the University of Massachusetts Amherst (2007), he was a Mathematics and Science teacher at St. George’s College H.S., Kingston, Jamaica.Mshadoni Smith, Georgia Institute of Technology Ms. Mshadoni Smith is a Ph.D. student at the Georgia Institute of Technology. She has ten years of experience in Civil Engineering, seven in planning, design, management and operations of Intelligent Transportation Systems (ITS) with Federal Highway Administration.Laurie Garrow, Georgia Institute of Technology Dr. Laurie Garrow is an Assistant Professor in the School of Civil and Environmental Engineering at the Georgia Institute of Technology. Prior to joining the faculty, she worked for four years as a
requires a team orientation, exposure to most if not all engineering disciplines as they relate to flight, and a systems view of planning, task scheduling, documentation, and testing. Students completing this course will be able to: (1) explain fundamental manufacturing and fabrication techniques used for aircraft made of metal or of composites; (2) implement the types of fabrication processes used by industry and by small aircraft builders, and document their own progress using established procedures; (3) demonstrate expertise in reading aircraft plans and construction diagrams, especially as the complete aircraft comes together; (4) analyze how modifications and errors impact fabrication time and cost; (5) integrate aircraft construction with
prior to, and thenthroughout the teaching experience. Because language was a known perceivedimplication, the lessons were first written in English with a practice of using symbolicrepresentation of content as much as possible. The theory was that graphicrepresentations of content such as schematic symbols, drawings, pictures, programmingicons, flow charts, mathematic equations and hands on demonstrations were cross-cultural means of communicating and should be incorporated as much as possible.Finally, the lesson plans and other curricular materials were translated into Spanish bythose student teachers with Spanish fluency. During the actual teaching experience, the student teachers found that the use ofgraphic representations of content
Students’ Learning and Metacognitive StrategiesAbstractThis Complete Research Paper presents quantitative findings from an analysis of first-yearengineering students’ responses to weekly reflections on their learning objective performanceand plans and actions to improve their learning. Building capacity for metacognition is necessaryfor success in engineering studies and the profession. To prepare engineering students to beskilled professional engineers, it is important to understand how first-year students approachchallenges in their learning. Studies show that many first-year students, even high performingstudents, struggle to develop metacognitive strategies that will enhance their learning. The goalof this study was to
Paper ID #33553Reflecting on 10 years of Centralized Engineering Student DiversityInitiatives (Experience)Ms. Lisa Trahan, University of California, San Diego Lisa Trahan joined UC San Diego’s IDEA Engineering Student Center in 2018 as Director of Strategic Initiatives and Assessment. Ms. Trahan leads planning and development of new student success initiatives and programs within the Center. She provides expertise to assess, improve, and evaluate the impact of the Center’s programs on student retention and success. Previously, Ms. Trahan was a Research and Evaluation Associate at The Lawrence Hall of Science, UC
students are comfortable exploring the STEMdisciplines, COMPASS places undecided, non-STEM students into one of two tracks during thefirst-semester in college where they complete a Career Planning: STEM Explorations or STEMSeminar course. In addition to the Career Planning and STEM Seminar courses, students alsoenroll in cohort math courses throughout the first year, are assigned a STEM program advisor,have the opportunity to live in block housing, receive an upper-division STEM peer mentor,interact in a designated STEM Center with program peers and STEM graduate tutors andparticipate in an early undergraduate research experience.This paper discusses COMPASS’ infrastructure, the evidence based practices implemented toachieve its objectives, the
: Planning,Monitoring, and Evaluating. Reflection is a complex process, and it takes time to reach thelevel of critical reflection. The purpose of the study was to investigate the change in students'level of engagement in three dimensions of metacognition when reflecting on the third andtenth-week assignments of the environmental engineering course. Data collection took placein the Fall of 2023 at a large Midwest University. Students’ responses to the assignedreflection prompts for each dimension were coded for their level of engagement in eachelement of the three dimensions using a revised prior coding scheme. Results showed that forboth assignments, students' responses were mainly at the vague level for all elements of thethree dimensions
-rects K-12 education, training, mentoring, and outreach programs that enrich the STEM education of over1,000 students annually. c American Society for Engineering Education, 2019Designing Robotics-based Science Lessons Aligned with the Three Dimensions of NGSS-plus-5E Model: A Content Analysis (Fundamental)1. IntroductionLesson planning is a cognitive process which entails deliberative thinking about issues concerningthe objective of student performance, extent of planned activities, logical organization of content,types of instructional processes to be deployed, and strategies for assessing students at the end ofthe lesson [1,2]. Among a myriad of factors requiring consideration in contemplating to plan
across all fourassignments, students were predominantly engaged in the Evaluating strategy during self-evaluation, whereas they predominantly engaged in Planning and Monitoring in the reflectionactivity. Student engagement was at the low and medium levels of the three metacognitivestrategies.Keywords: junior, reflection, metacognition, qualitativeI. IntroductionLifelong learning is one of the desired employability skills in today's job market. Forinstance, consider the technologies with which engineering work. The continuous evolutionof technology that results in the replacement of existing devices with new devices poses newchallenges and opportunities for engineers [1]. Working with new devices requires newknowledge and skillsets. To keep pace
scholarshipadvertisement on the web is open to all students. With the special efforts made to encourageminority students to apply, the program remains predominantly underrepresented minority.The NACME Program is based on the belief that just giving a scholarship to a student withunmet financial need is not enough to retain and to graduate a student in engineering. During thefirst freshmen semester, the NACME students are required to enroll in a two-hour AcademicSuccess class. This class has been detailed in other papers9-15 and includes the 4.0 Plan systemfor learning16; a textbook on survival in engineering17; video tapes18; representatives from CareerServices and an engineering student research program, individual student presentations; a visitby officers of
professional development activities executed are presented, second theassessment process used as part of the evaluation plan is described, third the outcomes of theevaluation plan are presented and how these results obtained are planned to be used for futureimprovements, and finally the general conclusions from the whole experience are summarized.Hopefully, this documentation will help others in planning similar experiences for K-12 teachers. In a world with rapidly changing technology and a global economy, there is a growingconcern that Americans will not remain competitive1. The well being of our nation dependsupon how well we educate our children in science, technology, engineering, and mathematics(STEM). Poorly prepared instructors teach
-making does take place during engineering designexperiences in culturally and linguistically diverse urban classrooms, and we present two studentgroup case studies to support that argument. We discuss implications of this work for elementaryengineering instructional design, pedagogy, and educational research.IntroductionIn its Framework for K-12 Science Education, the National Research Council writes, “Engineers,too, make decisions based on evidence that a given design will work; they rarely rely on trial anderror” (NRC, 2012, p. 62). For engineers to plan feasible solutions and revise solutions they havealready tested, they need to engage in reflective decision-making that takes into accountinformation about design options. This intentional
education undergraduates. During thisprogram, 79% of Engineering Ambassadors were engineering majors who had first-handexperiences with engineering concepts. The remaining 21% were math or science educationmajors whose expertise included developing lesson plans and teaching to the needs of middleand high school students.The second group comprises middle and high school students. Career choices begin formingtoward the end of middle and beginning of high school. When students demonstrate an interestand talent in STEM, it is important to encourage these students in their pursuit of this interest. Tomeasure the success of the encouragement, one must begin asking some valuable questions.Which lesson plans were most successful? Did the students seem
participating STEM teachers. Throughout thecamp, the STEM teachers participated in authentic engineering experiences with their studentsand engaged in professional learning discourse about three-dimensional science instruction andthe camp experience. They also participated in engineering education workshops led by theresearchers, which included discussion about the SEEd Standards and the Framework,engineering design activities, and collaborative work sessions to plan a lesson related toengineering implementation in their own classroom. The main purpose of the teacherprofessional learning was to help the participating STEM teachers incorporate therecommendations from the framework for K-12 science education and the SEEd Standards.During the academic
. Project Management WorkbooksProject management involves two primary tasks: (1) planning and scheduling, and (2)directing. Planning and scheduling involves activities for understanding the project scope(tasks, time and budget) and organizing. These activities are to define objectives, listtasks, estimate work and duration, determine interdependent tasks, schedule tasks andschedule resources. Directing, on the other hand, involves implementing approved tasksto achieve project objectives. Specific directing activities might be assigning tasks,reviewing criteria for task completion, controlling, reporting and reviewing progress, re-planning, reviewing completed work, resolving issues and closing project. Sections 2.1and 2.2 will discuss how planning
process is presented.For example, Vasilius integrates a large number of independent sensors such as stereoscopicvision to incorporate short-range reaction as well as long-range planning. In addition, the GRVuses two computers in a decentralized control scheme.Secondly, the paper reports the performance of Vasilius, relating theoretical predictions to actualbehavior. Performance measures include object avoidance, lane following, waypoint accuracy,follow-the-leader, ramp climbing, turn reaction time, battery life, stop reaction time, behavior indead-ends and traps, pothole avoidance, and safety. Finally, the paper discusses current on-goingresearch topics with Vasilius, including the incorporation of Kalman Filtering, mapping, andlearning. The
training and myprevious Army experience to improve my teaching throughout my first semester. Specifically, Ifocused on planning and preparing each class, turning each class into a performance, and usingadministrative tasks as teaching opportunities. By using these improvement strategies, I haveachieved good results for my first semester and have formed a solid base to continue myimprovement for the rest of my assignment as an instructor. My goal is to provide you with myperspective on how to form a plan to improve your teaching no matter how new you are to theprofession.Formal Education Training As I made my cross-country road trip from Palo Alto, California to West Point, NewYork, my improvement as an instructor was already being planned
and teams metmostly during class times but were allowed to have one online meeting per week. Projectdemonstrations were conducted with full class participation.In ECE 211 teams select their own projects which are supposed to address a specific need. Areasof interest covered by projects vary widely. Students are instructed to be realistic in theirexpectations and planning but to also push themselves to reach for goals that may not seemdoable at first. “Failure” or risk taking is encouraged so long as it is accompanied by hard work,ambition, and learning from such failures. Teams are trained in Scrum-like project managementand we provide Scrum Leaders who are recruited from upper-division students. Scrum enablesfrequent iterations of product
metric or curricular complexity framework (i.e.,referring to the variables composing the overall metric), including a webtool called CurricularAnalytics [7]. This webtool allows users to import a plan of study as a spreadsheet, visualize theprerequisite networks inherent in the course organization, and calculate the structural propertiesof the network that impact student persistence. As shown through experimentation [e.g., 2,8] andempirical work [e.g., 5], there is a negative correlation between curricular complexity andcompletion rates.Because of the new insights that quantifying a curricular structure could bring, authors havebegun using the curricular complexity framework to assign values to the accessibility ofcurricula [e.g., 9,10,11
stated objectives. The open house led to the most scalable model that UMLhas now adopted with several school districts. The other programs will continue if grant fundscontinue to be sourced. The success of these programs in meeting their objectives demonstrateshow vital it is to jointly consider three factors: Results (learner outcomes), Reproducibility(adequacy of resources), and Representation (diverse and inclusive staffing and studentparticipation). The program partnership rubric was developed to help partnerships plan andevaluate their programs based on these three factors. How the rubric was used to plan these pilotprograms and determine how and/or whether to run them again is explained.Introduction In the United States, students in
, CLW (now Cassidy Turley), and Jacobs Advanced Planning Group, which seeded her interest in understanding the relationship of workers, workplaces and technology. She has held a variety of positions in engineering, architecture, interior design, and con- struction firms, which drives her interest in teaching essential communication skills to students in those fields. Gobes-Ryan is on the Board of Directors of The Environmental Design Research Association. In this organization she has also served as Co-Chair of the Workplace Environments Network (WEN) since 2000 and Co-Chair of the Communication Network since 2016. She is a member of the National Communication Association. Gobes-Ryan is a Florida Licensed Interior
for Engineering, at the National Science Foundation from 2017-2019. In 2018, Dr. Martin represented the Foundation in an interagency group, managed by the White House Office of Science and Technology Policy, charged with writing the 5-Year STEM Education Strategic Plan ”Charting a Course for Success: America’s Strategy for Stem Education for the US government.” Dr. Martin served as a member of the writing team for that document, published in December of that year. Dr. Martin has held faculty appointments at Clemson University (2008-2019) and the University of Hous- ton (2004-2008) where she was the Director of Recruitment and Retention for the Cullen College of Engineering. Since 2004, Dr. Martin has held a
courses. Followingthe first round of exams, students select the course in which they wish to improve theirperformance most significantly and then complete both an exam wrapper survey and learningstrategies survey to evaluate their preparatory behaviors, conceptual understanding, andperformance on the exam. Each student develops an action plan for improvement based on theirresults and begins implementation immediately. Following the second exam, students completean exam wrapper survey followed by a learning journal, in which students evaluate and reflect ontheir adherence to and effectiveness of their action plan and performance on the second exam.We propose that engagement with this exam wrapper activity in the context of the EntangledLearning
experience of managing a business. Thispaper describes the program’s goals, planning and experimentation, structure, andimplementation, including discussion of major issues and controversies regarding its formation. Center for Leadership Education Academic Programs Experiential Learning Entrepreneurship & Management Business Internships Program (Academic Program) Alpha Kappa Psi Business Fraternity Professional Communication Program
senior exitsurvey. Each assessment tool is discussed in relation to the criteria (or metric used),results, and use of the results for continuous improvement. Techniques to assist ingathering the data, such as the use of online survey tools are presented to lessen theburden on the assessment team, as well as plans for the future.IntroductionThe MET and EET programs were evaluated during a site visit in October, 2005 whileseeking reaccreditation of their respective programs by ABET-TAC. The ABET responseafter the 2006 Summer Meeting was to accredit the programs to September 30, 2008, andrequire that a request be made to ABET by January 31, 2007 for a reaccreditation reportevaluation. Also, a report describing the actions taken to correct the
Centre/University of Minho (Portugal) working on H2020 Project titled ”Gender Equality Plans for In- formation Sciences and Technology Research Institutions, EQUAL-IST”. He is Member of Intersociety Cooperation Committee, Standing Committee of the IEEE Education Society; Vice President of Brazilian Chapter of Association of Information Systems (BRAIS); Vice President of the Portuguese Chapter of the IEEE Women in Engineering (IEEE WiE); and Associate Editor of Directory of Open Access Journals (DOAJ). He is Editor-in-Chief of Brazilian Journal of Education, Technology and Society (BRAJETS) and Associate Editor of Journal of Information Systems and Technology Management (JISTEM). He is titled ”Engineering Educator
little evidence of planning. Several strategies are used bystudents for all problems, but some are unique to specific types of problems. These findingsdemonstrate the usefulness of post-hoc audio reflection in engineering education research tobetter assess and address students’ metacognition and problem solving strategies.IntroductionThis work-in-progress paper identifies metacognitive activities and problem solving strategiesutilized by first-year engineering students to solve different types of problems. Our researchquestion is: What problem solving strategies and metacognitive activities are revealed bystudents’ post-hoc audio reflections on their solutions to three different types of engineeringproblems (story, open-ended, exercise)? Post
teaches a course. The two cognitive models form an integral part in the coursesummary. Instructors categorize the learning objectives they have constructed into either lower(knowledge, comprehension, application) or higher (analysis, synthesis, evaluation) cognitivedomains, according to Bloom's taxonomy. Based on the cognitive level, they create anassessment plan consisting of three methods to assess each learning objective. Methods ofassessment are specifically matched to the cognitive level of the learning objective. Collectionof performance evidence becomes increasingly more difficult as increasingly higher-levelthinking is required. For each learning objective, instructors plan a set of activities that correlateto each quadrant in Kolb’s
explicitly. One class approached it as a problem in engineering design. The otheraddressed it in terms of the emergency preparedness and planning effort in New Orleans. Thelatter is certainly closer to public policy than engineering design is, but it still focused more onwhat happened rather than what was planned or what policies drove the planning.In fact, the unfolding events and coverage, which still continues, made a top down approachrather impractical. Yet both instructors found that a great many policy issues were raised by thestudents in their projects and these are summarized and reported here. This is, then, an inductiveand student centered approach to engineering and public policy. We report on a “found policy”equivalent to what is
, student teams are required to design, build and test (DBT) an experimentaldesign project of their own choice.This project requires experimental problem solving skills, builds upon the analytical andnumerical techniques they have acquired in their engineering science courses, and will then beexpanded upon in a multi-disciplinary capstone laboratory design course in the spring semesterof their senior year. The project is coordinated through the ME program Design of ExperimentsPlan and further supports the ME program's Professional Component Plan by requiring the use ofengineering design with open-ended problems, integration of professional tools, anddemonstration of professional communications. This experience takes place from a point ofview that