createimprovement plans to strengthen specific facets of their learning approach. Although pre-intervention scores are often given little attention after submission, the students in this studywere responsible for revisiting their initial scores through a series of reflection assignmentsincorporated into each major unit of the course throughout the semester.The LASSI dimensions can be divided into three categories: skill, will, and self-regulation [4].To better accommodate course content, the designers of GELC’s learning strategies coursecategorized the ten LASSI dimensions to align with the three primary course units: Habits ofProfessionals, Habits of Learning, and Habits of Mind (Figure 1). Within Habits ofProfessionals, the LASSI dimensions included
in problem setting and developing a plan for problem solving. In this study, weexplored the potential for an explicated ‘engineering problem typology’ (EPT) to serve as aninstructional scaffold for engaging students in ill-structured problem. Toward understanding theimpact of EPT training we conducted pre-/post-EPT problem solving sessions. Six student pairswere analyzed and evidenced change that we argue as positive. All pairs demonstrated a shift intheir problem-solving discussion from pre to post as represented by EPT discourse patterns. Thisincludes explicit identification of the problem type, specifically referencing process stages, and inmost cases, discussions aligned with EPT frameworks. The observed change in discourse
to attend school. These womenwere able to leave because they planned to return to their communities and share their newknowledge and skills. This research also emphasized the importance of sustaining the perspectiveof seeing the “self as whole” and incorporating traditional teachings and lessons with what it meansto be an engineer or technologist. For example, Jaemie merged her identities as a Native Americanwoman engineer by being involved in outreach to fulfill her cultural values, as well as a way torestore balance in her life by returning home. Maintaining balance was necessary for the womento see themselves as whole by honoring all of their identities. Foster [26] highlighted how spacesin which the whole self can be recognized are to
Engineering equal numbers of male and female students wereselected from AUC and Princeton. The wind pump was intended to serve as a test vehicle for useof wind energy in this community. It was moderately successful but because of its relative lowflow rates, it did not have a huge impact on the community (unless the diesel engine was brokenor out of fuel in which case it was better than nothing). While the wind pump could not producesufficient water for flood irrigation, it can produce enough water for other low-water usageagricultural methods like small integrated protected systems or hydroponics.For the second edition of the programmed planned for the Summer 2020, the team was to designan integrated aquaculture and hydroponic system for El Heiz that
wherestudents share answers and aimed to create assignments and exams less susceptible to plagiarism.When faculty took a learner-centered approach to conscientiousness, they put in time and/oreffort to learn about their students’ interests, experiences, and lives; they used this information inplanning course activities and examples. For example, several faculty hired peer learningfacilitators—students who had just completed the course. Rather than simply asking thesestudents to grade, they sought their ideas in planning the course, situating the students as part ofthe instructional team. Such faculty also updated their course materials, but they put effort intoresearching authentic applications of course content and checking with peer learning
capital budget. Elizabeth has been responsible for advancing leadership development, design quality control, emergency response planning and workflow improvements. She has experience with labor relations and expert consultant services for litigation. In her role, Elizabeth also has made contributions to Emergency Response Planning and Dam Safety. She led the development of EBMUD’s Management Leadership Academy and has taught project management courses. Elizabeth has served as the past chair of the ASCE Public Agency Peer Review Committee, vice-chair of the ASCE Region 9 Water and Environment Committee and has held pas officer roles in the organization.Ms. Susan Davis, American Society of Civil Engineers Susan Davis
48 7.3 I do not plan to get a bachelor’s degree 2 0.3 Other 121 18.3ResultsAn important decision in exploratory factor analysis is specifying how many factors to extract. Indetermining the number of factors, we use parallel analysis and Velicer’s minimum averagepartial (MAP) test. Although these tests are less common than other popular methods todetermine the number of factors, such as the Kaiser’s eigenvalue > 1 rule [25], research showsthat the eigenvalue > 1 rule almost always overestimates the number of factors to extract [26].The methods we use in this study are
severalrecommendations vis-à-vis graduate student orientation and onboarding efforts. These includefollowing a number of steps designed to maximize their benefits, including 1) analyze studentrequirements, tasks, personnel, as well as knowledge, skills and attitudes needed; 2) identifylearning objectives and a plan of instruction that optimizes the learning, retention, and transfer ofthe information presented during orientation; 3) design and implement the orientation program;and 4) assess its effectiveness through a post-survey “designed to capture the reaction of theparticipants shortly after orientation” and a focus group “designed to provide more reflectivefeedback after the students completed most of their first semester in the program” [4]. Otherreports
, students developed and executed their project plans. Student proposals definedeach group’s objective (i.e., the movement or posture position they wanted to detect, such aspoor back posture while working at a desk) and an experimental evaluation plan. Studentsexecuted the experiments themselves using the smartphone accelerometer application to recorddata. For the remainder of the program, students were provided time to execute and iterate ontheir plan. During the symposium, students presented their analyses from their experiments andprovided recommendations for future work based on their results.Students and Discovery MentorsFall 2020 Discovery participants included 70 university-preparatory chemistry and physicsstudents from two schools in the
identified positive experiences, including providing help to find an internship,insight and encouragement. Other areas of help included providing support or a “steadying hand”to a struggling student, helping students identify goals and planning for the future, and strategiesfor how to succeed in challenging times. One mentor identified that a friendship had developedbetween themselves and the student. Three mentors identified that the student was not consistentor not responsive. As one commented, “I was not sure of how best to help as (the) student wasn’tsure what they wanted out of (the) program.”Fall mentors identified a few recommendations, including having students identify theirexpectations and goals and then revisit these items at each meeting
Projects: Students’ Perceptions of Time and TasksIntroductionTeam-based design projects are common in foundational engineering courses for many reasons.From a professional development perspective, team-based design projects offer studentsscaffolded apprenticeship with opportunities to engage in collaborative planning and work akinto that of the workforce. From a pedagogical perspective, they require students to think criticallyabout a wide range of engineering concepts and to complete a variety of practical tasks related tolearning objectives. Despite potential benefits, there are some formidable challenges—theoretical and methodological—to understanding how team-based projects shape individuals’ideas about
Students, Contract DeliveryMethods, Construction Management CurriculaBackground and MotivationAccelerated Bridge Construction (ABC) is an innovative bridge construction technique that hasdrastically improved highway construction practices through the integration of effective plans,high-performance materials, safe designs, and reducing the overall construction time of newbridges or rehabilitation of existing bridges. However, recent studies have highlighted majorissues in the ABC technique which include the high initial cost of ABC, lack of standardization,inexperienced contractors, and inefficacy of traditional project delivery methods [1]. Traditionalproject delivery methods such as Design-Bid-Build (DBB) involve solicitation of theconstruction
ourstudents' use; this is the driving motivation behind our seeking to innovate virtual engineeringeducation practices. Oftentimes media attention goes to entrepreneurs creating high-growth startups, however,in our experience our graduating engineering students oftentimes join an existing companywhere their entrepreneurial competencies they have learned during our innovative innovation andentrepreneurship ABET-degree program, a BS in Engineering Innovation and Leadership(BSEIL) as described in [3]. Within our two core-course per year, four-year degree plan, weemphasize entrepreneurship and innovation, leadership competencies, business acumen, andcritical thinking. Communication is a core skill in each of these domains. We credit using REMOto
. The College of Engineering's vast network of existingsupport programs is being leveraged in tandem with strategically planned activities to providethe cohorts with academic, financial, and career development, and personal support. Explicitlyproviding CREATE scholars with the resources that are part of the hidden curriculum [6] willgive them additional resources to develop social capital [7- 9] and increase their feelings ofbelongingness in engineering, especially for first-generation engineering students [10]. As part of the project, a mixed-methods research study is being carried out to examine theeffect of the implemented practices on the scholars' engineering interest, self-efficacy, andidentity. The research study's goal is to
. Cosgriff, “Problem-Based Learning: A Bridge Between Planning Education and Planning practice,” J. Plan. Educ. Res., 1998.[6] N. Postman and C. Weingartner, Teaching as a subversive activity, vol. 53, no. 9. 1969.[7] E. Forcael, V. González, F. Orozco, A. Opazo, Á. Suazo, and P. Aránguiz, “Application of problem-based learning to teaching the critical path method,” J. Prof. Issues Eng. Educ. Pract., vol. 141, no. 3, pp. 1–11, 2015, doi: 10.1061/(ASCE)EI.1943-5541.0000236.[8] N. Capon and D. Kuhn, “What ’ s So Good About Problem-Based Learning ?,” Cogn. Instr., vol. 22, no. 1, pp. 61–79, 2010, doi: 10.1207/s1532690Xci2201.[9] P. N. Chou and H. C. Hsiao, “An alternative learning strategy to support engineering
communities• applying human-centered design principles to design challenges• developing appropriate technology design solutions in collaboration with local partners• developing sustainable implementation plans that include monitoring and evaluation, as well as mechanisms for response to needed changes• exploring existing as well as alternative technical solutions to sustainable development problems in real life contexts• developing frameworks for conceptualizing complex, open system problems, and the inter- relationship of environmental, energy, economic, health, technological, and cultural factors• analyzing the comprehensive impact of designs and problem solutionsProgram activitiesTo facilitate the development of course modules
levels towards remotelabs, and b) students’ preferences after experiencing the remote labs.3.3. Students’ preferences: In-person vs. Remote labsAs shown in Fig. 2-b, the survey results clearly show that students prefer in-person laboratories toremote ones. Seventy-eight students favored the in-person labs, while only six preferred theremote-lab experience. Eleven students were unbiased to either lab styles. However, most studentswere determined to continue with their study plans, undeterred by the pandemic, as only fourstudents had expressed their desire to have deferred the labs until in-person labs are resumed.3.4. Student’s feedback and suggestionsIn the last survey question, the students were asked to provide suggestions on which aspects of
feedbackFigure 3: Sample practice problemsInteractive VideoThe interactive videos begin with an overview of the survey using diagrams superimposed ondrone footage of the survey site. Students are given a birds-eye tour of the planned survey to helpthem visualize the site (see Figure 4). The interactive videos then put the viewer in the 2nd personpoint of view of a survey crew note taker (as shown in Figure 5 for a differential leveling lab).The video provides an inset overhead view of the survey, similar to what would be seen in agolfing video game, with animated graphics (red line) showing the instrument sightline. Thestudent watches the instrument person setup the equipment, take the shot and then report thereading back to the camera. The students
transitioned to 100% online teaching due to theonset of COVID-19, and this modality continued through Summer 2020. Responding to studentand parent requests, WIT introduced plans to return to limited in-person teaching for Fall 2020.These plans included adoption of CDC guidelines published at that time which required:face coverings to be worn at all times, individuals to maintain six feet of distance from others,and robust protocols for cleaning and disinfecting. To satisfy distancing requirements, a de-densified model for academic spaces was introduced leading to reduced student capacity inclassrooms and labs. This created logistical challenges with the execution of several labs in theENGR 1000 course. In addition, enhanced cleaning protocols raised
information exchange. These informal exchanges are important to engender in technology-enhanced learning to ensure that the students have opportunities for developing informal engagement and space.Purpose of StudyGiven the rapid transition to remote and online learning formats, we developed a study toinvestigate the tools (technologies and platforms), and methods used by faculty to engage withstudents in asynchronous and synchronous learning. In addition, we planned to gain anunderstanding of how students adopt technological tools to keep some continuity in theirinformal and social learning networks, so we also surveyed the students to identify thetechnology, platforms, and methods they use to communicate with each other outside of classhours
lecturing, I can't be reading the chat…But having somebody monitor the chat, and monitor if you have the ability to have people turn on their videos so that you can monitor their facial responses to things, then I think having some of that go on could be very valuable for an online class…to have more human support on the instructor side, to keep people engaged and to keep the pace the way it should be. – P33.2.10. Lessons learnedParticipants were asked to describe overall lessons learned from teaching using the hybrid modeland plans for addressing the issues if they needed to teach under the same settings again. Fiveparticipants said they would require online students to turn on cameras to collect feedback andimprove
vectors, linear and rotational motion, Newton’s laws, friction, work andenergy, conservation of linear and angular momentum, collisions, and moment of inertia. Inaddition to foundational physics principles, the course has a heavy focus on teaching students howto develop a solution to a problem while reinforcing their critical thinking skills. The problem-solving method for all questions requires students to explicitly write out their approach in thefollowing steps: Given, Find, Figure, Plan, Assumptions, Estimations, Solution, and Reflections[14]. As PHY160 is taken during the first year, the requirement of the problem-solving approachon all homework and exams and lays the foundation for a good engineering and science problemsolving approach that
Persis- tent Operations (HIPPO) II program and for the development of the DoD’s automated site planning tool, Explosives Safety Siting Software. Dr. Oesterle received his Ph.D. in Structural Engineering from the University of California, San Diego in 2009. American c Society for Engineering Education, 2021 Leveraging DOD Relationships and Interests to Improve Undergraduate Education and Enhance the Structural Engineering Profession1. Abstract Department of Defense (DOD) organizations such as the Naval Facilities EngineeringCommand (NAVFAC), the Air Force Civil Engineering Center, and the US Army Corps
arm that worked in tandem with targeted conveyor belt system.This project is expected to enhance applied research efforts to reduce the overall operation andhandling costs of an autonomous material transportation systems. Students initially planned todesign a fully autonomous conveyor belt system that would be flexible enough to beimplemented in any industry regardless of the materials being handled, however due to thecomplexity of the system and limited semester course hours, a prototype conveyor belt with alimited robotic sorting system was built using all 3D-designed and printed materials in theengineering technology laboratories.Although senior students have already completed machine language, network theory andcomputer architecture
solution products Project charter Document articulating project Team must commit to a proposed scope purpose, objective, scope, and Mutual understanding between team plan members and professor Simulated review Questions and answers from Team assumes client’s point of view simulated discussion with Potentially uncover weaknesses in project client solution Preparation for questions that may arise during
program received NSF support and began conducting formalevaluation of the various program components, including mentoring. For the past year,COVID-19 has both led to unexpected program changes (e.g. a sudden move to fully onlineinstruction) and created new difficulties in collecting data. However, all the mentoring activitiesdescribed earlier were ported to online modality and continued to be offered as planned. Thuswe see value in using this small, somewhat anomalous data set as part of our ongoing formativeassessment of the program, and believe it has utility in helping us shape the next, post-COVIDphase of our work. Four students who served as mentors for the PINC program were interviewed in smallgroups in May of 2020 and four more
their mind about that." -E64.2.Impact on Confidence and Career AspirationsEducators at all sites described how the youth became more confident in their technical skillsover time and took an active role in solving problems and addressing challenges.For example, E6 described how many of the youth in the program would research answers toquestions themselves and sometimes help the instructors: “So they had to just maybe researchthings on certain websites that we gave them…instead of telling them what to do.” E2 stated,“They were all super proud to show that off and we had the visitors.”Following the program, many of the youth described how they planned to pursue technical andentrepreneurial careers in the future: "A lot of them do have interest in
overall fostering of an environmentthrough outreach activities that influence students’ choices in college including major selection(Gillen, 2018; Lewis, 2013). It is important for students to begin planning and to haveconversations around pursuing an engineering degree in high school with individuals who areknowledgeable about different possible careers.School counselors can help foster an environment that supports development of high schoolstudents as future engineers. Their role in schools tasks them with preparing students for futurecareer choices (Lewis, 2013). Prior research has concluded that lack of time and basicknowledge about engineering is a barrier for school counselors when advising students aboutpursuing engineering careers (Beck
hypothesize that this web-based interactivedevelopment and learning environment (IDLE) will enable easy and wide adoption of the DEEPmodules by other educators and institutions. In this work, we will present our ideas, the rationalebehind the proposed approach, the work in progress, and the future plans for the project.KeywordsData science, workforce development, data-enabled engineering project, experiential learning,course-based undergraduate research experienceIntroductionData science is emerging as a field that is revolutionizing the world. A 2018 National Academiesreport – Data Science for Undergraduates: Opportunities and Options [1] states that “Workacross nearly all domains is becoming more data driven, affecting both the jobs that are