situated, incremental curriculum plan in all seven departments in the college. Her responsibilities include faculty development (she has facilitated nu- merous college-wide workshops), TA training (approximately 15 graduate students from the humanities work with CLEAR to develop the communication competence of engineering undergraduates), program- matic and basic research, instructional development, and assessment. Kedrowicz received her Ph.D. in communication from the University of Utah in 2005. She also holds bachelor’s and master’s degrees in organizational and corporate communication from the University of Wisconsin, Stevens Point.Ms. Maria Dawn Blevins, University of Utah
thesolar panel. Due to the production processes currently used, solar cells often show local defectsthat may affect their life time and efficiency. For this reason, there is a growing interest in solarcell quality control processes. Effective tools and methods are needed designed to assess andmeasure the quality of solar cells, especially in line during manufacture5-8.Finished solar cells undergo a variety of tests before they are assembled into modules. It iscrucial that low-performing cells are not incorporated into modules. Conventional quality controlmethods test the current, voltage, and resistance of each of the cells to determine whether it fallsshort of the required standards. The approaches for measuring solar cell current usually
effectively guide students through the complex process of operational planning anddesign. As a result, students gain insight into actual industry practices.Faculty mentoring of capstone projects is used extensively within the construction managementprogram at the University of North Carolina at Charlotte (UNC Charlotte). This paper describesthe overall structure of the capstone course and projects, outlines the role and expectations forfaculty mentors, and provides an assessment of the impact and effectiveness of the facultymentoring on student performance and project outcomes. Capstone students were surveyed at thecompletion of the course and asked to rate the effectiveness of their faculty mentor. An analysisof the results appears to indicate a
learning, andto record observations and comments to be used in the final lab design.Initial Knowledge and Awareness SurveyThe Appendix includes a copy of the initial knowledge and awareness survey taken by thevolunteer students. The purpose of the survey was to assess the student level of understandingand to identify their technical and practical interests.Highlights of the Initial SurveyStudents expressed only basic understanding, more descriptive than technically accurate, of theoperation of the photovoltaic cell, the electrolyzer, and fuel cell. They described thefundamental energy conversion phenomena, but expressed little understanding of the basicphysics of the energy conversion processes. Their interests, i.e., what they wanted to learn
as the spring semester continues. Data & EvaluationEvaluation of the W-STOMP program involves multiple measures of students. Using apre/post/post design, students complete a Pre and Post Engineering Conceptions Instrument(which includes Draw an Engineer) as well as a Pre and Post Engineering and ScienceAttitudes[10] to measure the change in their understand of engineering and the change inattitudes. Students have completed the pre assessments and will take the post assessments at theend of Spring 2012. Students who participate in the summer program will take an additionalposttest at the end of their camp experience. Classroom observations (a small sample isincluded in the Classroom In Action section) are also being conducted to look
meeting is to assess the needs of the disabled person and to identify specific requirements for an assistive technology design project. After the initial meeting, each student designer submits a written report that specifies the requirements that the design project must fulfill, and how the outcome of the design will improve the life of the disabled client. Page 6.871.4 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education2) Each student (or small group) then develops a conceptual design that satisfies
andare available for a small processing fee (see Availability below).As the work progressed, more detailed and useful evaluation instruments were progressivelydeveloped. Appendix A shows, for example, a student evaluation form for the AC Insights Plusmodule. Similar forms were developed for the other modules, for assessing both student andinstructor use. Comments obtained through these forms and through other feedback werecontinually used during the ongoing development/improvement process of module development.Current plans call for developing similar modules in related areas, including energy conversion,conservation, and efficiency. The experience gained through conducting this project over a three-year period has been rewarding and, hopefully
the 8-semester engineering clinic sequence.As shown in the table, while each clinic course has a specific theme, the underlying concept ofengineering design permeates throughout 3. Table 1. Overview of course content in the 8-semester Engineering Clinic sequence. Year Clinic Theme Clinic Theme (Fall ) (Spring) Freshman Engineering Measurements NSF Competitive Assessment Laboratory Sophomore Quality Entrepreneurship Junior Multidisciplinary Design Project Multidisciplinary Design Project Senior Multidisciplinary disciplinary
to meet the learning goals atvarious points in the analytical process. Multiple-choice was used where the choices weresimple and did not require any graphical, equation, or numerical development. Although not aperfect match, drop and drag was employed to simulated freehand graphical analysis. Finally,text entry was employed where higher-order skills of equations and numerical developmentwere required.References1. Aedo, I., P. Diaz, C. Fernendez, G. Munoz Martin, and A. Berlanga, “Assessing the Utility of an Interactive Electronic Book for Learning the PASCAL Programming Language,” IEEE Trans. on Education, 43, 3, 403- 413, August 2000.2. Grimoni, J.A.B., L. Belico dos Reis, and R. Tori, “The Use of Multimedia in Engineering Education
mediatingpersonal differences between students in addition to evaluating learning outcomes. Usually, theresolution of these problems and conflicts come after they have already manifested itself asdegraded team performance. As enrollment increases, however, it is difficult to scale the size ofthe instructional staff, a scarce resource in many engineering departments.We believe that computer-based tools can be useful in assisting the teaching staff to monitor theprogress and performance of teams in large engineering design courses. In the next section, wedescribe metrics for assessing team progress and performance. Then, we describe our computer- Page
required.JIT includes all components of educational practice: curriculum, instruction, assessment, andteaching. The curriculum is comprised of an integrated sequence of nodes and related topics thatincorporate competencies.Educational change occurs at the node (Just-in-Time where the mathematics, physics,technologies, and related competencies are presented to the student). The content of a node issimilar to the description of a topic within a course but at a more detailed level; it is presented inbehavioral terms. Nodes introduce relevant knowledge, skills, and attitudes via combinations oflecture, computer simulation, written documents or other traditional or modern methodology.Student participation in these related activities reinforces their
Engineering EducationIV. Industry AssessmentThe curriculum and the program are being assessed from two points of view. First, theevaluation questionnaires provide the NCTT with a basis for establishing a primary thrust in thecurriculum and preferred skills set for a viable workforce. Second, the industry has evaluated theoutput of the program by means of internships, for both teacher and student. This activefeedback helps the faculty and partner school participants to redesign, revise, enhance, andinnovate according to industrial perceptions.The close relationship of the Massachusetts Telecom Council with NCTT allows for the Centerto obtain rapid assessment of the programs by over 300 companies in the telecommunicationsindustry. Data and workforce
Session 2526 Teaching the Principles and Practice of Uncertainty in the Undergraduate Laboratory Sheldon M. Jeter Georgia Institute of TechnologyINTRODUCTION Uncertainty is the estimate of the confidence interval for a measurement. Somereasonable estimate of the uncertainty is almost always necessary. For one example, an estimateof the uncertainty is necessary to assess the reliability of measured data for use in design oranalysis. An uncertainty estimate is also needed to evaluate the confidence interval when themeasured value is to be compared
ResultsOver a time frame of approximately four weeks during the spring 2000 semester, the graduatestudents learned about and applied the Team Talk techniques to their respective teams. Theylistened to their teams’ conversation and took notes on the specific linguistic behaviors. Theyanalyzed their data using the Team Talk audit – a guide for cueing in on specific words, syntax, Page 6.966.3turn talking, topic changing, and hesitations – to assess their team in each of the six dimensions. Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American
that can be used to mitigate the wetlandimpact. The ultimate goal of this independent study is for the student to present their design tothe Bloomfield Wetland Commission. Page 6.1060.5 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering EducationV. Assessment of the North Campus Road ProjectSeveral tools were used to assess the effectiveness of the North Campus Road project formeeting the ABET 2000 outcomes. First, engineering professionals that attended the oralpresentations were asked to evaluate the
year, and 4) continuedcommunication with campers through e-mail or phone. The program targets 5th, 6th and 7th gradegirls and features a tiered-mentoring process that is designed to match campers with high schoolstudents, college students, and college faculty who excel in science, mathematics and/orengineering. The mentors work in both camps and continue their mentoring activities throughoutthe following school year. The Central South Summer Camp evaluation plan, which includesqualitative and quantitative measures, will be used to assess program effectiveness and to helpdetermine if girls who participate in this program have developed a sustained interest in math,science or engineering.Introduction It is commonly accepted that we need
felt that a discussion of practical methodsto be used by faculty to prevent cheating prior to its occurrence was needed. This paperis based on preliminary results of a study being conducted by a team of researchers toinvestigate engineering students’ perceptions about what is cheating, how often they do itand how it can be prevented. It is the author’s personal belief that students do notinherently want to cheat for malicious reasons, but instead do so as a result of variousdemographic, situational and/or psychological factors. Therefore, a set of useabletechniques should exist that can counteract these factors and help students avoid thetemptation to cheat.II. Current Research on CheatingThe primary assessment goals of the author’s present
6.1103.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright ©2001, American Society for Engineering Education“reinventing the wheel.” G.C Quarderer of the Dow Chemical Co. summed up this idea nicelywhen he said “Four to six weeks in the lab can save you an hour in the library”15 and by SamuelJohnson (1709-1784) who said “The next best thing to knowing something is knowing where tofind it.” Just as important as finding the information, the ability to critically assess the informationfound in technical journals and from vender literature is even more important. It is of little valueto know what has been done before if you cannot evaluate the quality or the
. The diverse vehicles and sites are documented. Further, there is adiscussion of the contributions of both the industrial design and engineering students – howteams defined their work ethic and division of labor. Finally the assessment process of theproject is discussed. This paper serves as a visual record of an exciting and creative foundationdesign effort.IntroductionIn the spring of 1997, we had a notion that a collaboration of engineering and industrial designstudents would bring about a new and exciting possibility for our students to experience theactivity of real world design in their foundation years at the university.The first year, we established teams of two students - one engineering student and one industrialdesign student. The
Session 2793 USMA Regionalized Drinking Water Treatment Facility Multidiscipline Capstone Ronald W. Welch, Steven D. Hart United States Military AcademyAbstractLast spring, 95 civil (CE) and environmental (EV) engineering majors in the ABET-accreditedCE and EV programs at the U.S. Military Academy (USMA) worked on a multidisciplinarycapstone project to design a regionalized drinking water treatment facility for West Point andsurrounding communities. This paper assesses the project through student comments andinstructor evaluations. The one-semester
the laboratory and equipment current. One example is to evolvethe course towards a hardware/software co-design model to take advantage of new processingarchitectures, such as those based on hybrid FPGA/programmable DSP models.Course EvaluationWe employ an assessment program with one simple goal: to continuously improve the course inorder to maximize improvement the student’s learning experience. Specifically, we hope to helpstudents advance to higher-order skills in the Bloom taxonomy while simultaneously masteringdiscipline-specific knowledge and tools.Thus we augment traditional course/professor evaluations for two reasons: first, they are usuallyused for tenure/promotion and thus rely on averages of quantitative measures, and second
Copyright ©2001, American Society for Engineering Education The purpose of this senior design project is to use today’s engineering knowledge to analyze Peale’s and Paine’s designs. Based upon its assessment, the team will produce its own design for an 18th century bridge across the Schuylkill using the approach of either Peale or Paine. Finally a scale model will be built and tested to a design load deemed reasonable for 18th century use.Here the students were confronted with a significant societal problem that was amenable to atechnical solution. For the city of Philadelphia to grow, a means to span the Schuylkill River wasneeded. The gap at High Street was 390 feet wide. Two "new" design concepts had emergedduring the 1700’s from the
be measured. The decision-making process moves from a thought experiment to a laboratory experience, and the studentsare asked to design and make measurements on the crayfish and their environment. Thelaboratory took place in four major segments. In each segment, the students monitored thesystem, assessed its stability, and took corrective actions based on their assessment. The fourstages were: 1. Develop a stable, open system. In this stage, the students learned about the needs of the crayfish, set up their tanks, developed proficiency with the water quality tests, and allowed the tanks to stabilize. During this period, the students became aware of the complexity of their challenge. As the self-organization proceeds
. found that small groups of students working together in acooperative-learning environment improve problem-solving skill5.Building on our earlier work6, we sought to• Introduce fundamental concepts of electronic systems through the use of macroelectronics.• Employ a project-based learning environment to increase motivation.• Selectively cover microelectronics topics, partially guided by project requirements.This paper describes alternative teaching strategies for the standard EE electronicscourses at each of our institutions. Outlines of course contents, project descriptions, andsome assessment results are included.Objective 1: MacroelectronicsImparting knowledge of macroelectronics attempts to convey a systems view ofelectronics
provided with a metal sample, and simply asked todetermine its density. It is presumed that students will decide to measure its volume with a rulerand its mass on a balance. After this set of experiments, Archimedes Principle is explained, andthe students utilize that technique to measure density. For both procedures, the students arerequired to make multiple measurements. In their report, the students are asked to compare thedifferent techniques to each other and to the accepted value, using appropriate statistics, andmake a judgment as to which technique should be preferred. They also are asked to assess thesource of any errors in the techniques. The lab is also related to classroom material, since one ofthe lectures deals with crystal
computer skills, specifically word processing, spreadsheet, presentation software andCAD skills. The assessment of skills was based on a student survey. While essentially allentering freshmen posses word processing skills, the amount of spreadsheet, presentation andCAD software experience varies significantly; making some equal distribution of skills desirable.According to Burton and White2, freshmen engineering design projects may be categorized intoeight different methods: reverse engineering, creating something useful, full scale project, smallscale project, case studies, competitions, non-profit projects and redesigns of local projects. Themethod used at UT-Tyler is a hybrid; we sponsor a competition to create something useful. Thismethod
mechanical separations.We decided to analyze both qualitative and quantitative measures in order to assess theeffectiveness of these pedagogical changes. At Colorado State University (CSU) the Center forTeaching and Learning has developed a formal procedure for soliciting this information based ona mid-semester feedback session. This feedback session (conducted by Dr Timpson), consistedof two parts; a discussion with the students on the strengths and weaknesses of the course and asurvey6. At the end of the semester the standard CSU course evaluation was administered. Theinstructor (Dr Wickramasinghe) was not present during either of the two feedback sessions.In 1999 the fluid mechanics lecture course followed a similar format to 1998. The
= ______________________________________________Using the ruler provided and the equations derived above, fill in the table below:a da b db c dc V dV(mm) (mm) (mm) (mm) (mm) (mm) (cu.mm) (cu.mm)Laboratory ExperimentsThe two experiments and the appropriate outlines follow. The first, Error EstimationExperiment, is from ME 412 at Michigan State University and is included in its entirety. Thesecond, Experimental Determination of the Specific Heat of a Liquid, is from ME 376 at theUniversity of Portland and has been edited for redundancies in methodology explanation.Error Estimation ExperimentObjectiveTo develop basic working knowledge involving error assessment in
, and Access road reconstruction.Geotechinal engineering, hydraulic and water resources engineering, structural engineering,transportation engineering and environmental impact assessment were the main technicalelements of this project. Alternative solutions and criteria development for cost, construction(environmentally protected zones) and limitation in access, short window of construction,limitation of non-native construction materials were among the main challenges of this project toarriving at the best alternative solution. Students were mentored and guided through all thesesteps.Project: Bowman Bridge Roadway and Pipeline Bridge and Seismic StrengtheningOwner: City of Portland Water BureauBowman Bridge is an existing steel truss bridge
Session 3230 Peer Evaluation in a Mandatory Cooperative Education Environment Matthew W. Ohland and Cynthia J. Finelli Clemson University / Kettering UniversityAbstractPrevious studies with a majority white student population [1] and with a majority black popula-tion [2] demonstrated that peer ratings to assess individual performance of team membersshowed no effects relating to gender but significant effects relating to race. For this study, thestudent population is majority white, but is from Kettering University, an institution that requiresparticipation in a cooperative education program