timing/planning, consideration of other options,financial concerns, and MSEM differences from other master’s degrees such as an MBA:Many students expressed interest in the program, noting that the presentation about the MSEMprogram that was provided in the Project Management class was helpful and that the opportunityto pursue a master's degree in one additional year is appealing. Some are unsure about graduateschool
are versed in English, language was not an issue. However, due todifferent cultural settings, it took some effort to convince students to take the initiative to “lead”conversations and team organizations. Students were advised to appoint a “team lead” for eachsub-team, to better coordinate tasks and scheduling. During fall semester, all students exploredthe project concept, finalized the project requirements and worked on planning and design.Teams were given two weeks of additional time to meet initial deadlines to compensate for slow,unexpected late starts compared to the rest of the class. As our ME students have prototypingrequirement, it was another item that needed discussion. Initially we decided that one sub-teamwould do the
near-peer delivery and scalability ensures highengagement and low costs, producing motivated students ready for engineering education andconnected to regional partners for internships and jobs. Over three years, 13,507 students haveparticipated (see figures 1-2). The program comprises expo-style events, classroom outreach,remote lesson plans via video, and residential summer programs. Lessons are delivered by theNavy STEM Crew, a 40-member student group with significant female and minorityrepresentation, enhancing relatability and inspiration for future engineers [11], [12]. Thesedynamics, along with scalability commitments, vary across each program.Figure 1 Direct classroom outreach metrics Figure 2 Larger event outreach metricsA. Expo
program for first-generation students and underrepresentedminorities in engineering. The Studio also became a new home for several existing programs,including engineering supplemental instruction and peer mentoring. It is also part of anarticulation plan with the college’s study-abroad program. The Studio has evolved into a hub ofstudent learning and leadership, which encouraged a significant investment from a major energycompany, and expanded the Studio and several other student services into a new entity: the LSUChevron Center for Engineering Education (Chevron Center).Students who participate in our programs do so voluntarily, as do the faculty who certify theircourses as C-I courses. Participation numbers indicate excellent buy-in by both
competencies includeopportunity-seeking, persistence, self-confidence, and strategic planning. A recent study bySolesvik [11] highlights that strengthening these competencies fosters entrepreneurial intentand enhances students' performance in the job market. Furthermore, research by Nabi et al.[6] and Zhang et al. [12] concludes that PECs are directly linked to greater leadershipcapacity and increased innovation in business processes. Other studies support these findings[7], [13].One of the most effective programs for fostering these competencies is EMPRETEC, aUnited Nations initiative established by the United Nations Conference on Trade andDevelopment. Its objective is to promote the creation of sustainable, innovative, andinternationally
-solving approaches, observed commonpitfalls in AI usage in basic programming tasks, and identified patterns that can inform ourpedagogy.2 MethodsA. Classroom Information and Experimental OverviewAn introductory engineering course consisting of 21 students completed a series of assignmentsthat involved the use of ChatGPT and Claude in an effort to gain insight into studentmetacognition and problem-solving patterns. Specifically, we examined metacognitive aspectsincluding planning behaviors (time spent reviewing problems before coding), self-monitoring(recognition and correction of errors), and resource utilization strategies (documentation usagepatterns and LLM interaction methods).This study used a two-part experimental design to examine
that theyare specialized, interdisciplinary, and uncommon at both the undergraduate and graduate levels.As a result, librarians or subject specialists who liaise with these areas can encounter a lack ofresources and knowledge to support the students and faculty in these programs. A group oflibrarians who have NAMOE programs as part of their institutions recently started a dedicatedgroup, combining elements of communities of practice and peer group mentoring to discuss howbest to support these programs and each other as professionals with varying experience in thissubject area. Plans include the development of a resource similar to chapters in Osif’s Using theEngineering Literature, a crucial source for librarians supporting engineering
Mystery Bag Introduction to language ideologies (cont.) Novel Engineering: Snowy Day and Cohort 1 Teacher share* Reflection on learning and future reflection Community-based Engineering planning Introduction of Engineering Design Connecting Translanguaging and Communication of project Process Engineering expectations Introduction to Translanguaging Assignment of Reading Planning of future PLE days and Mindmap Assignment of Reading*Only included Year 2 and onwardIntroducing EngineeringOur introduction of engineering and the engineering design process builds on the expertise ofresearchers before
course content applicable to their career plans. Thetable also indicates if course content alignment and content applicability related with required ornon-required ME courses. While half of the 18 participants described how ME course contentdrove their career directions, the majority (16) articulated at least some way that the skills andknowledge taught in their ME courses would be relevant to their future work.Table 1. Students’ perceptions of applicability of ME course content and its alignment with theircareer interests Count of participants (N=18) Courses inform interest in a career that is: Course content
Vermont, and M.S. (1986) and Ph.D. (2002) in Bioengineering from Clemson University.Evan Taylor, Clemson University Evan Taylor is a Ph.D. candidate in the Department of Mechanical Engineering at Clemson University. His research through the VIPR-GS focuses on model-based systems engineering of ground vehicles. As a senior member of the CEDAR design group, he actively mentors and collaborates with fellow researchers. He plans to propose his dissertation on model fidelity evaluation and model selection in May 2025. He also develops his skills as an educator and community leader through education research and service in Graduate Student Government.Makayla Headley, Clemson University Makayla Headley is a doctoral
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
simple socialscenarios, the modules will gradually introduce more complex interactions, helping users synthesizemultiple social cues and develop adaptive social responses.Overstimulation, particularly in high-pressure social or work environments, poses a significant challengefor individuals with HFA. Scenarios such as conference presentations or tight deadlines can triggeranxiety, leading to communication difficulties. The platform will include modules that simulate thesehigh-stress situations, allowing users to practice coping mechanisms such as deep breathing andgrounding exercises. Mastering these techniques will help users maintain composure and confidenceduring critical moments.Timeline:The project will begin with a two-week planning phase
are investigatingwhy student’s interests change. In this paper, we will outline our structured interview protocoland its ties to applicable research. Through a structured interview protocol, we plan to answer thefollowing research questions: 1) Why are students interested in STEM declaring in non-STEMmajors? 2) What experiences in their first year are influencing their major declaration decision?In this paper, we describe our institutional issues and how it informed our interview protocol..The protocol is developed to capture student interests and motivations for STEM fields, explorecommunity developments impact on their first year, and investigate the effectiveness ofpre-college courses/preparations. Through this protocol, we will identify
and an auditorium;indoor sports complex in a local community; and ash recycling facility for a local township. Asample project along with the scope of the required guidelines provided below:Sample ProjectOne of the project students recently worked on was a building consisting of teaching andresearch space at a university. This building was under construction when students were workingon the project. The specifications, geotechnical reports, and drawings for the original proposedbuilding were provided to students. The objective was to work as a team designing criticalcomponents, planning and estimating including cost estimate, and to address transportation needsof the university due to this new addition. Students had the flexibility to
research program; and uses her professional skills to advance initiatives and outreach at the university, in her STEM field, and her community. Kenya teaches courses in engineering design, hydraulics, water treatment, and water quality. Her research program focuses on water treatment and water quality, and she collaborates with diverse, interdisciplinary teams to develop, characterize, and evaluate new materials for drinking water and wastewater treatment applications. Dr. Crosson’s leadership activities allow her to work collaboratively to advance institutional goals and mission within her department, the School of Engineering, and the university. She facilitated the strategic planning implementation team’s revisioning
structured as a combination of lecture andlaboratory components. The lectures take the form of active discussions on topics. The instructorpreliminarily prepares a series of questions that, when answered, cover the theoretical portion ofthe class. In class, the instructor asks a question, and students provide answers initiating aninstructor-guided discussion. The experience shows that this format prompts an increasingnumber of questions coming from students. Some of the questions are driven by the students’curiosity and may or may not advance the planned topic coverage. Other questions may touchupon a deeper context and may be answered using experiments accessible to students. Theinstructor’s role is to recognize the latter type of questions and
. Beyond aiding in the production of point clouds forconstruction planning, 3D scanners prove beneficial post-construction. For instance, duringinspections, 3D scanners enable safe assessments of current structural conditions, improving thequality and accuracy of inspections compared to traditional visual methods. Additionally, 3Dscanners can measure existing buildings in the absence of original drawings, leading to reducedconstruction time and costs during renovations.The usage of 3D models in the planning stages of renovation has become increasingly prominentin engineering and construction. These models offer accurate, time-saving, and cost-effectivesolutions compared to traditional methods. The process of creating 3D models from point clouddata
, and VMI's Civil Engineering curriculum. conduct themselves in an ethicalFundamentals and honorable manner(Required, 1st Multiple guest lecturers' visitations are alsoyear course) included in the course plan with requests to Quizzes emphasize ethical issues Semester PaperEnvironmental Introduce students to drinking water and Individual essay on ethical andEngineering wastewater treatment theory and teach students professional responsibilities during(Required, 2nd how to design basic water and wastewater remediation of an environmentalyear course) treatment
(SEDP); (2) Comprehend the complex interaction and interdependencies of rocket systems; (3)Understand mission operational planning considerations, such as flight planning, logistics footprint,and data requirements planning; (4) Design, build, and test a rocket supporting a payload with aselected remote sensing mission; (5) Clearly and concisely communicate a rocket design throughoutthe phases of the SEDP in both written and oral form; (6) Be familiar with missions performed by thePFRR and PSC supporting research and public service.Point Summary. The following table summarizes the course expectations for deliverables and theirassociated point values. Letter grades are assigned for each team deliverable utilizing a ‘plus/minus’grading scheme, as
Engineering Education through Experimental-Centric PedagogyIntroduction and literature reviewAs the urban population grows, the need for a sustainable and Smart City (SC) becomes animportant necessity for our future [1]. SC uses new technologies to improve life quality andenhance environment terms, including smart transportation systems, sustainable urban planning,and green buildings [2]. The COVID-19 pandemic has shown the importance of resilient urbanplanning, emphasizing the need for Smart Cities to maintain social services during crises [3].Despite the dependence of our future on SC technologies, they are not included in the civilengineering curriculum, which causes a gap between education and real-world upcoming needs.To make civil
binding document that regulates the development of AI in 27 nations of the world, hence setting benchmarks for ethical AI’s global standardization. • China’s Next Generation Artificial Intelligence Development Plan [27]: Official document from the Chinese government that outlines China’s long-term development goals related to AI, and helps understand the AI’s role in government oversight and digital sovereignty.This paper will present an overview of all these policy documents and then focus on the ethical concernsand mitigation strategies presented in these policy documents. Toward the end, the discussion section willpresent similarities and differences across the ethical concerns and their mitigation strategies
Paper ID #49607Design of a Greeting RobotCaleb Edward Scheideger, Ohio Northern University Caleb Scheideger is a mechanical engineering student at Ohio Northern University with interests in bio-medical research.Evan Louis Fisher, Ohio Northern University Evan Fisher is a senior undergraduate student at Ohio Northern University as part of the Department of Mechanical Engineering. He plans to finish his B.S. in Mechanical Engineering and Mathematics in Spring 2025 and continue his education following graduation. He has research interests in solid mechanics, fluid mechanics, and heat transfer, specifically in computational
“a toolfor faculty to sharpen the definitions of the 3Cs with specific characterizations, reinforcing thatEM is a collection of interrelated mental habits” [11, pg. 1].In accordance with these recommendations, I utilized this expanded Habits of EM Framework asa lens with which to read students’ responses to the survey question shown in Figure 1. Anytime a student expressed having used a “Habit of EM” in their design project or plans to use ordevelop a “Habit of EM” in the future of their design project, a tally was placed under that“Habit of EM”.Project Evaluation Results and ImplicationsTable 1 depicts the counts for across all Habits of EM for each of the two sections. The twosections (both with enrollments of 72 students) had 68 and 65
community.RecommendationsThis photo scavenger hunt model is easily adaptable to other institutions, disciplines, and studentpopulations. The format has been successfully replicated by the author in other settings includinga focus on campus sustainability-themed hunt highlighting green infrastructure and recyclingstations and a focus on identifying real-life examples of structural supports and connections. Tosupport successful implementation, educators may consider the following key takeaways: ● Plan ahead with faculty and staff. Coordinate with faculty and lab staff in advance to schedule short introductions and open office hours. Implementation of the activity required coordination with a dozen faculty / staff members and a school-wide email
of the editorial board of several peer-reviewed highly ranked journals. His research is published in recognized journalsMichel Elkhoury, Lebanese American University Dr. Michel Khoury is the Dean of the School of Engineering at the Lebanese American University (LAU), where he leads strategic initiatives in academic innovation, industry partnerships, and program development. Previously Assistant Provost and Associate Dean, he played a key role in implementing LAU’s strategic plan and launching new programs such as Engineering PreMed and Chemical Engineering. A Professor of Mechanical Engineering, he has led ABET accreditation renewals, curriculum modernization, and major lab expansions. His research focuses on
connections. The rubric alsoguides teachers in aligning their projects with educational standards and in ensuring that theymeet curriculum requirements.edTPA rubricThe edTPA (Educative Teacher Performance Assessment) is a comprehensive, performance-based assessment designed to evaluate the readiness of novice teachers, particularly intechnology and engineering education (Stanford Center for Assessment, Learning, and Equity(SCALE), 2021). Rooted in research and feedback from educators, the edTPA emphasizes areflective teaching cycle, encompassing planning, instruction, and assessment. ● Planning (Rubrics 1-5): Teachers must design lessons that support diverse student needs while integrating technology-related concepts, technical skills, and
students’ learning as they engagein engineering design. However, most research exploring teachers’ implementation ofengineering design activities and their engineering discourse has been conducted inwhole-classroom settings. Little is known about how teachers facilitate students’ engagementwith epistemic practices of engineering (EPEs) during small-group work. This study investigateshow a middle school teacher’s discursive moves influenced students’ engagement with EPEswithin an integrated STEM unit. Using a qualitative case study approach, we analyzedteacher-student interactions over seven days as students engaged in brainstorming, planning, andtesting design solutions. Data sources included video- and audio-recorded interactions andstudent
, planning, and budgeting...all of these beingskills they can benefit from when in industry.2 BackgroundAs the landscape of engineering education is evolving in a rapidly changing technological world,it demands innovative approaches to equip students with practical skills and necessaryexperiences. Hackathons are a worldwide phenomenon that offers multiple outcomes for industry,educators, and students. Hackathons also come in various forms, each catering to differentaudiences and goals. At university level, these are fast-paced and collaborative events wherestudent programmers gather to address software challenges, usually over 24 to 48 hours.However, hackathons are not just about coding. They also involve presentations, workshops, andnetworking
enrolled the course. Once the first students have completed theinitial offering, there are plans to expand it to more partners and add additional requestedcourses. This work in progress describes the research based work done thus far and how new andimproved offerings will be created with industry partners.IntroductionAs part of an NSF funded grant for advanced manufacturing at West Virginia University, a studyof workforce preparedness in that topic was conducted in the state of West Virginia. Theworkforce development component of this research was conducted as a month of summer workper year for one researcher. As industry moves to more advanced, interconnected, and automatedmanufacturing, workers who can operate proficiently in the new