in each model. Page 22.682.2Case StudyThe students investigated Unit 5 of the Engineering West Building 21 (EWB Unit 5) located onthe campus of California Polytechnic State University, San Luis Obispo (see Figure 1). The two-story building is rectangular in plan with dimensions of 60′ in the north-south (short) directionand 160′ in the east-west (long) direction. The floor and roof diaphragms are 4½" thick concreteslabs. The shear walls in the north-south direction are composed of reinforced masonry. Theshear wall in the east-west direction is composed of reinforced concrete. After reviewing theplans for the building, the students walked
approaches have been presented to developappropriate educational material in microelectronics 1-4. Here, we describe our efforts tointroduce microfabrication technology in a comprehensive, cross-curricular way throughlectures, demonstrations and experiments from freshman through junior classes across fourdisciplines (Electrical and Mechanical Engineering, Chemistry, and Physics). In particular, wedescribe the capstone multidisciplinary fabrication experiments that we have designed. Junior level courses from four departments will integrate microfabrication experimentalmodules into the existing syllabi. These modules will expose students to the concept of a cleanroom, the concept of microfabrication, and attract and interest them in the
in engineering educationresearch on underrepresentation. We find it important to remind the engineering educationresearch community of the theoretical and methodological limitations of homogenous reliance onone metaphor to guide research studies. This paper critically explores the discourse of “pipeline”as an aim to (re)introduce to engineering education researchers both the method of discourseanalysis as well as alternative metaphorical frameworks. We use empirical data collected forADVANCE Purdue’s Academic Career Pathways study using oral history and participatoryresearch methods to explore the consequences of pipeline metaphor’s predominance. These dataare the academic stories of STEM faculty and help us explore: 1) what theoretical
issues embedded in aframework of concern for the welfare of other people. Care is a necessary component ofsuccessful group work and is thus related to effective engineering design by the researchers, asengineering frequently depends on multi-disciplinary teams.This paper presents the findings of a collaborative study that explored stereotypes and how thesemight be addressed. In particular, it discusses:1) if previous research describing the presence of gender stereotypes among both male andfemale students about the engineering profession as non-caring and non-collaborative issupported in this study, with a particular focus on upper elementary school age children;2) if male and female students have similar or varying views/stereotypes; and3
. The conditions necessary for program success are defined and the strategiesrequired to address the necessary conditions are developed as is the current program status.Introduction We live in tumultuous times, yet Americans know instinctively that our way forward is not to retreat or to re-trench. The way forward is to become more open, more experimental and to embrace the unknown. We cannot turn inward, nor can we allow our institutions to become overly centralized and risk averse [1] (p. 8). Page 22.686.2In 2004 a city in a Sothern California region renovated an existing property for the use of publicuniversities. The
manner. Furthermore, students not only enjoy flexibility in their early curriculabut also enjoy through their later semesters where specialization courses dominate thecurriculum. The aim of this research is to provide a new metric for describing the flexibility ofengineering majors and further the discussion into how student progression through a major willrequire significant, future work.Introduction and BackgroundThe work of the MIDFIELD group has been widely disseminated and can be found on theMIDFIELD website.[1] Previously, the project has focused extensively on important engineeringeducation issues such as: the persistence of students in engineering disciplines; the success ofwomen in engineering using quantitative and qualitative
disciplinary topics, but oneunderlying emphasis is to develop analytic skills that are rooted in basic mathematical andscientific principles. Typical engineering courses engage students in deriving, using, andapplying theories, equations, and models in a variety of problem solving contexts.Models are taught in the engineering curriculum to help students connect a design with the realworld.1 The modeling process provides students with an understanding of how to developpurposeful representations of engineering concepts and solutions. Starfield, Smith, and Blelochsuggest that there are two general categories of engineering models: descriptive and predictive.2Descriptive models represent what is expected, while predictive models represent
both environmental and personality factors. The studyuses measures based on career theories such as Social Cognitive Career Theory, which has usedextensively to explore vocational choice in engineering. These theories will be supplementedwith measures of social influence and personality to explain disciplinary choices. In addition,this study considers the climate students are exposed to in the various engineering disciplines.IntroductionPrior research with the MIDFIELD database (a National Science Foundation fundedlongitudinal database containing records of undergraduate students at ten US institutions) hasconcluded that at an average of 57%, the rate of retention to eight semesters in engineering ishigh compared to other disciplines 1
HPC education.1. IntroductionThe emergence of virtualization technology over the past five years is sparking a new revolutionin computing. This revolution has led to greater efficiencies in the use of computer servers andis one of the driving technologies behind the development of cloud computing. A similar trend adecade ago exploited the availability of low cost and high performance commodity computerhardware and open source software to power the development of commodity component basedhigh performance computing systems. Today, these systems dominate the list of the 500 mostpowerful supercomputers in the world 1.The recent availability of virtualization technologies motivates the exploration of severalquestions about the applicability of
within design and technology centres on therelationship between design and make. Baynes6 makes two critical points in relationto this relationship 1. There is a temptation to overvalue and hence to over assess the finished product. 2. There is often a mis-match between the pupil‟s imaginative vision and the pupil‟s ability to achieve it in realityValuing design without makeIt is difficult to contextualise Design and Communication Graphics, which hassimilarities with Art and Design and yet is comfortably housed in technologicaleducation within the Irish second level curriculum. Rutland7 explored the approachesto designing in Art and Design and Design and Technology in the UK curriculumwhich gives a valuable insight into the
Page 22.692.2exposing preschoolers to engineering related concepts, and on their motives and methods whiledoing so.MethodThis study used quantitative measures to understand how parents expose thei preschool childrento engineering through formal and informal interactions with a set of artifacts (see Table 1).Thirty-nine parents of children ages 4-5, from 6 Midwestern preschool classrooms participated inthe study. Families differed in their socioeconomic status. Eleven parents were recruited from 3classrooms in a university-based laboratory preschool and 28 were recruited from 3 Head Startclassrooms in the local community. Head Start is a program of the US Department of Health andHuman Services that provides comprehensive education, health
valuable teaching strategies as well as validated what they were learning in the class.IntroductionAs highlighted below, much has been done to show the positive impact of faculty engagementwith students. Dr. Norman Fortenberry, Director of the Center for Advancement of Scholarshipin Engineering Education at the National Academy of Engineering recently stated “Two of themost significant factors affecting engineering student engagement, retention, and academicperformance are the quality and extent of students' interactions with engineering faculty.Positive student learning outcomes are correlated with faculty discussion with students about thenature of engineering work and affirmation of students' ability to successfully perform suchwork."1 Astin
transport architecture,power beaming for a Space-based exchange and retail power delivery, and testbeds forrenewable energy systems. Finally, interdisciplinary courses at the senior undergraduate levelmesh learning across several subdiscipline and disciplinary areas. Initial samples of formativeassessment data reveal the learning style preferences and problem-solving approaches ofcurrent engineering students as they deal with the availability of diverse resources.Transferable lessons on the various issues in cross-disciplinary learning are distilled fromthese experiences. INTRODUCTIONThe EXTROVERT [1] project is a bold attempt to deal with the issues of learning acrossdisciplines in order to turn advanced
forapplication in graduate classes in the current semester, with assessment reported in the paper.Advanced concept development experience on several projects is included in the newexperience base. Thus learning in both depth and breadth paradigms is being addressed. INTRODUCTIONThis paper reports progress on building resources to help Aerospace engineers innovate solutionsthat draw on many disciplines. The need for such resources has been recognized at various levels[1-5]. The approach taken in the project is to enable learners to gain confidence with the processof solving problems, starting with their own preferred learning styles and areas of comfort as faras possible. Well-grounded in depth in their home
recognition of their contributionto the emerging field of polymer chemistry, the Nobel Prize in Chemistry for 2000 was awardedto Heeger, MacDiarmid, and Shirakawa “for the discovery and development of electricallyconductive polymers.”1 In the ensuing years the field has experienced tremendous growth.Electroluminescence was reported in large (millimeter scale) anthracene crystals, under theapplication of several thousand volts by Helfrich and Schneider.2 The first rectifying deviceswere developed at Eastman Kodak in 1987 by Tang and VanSlyke.3 These thin film organicstructures exhibited high external quantum efficiency (10-2 photon/electron), luminous efficiency(1.5 lumens/watt), and brightness (103 candelas/m2). The first rectifying devices that
1biometric systems derive their fundamental accuracy from the following parameters :- False Match Rate (FMR): Is the probability that an imposter will be accepted as a genuine user by incorrectly judging a match in his or her enrollment template- False Non-Match Rate (FNMR): Is the probability that a genuine user will be rejected by incorrectly judging a mismatch in his or her enrollment template- Failure To Enroll (FTE): Is the probability that a given user will be unable to enroll in a biometric systemFMR and FNMR are dependent variables and their relationship to one another can be describedby the Receiving Operating Characteristic Curve (ROC) shown in Figure 1
design.Keywords: Social Participation, Virtual Communities, IMVU, Strength of Presence, Interaction Design,Emotional Response,1. IntroductionThis paper explores the social interactions and emotional behaviors of those individuals whoparticipate in virtual environments. In particular, we study the users of the online communityIMVU. IMVU is a “social game and entertainment site where millions of people meet, chat,play games and have fun” [1]. Online virtual communities, particularly those using avatars, areplaying an ever-increasing role in users’ personal, professional and academic lives [2,3]. Severalstudies have examined the social dynamics of online communities such as Second Life andmassively multiplayer online role-playing games (MMORPG
project management, new productdevelopment, and interdisciplinary student teams. Our purpose was to produce engineering andtechnology graduates who are open to the injection of new ideas, comfortable in an environmentthat will nurture new product ideas from diverse disciplines and can mature promising ideas intoactual business propositions.Regional contextThe western North Carolina region is made up of the 23 western-most counties of North Carolina(shown in red in figure 1). This region is larger than eight U.S. states and is approximately thesize of Maryland. The demographics of the region are largely rural with a rural population ofalmost 60% as compared to the entire state ratio of 39.8%. North Carolina ranks the highest inrural population
institutions of higher education are potentially the single largest untappedregional source of future engineering professionals. In fall 2009, Texas public two-yearinstitutions served approximately 693,000 students and accounted for 75,338 (61.8 percent) ofthe 2008 to 2009 increase in enrollment in higher education institutions in the state. Indeed,public two-year institutions in Texas contributed 244,847, or 61.0 percent, to the increase inhigher education enrollment from 2000 to 2009 (1).A cohort study of students entering higher education in Texas in fall 2002 was conducted by theTexas Higher Education Coordinating Board (THECB) to examine the educational pathways ofthese students (2). This study revealed that of the 169,630 students enrolling for
define the terminology that will be usedthroughout this report. Definitions given here are consistent with those used in the 2006 ASEEconference paper ―The Role of Academic Performance in Engineering Attrition‖:1 Cohort: A group of students who entered the School of Engineering and Engineering Technology (SEET) during the same academic year. FTIAC: Students who entered LETU on a ―First Time In Any College‖ basis. These may have previously acquired college credit from dual enrollment or advanced placement courses, but they did not transfer from another university. Graduation Rate: The percentage of students who entered the SEET as FTIACs and then graduated with a SEET degree (not necessarily in the major in
students believe arethe issues which have the most impact and the interventions which would be most useful. Thispaper contributes to that area of the literature by presenting the results of a survey of 87engineering majors who took pre calculus. All had taken pre calculus within the past foursemesters and only 11% of the respondents had received a D or F grade. Specifically, the surveyexplored the research questions in Table 1. Table 1: Summary of Survey Research Questions 1. Do students believe they were placed in pre calculus appropriately? a. Is this substantiated by the correlation of the test score and the grade? 2. What is the role of high school preparation and how should this influence the course
now called the LouisB. Stokes Alliances for Minority Participation (LSAMP). This program is aimed at increasingthe quality and quantity of students successfully completing STEM baccalaureate degreeprograms and increasing the number of students who continue to graduate school. In the first 14years of the program more than 225,000 bachelor's degrees were awarded to minoritiesparticipating in LSAMP. More than 200,000 students are now enrolled in programs across thecountry, graduating approximately 25,000 students per year.1 Although LSAMP and othernational programs such as the Ronald E. McNair Post-baccalaureate Achievement Program haveresulted in a pool of minority students earning bachelor’s degrees in STEM fields, there has notbeen a
research presented in this paper is to investigate characteristics andacademic interests of CCSD CATA students enrolled in engineering curricula. Various factorswere investigated that influenced a student to attend a CATA engineering program and thestudent’s choice to pursue a baccalaureate in engineering.HypothesesFour research hypotheses were formulated for this study. They are: (1) students whose parents orfamily members who are employed or have been employed in an engineering related industry aremore likely to select engineering as an area of study in high school; (2) students whose parents orfamily members are employed in or have been employed in an engineering related industry aremore likely to plan to pursue an engineering baccalaureate; (3
the innovativeness of the product designed by the engineers is generally more importantthan the sheer creative ability of the engineer, we chose to measure the creativity of the resultingdesigns. We measure the creative outcomes using two metrics. The first, originality, measuresthe level of innovativeness of the concepts for hypothesis 1a&b and 2, where as the second,quality, measures the technical feasibility of the concepts for hypothesis 1c.OriginalityOriginality, based on the metric developed by Charyton and Merril30, is estimated at the overallconcept level using Table 1. The original metric recommended a 0-10 scale, but we have adaptedit to a 5-point scale to keep with Likert scale standards and for coding ease. We tested
water; and continuously neglecting the environment. Thishas spawned a new challenge for engineers, scientists, and businessmen and women. Not onlyare engineers and scientists expected to research, develop, and implement technology to improvethe economy, they are also expected to accomplish this economic growth without compromisingthe environment for future generations. In addition, businessmen and women will be expected tomarket these new technologies.At the time this research paper was written, the price of oil had risen to approximately $127.93for a barrel.1 As the cost of energy has increased, Americans are looking for ways to reduce theamount of energy used and become a more sustainable nation. Some Americans have begunpurchasing fuel
within civilengineering also gives students exposure to many areas of civil engineering practice and ideasfor research within their graduate studiesOverview of the Course: The seminar consists of a minimum of fourteen one-hour presentations during thecourse of each semester. Six of the seminars are presented by students (2 students perseminar for a total of 12 students per semester) and the remaining eight seminars arepresented by outside speakers. One professional development hour is awarded toprofessional engineers for attending each seminar, and two professional developmenthours are awarded to professional engineer speakers. The seminar is organized in a“brown bag” format from 12:30-1:30 pm every Thursday. The Civil
itself to the21st Century Learning Skills. The Academic Staff College encourages innovation and creativityamong its faculty and supports the introduction of new pedagogical methods and new learningapproaches in delivering instruction. It has positioned itself as a forerunner to bring about theparadigm shift from “teaching to learning.” New initiatives with particular reference to WIPRO‟s Project 1, an academia industrypartnership between WIPRO, a global IT and Engineering Enterprise and VIT University hasproduced a metamorphosis in the teaching learning process at the University. Individual learninghas been replaced with collaborative and group learning; lectures have been complemented withrole play, simulation, word games and group
their teachingwork.2 IntroductionCloud computing represents the latest evolution in computing architecture. By definition, cloudcomputing refers to “a model for enabling convenient, on-demand network access to a sharedpool of configurable computing resources that can be rapidly provisioned and released withminimal management or service provider interaction.”1 Cloud computing, coupled withubiquitous access through smart phones, tablets, and other internet enabled devices, hasrevolutionized software architecture and potentially will uproot traditional desktop computing.Cloud computing does not represent new technology. Rather, it is the latest manifestation oflarge scale computing systems dating back to the 1970s when time shared systems
pertinent information necessitateallocating significant class time, which may be prohibitive for those technical instructors whotake an integrated approach. Small cases are much more contained: “By their nature,” Lynch andKlein note, “small cases can never be presented in full ethnographic detail. . . .”1 “All elseequal,” suggests Michael Davis of Illinois Institute of Technology’s Center for the Study ofEthics in the Professions, “the shorter the case, the better.”2Second, small cases allow students to more fully exercise their moral imagination, the ability toexamine an ethical problem from multiple perspectives. Even very small cases, remarks DavidJonassen, exhibit “myriad perspectives.”3 Indeed, as Harvard faculty member Kenneth Winstonexplains
provided at the end ofthe paper. Question 2 regarding the topics covered changed according to the content includedeach program year. A total of 34 students responded to the surveys. Response rates (Table 1) forthe 2007 survey were between 40% - 60% for each cohort, while for the 2010 emailed surveywere around 25% for each group. Eight of the 34 respondents were still in high school at thetime the survey was administered, all in the 2007 survey. All other respondents were currentlyenrolled in a university program. We did not survey a control group of students who did notparticipate in the outreach program. Page 22.711.4Table 1. Cohort size and response rates for the surveys. Students