Page 7.998.1Laboratory is the subject the subject of another paper (3). Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering EducationSimulation of a Single Input Single Output (SISO) ProcessThis process consists of a constant volume tank in which a solvent and solute are mixed.A steady dead time is caused by delay in analysis of the mixed stream. The screen for theprocess is shown in figure 1.The valve response to a change in the signal can be approximated by a first order lag. dS = K (MV - S) (1) dtwhere K = the valve time
in developing and teaching thiscourse are also summarized.1. IntroductionThe chances of a product being developed on time and within budget are dependant on thoroughand precise analysis of the client's current situation and needs. Informally, the client’s needs arealso called “requirements.” A “requirement” is a specification of what should be implemented bya product. The IEEE standard defines requirement as “A condition or capability that must be metor possessed by a system or system component to satisfy a contract, standard, specification or Page 7.748.1 Proceedings of the 2002 American Society for Engineering Education Annual
transparencies with a variety ofcolors and pictures along with the chalk board, showed several videos, and tried tosummarize the presented information with learning maps (vide infra). About half waythrough most of the lectures the class was arranged into 2-3 person teams for 5-10 minuteproblem solving, followed by a short discussion/presentation period; in addition to itscooperative learning attributes, this format allowed the class to essentially have a half-time break for learning improvement. I also utilized other cooperative learning andteaching formats and methods as discussed in Nilson’s Teaching at Its Best.1 During thesemester the students gave three formal 10-minute oral presentations and prepared aliterature review/proposal on a selected topic
theirmistakes by taking some of the stigma out of failure. To this end, I give an early readingassignment in Statics - Vicky Hendley’s article, “The Importance of Failure.”1 In the article,Hendley lists examples of failures that led to great successes, discusses the importance of learningfrom failure, and introduces issues in ethics and professional responsibility. By noting that amistake offers more opportunities for learning than a successful answer, students are less likely tobe averse to examining their mistakes.Henry Petroski writes, “Treating every case of failure as an opportunity to test hypotheses,whether imbedded in design or in theories about the nature and process of engineering itself,makes even the most ancient of case studies immediately
. Faculty who have implemented the instrumenthave found it to be a valuable classroom tool, promoting self-awareness of life-long learningskills in a variety of course settings and supporting action research on lower-division designexperiences. Their discoveries are summarized here using a framework for assessment literacythat is widely used in the K-12 education community.ROLE OF EARLY-PROGRAM ASSESSMENTRepresentatives of both industry and academia rank design process, teamwork, andcommunication among the top five capabilities that emerging engineers need to possess 1. Inresponse to such expectations, ABET Engineering Criteria 2000 now requires programs seekingaccreditation to not only develop key competency areas such as these, but also to devise
, Kobe, Turkey, Taiwan and India havecaused severe damage to buildings, bridges, and crucial lifeline infrastructures. During theNorthridge earthquake, for example, about 12,500 structures were moderately to severelydamaged including residential homes, businesses, and freeways (see Figure 1). Major freewaydamage occurred up to 32 km from the epicenter. Collapses and other severe damage forcedclosure of portions of 11 major roads to downtown Los Angeles. On the first anniversary of the6.7 magnitude 1994 Northridge earthquake, Kobe, Japan was struck by a 6.9 magnitude. Bothearthquakes ruptured beneath densely populated areas, and both caused horrible damage (seeFigure 2). Yet in Kobe there were many more deaths, financial losses than in Northridge
approximately thirteen square miles in size andpredominately agricultural. The Ohio Northern University (ONU) is located in the Village ofAda. The village has approximately 3,000 permanent residents. ONU is primarily a residentialcampus and adds approximately 3,200 students to the village’s population. The delineation ofthe Grass Run watershed with the location of the Village of Ada and Ohio Northern University isshown in Figure 1.The Village of Ada’s municipal wastewater treatment plant (WWTP) is the major point sourcepollutant of concern in the watershed. The WWTP is an advanced secondary treatment plant thatrelies on activated sludge for carbonaceous biochemical oxygen demand (BOD) removal andtrickling filters for nitrification. The plant is
posttest scores of students taking a graphics or computer-aideddesign course. However, results usually were not conclusive. This paper presents acomprehensive study on spatial visualization skills at various educational levels. The PurdueSpatial Visualization Test – Rotation was given to high school students, college students atdifferent levels, and high school teachers. The spatial visualization skills among differenteducational levels were compared. Other possible factors, such as age and gender, were alsoinvestigated. Statistical analyses of the data revealed the effects of long term training and generaleducation on the improvement of visualization skills.1. IntroductionThe ability to visualize spatially is generally considered fundamental for
traveled to the campus for their full day sessions and alleviated the frustrations they had with earlier experiments performed at home.Background: Distance Learning instruction in engineering education dates back to the late 1960’s when Universities began offering graduate courses through this medium. 1 Distance Learning offered an easy and affordable way to instruct small classes, the maturity of the Graduate student enabled them to overcome the technical difficulties. 2 Distance Learning in undergraduate education is a relativity new development. Rochester Institute of Technology has been participating in distance learning teaching since 1989. RIT has used different formats in their distance-learning classes, which include flexible format
courses should be set as prerequisites for engineeringgraphics courses? This paper presents a study of the relationship between basic mathematicalskills and spatial visualization abilities. The Purdue Spatial Visualization Test – Rotation wasgiven to students taking engineering graphics courses. The results were compared with scores ona basic mathematical skills test, a placement test that all new students took when they applied tothe college where this research was undertaken. Statistical analysis of the data revealed the effectsof basic mathematical skills on spatial visualization abilities.1. IntroductionSince proficiency in engineering graphics is essential to engineering and technology students,improving their technical drawing skills has
several dimensions of team functioning similar to the team processchecks. The faculty used 5-point scales ranging from never to always to evaluate the teams onthese dimensions.ProcedureThe time-line of the procedure was as follows:1. TKT pre-test (administered on-line during first month of classes)2. TPC t1 (administered in class at end of the first month of classes) Page 7.234.3 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Education3. Assignment 1 of team training material posted on a website (assigned at
mmf waves are displaced 1200 electrical degrees in space. Figure 1 shows howwe determine the magnetic axis of a coil. Figure two indicates the three magnetic-axis of three coils Page 7.214.1placed in space around the stator. A three-phase sys tem requires three coils to create three magnetic Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education 2002-575fields that will interact among each other to
symmetricdistribution of the phases by 1200 electrical degrees each in space and around the air gap. The basicthree-phase machine will have three coils that we consider to have the following terminals: a a’ b b’ c c’These coils are excited by a time dependent sinusoidal alternating current producing a sinusoidalmagneto- motive force (mmf) wave at the center of the magnetic axis of particular phase. Therefore thethree-space sinusoidal mmf waves are displaced 1200 electrical degrees in space. Figure 1 shows howwe determine the magnetic axis of a coil. Figure two indicates three magnetic-axis of three coils placedin space around the stator. A three-phase system requires three coils to create three
data and to develop an analysis method for generating the needed answers. Theunderlying educational theory and the details of these experiments is outlined in the followingsections.Educational TheoryThe Learning Cycle and Personalization of Information are the primary educational tools used toimprove the student’s understanding of engineering theory. Through the use of these proveneducational techniques, the students can become familiar with both the engineering theory andsome underlying differences between many high school expectations and those of engineeringschool.The learning cycle is a proven four step model used to introduce students to new information,especially scientific lessons.1 During this freshmen course, the learning cycle is
acquisition software application, began in 1992. The keyhardware components initially consisted of an IBM PC-compatible system (PC) workstationrunning MS-DOS, an internally installed 8-channel analog-to-digital converter (ADC) adapter,outboard signal conditioners and either strain gage or LVDT- based transducers and connectingcables. Figure 1 shows the block diagram of the original GENTEST system architecture. Theessential element in this configuration was that all the transducer signals remained in analogform up to the workstation enclosure. The analog to digital conversion was performed inside theworkstation enclosure. Therefore, the particular workstation used must be considered to be aunique component of the system and thus needed to be part of
, for 170 minutes. The course schedule shown in Page 7.545.5Table 1 was ambitious especially in light of the volume of work reflected in the activities, tasks Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationand deliverables. For this reason, the instructors continuously coaxed, coached, and cajoledstudents to avoid falling behind. Table 1. Schedule of Activities, Tasks and Deliverables Session Activities, Task & Deliverables 1 Introduction, Project Scenario
-specific educational objectives.The shortcomings of using standardized end of semester assessments can be overcome by using aseries of multiple short assessments during a semester, in which assessments are designedspecifically for the course and the student body. This assessment-improvement feedback processflowchart is shown in Figure 1. This process substantially reduces the assessment -improvement-verification turn-around time, making it easier to determine the effectiveness of teaching orcurriculum changes on the learning experience. It also addresse s the problem of varying classdynamics since changes in course curriculum or the teaching style directly benefit those studentsparticipating in the assessment. The proposed assessment methodology
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typically“hitchhikers” who do little work but are still rated satisfactory in peer reviews. The self-evaluations conducted seemed to be well done and their validity as a technique is discussed byLowman 8. Two basic techniques were used in this study: 1. Standardized and normed testing 2. Surveys of both industry and studentsIn order to determine if Industry/Education partnerships improve product development and salesthe resulting sales, time, and financial data (if available) from industry was used as a basis fortesting. To determine if these partnerships resulted in increased student learning severaltechniques were used.The first, the Revised Minnesota Paper Form Board Test was used as the instrument forevaluating student performance in
mandatory post-baccalaureate education for the practice of civil engineering at a professional level. The implementation of this effort should occur through establishing appropriate curricula in the formal education experience, appropriate recognition and compensation in the workplace, and congruent standards for licensure.6The purpose of this paper is to better define the broad issues necessitating an increase ineducation. The ASCE Task Committee on the First Professional Degree has identified nine suchissues, presented in Figure 1. 36 The three issues at the top of the figure—slippage in educationand licensure requirements relative to other professions, reduction in credit hours, and relativelylow compensation—have been
third, and least comparable, method is anecdotal evaluations from the industry peopleinvolved. These observations were recorded and posted to both the individuals involved and theclass as a whole. Additional media use of these anecdotes was made as well as use inadvertising.While the study was originally designed to evaluate whether just Rapid Prototyping wouldincrease problem-solving skills, it somewhat naturally expanded into different areas. Theextended time period in this study allowed repetition with various groups for verification of theresults 13. In addition, accuracy is improved if the researcher knows both the control andexperimental group differences and this helps to correctly evaluate the results 1. For this reason,only classes
. Page 7.1178.2 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ã 2002, American Society for Engineering Education”While the study was originally designed only to evaluate whether Rapid Prototyping wouldincrease visualization skills, it was necessary to eliminate or reduce the effect of as manyvariables as possible. The extended time period in this study allowed repetition with variousgroups for verification of the results 14. In addition, accuracy is improved if the researcherknows both the control and experimental group differences and this helps to correctly evaluatethe results 1. For this reason, only classes taught by the same instructor were used
performing,but “the ability to stimulate strong positive emotions in students separates the competent fromthe outstanding teacher”1. Humor, spontaneity, variety of activity, animated delivery,enthusiasm for the subject matter, and the presence of drama in the classroom can help fostersuch emotions. It may appear difficult upon first glance to imagine how one brings drama andflair into the engineering world of derivations, complex equations, and code requirements. Ittakes more imagination than a class on law or history, which seem to lend themselves better todramatic effect. Wankat and Oreowicz 2 contend that dramatic effect in the realm of engineeringis natural because “there is an inherent drama and majesty in the ability of theory to predict
design-constructionteam as shown in Figure 1 follows the American Society of Civil Engineers model1. The exerciseattempts to replicate the U.S. Army Corps of Engineers process2 (Figure 2), from the engineerteams taking an owner’s requirements through design, bidding, construction and finallyinspection and acceptance. This paper describes the organization and operation of the exerciseand presents student feedback on the experience.K’NEX SITUATION The exercise is divided into three phases: (1) Design and Bid Preparation, (2) DesignCloseout and Contract Award, and (3) Construction. All students have a role in each phase. Thestudents are broken into three groups: the Architect-Engineer Firm (A-E), the Project Manager(PM) and the Contractor
concrete class in themorning and a lab in the afternoon. The purpose of the laboratory program is to reinforcekey learning objectives of the reinforced concrete course and help provide the cadets witha physical understanding of the theoretical concepts they are learning in the classroom.Table 1 lists the course objectives for CE483 and the degree to which these objectives aremet in the classroom or the laboratory or both. Out of 19 course objectives, eight areattained by complementing the classroom and laboratory experiences.The laboratory program uses standard (English) units. This is significant because theclassroom portion of the course is taught in metric (SI) units and students purchase themetric version of the ACI code 1. Cadets are forced
Session 2592 The Effect of Stereotype Threat on Women’s Performance on the Fundamentals of Engineering Exam Amy E. Bell, Steven J. Spencer Virginia Tech/University of WaterlooAbstractRecent research has demonstrated that stereotype threat—the concern that others will view onestereotypically—interferes with women’s performance on standardized math exams. 1 In thecurrent study we examine whether stereotype threat interferes with women’s performance on theFundamentals of Engineering Exam (FEE). This exam is the first step in the process to become alicensed professional
. Thespecially designed activities related to the hierarchical model are implemented in “experimental”versions of the courses, while “control” groups are taught in the traditional manner. As shown inTable 1, the experimental (designated ‘e’) and control (designated ‘c’) courses are staggered overa 3-year period. The first four courses in the sequence are taught twice per year to accommodatethe large number of co-op students in the department. TABLE 1 Courses involved in the study. Experimental sections are labeled as ‘e’; control sections are labeled as ‘c’. Year Spring Fall 2000
)readings.Equipment. The principal equipment required is shown in Figure 1. Most of the itemsshown are very low cost, with the exception of the strain gage reader. The total cost perlab set-up with the equipment shown was less than $2k, with most of that cost being thestrain gage reader. It is worth noting that the best setup of the equipment as far as Page 7.384.2accuracy is a cantilever beam, requiring only the instrumented bar, a single clamp and the “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Education
containcombined degree students who are also enrolled in either some 200-level or 400-level subjects.This means that the material covered in an engineering subject or unit must be as self-containedas possible with all pre- and co-requistites carefully managed.In some countries the duration of university courses was 3 years post school whereas in Australiaall university engineering programs have had a duration of 4 years from the very beginning ofhigher education in the country. Indeed the very first Engineering degree courses taught at theUniversity of Melbourne in 1882 consisted of 3 years of an arts course followed by 1 year of“rigorous” engineering. Maybe this could be regarded as the very first Combined Degreeprogram!Today it has been universally
discusshow the introductory design project helped the freshman students to tackle with design problemswhile working as a team.2. Outline of Engineering Design Education at KIT“Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Page 7.762.1 Copyright 2002, American Society for Engineering Education”In our EDE, the Engineering Design Process (EDP) is defined as the process by which thefollowing activities (stages) are performed. (1) Design Opportunity Identification (2) Design Project Characterization (3) Design Concept Generation (4) Design Concept Evaluation and Selection (5