/08/the-changing-face-of-americas-veteran-population. [Accessed 12 November 2024].[2] M. L. Anderson and J. Goodman, "From Military to Civilian Life: Applications of Schlossberg's Model for Veterans in Transition," Career Planning & Adult Development Journal, vol. 30, no. 3, 2014.[3] G. A. Phillips and Y. S. Lincoln, "Introducing Veteran Critical Theory," International Journal of Qualitative Studies in Education, vol. 30, no. 7, pp. 656-668, 2017.[4] C. Stone, "Stereotypes of Veterans," in Stereotypes:The Incidence and Impacts of Bias, Praeger, 2020, pp. 213-223.[5] J. Chapin, M. Mendoza-Burcham and M. Pierce, "Third-Force Influences:Hollywood's War Films," The US Army War College Quarterly:Parameters
knowledge. Breaking downcomplex ideas into simple visual representations and sketches ensures that everyone involved ina project can understand and contribute to the discussion. The informal nature of hand sketchingmakes it especially useful when quick adjustments and real-time feedback are needed. These on-the-spot sketches enable efficient decision-making and help prevent misunderstandings or errors.For example, a simple sketch on construction sites can clarify complex plans, prevent costlymistakes, and streamline project execution.Fostering Creativity and InnovationCreativity is key to effective problem-solving, helping students think beyond traditional solutionsand develop new ideas. Creative problem-solving involves exploring multiple
design an experiment to determine the effect of water content and pozzolansin concrete. However, they were not familiar with the design of the experiments part. So, tofacilitate their comprehension of experimental design, a relatable hypothetical situation involvingthe evaluation of the effect of a secret ingredient in cake baking was discussed. That discussionhelped to ignite their thought process and it also gave an opportunity to discuss the need to havea control group when designing experiments. Following the cake ingredient discussion, studentgroups discussed during lecture how to devise experiments to find the effect of water content andpozzolans. With our guidance, they formulated plans to determine the effect of varying water-cement
their feedback. Components were on the top of the unlabeled PCB,with traces on the bottom. One student found it difficult to “look underneath for connections andflip it in your head,” and others were impeded by the cables and probes attached. To address this,the research team plans to design a PCB with silkscreen labels for the test points to evaluate howclearer labeling impacts students’ debugging methodology.Five students expressed uncertainty about permissible modifications to the circuit and lab setup.Explicitly stating any prohibited changes in the exam instructions may help students begindebugging more confidently and efficiently. For example, the next exam version will clarify thatstudents are not to cycle power on any test equipment, as
choose the right one. Teaching in generalQuizzes:One method that has increased student aptitude across all genres of classes – weekly quizzes.Every Monday, students take a 5-minute quiz. Why Monday? I am still rusty from the weekendand need a few minutes to center and focus on how I am delivering my lesson plan and lets mesee what has stuck and what they missed. Why 5-minutes? It is enough to see how they arefollowing the gist of the previous week and allows time to revise the lesson. I thought this wasthe end of this evolution, but I found something better.I originally graded the quizzes during the week and returned them. Then one term when I wasoverloaded, I took a shortcut and allowed the students to
specifications. Amongthese requirements, the engineering education curriculum must include a total duration of 3,200to 3,600 instructional hours, of which at least 500 must be dedicated to professional internships.Although there is significant variability in completion of these programs nationwide [7],engineering training must culminate in a capstone project, a thesis, or passing a comprehensiveexamination, which may be part of credit requirements or plan-specific milestones.According to guidelines established by the Chilean National Accreditation Commission (CNA)[8], engineering programs must ensure that their students acquire the necessary competenciesto apply a distinctive set of scientific, mathematical, and technological knowledge dimensions.To
learning in the field of robotics.Students were asked to construct, build, and program a robot both individually and collaborativelyas a group. The study findings showed that collaborative learning does not outperform individuallearning in improving students’ troubleshooting skills. In a work in progress [10], severalengineering faculty members at Kennesaw State University proposed a long-term intervention planto add instructional materials and/or assignments to a wide range of engineering courses to helpengineering students develop troubleshooting skills. However, their plans were interrupted due tothe Covid-19 pandemic, and the preliminary study had been limited to evaluating students’ skilllevel pre-intervention. In [11] a technology enhanced
procedures to the VR Specialist’s focuson hardware/software tools and the Education Specialist’s emphasis on instructional design, theproject benefited from overlapping but distinct areas of expertise.5.2 “How-To” Guide for 360-Degree Video ImplementationBased on our collective reflections, we propose the following roadmap, as shown below. Identify Core Learning Objectives Plan the Filming Setup o Focus on procedure-based tasks o Determine optimal camera suited for 360-degree visualization. placement and lighting; confirm hardware is charged. o Schedule filming in a window that
conversation unfolded andwere not always according to plan. Interviewees dependably provided adequateresponses, and some elaborated quite extensively. The interviews were not typicallyrecorded. Students gently edited and condensed the responses as they preparedtranscripts to share with the rest of the class.In the constantly changing civil engineering landscape, a contemporary viewpointcan help students tremendously. Students appreciated the unique opportunity tospeak with an expert in the field. And the interviewees enjoyed the chance toreconnect with the university and visit with a student who would soon join theworkforce. This project was a meaningful complement to the normal series of lecturesand assignments that are typically heavy with tedious
preparedness. Institutions seeking to maximize the benefits of makerspacesshould consider integrating structured reflection practices, providing mentorship opportunities,and embedding experiential learning assessments into their programming. One of the moreinteresting findings from this study is the identification of the iterative nature of Kolb’sexperiential learning cycle. The participant currently has plans to participate in the summerinternship again in 2025, and future research will study how their next iteration of concreteexperience supports new learnings, which are built on their previous experience in themakerspace. Future research should also explore the long-term impacts of makerspaceengagement on career readiness and interdisciplinary
-worldchallenges. In contrast, modules such as “Capstone Project” and “Artificial Intelligence”incorporate collaborative problem-solving, improving social innovation skills. Culturaldimensions—including sustainability, ethics, and socio-economic adaptability—are notably absentin most technical courses. The mapping of these attributes is presented in Table 1 below.Table 1: Innovation attributes across engineering courses in current education programs Course Learning outcomes Technical Social Cultural ROBT 301: Mechanical Design mechanical parts using ✔ Design with CAD and CAD tools and 3D prototyping Machining Laboratory CHME 353: Plan and setup experiments
they dothe projects to consider the pros/cons. In future, we will continue to improve the project afterassessing the outcomes. We will further investigate the type of material that we use for the 3Dprinting, assessing the pros and cons. After we improve these projects fully, we plan toincorporate a different fabrication process for the puzzle and visor to show students theimportance of understanding the manufacturing process when they select a specific material fortheir product.
. 4Table 1. Suggested Tools and Metrics for Program Monitoring and Evaluation Processes Measurement Variables Data Collection Tool Professional HS Teacher satisfaction with Focus group interviews Development of workshops Written questionnaire on teacher HS Teachers satisfaction and perceived learning Quality of the immersive curriculum Evaluation of the quality of the and implementation plans teachers’ curriculum by project team members HS teacher content
of myself]. [But]one of the reasons I was hesitant to switch [out of] engineering [was] the idea that I could justkeep my bachelor's and be very marketable after I graduated, being a female, a minority, [I’d]get a decent job just from that with a pretty decent salary. I just wanted to get my bachelor's andthen go into the workforce. But with epidemiology, if I made the switch, I knew I'd have to get mymaster's as well and possibly my PhD. [So] my plan right now [is] doing the four plus oneprogram to get my MPH.[Now that I’m in public health], it doesn't feel isolating. I feel like you see a lot more women ofcolor. There's a lot more groups that I have found and a little bit bigger of a community. So I justfeel like there's more support going
(air quality course being offered MWF morning for ½ semester; waterquality course being offered Thursday afternoon for full semester) only four students attendedthis course. The school of engineering plans to offer the air/water quality course as a package inSpring 2026 again and expects 10-15% participation from the seniors. The professional preparation goals for this first offering were diverse. Based on the studentfeedback, we would be narrowing it down to professional preparation for advanced HVACengineering only.2. Fluid Mechanics of Air QualityStudents in this course were familiar with the basic principles of fluid mechanics and werechallenged with applying them to the dynamics of solid and liquid particles in gases. Correctionsto
behaviors. This orientation emphasizes individual differences in managing actionsneeded for goal attainment. Action-oriented individuals excel at using cognitive control tomaintain the effort required for progress, effectively setting, planning, and implementingacademic goals. In contrast, state-oriented individuals may recognize similar goals and plansbut struggle to sustain the cognitive control necessary to execute them due to i) hesitationwhich leads to difficulty starting tasks and procrastination, ii) preoccupation which leads totrouble resuming tasks after interruptions and iii) volatility which leads to difficultymaintaining focus and switching to more engaging and fun activities.Recent work in the past decade has identified two key
, significantlyenhance motivation and academic performance among African American engineering students.This initiative offers a meaningful opportunity to support underrepresented students and addresslongstanding inequities in the aerospace engineering field.Methods OR Assessment Design and AnalysisTo assess the learning outcomes, we plan to utilize the Student Assessment of their Learning Gains(SAGL) survey as the primary evaluation tool [3]. We anticipate the results will indicate thatcombining PBL with hands-on experiments significantly enhances students’ evidence-basedreasoning, problem-solving skills, and ability to apply theoretical knowledge in practical aerospacescenarios. The analysis of the SAGL data should reveal, for example, that these active
Kirchhoff’s Laws Tuesday AM Introduction to the Raspberry Pi & GPIO PM Community building activities. Test and measurement equipment & circuits Wednesday AM control flow – decisions and loops PM Introduction to bio-medical devices Thursday AM Functions, Arrays and I/O PM Basic input and output on the GPIO (actuators & sensors) Friday AM Computational Thinking, Pseudocode, debugging PM Discussion and evaluation of the biomedical device to be built Week 2 AM Communication protocols (SPI), Data acquisition from the GPIO Monday PM Planning, Pseudocode development Tuesday
structurethat allows for limited absences without additional steps or requirements. These findings promptus to further explore students’ motivations for attending class. Specifically, we aim to investigatewhether her attendance decisions are driven more by intrinsic motivation (e.g., a desire to engagein learning) or extrinsic motivation (e.g., a desire to earn a good grade). Understanding thisdistinction could help clarify why she perceived the creative solution policy as less fair or suitabledespite its flexibility.FUTURE WORK. To build on these insights, we plan to refine our interview protocol to includemore direct opportunities for students to describe other “middle ground” attendance policies theyhave experienced. Additionally, we will encourage
) (b (c) (d Figure 3.1. (a) Play-doh buck, (b) vacuum formed mold, (c) candle wax in mold, (d) final product4. Project AspirationsAs previously mentioned, the end goal of this project is to provide a device that is readily andeasily accessible to as many people as possible, so that they may be able to more easily makenew things and contribute to a more sustainable world. As such, upon the completion of thisproject, it is planned that all files and documents related to creating a vacuum form device likethe one outlined in this document will be redistributed on online maker forums and websites suchas
align with learning objectives. Moreover, the examples must be structured in aprogressive sequence, ensuring that each subsequent problem builds upon the understandingdeveloped in earlier exercises. This careful design is essential to cover the full scope of coursecontent without relying on traditional lectures or pre-class materials.Although solving examples is an effective pedagogical tool, it is inherently time-consuming. The"race against time" becomes a significant concern, especially in courses with dense syllabi. Despitethis, the framework has been successfully implemented without sacrificing any critical topics,demonstrating its feasibility with strategic planning and well-crafted exercises.Another challenge involves students
find themselves in. Thus, each formal researchproject that a JEDI ambassador conducts will not be solely research, but we will also ask who thestakeholders are who are most affected by the research project and incorporate their perspectiveinto the research design. Conversely, each educational design or leadership project can be thoughtof as an activity that requires background knowledge, planning, testing of outcomes, andevaluation or improvement.JEDI Cohort Year and Implementation TimelineThe JEDI Ambassador Program spans four years, following an annual cycle of summer recruitmentand training, fall and spring project work, and a spring end-of-year showcase. We anticipate thateach cohort will comprise five JEDI Ambassadors, mentored through
-printed mechanism for a Machine Design course.Overall, the performance of each team was satisfactory. Many proposals developed resulted in amodule that could be readily implemented into our engineering curriculum, with the pneumaticclaw and fish tail design teams producing successful prototypes to showcase the module outcomes.Documentation of these modules revealed deep connections to both the soft robotic principleschosen and the proper educational material designs. We plan to implement some of these resultingproposals into their intended courses in the future of this project.Survey OutcomesOut of 9 students participating in the clinic project, 7 completed the post-clinic survey, and 6consented for their data to be used for publication. This
wereexceptional in connecting the classroom to real life, complementing the interdisciplinary lessonsof the course, while adding analytical depth to final deliverables from all student teams. Withcareful planning, similar results could be achieved without expensive international travel —either through domestic alternatives (as with the team addressing DS-51 visiting Washington) orelse forgoing visits while preserving the pedagogical aspects of the course.ConclusionsThis paper presents a case study which brought engineering and political science studentstogether in a flipped-classroom, experiential learning course. The impetus for this course is theneed for interdisciplinary thinking to address the nation’s most pressing national securitychallenges
children to complete the activity on their own.Based on these findings, we revised four previously developed MAKEngineering kits [10] by theresearch team to target the needs of homeschool families. In general, the kits were designed tofollow an engineering design process – research, plan, create, test, improve, and reflect – similarto that of Teach Engineering [11]. See Figure 1 for an example. In this kit, children were taskedwith the following: You have been asked by a popular shoe company to design a new trendytennis shoe for unique needs of their four customers. Pick one of the customers and design atennis shoe to meet their needs. You decide to use everyday products to construct the tennis shoeprototype.Figure 1. Engineering design cycle for
thinking with automation tools (ISTE Framework), andothers as practices involving computer tools (NRC, 2012, as cited by [19]). In this aspect, anincreasing trend has drawn attention to CT activities involving algorithm design tasks andeducational robotics [20]-[21]. One of the reasons is that coding games enhance children'sproblem-solving abilities, requiring strategic planning, self-regulation, and logical reasoning[22].Despite this broad discussion, how preschoolers engage with CT is still obscure. Engagement is aconstruct with multidimensional and interrelated components, such as cognitive, behavioral,emotional, and social [23]-[28]. Scholars have included a social dimension in recent studies,consistent with Vygotsky’s social constructivism
. Introduction and Educational Research GoalReverse engineering is a process whereby a person deconstructs a device to better understandhow it operates, including features that enable its capabilities [1–4]. Motivations for such anendeavor include the desire to repair a device, a plan to update the device functionality, or anaspiration to identify the design elements that are publicly disclosed given their presence in amarketed physical product. Deconstruction of physical hardware and its documentation are oftenreferred to as a “teardown” – a process that is legal and encouraged in industry, though thesubsequent use of the lessons learned is limited [5]. While teardowns play a prominent role in themedical device industry, including as a means to keep
improve student engagement andlearning outcomes [13].We have been working with Hope-Hill Elementary School as a trial laboratory since 2022. Therest of the paper describes the two “cycles” that have defined this collaboration thus far. First,though, we describe background information to help contextualize the “art” and “design”activities that are referenced later in the paper. Below, we introduce the Electronic ARTriumproject and establish the design thinking framework that guides this work.The Engineering Design Process in the context of anElementary School CollaborationThe framework that we used to understand the EngineeringDesign Process is shown in Figure 1. This process identifies sixstages of design (Ask, Imagine, Plan, Create, Test
19, 2009 and his help and guidance during the planning and preparationperiod of the conference. We are also grateful to the keynote speakers: Dr. Marvin White, Professor andDirector at Lehigh University, Allentown, PA; Dr. Shu Chien, University Professor and Director atUniversity of California, San Diego, CA; and Dr. Melissa Micou, a young talented faculty member in theDepartment of Bioengineering, University of California, San Diego, CA. We would like to express oursincere gratitude to Dr. Thomas MacCalla, VP, National University and Executive Director, NUCRI, forhis support and a special presentation at the dinner. It is our privilege to welcome Dr. David Hayhurst,Dean, College of Engineering, San Diego State University, for his concluding
different types of ADHDexperiences.8. Future Work and LimitationsA major limitation to this work was the small sample size used to generate an LDA model as anLDA model is more accurate with more data for training. While the ideal sample size for LDAmodeling can vary, previous literature suggest using a sample size of at least fifty withpreference for larger sample sizes for more accurate and stable results [73], [74]. We plan toaddress this limitation in our future work by using APIs to data mine social media platforms. Bydata mining social media posts, we will be able to gather large amounts of data to train our LDAmodel for more accuracy. Further, the LDA method alone analyzes words and does not considercontext or syntax of those words (e.g., the