and Education: A Review of Current Trends and Future DirectionsAbstractThe construction sector has experienced significant technological advancements in recent years,with Building Information Modeling (BIM) playing a crucial role in enhancing project efficiencyand collaboration. This study investigates the integration of Virtual Reality (VR) in construction,emphasizing its potential to revolutionize various aspects of the building process, includingdesign, planning, project management, and stakeholder collaboration. VR empowersstakeholders by enabling informed decision-making, issue detection, and operationaloptimization through real-time visualization and simulation in immersive 3D environments.Meanwhile, BIM provides a
[1]. In healthcare, virtual reality simulations enable medicalstudents to rehearse surgical procedures, thereby improving their skills in a low-risk, controlledsetting [2]. This technology has been employed in therapeutic contexts, where immersivesimulations assist patients in surmounting phobias and fears [3]. Rizzo et al. [4] investigated virtualreality as a mechanism for military training, specifically in combat simulation and stress-induceddecision-making, concluding that virtual reality facilitates effective, immersive training thatimproves readiness and situational awareness without real-world hazards. In architecture andconstruction, virtual reality allows designers and clients to digitally examine building plans,offering insights
, behavioral regulation, and emotional regulation. The team effectiveness and teamregulation was scored on a scale from 1 to 3 on the rubrics, reflecting the extent to whichstudents demonstrated these attributes. For the intercultural goals setting, a rubric was used withcategories for goal setting, progress and reflection, and application and future planning, scoredon a 1 to 4 scale. After the reflections were scored, we calculated the descriptive statistics forteam effectiveness (TE), team regulation (TR) and intercultural competence (IC). Mean standarddeviation and median for each of the three was calculated. The median score for team regulationwas used to group the high and low categories. Further a matrix was created for teameffectiveness and
development to cooperative educational experiences, and using story-based methods andreflective practices to guide students in their personal and professional development.E-portfolios, integrated into an educational plan that challenges students to exercise and extend theirproblem solving and storytelling abilities in both personal and professional domains, are a powerful toolfor promoting entrepreneurial mindset. Teaching engineering students how to identify and communicateessential elements of a problem-solving scenario along with their own professional aspirations as a storywill enable them to develop and apply entrepreneurial mindset to condense complex situations intoconcrete courses of action.Effectively integrating e-portfolios requires that
curricular intervention includes the design ofopen-ended, team-based, K-12 STEM activities related to the course topics, such as: augmentedreality in environmental engineering, transport of contaminants in the environment, andremediation of pollutants from the natural environment. These K-12 lesson and activity plans,created by the engineering students, include a brief presentation of the subject matter and anengineering design activity for the K-12 students to complete which will be hosted onTeachEngineering open-access website for STEM curriculum. During the start and end of thisproject, a survey consisting of the Very Brief Innovation Self-Efficacy scale (ISE.5), theInnovation Interests scale (INI), and the Career Goals: Innovative Work scale
” refers to the hiring of multiple candidates within the collegeusing a single, broadly defined search criterion [1]. The cluster hire conducted in Academic Year2020-2021 was the first of its kind in the College of Engineering and Applied Science andnominally sought applicants from any rank and any discipline housed within our college.Another unique facet of the search was its being aimed at prospective faculty whose experienceand plans for teaching, research, and service aligned with creating a more inclusive academicculture of excellence in engineering and computer science. We operationalized the search to hirefaculty who could support our institution’s plan for inclusive excellence [10] by evaluatingfaculty candidates’ demonstrated knowledge
member expanding on the pre-workshop materials, then attendees shared theirperspectives in discussion groups while SDEI members served as moderators and note-takers.This paper provides a model for other student groups of the planning, structure, content, andoutcomes of an Unlearning Series. Responses from participant surveys conducted at the close ofthe summer and group reflections amongst SDEI committee leaders are also presented. Thisfeedback has been translated into lessons learned presented at the conclusion of this paper.IntroductionIntegrating diversity, equity, and inclusion (DEI) topics in university coursework intended toprepare future planners, designers, and builders has proven to be a challenge. Faculty membersin these fields base
, building coalitions, and fosteringwell-being. Approximately 300 women attended the first conference, with participant numbersgrowing incrementally each year.In 2016 Dr. Menah Pratt Clarke, one of the founders of the FWCA conference, assumed theposition of Vice President for Strategic Affairs and Vice Provost for Inclusion and Diversity atVirginia Tech. With her move, the FWCA conference transitioned to Virginia Tech inBlacksburg, Virginia. The sixth annual FWCA Conference is planned for April 5-6, 2018.Conference highlights include keynote speakers Maria Hinojosa, Senior Correspondent for theEmmy Award-winning broadcast news magazine NOW on PBS. Hinojosa is also the anchor andmanaging editor of NPR's "Latino USA," and Brittney Cooper, Associate
Collaborating Working with a team to achieve collective and individual goals Valuing and sustaining a supportive environment for all knowledge and Relating inclusively perspectives Developing shared vision & plans; empowering to achieve individual & Leading others collective goals Practicing self-growth Planning, self-assessing, and achieving goals for personal developmentIndividual Being a high achiever Delivering consistently high quality work and results on time
Intelligent Systems, Control, and Robotics (CISCOR) at Florida State University. His research interests are primarily in the areas of dynamic system modeling, intelligent control, autonomous mobile wheeled and legged robotics, dynamic motion planning, and mechatronics.Dr. Matthew James Jensen, Florida Institute of Technology Dr. Matthew J. Jensen received his bachelor’s degree in Mechanical Engineering from Rose-Hulman Institute of Technology in 2006. Matthew received his doctorate from Clemson University in 2011 in Mechanical Engineering, focused primarily on automotive control systems and dynamics. During his graduate studies, Matthew was awarded the Department of Mechanical Engineering Endowed Teaching Fellowship
Generation Science Standards1 (NGSS) and an all-out push by President Obama andthe Department of Education seek to reform science education by introducing engineeringcontent and practices into Kindergarten through 12th-grade instruction. Science teachers acrossthe grades are tasked with including engineering in their science curricula creating the need forresearch on NGSS execution and roadblocks. This qualitative study stemmed from anexperienced high school physics teacher’s unexpected change in co-planned engineeringinstruction during a math and science enrichment camp. In an attempt to understand Evan’s*actions, this study examined the origins of and tensions within Evan’s engineering educationepistemology (EEE). My main research questions were
Programming 1 and Programming 2 at OhioNorthern University has used the term project theme of developing K-12 educational softwarefor many years, but until 2014 the project was done without the benefit of having a client tosatisfy. Consequently, the instructor could only provide feedback on the technical aspects of theimplementation, and most of the feedback was summative. With the recent establishment of anengineering education degree program, the opportunity arose for providing the programmingstudents with a meaningful client-driven design experience. The engineering education majors,acting as clients, developed lesson plans for STEM outreach programs as part of a fall semestercourse that were afterwards supplemented by software applications
, and recommended practicesfrom the Madison College experience are detailed. Madison College completed a SolarRoadmap in order to prioritize and sequence investment in solar across the multiple buildingsand campus locations operated by the college. The featured installation was the first projectwithin that plan. A ten-step guide on how to create a solar roadmap is shared, so that otherschools can learn from Madison College’s experience and replicate the process for their owninstitutions.Introduction - The Opportunity for Schools to Pursue Solar EnergyThe past two decades have seen massive growth in renewable energy while aging and obsoletecoal fired electrical plants are increasingly being retired. This is illustrated in Figure 1 by thegrowth
a science methods class (n = 15). The paired classes collaborated inmultidisciplinary teams of 5-8 undergraduate students to plan and teach engineering lessons tolocal elementary school students. Teams completed a series of previously tested, scaffoldedactivities to guide their collaboration. Designing and delivering lessons engaged universitystudents in collaborative processes that promoted social learning, including researching andplanning, peer mentoring, teaching and receiving feedback, and reflecting and revising theirengineering lesson. The research questions examined in this pilot, mixed-methods research study include: (1)How did PSTs’ Ed+gineering experiences influence their engineering and science knowledge?;(2) How did PSTs
tailored educationalmethods course, one instructional planning course, a Field Practicum course,Instructional Technology Across the Curriculum course, and Instructional Teaching &Learning Styles course. The education courses train them in: 1) methods, concepts,theory, and assessment of instruction; 2) design and implementation of science andmathematics curricula with an emphasis on instructional technology; 3) local, state andnational curriculum standards, educational practices, and pragmatic and logisticalsecondary education issues; and 4) advanced technology, time management andclassroom management techniques for technology use in classrooms 2-6. Each year, thegraduate Fellows present a one- or two-day “Teaching with Technology” workshop for
progressionculminates in item 10, in which students are presented with the proposal that designingsustainably is a faithful act of stewardship. 1. God created, sustains, and affirms all creation, both human and non-human, as belonging to Him. 2. God gave human beings the responsibility of stewardship. 3. God desires for people to care for the non-human creation. 4. God desires for people to care for other humans. 5. Sin leads to all humans having a broken relationship with God and damaged and exploitative relationships with each other and the rest of creation. 6. God values justice for both the guilty and innocent but has mercy for those who repent. 7. God’s plan for the future culminates in a restoration of creation, both
thecontext of the class they are instructing, which adds an additional dimension to social-emotionalrisk by changing the witness to the confusion from researchers or other instructors to theinstructor’s own students.Reflective PracticeKolb’s experiential learning theory serves as a model for how practitioners can learn and growfrom an experience through reflective practice [31]. It begins with a stage of concrete experience,which serves as the foundation for learning, and is then followed by reflective observation, inwhich the learner intentionally reflects on the concrete experience, abstract conceptualization, inwhich they generalize what they have learned, and a planning stage in which they plan for the nextconcrete experience. These steps are
©American Society for Engineering Education, 2024 Envisioning and Realizing a State-wide Data Science EcosystemAbstractThis paper describes the vision, strategy, plan, and realization of a state-wide rigorous datascience educational ecosystem. The need for developing data science degree programs andeducation has been well-established and, in our state, a blue-ribbon panel with industry,academic, and government representatives defined the needs of the state. Additionally, a well-established “think and do tank” published several reports on the importance of data scienceeducation and graduates. As we began to develop our programs separately, it occurred to us thatwe were in a small enough state that, if we chose to do so, we could work
assisting with and judging science fairs and competitions, mentoring and tutoring localstudents, hosting DoD scholarship and fellowship recipients, providing laboratory tours toschools, and partnering with science and mathematics teachers in the classroom. However, DoDhas come to recognize that although these many individual efforts at STEM outreach areimportant, they will not be sufficient in themselves to meet the domestic and global STEMeducation challenges that weaken the security of the United States. DoD has, therefore,developed and issued the first DoD STEM Education and Outreach Strategic Plan that iscollaborative, integrative, and focused across all of DoD. The strategic plan establishes a DoDSTEM Development Office to lead STEM education
RobotAbstractThe abundance of connections between art and engineering are opportunities to engageartistically inclined students who may not think of themselves as interested in robotics, and toinspire engineering-inclined students to express themselves artistically. This work presents a toolkit and lesson plan for a hands-on introductory robotics activity centering how art and engineeringinfluence each other. The Artistic Non-Inertial Tracer (ANT) is a three-link robot made oforigami, which contacts the ground through markers that trace patterns as it slithers around. Thedesign is capable of forward, turning, backward, and diagonal motion. Using origami for the bodyhighlights the influence of art on engineering, and the gait traces are a visually
computer with the advanced software makes it very convenient and very powerful tosolve many complex engineering problems in much shorter time than before. The design andmanufacturing industries have made it a standard of using computer tools in planning, conceptualdesign, virtual test, and refinement process. It is evident when we view the job descriptions ofmechanical design engineer on many company’s advertisements1,2,3. When the companies hire Proceedings of the 2022 ASEE Gulf-Southwest Annual Conference Prairie View A&M University, Prairie View, TX Copyright 2022, American Society for Engineering Education
Hispanic students.Selected standards from the International Chamber of Commerce (ICC) and the InternationalOrganization for Standards (ISO) are being introduced to students in different levels, including ICCIncoterms 2020, ICC UCP 600, ISO 22301:2019 (Business continuity management system), ISO44001 (Collaborative business relationship management systems), ISO 31000:2018 (Riskmanagement), ISO 27001 (Information security standard), and ISO 9001. Considering the urgencyand uncertainty of the current global pandemic scenario and the constant threat that this situationrepresents to the supply chain, a business continuity plan is of vital importance to maintain anuninterrupted supply chain and logistics system. The International Chamber of Commerce
literature regarding the challenges EWB students face, theprofessional growth they experience due to their project participation, the knowledge, and skillsthey acquire, and their plans to continue this type of work in their future careers.This study seeks to investigate the benefits and challenges of EWB's experiential learning programfor engineering students and to examine the impact of participation in EWB projects on students'personal and professional development, including their skills, knowledge, and career aspirations.Specifically, the study seeks to answer two research questions: What are the benefits andchallenges of EWB's experiential learning program for engineering students, and how doesparticipation in EWB projects impact students
improve their writingand communication skills. Communication is a vital skill that can be learned and developed. A quickand efficient way of communicating complex technical ideas is by using a genre like quad chart.Through this tool, students can outline information and incorporate visuals in the planning stages of thecomposition process. A quad chart can also be integrated within a collaborative project to facilitateeffective project planning and team-building skills within student teams. This pedagogical genre has notyet been implemented on our first-year engineering students. MethodologyA quad chart comprises a single page divided into four quadrants laid on a landscape perspective. It is
. They read 2D drawing with and without technology implementation in fixed time duration.The number of correct, and incorrect identifications and the correct rate of identifications were used tocompare the two methods. According to pre- and post-study questionnaires, they found that AR is aneffective technique to be integrated into the classroom setting for improving plan-reading accuracy.However, the results did not show noticeable improvement in reading 2d drawings by the AR interpretedas the situation where participants were not comfortable holding an iPad or their unfamiliarity with thementioned technology.Shojaei et al. [4] explored immersive videos as an educational tool in construction management. Variousconfigurations of 360°, 180° 3D
sites.All of the teachers agreed or strongly agreed that their participation in the RET programincreased their knowledge of STEM topics and specifically, civil engineering topics. Theparticipants agreed to varying extents that they will use the information they learned from theprogram to teach their students and will implement the new strategies they gained to promoteincreased student learning about STEM topics. Furthermore, the feedback that they providedcorroborated some of the same changes the authors plan to implement.IntroductionWith funding from the National Science Foundation Division of Engineering Education andCenters under Award #1953102, a Research Experience for Teachers (RET) site was establishedat North Dakota State University (NDSU
these three programs as examples of suchFoundry-guided curriculum alignments and provide insight into why these elements helped us tocreate programs that advance the integration of different perspectives into STEM curricula.Curriculum Development and the Foundry ModelAccording to Bhuttah and colleagues, “The task of curriculum development is ultimatelybuilding a relationship among content/subject matter and people like students, teachers, parentsand society” (p. 14).5 It comprises a set of learning goals, activities directed by learning theories,and experiences to help develop students’ understanding of a directed set of knowledge.5,6 Forothers, curriculum is not just a written plan or document, but rather a network of relationships orprocesses
, Preliminary Experimental Plan, and PreliminaryProject Plan. Figure 3. First-semester scheduleIn the second half of the first semester, early prototyping is emphasized as a key activity. Earlyprototyping may include simulations, experimentation with selected components, andimplementation of project functionalities that may impact project success. The goal of earlyprototyping is to engage in activities that verify the design and discover design modifications thatmay be necessary. Since it is encouraged that teams undertake risky projects, this phase provides 4 2023 ASEE Southeast Section
Meeting Schools Where They Are: Integrating Engineering OutreachCurriculum in the Classroom Without Forcing an AgendaAustin HayesAustin is a PhD student in additive manufacturing and wind energy. He is a co-founder of the Triple EInitiative and began the collaboration with STEM Launch for the Triple E Initiative. He overseesvolunteer coordination, partnership with the middle schools, and logistics of the Triple E Initiative. Hehas experience meshing classroom learning with hands-on lesson plans to engage K-12 students inSTEAM.Vani SundaramVani is a PhD student in robotics at CU Boulder. She is a cofounder of the Center for Equity inMechanical Engineering action subcommittee. She oversees outreach events, communicates withpartnering schools
success, understanding andplanning for engineering careers, and building community in the incoming engineering cohort.In the activity, students are asked to respond to the prompt ‘To what extent does what you knowat the end of engineering school dictate your future career?’ Students hold up 1-10 fingers torepresent 10-100% influence over their future career and opportunities, but clickers or any otherresponse method could be used to best suit class size or other circumstances. Classes typicallyrespond with average values between 50 and 70%, saying that the majority of future careeroptions and opportunities are dictated by knowledge and skills possessed at the time ofgraduation. The students are then asked ‘What year do you plan to retire?” After