Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering EducationThe design of the laboratory itself can greatly enhance the learning potential of those thatuse it. An efficient laboratory experiment should [7]:· clearly relate to textbook materials,· relate to real life situations,· challenge students’ ability to design and test, and· encourage the student to analyze the design and draw conclusions.Along with an effective design, a laboratory that emphases a multi-disciplinary teamapproach to problem solving best reflects current industry practices.VI. ConclusionAt the University of Central Florida the new approaches in engineering and
further information about EMSET2'scontent, contributors andprovides help in gettingstarted. The ADDITIONALRESOURCES sectioncontains supplementalteaching material includingphoto galleries with manyphotomicrographs, “AShort Courses onMicroscopy of Fiber-Reinforced PolymerComposites” and manyurls of engineering andtechnology websites. The EXPERIMENTS &DEMONSTRATIONS sectioncontains over 400demonstrations andexperiments. It is the heartof the NEW:Updateworkshops.Experiments & Demonstrations Section-This section includes over 400 experiments and demonstrations in PDF format from theannual NEW:Update workshops. They have been reproduced in their original peer-reviewed form, preserving the individuality among the papers and reflecting the
EDT 355 students, not simply on behalf of the students. Ideally these teams would include industry stakeholders as well. Reflect the image we want our students to emulate. Students learn outside the classroom as well as inside the classroom. We must maintain a professional demeanor in all our interactions on and off campus, as students are watching and learning from our actions as well as our words.Understanding that our students want – and need – to be part of the decision-making process, aswell as knowing that industry wants and needs graduates who work collaboratively, we mustprovide those learning experiences for them. Doing so also provides us the opportunity to betterunderstand and appreciate
-axialloading, tensile tests were conducted on aerospace grade fasteners. The fasteners were loaded inpure tension, pure shear, and in mixed loading between 0° and 90° in 15° increments. The normaland shear displacement of the fasteners were recorded along with the corresponding force appliedto the test fixture. The data collected from these experiments showed that the fasteners in tensiondominated loads failed at significantly higher loads as compared to fasteners in shear dominatedloading. IntroductionThe importance of fasteners in mechanical assemblies cannot be understated [5]. However, thissignificance is not reflected in the reasonably limited published works and technical papers onquasi-statically
learning activities to promote students’ deep learning.Cognitive psychology literature shows that students do not necessarily learn concepts deeply bysolving problems, unless they monitor their thinking and decision-making process before andduring problem solving, and reflect on the process after will help to conditionalize theirknowledge, i.e., when to use what knowledge to solve the problem.In this paper, we present a study on a multidimensional approach to enhancing students'reasoning skills by integrating a variety of explanatory learning activities, namely oral exams,written guidance prompts for homework which asks students to justify their problem-solvingprocess, and video assignment in which students perform group-explanation on
: Reflections and recommendations.” The Sport Psychologist, 33(4), 345-355, 2019. 15. H. Lee, S. Kim, & Y. Song “An intergenerational mentoring program for emerging adult university students.” Journal of Intergenerational Relationships, 19(1), 41-56, Implementation: Pre-semester workshops prepared near- Fig. 1. Theoretical Framework of Dual- Form Mentoring Model for EL 1301 2021. 16. R
, and the journal entries are part of the course grade. The time tracking hasproven to be a rich source of data and insight into team performance. The data analytics allowtracking of individual efforts on the team (Figure 2). The data in the figure shows that 2 of theteam members seem to be doing most of the effort and that one team member is not contributing.The time entries have to be justified in the corresponding journal entry. The time data andjournaling have allowed the course grade to reflect more individual effort versus being driven bythe team results.Figure 2. Example Student Hours AnalysisProject DataThe initial purpose of the MS Teams site was to capture all project data in one location. This hasworked well but does require that the
on graduate-level students or professionals inengineering, highlighting a deficiency in undergraduate education and a demand for moreinclusive and easily accessible courses. Additionally, while we have identified several existingAV education programs at university, the vast majority of universities offer nothing yet. It isessential to create these courses in order to offer a comprehensive education that encompasses allProceedings of the 2024 ASEE North Central Section Conference Copyright © 2024, American Society forEngineering Education 2aspects and reflects the interdisciplinary character of the AV industry that is accessible tostudents across
identification skill development.MethodologyWe adopt a Design-Based Research (DBR) methodology to systematically explore and developinnovative educational strategies, such as indigenous model-eliciting activities (MEAs). Thisongoing study involves first-year engineering students from two engineering courses, ENGR 100and ENGR 102, across Fall and Winter terms, encompassing approximately 360 participants. Ourdata collection methods include pre-and post-surveys, student focus groups, and analyses of MEAsolutions. The surveys blend domain-specific existing self-efficacy and growth mindset measureswith tailored questions reflecting specific challenges, issues, or difficulties indigenouscommunities face. Focus groups examine students' subjective experiences
the positive impact of the students’ presence in the community,such as having college students mentor younger community members, thereby providingcommunity members with positive role models and revealing college as a more tangible option.Bell and Carlson also discussed increasing organizational capacity by leveraging studentcapabilities not otherwise available in the organization, such as web design skills.Additionally, all of the studies mentioned that students brought new ways of looking at situationsthat were beneficial to the organization. For example, Sandy and Holland coded students’different views under “organizational and personal development,” since their views brought asense of self-reflection to the partners, allowing them to learn
be emulated in school, even with the capital cost expenditure Page 24.936.2 made by schools in order to obtain and maintain laboratory environments that reflect the modern industrial facility [2]. 2. From the students’ side there is no additional cost involved as the project is fully sponsored by Mazak. 3. Mazak benefits from this program by the opportunity of their employees interact with highly academically trained students, fully dedicated to experimental initiatives.According to Todd et al. [3], it is essential to keep in mind that industry is an important customerof engineering education. Ignoring this
thinking skills can be improved by engagingstudents in hands-on engineering and design activities intended to foster knowledge, skillsdevelopment, and problem solving [1]. Engineering activities foster the development ofindependent, reflective, and metacognitive thinking in K-12 students [6]. In particular,engineering thinking involves creativity and innovation. Creativity involves fluency (producing alarge number of ideas), flexibility (producing a variety of ideas that fit in different categories oran ability to see things from different perspectives), and novelty (producing ideas that are uniqueand original) [16, 17]. According to Shah and Vargas-Hernandez [18], “an engineering designmust not only be novel (unusual, unexpected) but it must also
FOUR: 12 – 15 August, 2013 Teachers worked collaboratively and with curricula development coaches to finalize lessons. Consolidation Emphasis was placed on reviewing the vertical integration of learning goals among disciplines and grade levels. Participants also developed a range of assessment materials that reflect learning within the Common Core State Standards.Students Provide Beta Testing and Teachers Receive Two Levels of Feedback: Participating teachers spenta portion of their day crafting and field-testing small learning units for a group of 350 gifted-and-talented (G/T)students attending co-located summer enrichment programs that mirrored the learning activities being
analyzing interview transcripts also receive training.Second InterviewThe second interview allows participants to describe the details of present experience through anarrative about her current career, including what she learns formally and informally throughother people, mentors, or job assignments that influences her STEM career decision-making. Theinterviewer asks the participant to reflect back on the history of her choices by describing theturning points, significant life or job events, and experiences that led to STEM career persistenceor decision to leave. The researchers are attuned to both overt as well as minimally expressedbias and discrimination issues and seek to build rapport in a manner that allows furtherexplication of how these
%) watched the online videos prior to the corresponding lab as a way to prepare for theassignment.Overall, more students (53%) perceived that the use of online videos did not make the coursemore difficult than a traditional lecture-based course; however, the majority of students (72%)consistently reported from pre- to post- that they preferred to attend a formal lecture rather thanwatch online videos (see Table 2). Similarly, approximately two-thirds (68%) of the studentsreported that they were not comfortable using the video lectures for learning. These responsessupport students’ self-reported lack of use for transfer or conveyance of new information.Student responses may reflect prior experiential bias (i.e., expectations of STEM contentdelivery
educational intervention for a senior capstone course in aircraftdesign at a large, research-intensive university. The intention of this intervention is to providestudents with the opportunity to consider specifically how stakeholder requirements and concernscan be integrated into the design of a fixed wing vehicle. Lab sessions will focus on importantcharacteristics of engineering design, specifically collaboration, negotiation, and communication.The students will also engage in reflective activities to prime them for the lab activities andcontent. These reflective activities include the opportunity for students to consider what designactivities they have been utilizing in their individual design projects. In addition, the students willbe introduced
engineering education in the United States remains largelyunexplored.A distinctive feature of knowledge building is that it is idea-centered, a characteristic essential ina knowledge age pedagogy. By focusing on ideas rather than schoolwork and tasks, knowledgebuilding supports the intentional, reflective, and metacognitive engagement required for deeplearning. In a knowledge-building environment the focus of the learning community is oncontinually improving ideas. It begins with a question of understanding that is developed by theparticipants, such as, Why do we need water to survive? Learners are encouraged to generate andpost their ideas about the topic--typically in an asynchronous, online group workspace such asprovided by Knowledge Forum
relevance of computing. Nearlyall of the attendees expressed the desire to make the computer science courses more interesting andattractive to potential students, and particularly to girls and under-represented minorities. Basedon these expectations, we developed a workshop theme of “Computer Science is relevant, practical,and fun.” Computer science is relevant for high school students because of the pervasiveness of Page 23.1363.5computing in our world, with computers integrated into everything from cars to communicationdevices to entertainment. The practicality of teaching learning computer science is reflected in thebroad range of learning
circle modeldemonstrated that peer-to-peer tutoring resulted in improved written communication thatdemonstrated higher-level critical thinking outcomes from students further along in theirprogram of study written communication [7]. However, the writing circle approach requires ahigh level of commitment, time, and money for the training and its continued use. Eachapproach, regardless of the academic year of the students, had a positive result, with some of theparticipating students reflecting that the process helped them to become better writers by seeingthe work of others [6] [7].Collaborative ApproachesA collaborative approach that comes from forming a collaborative relationship between STEMinstructors and writing center staff can result in
knowledge within the fAEC-KLM. Not only did they appreciate the lectures, but they also emphasized on the impact of knowing about African American female AEC professionals. AAMG11 verifies that there was knowledge gain from AEC lectures on the underrepresentation of African American females in AEC: “I would say the lecture on the AEC females or African American females gave us a bunch of like knowledge, background knowledge on AEC and what its about and also the important role models.” The exposure to role models addresses the need for women of color in STEM to see themselves reflected in the field as discussed by [21]. The statements made by these RPs on the impact of the
andexercises, they learn how best to approach the problems described in the case. With case-basedteaching, students develop skills in analytical thinking and reflective judgment by reading anddiscussing complex, real-life scenarios.When teaching a programming language course, I often found that students lost focus andinterest when I introduced syntax or structure and sometimes the students got confused withoutknowing what they are used for. In the summer of 2012, I joined the CityTech’s effort ofdeveloping a series of case-studies in teaching different subjects.A story with the title of “A ‘Gooey’ Situation” is based on an article from the New York Times,“Accord Reached Settling Lawsuit Over BP Oil Spill” By JOHN SCHWARTZ, Published:March 2, 2012. The
these stages occur during the product's operational use. For theSupport and Retirement phases, common elements are found in the DOD Systems EngineeringManagement Plan, INCOSE Vee Model, and DOT Vee Model. However, the Deloitte Frameworklacks steps for these stages. Insights from successful entrepreneurs, as reflected in [Fig. 1],suggest revisiting the transformation phases for support and selling the product to recoversalvage value at retirement instead of incurring disposal costs. Figure 1: Compression of DOD systems engineering management plan, DOT & INCOSE life cycle model, Deloitte’s framework, and Digital transformation infusion © American Society for Engineering Education, 2024
forstudents to engage in problem-solving, critical thinking, and reflective practice, all of which areessential components of deep learning. By working through actual engineering challenges,students develop a nuanced understanding of the subject matter, which is often not achievablethrough traditional lecture-based instruction [4]. The use of case studies in teaching systems engineering and digital transformation isparticularly effective. Digital transformation encompasses a broad range of interdisciplinarytopics, including cybersecurity, artificial intelligence, and the Internet of Things (IoT). Theseareas are characterized by rapid technological advancements and complex, multifacetedproblems. Through case studies, students can explore these
language and cultural resources and how students draw on differentsets of talk depending on the context, whether near or distal from the activity at hand. It contendsthat without a deeper understanding of the role of non-dominant ways of speaking in the act ofbecoming and belonging, efforts to diversify engineering will remain elusive. Ultimately, thispaper summarizes these ideas through a conceptual model for engineering learning environmentsthat value and leverage the resources that students bring from their communities. By creatingmore equitable and socially just solutions, engineering education can better serve the needs ofdiverse populations and ensure that the profession is truly reflective of the communities it serves.Keywords: language and
developmental research &implementation phases:Influencers for Transformative Education [5, 2]:1. Critical awareness of culture2. Professional identity development3. Participation in communities of mentoring and learning4. Holistic skill integration through reflection5. The development of professional integrity through affective awarenessFig. 2 [3] is a visual representation of the process of these five influencers’ impacts on studentexperiences in an electrical and computer engineering program. This model of the fiveinfluencing factors was then used in the development of the subsequent study's interventions.Figure 2. Process of Transformative Learning as Affected by the 5 Influencers: Culture,Participating in Communities, Reflection, Professional
prize: the best plan would determine the winner’s side.Learners could present their solution in the manner of their choosing, from dramatic skit toslideshows. The proposed solutions were judged by the instructors and representatives from theDAF and included an intensive review and feedback session.The last day of the workshop – day 4 – was only available to DAF personnel and led by the DAF,comprising a reflection and application of the learned concepts to solve real and pressing DAF andDoD challenges. 3.3 Tailored materialsThree sets of materials were prepared, red team and blue team workbooks, and an extensivefacilitators guide. For learners, all activities were guided by the associated workbook, specificallydeveloped for each team (blue or
the utility company, theengineering design team, and the installation contractors, directly affected landowners,community members either in support or opposed to the project, and other community leaders.Impacted parties with similar interests worked together to establish different arguments in favoror against the proposed project. During the final exam period, we held a mock town hall meeting.Afterward, the students reflected on why they voted as they did and how the arguments that werepresented during the hearing influenced their decision (Appendix D). This final assignment wasdesigned to help students imagine themselves as engaged citizens as they prepare to graduate andbecome working professionals in the community.ResultsInitial results
protect and improve our planet and our lives,despite student and industry demand for it [6], [7], [8].The Engineering for One Planet (EOP) [9] initiative seeks to change the course of engineeringeducation to reflect the growing urgency to incorporate fundamental climate and sustainabilitytopics into all engineering disciplines. Catalyzed by The Lemelson Foundation [10] andVentureWell [11] in 2020 —in collaboration with hundreds of contributors from acrossgeographies, lived experience, and sectors — EOP seeks to ensure that all engineers areequipped with core skills in social and environmental sustainability, such as sustainable designand lifecycle impacts, and related professional skills, such as teamwork and critical thinking.Fueled by the input
Education at Purdue University. She is currently a Professor in Biological Systems Engineering at the University of Nebraska - Lincoln. Her role in the College of Engineering at UNL is to lead the disciplinary-based education research initiative, establishing a cadre of engineering education research faculty in the engineering departments and creating a graduate program. Her research focuses on the development, implementation, and assessment of modeling and design activities with authentic engineering contexts; the design and implementation of learning objective-based grading for transparent and fair assessment; and the integration of reflection to develop self-directed learners.Dr. Grace Panther, University of Nebraska
2017 2018 2019 2020 2021 2022 2023Demographics, Graduation, and RetentionThe demographics for the Engineering Academies have been consistently thesame or higher than the full university admitted engineering students. Mostspecifically the underserved population has consistently been higher. This isdirectly related to the recruiting outreach targeting the non-traditionalstudents and bringing the “start local – save money – graduate an engineer”message to the students that didn’t previously believe they had the chance tobe engineers.The chart below reflects the total demographic from 2015-2023 as an averagethroughout the first 8 years of the academies. © American Society for Engineering Education, 2024