of EER&I research, audiences that need to be aware of the impact onengineering education, potential systematic processes for documenting impact, and plans forpiloting some processes for documenting impact. Metrics ranged from the relativelystraightforward measures of the number of engineering education programs and productivity ofthose programs and individual researchers, which could be expected to have impact, to the moresubtle changes in attitude toward EER&I and extent of implementation of the results of EER&Iresearch, which would reflect the impact. Some of those subtle changes include attitudes towardwho can/should be an engineer and how the engineering culture, and courses, can change tobroaden participation in engineering
product. Another problematicassumption made in the students’ economic proposal was that what works under consumercapitalism in the U.S., where a high percentage of the population has expendable income, wouldwork in the very different economic circumstances of Nicaragua. The project was ultimatelystalled at the proposal stage because of disagreement about this point.By the time they reach their senior capstone, engineering students have often had few- if any-courses that require them to consider empathic approaches to designing for a client orcommunity whose racial, ethnic, national, socioeconomic, or other demographic backgrounddiffers from their own. This experience gap is reflected when students don’t have the tools tounderstand the needs of
which provides a historical contextof not only the Inca people, but also the generations from as early as 3000 BC in that region.Cultural activities are followed by formal discussion and guided reflection to create additionalcontext regarding the technical project and the cultural and geographical influences that areimportant for consideration. Also in country, the students made an initial presentation tocommunity leaders to ensure project objectives were in alignment with community expectations.Course Content – TechnicalThe technical portion of the course is determined by the scope of the project that is identified.During the first two years of the program, using semi-structured interviews, the communityidentified water loss of the crumbling
. Describe contemporary challenges caused by or related to energy resources, such as economic impacts, sociopolitical tensions, and environmental impacts 5. Explain how various methods of both passive (e.g. evaporative cooling) and active (e.g., electric, fuel-powered, heat pumps) heating and cooling in buildings work 6. Analyze how the natural environment (e.g., tree shade, sun angles) and built environment (e.g., windows, insulation) impact heat transfer into and out of buildings, with consideration for cultural and climatic contexts 7. Apply concepts from class to inform decisions about energy consumption or conservation in your everyday lifeThese learning outcomes reflect several salient aspects from our research
, it had28 students and two instructors which reflects the high student:teacher ratio reflective ofUSCGA and the hands-on nature of this course. Thus is was somewhat of a hybrid lec-ture/lab (active learning) configuration. The first 15 − 20 minutes were often devoted to abrief lecture to introduce that day’s topic and then the students were provided an in-classexercise to complete for the remainder of the period. Once completed, students were encouraged to help others but were able to leave if theyneeded/chose to. The students were required to bring their own laptops to class each meeting(fully charged). A preference for open-source resources existed as outlined below. At theend of each class, students were required to submit evidence of
Administration and federal agency officials to inform future programs and create new opportunities – Elevating the role of ASEE within the Washington, DC-based scientific, STEM, and higher education advocacy communities and ensuring community advocacy reflects ASEE priorities• 2019 Efforts and Successes – Increased funding for the National Science Foundation and Department of Defense basic research – Building champions for new modes of NSF support – Outreach and awareness of engineering technology – Enhancing Department of Defense workforce and industry collaboration – Engagement on Higher Education Act reauthorizationASEE/EDC Congressional Priorities• Advocate for Funding at Critical Agencies –National Science Foundation research and
used asan information model to determine the size of each constituent. For example, in an Engineeringprogram the amount of science should represent the biggest sector of the pie, while in anindustrial technology program it is the hands-on. Page 12.434.2To further explain this concept; to teach a Strength of Material course in the three programs. Inthe Engineering program, the course structure and outline should reflect a science basedapproach. This means that the fundamental concepts based on differential equations andintegration are used to develop the formulas. The focus will be on how to drive these formulasand using them to solve symbolic and
overall problem or task. 3. Design an authentic task. 4. Design the task and the learning environment to reflect the complexity of the environment they should be able to function in at the end of learning. 5. Give the learner ownership of the process used to develop a solution. 6. Design the learning environment to support and challenge the learner’s thinking. 7. Encourage testing ideas against alternative views and alternative contexts. 8. Provide opportunity for and support reflection on both the content learning and the learning process.Critics contend that the constructivist approach stimulates learning only in concepts in which thestudents have an existing interest.4 Taken to the extreme, the
disasters notjust by returning people to their pre-disaster state, but as opportunities to help people improvetheir lives beyond what might have been possible before[3]. (see alsohttp://www.onlineethics.org/moral/cuny/intro.html)Like Cuny, although seldom as radical, many engineers are rethinking their exclusivecommitment to corporate goals and foreign policies[4, 5]. At the professional level, however,engineers have not engaged in the philosophical and ethical dimensions of their humanitarianinterventions as other professions have done [6]. At best there has been a symbolic recognitionthat some engineers have engaged in civic service and humanitarian work, as reflected by theHoover Medal established in 1929 to “commemorate the civic and
the questions were posed by astranger on an elevator ride), a teaching philosophy, and a research philosophy. Each statementwas developed through a series of revision cycles, starting with auto-biographical reflections(ABRs). ABRs provided an (1) entry point for discussing ideas about engineering education andlocating identities within an engineering education landscape and (2) an initial framework fororganizing current views and exploring future ideas. An example of an ABR is presented below:ABRII: Teaching EngineeringWrite a reflection on your ideas about teaching engineering. Your reflection should clearly address thesequestions:• What are features of effective engineering education instruction (e.g. in or out of the classroom, at a
student development acquired while working on internationalengineering projects abroad. These experiences presented a unique learning environment andopportunity to develop and implement a holistic engineering project. The findings from ourresearch indicate six areas of student development: technical knowledge, communication,personal growth, project management, community-based development, and interculturalawareness. These six categories are broken down into subcategories to further identify specificareas of student development.These findings are based on reflections collected from Engineers Without Borders studentmembers. The first round of data was collected through on site journals and discussions andpost-travel interviews with participants of
In The Courage to Teach, Parker Palmer explores an approach to educational transformationby engaging in deep inquiry of fundamental questions of what, how, why, and who (Palmer1998). We often start out with content and curriculum – the what that is being taught. If wedig a bit deeper, we begin to consider pedagogical structures – the how we are teaching thewhat. Occasionally, we may ask why we are teaching what we teach. Rarely, however, dowe get to the point of reflecting and sharing the personal values present in our teaching andlearning endeavor – the root questions of who are we as teachers, and equally important,who are our students as learners? These three elements – curricular content (what),pedagogical structure (how), and personal
curricula reflect the increasing attention to safetyand liability concerns. Every year, at least one topic has been multi-disciplinary and co-sponsored with another division.Analysis of other efforts in Materials Education will be presented, along with any interaction theASEE Materials Division has with these efforts. Specific mention will be made of efforts byTMS. TMS has materials education efforts, and it disseminates information through respectivemeetings and publications. Thus far, efforts of these organizations have been independent andcompartmental.The data presented in this study will be used during the business meeting to generate discussionand selection of future materials division session topics. It will also be used as a focus for
experienced a dramaticdifference from receiving appropriate instructional design and development support. Table 1summarizes the path of transformation reflected on the instructor’s perspectives. It highlights 10key features which demonstrate significant difference that the instructor perceived during the Page 25.787.2transformation. Key Features Before Receiving After Working with Instructional Support Instructional Designer 1 Course layout Unit based (6 units) Weekly topic based (15 main
D903-96 – Solar Absorption, Reflectance, and Transmittance ASTM E1918-97 – Solar Reflectance ASTM C1371 – 04 – Solar Emittance ASTM C1549-04 – Solar ReflectanceWater Efficiency Energy Policy Act 1992/2005Energy Efficiency ASHRAE 90.1: Energy Standard for Buildings Except Low Rise Residential ASHRAE Advanced Energy Design
measuring science teaching efficacy [23]. Since its development, modifiedversions have been widely used to measure the science teaching efficacy of various teachergroups. The STEBI-B is composed of the Personal Science Teaching Efficacy Belief Scale(PSTE) and the Science Teaching Outcome Expectancy Scale (STOE). The PSTE Scale reflectsa science teacher’s confidence in his/her ability to teach science. The STOE Scale reflects ascience teacher’s belief that student learning can be influenced by effective teaching. A modifiedversion of the STEBI-B was used in this study.ContextThis study focuses on one GK-12 project that followed the Classroom Immersion model calledthe Partners in Inquiry Project (Project Pi). Over the course of two academic years
Experiential Learning for Engineering Technology StudentsAbstractExperiential Learning (EL) is a philosophy in which educators purposefully engage learners indirect experience and focused reflection in order to maximize learning, increase knowledge, anddevelop skills. Based on the famous experiential learning model developed by David A. Kolb[1]there are four stages in a learning process: Concrete experience, reflective observation, abstractconceptualization and active experimentation. This model shows how theory, concreteexperience, reflection and active experimentation can be brought together to produce richerlearning than any of these elements can on its own. There are many avenues of concreteexperience for the students in
Experiential Learning for Engineering Technology StudentsAbstractExperiential Learning (EL) is a philosophy in which educators purposefully engage learners indirect experience and focused reflection in order to maximize learning, increase knowledge, anddevelop skills. Based on the famous experiential learning model developed by David A. Kolb[1]there are four stages in a learning process: Concrete experience, reflective observation, abstractconceptualization and active experimentation. This model shows how theory, concreteexperience, reflection and active experimentation can be brought together to produce richerlearning than any of these elements can on its own. There are many avenues of concreteexperience for the students in
Project Report2. Essay on Stewardship/Ethics 2. Video Clip of Project Presentation3. Glider Design Project Report 3. Self-evaluation of Presentation4. Video Clip of Glider Presentation 4. Reflection on Presentation5. Self-evaluation of Presentation 5. Network Analysis I Exam6. Reflection on Presentation 6. Electronics I Lab Report7. Engineering Graphics Exam 7. Statics Exam8. ORU GPA (Transcript) 8. Two Disposition Evaluations9. Initial Resume 9. Verification of Extracurricular10. Sophomore Interview Involvement
between cv and cP. Warehouse. 50 min studio 4 students Fall 2013; Available on Concept Work Pv work as an energy transfer process interviews, 155 students for Warehouse. reflections 50 min studio Definition of a reversible process; 4 students
Page 24.422.3hands-on and minds-on experiences. At the Figure 1. The EFFECT framework.conclusion of each active learning session, students reflect on their learning by responding toquestions in an online journal system developed for this purpose, called the Online AssessmentTool (OAT). Instructors rate student responses using a rubric designed to assess both coreknowledge and critical thinking. Written feedback is provided within OAT to explain the ratingsand identify student misconceptions or misunderstandings. Each EFFECT concludes with astudent report that contains a final answer to the driving question, which is supported with theproposed solution and how the solution has changed as a result of the active learning exercises.These
developing students‘ autonomy), SocialReconstructionism (in which teaching encourages students to become critical and activethinkers), and Enterprise (in which teaching involves equipping students with skills required tothrive in their respective fields. Within each of these contexts, engagement is not only definedslightly differently each time, but the way the faculty are presupposed to lead the studentstowards engagement is different as well. In another interesting study, Rotter20 found thatcommon perceptions of average students in different majors vary greatly in terms of perceivedvalues and personality characteristics. This reflects not only the general tendencies of studentswho gravitate towards each major, but also shows how the faculty in
underrepresented minorities Future growth opportunities with other colleges across campusIn a subsequent meeting, post benchmarking review committee’s recommendations, ProSTARwas asked to respond to the findings of the committee. Below reflects the seven improvementcategories of response: Page 24.648.3 Improvement #1 – in response to reducing overhead expense, ProSTAR proposed the use of a growth strategy aligned to increasing the activity base of students and attendant enrollments (credit hours taken). Improvement #2 – in response to overhead fees, ProSTAR proposed a tiered structure taking into consideration credit
collectquantitative data about the teachers' classroom practices. The questions for the survey wereadapted from the Scientific Work Experience for Teachers (SWEPT) Multisite StudentOutcomes Study.[5] The SWEPT Multisite Student Outcomes Study was conducted as part of anNSF Grant to research the effects of authentic research experiences for K-12 teachers.[5] Thesurveys used in that study consisted of questions that covered a more broad range of topics aboutteacher classroom practices and student engagement, a lot of which revolved around science. Theresearcher in the current study adapted the questions to reflect a focus on the engineering designprocess, as well as reorganizing some of the questions into STEM practice and conceptcategories. The researcher
curricula reflect the increasing attention to safetyand liability concerns. Every year, at least one session topic has been multi-disciplinary and co-sponsored with another division.Analysis of other efforts in Materials Education will be presented, along with any interaction theASEE Materials Division has with these efforts. Specific mention will be made of efforts byTMS, ASM, MRS and ACERS. Efforts of these organizations have been largely independentand compartmental.The data presented in this study will be used during the business meeting to generate discussionand selection of future materials division session topics. It will also be used as a focus for adiscussion on any outreach efforts that the materials division may
topics) andthe overall course quiz average. A total of ten quizzes were given in the course. The quizaverage for this particular semester accounted for 50% of the class grade. As can be seen inFigure 2, there is a correlation between the average of the student’s understanding on three topicsand the overall quiz grade averaged over ten quizzes. Nine students out of twenty-four tended toover-estimate their level of understanding as reflected in their final quiz average. Three students Page 9.1314.4received failing grades on their quiz average. Proceedings of the 2004 American Society for Engineering Education
system is crucial!) 3. Using a mechanical pencil, break about a 1/16 in. piece of lead on the tip of the galvanized wire. 4. Observe the results on the oscilloscope and store the voltage-time data to disk. 5. Repeat steps 2 and 3, except break the pencil on the other tip of the galvanized wire. 6. Steps 3-5 can be repeated to replicate the data, if desired.Data Analysis 1. Plot side-by-side the voltage – time curves for left and right sensors for the left pencil break event. You should see one distinct peak for the left sensor plot and two distinct peaks for the right sensor plot. The second peak for the right sensor plot is the reflection of the wavetrain from the right end of the coil. 2. Determine the time
, student organizations, and which math course is thehardest.Schedule career-related material toward the end of the semester. We felt that students neededcareer-related material most just before they leave for the semester break. This would givestudents an opportunity to reflect on summer employment that might help them investigate apotential career, and some ambitious students might take the opportunity to talk to employers intheir hometown about a summer position. Page 7.1203.4 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for
Society for Engineering Education One of the toughest challenges for engineering technology educators is to ensure thatcoursework reflects current technology trends in industry. Overall curriculum revisions requiringthe deletion or additional of technical classes needs to be carefully examined to fit long termcareer placement trends. Topic changes within existing courses needs to occur yearly to keep upwith new technology trends. The changes presented in this paper represent both curriculum revisions and topicalrevisions. The curriculum revision reflects the changes in job opportunities available to ourstudents. We are deleting material that is not deemed necessary from the current employers ofour graduates. The topical
12. Translation and Scaling, Game Scaling Quiz #2 10. Reflection and Symmetry 13. One-Step Rotations Object Rotations 14. Two-Step Rotations 11. Cross-Sections of Solids 15. Reflection and Symmetry 12. Surfaces and Solids of Object Reflections 16. Planes in 3-Space Revolution 17. Cross-sections of solids