the engineering ISD report—a key characteristic, ashighlighted by Vijai K. Bahtia, is that genres reflect disciplinary cultures and focus on“conventionalized communicative events embedded within disciplinary or professionalpractices” (23) [5]. Thus, while engineering faculty saw the project/course oriented to aspecific purpose or [business] product—the ISD report translation in condensed form—Spanish language faculty saw the use of translation as a framework for advancingspecific literacies across disciplines through the use of Spanish. We recognized abroader series of “communicative events” attached to the specific course register.Twenty-four students enrolled in the Spanish course, and twenty-three students wereassigned final grades
development model where they wereimmersed in tasks in which the facilitator supported an inquiry-based learning environment. The professional development model consisted of two full days of inquiry experience anda half-day at the end of implementation dedicated to reflection of practice. The first day ofprofessional development focused mainly on Algebra concepts and was given prior toimplementing any of the Math Out of the Box lessons. After teachers implemented the tenlessons relating to Algebra, they returned for the second day of professional development dealingprimarily with data concepts. Teachers were also given the opportunity to reflect on the Algebralessons and discuss issues relating to implementation with their peers. Topics such as
role in a creative design-driven business environment. However, manymanufacturing SMEs that produce technologically complex products have insufficient humanresources and skills to cover the breadth of competencies needed. Opportunities forimprovement are often limited or seen to be too expensive, such as enhancement of their in-house design capacity through external resources in the form of design services, tertiaryinstitutions, or by cross-industry knowledge sharing.This paper describes an innovative educational program, which is aimed at the developmentof talent pathways for engineering students that reflect the skill requirements of design drivenmanufacturers. Concurrently, a professional development framework for design practitionersfrom
and the angle of inclination was measured using a protractor. 3) Measure the direct and diffuse solar radiation as discussed earlier in the afternoon. Again, the open-circuit voltage of the solar panel was measured with the multimeter and utilized to examine the amount of direct and diffuse solar radiation. 4) Measure the amount of solar radiation reflected from the ground. Again, the open-circuit voltage was utilized to study how much solar radiation is reflected from the ground. 5) Hook up the electric motor on the car and operate the car on solar power.After the afternoon tasks were completed, the teachers reconvened and discussed their resultsand how the content could be integrated into their middle school
• Business plan rehearsal (part 2) • Business models12 • Conceptual business model review • Feedback on business plans13 • Business plan preparation • Business plan competition14 • Business plan presentation to class • Formal design and business reviews • Business plan competition15 • Reflection on course and learning • Reflection on course and learning • Course and team reviews • Course and team reviews Page 12.679.5Course Goals and Learning OutcomesThe overall goal of the course is to prepare students for the professional challenges they will facein entrepreneurial
provide anindication of the ease and usefulness of this new technology for viewing the ME337C lecture.Survey on the Spot software, developed and made available by the UT College of Engineering,was used to design, collect, and report the podcasting survey. Additionally, the students took the Page 12.1161.2Index of Learning Styles Questionnaire online test to determine their learning styles.2 This test isoffered by North Carolina State University at www.engr.ncsu.edu/learningstyles/ilsweb.html anddetermines where students’ abilities lie on four different learning style continuums:active/reflective, sensing/intuitive, visual/verbal, and sequential
involves an integrated three-step processincluding a discipline-specific pre-lab activity, general/customized information literacyinstruction, and communication skills development. This paper describes how thecollaborating team has learned from each other’s reflections to make the assignment ameaningful learning experience.Librarians and faculty have been traversing on parallel paths during the past few decades.The rapid explosion of technological integration into nearly every aspect of daily life hasmerged the separate paths into one. Writing centers and libraries recognize their roles ascenters of learning and the importance of collaboration.1 Librarians, writing center staffand faculty must now travel in tandem in order to prepare students to
advisor committee. The new course has been offered twice in 2006and received very positive student responses. This paper describes the course information,lecture topics, laboratory exercises, student feedback, and the instructor’s reflections.1. IntroductionWireless computing is a rapidly emerging technology which offers network connectivity therebyminimizing the need for a wired connection and thus supports the concept of mobility. Wirelesstechnology has already become the most exciting area in telecommunications and networks. Therapid growth of wireless and mobile telephones, satellite communication, wireless local areanetworks (WLAN), wireless personal area networks (WPAN) and wireless metropolitan areanetworks (WMAN) and the applications of
followed the design guidelines ofthe standard cantenna2. With the exception of the first section (smallest of sections), allother sections carry multiple modes and the number of modes in any section isproportional to the diameter. The large number of modes in the last section allows a fielddistribution that permits highly directive radiation patterns. Our version consists of sixdifferent cylindrical sections connected together by six 3-inch 34˚ flared or conicalsections (Fig. 2). Flared sections were used to minimize reflections at the junctions. The“Theory of Small Reflections3” suggests that a gradual change in waveguide dimensionswill keep the reflections small at their junctions. When we make the transition betweentwo cylinders the
successfully competed and have won several prestigious awards. 4) Student and Faculty Created Projects include creative and challenging projects such as the award winning Laryngoscope with internal suction, a solar-powered surf board, and athletic training equipment.Capstone Design Projects Course ObjectivesThe Senior design projects are developed with the support of local industry, interested faculty, Page 12.506.3student organizations, and interested students. The projects reflect the academic integrity andexcellence of the Mechanical Engineering department. A committed faculty and IndustrialAdvisory Board are instrumental in this
tailored to complement the laboratory exercises that canoften include engineering design concepts.A typical electromagnetics course topical coverage at our institution is: 1. Review: Vectors and Vector Calculus (1 week) 2. Maxwell's Equations (1.5 weeks) 3. Uniform Plane Waves and Propagation (2 weeks) 4. Reflection and Transmission of Waves (1.5 weeks) 5. Transmission Lines and Waveguides (2.5 weeks) 6. Transmission Line Principles in Circuit Design (2 weeks) 7. Antennas and Radiation (2 weeks)The laboratory content of the electromagnetics course (for Fall 2006) was: 1. Transmission Line Characteristics (1 week) 2. “Microwave Training Kit” Experiments (4 weeks) 3. Introduction to Agilent Advanced Design
(reflection, refraction, Snell’s law, lenses,mirrors, beam splitter), wave and particle optics(polarization, interferences, and diffraction), fiber optics(optical fiber types, signal distortion and attenuation), Page 12.1113.7 optical communication systems including light sources, detectors, receivers, amplifiers, and modulation. 3 lectures/problem-solving and 1 three-hour laboratory Prerequisite: ETE 335 II. Prerequisites and Co-requisites: ETE 335/335L; Students are expected to have a good theoretical, analytical, and practical knowledge of communication system including modulation, demodulation, transmission, receivers, transmission line, and signal
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
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
functionality. They also had to provide a technical report ofthe design and construction of it. In addition, they were required to create complete experimentalprocedure, data sheets, and analysis and to describe the requirements for a lab report based on theexperiment that future students can complete and turn in for a grade in the heat transfer lab. Thelast part of the project that challenged the students to reflect on their own learning and the wayfuture students may learn the concepts. The reflection component may not be present in typicalprojects, and/or may not be probed. The learning of the students was probed via a survey of afew questions. The questions asked the students if the project increased their understanding ofthe technical concept they
. Cooperative learning isa pedagogy that directly supports this type of teamwork. Through cooperative learning studentsrealize their interdependence, practice face-to-face communication, recognize their individualaccountability to the success of the group, practice interpersonal and small-group skills, andengage in frequent reflective processing of their achievements.We have adapted cooperative learning to teach software architecture in two undergraduatesoftware engineering programs. In traditional cooperative learning, students work on one teamfor an extended period. This helps foster acceptance of individual differences and promotessuccessful teamwork. In our courses we kept students together on the same teams, but we wantedstudents to play multiple
course goals include: (i) introduce students to open ended problems at the community level;(ii) help students develop the skills to solve those problems and provide holistic engineeringsolutions that are sustainable and appropriate to the community being served; (iii) help studentsdevelop cultural and social awareness; (iv) help students work in interdisciplinary teams; (v) givestudents the opportunity to reflect on the importance of their community service; (vi) givestudents a professional work ethic, and (vii) help students gain a better understanding of theimportance of engineering in society and in community development. Two different models forthe course have been used: in year one, a single team of three students worked on two
the international technicalimmersion program such that it can serve as a model that can be easily adopted by peerinstitutions (small to mid-size colleges and universities). The ETHOS immersions are ten tosixteen weeks long, during which students work with collaborating organizations to assist infinding appropriate, and effective solutions to technical challenges. Students use theirengineering skills to address real problems, while gaining a better understanding of the interfacebetween technology and global society. Academic credit is incorporated into these immersionswith technical reporting, reflections and presentations delivered upon completion of the program.Pre-immersion course work includes research and engineering fundamentals
promising strategy for promoting knowledge integration and professionaldevelopment. We define a course-specific professional portfolio as a portfolio in which astudent makes claims about his/her preparedness for professional practice and supportsthe claims through artifacts drawn from a single course. We believe that having studentscreate such portfolios represents a promising practice for helping students consolidatetheir knowledge and reflect on the connection of this knowledge to engineering practice.In our work, we have been studying the practice of course-specific portfolio construction.To this end, we conducted a study in winter of 2006 in which 35 junior and seniorengineering students in a mechanical engineering class (ME 355 Introduction
improvestudent learning within a large-scale, multidisciplinary capstone design course. The experientiallearning model is referenced while redesigning a course to ensure that planned activities give fullvalue to each stage of the process. The learning methodology is based on an existing educationalmodel which includes four basic stages; active experiences, reflective observations, abstractconceptualization, and active experimentation. Motivations for course transformation are basedon continuous course assessment which revealed improvement opportunities within studentlearning. Beginning in 2006/07, student-centered workshops replaced traditional lectures forinstruction of product design and development. An annual course assessment conducted duringthe
. Page 12.558.1© American Society for Engineering Education, 2007 Diversity in Engineering Teaching – Views from Future Engineering FacultyAbstractThis current paper uses a qualitative analysis approach to explore the conceptions of diversity asexpressed by future engineering educators. Engineering graduate students and post-docs (futureengineering educators) wrote a statement of diversity as it relates to teaching engineering as acomponent of a teaching portfolio. We then interviewed these participants about the processesthey used for this writing task. During the interview, they reflected on their processes in writing thediversity statement; they also discussed their personal experiences with
simple. 1. The problem to be addressed is chosen so that it has several relevant dimensions: 6 It must reflect a problem that a real client needs to have solved, and the client must be willing to interact with the students. 6 The students must not have had extensive experience working in the application domain involved, so it will be necessary to interact with the client in an interdisciplinary setting to determine necessary system features. 6 There must be several viable candidate system structures so that students have to evaluate alternatives in order to define the architecture in a manner that meets the client’s objectives
The journey to build a 21st century faculty-librarian relationship: A retrospective case study“Coming together is a beginning. Keeping together is progress. Working together issuccess.”-Henry Ford1This paper will reflect on how faculty and librarians built and fostered a successful cross-disciplinary relationship. The authors examine their journey to nurture an informationfluent learning environment. How did we foster the connectedness as a group? How didour diverse personalities impact the relationship? How did we create a win-winrelationship based on personal strengths? How did we benefit from social capital? Howdid we build co-mentorship? How did we practice being a community of learners? Howdid we employ
, delve deeper into specificresearch issues, or how to use their research to make an impact. Common sources for accessingthis kind of knowledge have been formal presentations or publications. However, these oftenprovide only superficial accounts of the rationales behind research, career, or impact decisions.Informal situations such as meetings, conferences, brown bag sessions, gatherings at the local“water cooler”, and blogs are also places to meet and share knowledge. However, theseconversations are rarely formalized and shared broadly. Some exceptions are efforts to formallysupport reflective practice and dialogue such as the Annals of Research on EngineeringEducation website [18]. On this website researchers may discuss such issues as
University of Virginia [7]. We felt strongly, however,that students needed to be able to explore at least two possible majors, and thereforesettled on the seminar model, starting in the Fall of 2002. We know of only one otherprogram running their introductory course in this manner; Vanderbilt piloted theirmodular program in the same year [8]. The change from the single-class to the seminar model represented a significantinvestment of faculty time and university resources. In this paper, we reflect on fiveyears of accumulated first-year data and one year of graduate data to conclude that, yes,the seminar model is superior to the single course model in numerous ways, bothquantitative and qualitative. We wish to note that the single-class model
theassessment scheme is working effectively. The one-year assessment cycle assesses studentlearning outcomes. This assessment includes faculty evaluation/course reflective statements(indirect), submissions to student portfolios (direct), and senior surveys/senior focus groups(indirect). Use of student portfolios as a means of direct assessment is well documented5. Directassessment of learning outcomes, as evidenced in the student portfolios, is facilitated through theweb-based RosE Porfolio tool. It should be noted that the key aspect of the direct assessment isthe use of a portfolio system. The RosE Portfolio is simply a tool that facilitates that process.RosE PortfolioThe RosE Portfolio at Rose-Hulman Institute of Technology has been in use for 6
Massachusetts Institute of Technology’s Electrical Engineering and Computer Science department. Her research explores computational tools and practices for promoting critical reflection within design-based learning activities. Her theoretical framework, Cooperative Constructionism, establishes a design-based approach to critical reflection with applicable computational tools and teaching pedagogy. Her publications include chapters in Social Capital and Information Technology and the forthcoming book, Communities of Practice: Creating Learning Environments for Educators. Dr. Chapman has served as Assistant Program Director for NASA’s Space Life Sciences Training Program at Kennedy Space Center and was a
race. White studentsperformed better in the course than minorities. As a set the learning style variables weremarginally significant predictors of course grade above and beyond race and gender. This was afunction of the active – reflective dimension. Specifically, reflective learners had a significantly Page 12.761.6higher course grade than active learners. Lastly, the four factors from the New Student Surveywere also marginally significant predictors of course grade. The only New Student Factor toapproach significance was the factor pertaining to computer knowledge. Taken together, gender,race, learning style preferences, and prior
to understand the impact of entrepreneurship in terms of abusiness education in general 4, 9. However, little literature could be found to analyze theeducational impact of an entrepreneurship course and how it affects the entrepreneurial decisionsand interest in entrepreneurship of the engineering students who have taken it.Research purpose This research will try to capture the reflection of former engineering studentswho took a specific entrepreneurship course. This study will try to ascertain whether theseengineering students perceive that the course helped them: choose a career; better understandentrepreneurship and new product development; prepared them to pursue entrepreneurship andnew product development activities; communicate and
final design.System performance was judged based on the power generated, system efficiency anddevice cost index as used in the formula below: Power Generated x Overall System Efficiency x Device Cost IndexPower generated refers solely to the ability of the system to light the light bulb. It isdetermined by the maximum current and voltage that the device produces as measuredusing a multi-meter. The overall system efficiency is calculated by dividing the usefulwork output by the energy input. The useful work output reflects the amount of workthat the system outputs in lighting the light bulb while the energy input reflects theamount of energy put into the system during the collection time. The device cost indexsimply refers to the