IMPEC faculty members, but several times during each semester “workshops” on specific topics (e.g. statistical analysis and angular motion) are team-taught by the full faculty.• The course instruction makes extensive use of active (experiential) and cooperative (team- based) learning and other methods designed to address the full spectrum of student learning styles,1 reducing but not completely eliminating formal lecturing. All laboratory experiments and most homework and in-class activities are done by teams of students. Exercises are Page 2.460.2 designed to provide positive interdependence, individual accountability, and
physical demonstration models used are presented.1. IntroductionOver the past two years, several large classrooms at the Faculty of Applied Science andEngineering, University of Toronto were upgraded through installation of electronic capabilities.This has allowed teaching techniques to be expanded and improved. For instance, in the pastyear, the author used these facilities in teaching an undergraduate vibrations course to a class ofmore than 100 students.This paper describes the material prepared for the vibrations course, using the electronicclassrooms, including:. a series of computer animations to illustrate various important aspects of vibration phenomena, based on a computer software package entitled Working Model’, which
previous AutoCAD exposure, therefore it was necessary to start fromthe very beginning. The basic overview steps to access AutoCAD are:1. Enter AutoCAD from the DOS environment2. give the Command ‘ACAD’3. the AutoCAD menu system, which consists of pull-down menus, toggle and status line, graphics ares, UCS icon, and command line4. AutoCAD operates under a pop-up menu system with a list of various options, consisting of file, assist, view, draw, construct, modify, data, options, tools, and help. As with many software programs, the location of various commands takes experience to master5. The menu options must be examined in detail, because often one item can be accomplished several different ways. This exercise was designed to
. reactance (R-X) plane, as shown in Fig. 1.One common testing technique is to hold the angle between the sinusoidal voltage and currentsignals constant. The voltage is fixed and the current is increased in steps until the relaymeasuring unit trips or a maximum value is exceeded. The angle between the signals is thenvaried and the process repeated. A variation is to hold the current constant and decrease thevoltage until the measuring unit trips or a minimum is exceeded. 30 25 20 PlotJ 15 10 5
. Aftermoving to Grand Valley State University, I found myself teaching Statics again. To make thecourse more interesting, I decided to explore some creative teaching methods. Some explorationof departmental resources made it clear that computers would be a good avenue to pursue. Uponexamination of the available equipment, it became obvious that it would be possible to makeextensive use of computers in teaching. Not only were faculty well equipped, but the student tocomputer ratio was 5: 1. In the end the course was developed to include extensive computer use inand out of class.It is my intention to describe my experiences, and make suggestions to other faculty thinking ofusing computer tools to support their classroom activities.1.1 - Computer Use In
integrating knowledge learned across several electronic classes. Page 2.463.1 Session 3220Introduction: This paper describes a project assigned to students during the last quarter of an Linear Op-Amp electronic class. Figure 1 shows the computer interface system block diagram. A 74LS245Octal Transceiver chip was used to connect the analog Op-Amp, and the Fiber Optic circuits tothe PC-Interface card that resides in an IBM compatible personal computer. Figure 1 Schematic Block Diagram of the System The system described in this paper measures
WWW server. In addition tothat the local viewing of the course content is significantly faster as compared to accessing aremote site. 1. INTRODUCTION Page 2.464.2a Professor of Civil and Environmental Engineering b Associate Professor of Mechanical Engineering The growth in the computer local area networking (LAN) and wide area networking (WAN)using a common set of communication protocols such as TCP/IP has lead to a worldwide Page 2.464.3computer network, also known as Internet. The merger of
1 Session 2666 The Use of Mathcad’ in Viscous-Flow Courses B. K. Hodge Mississippi State University AbstractExperiences using Mathcad in an introductory graduate-level viscous-flow course and anundergraduate intermediate fluid mechanics course are described. Many of the classicalequations of laminar viscous flow are third- or fourth-order nonlinear ordinary differentialequations that are boundary-value problems
Session 2513 The Use of Peer-Review in the Undergraduate Laboratory James A. Newell Department of Chemical Engineering University of North Dakota, Grand Forks, ND 58202-7101IntroductionThe value of peer review in developing both critical thinking and student writing skills is well-documented (1-4). The first drafts tend to be improved because the students’ realize that their peerswill be reading their writing (5). Additionally, the student is provided with a formalized to revisethe original report in response to the review. The reviewer benefits by being forced
or morecomputer projects in each course. The objectives of these projects evolved over time into thefollowing:1. Expose the students to the type of software used for designing chemical processes in industry.2. Provide the experience of working in a student group.3. Give the students the opportunity to undergo the “painful” and frustrating experience of learning to use new software.4. Expose the students to the design of part of a simplified chemical process.5. Get the students to recognize the value of Process Flowsheet Simulation Software in optimizing a process.6. Develop an awareness of the role of economics in the design process.7. Verify the concepts studied in class.The first objective is the primary objective of the computer
ascending order are: (1) Information: the student can define, repeat, list, name,label, memorize, recall and/or relate to the information presented. (2) Knowledge: the studentshows an understanding and comprehension of the information gained in level one, and candescribe, explain, compare/contrast, identify, discuss and/or summarize it. (3) Application andanalysis: the student solves problems by applying knowledge (level two) in new situations, andcan critically distinguish the logical components of other applications of that knowledge. (4)Wisdom: the student displays professional judgment and the ability to synthesize, organize,plan, manage, teach and/or evaluate material from the first three levels. One major goal in usingstudent portfolios was
Graphics A review of the old syllabus for CS321 shows that it follows a fairly traditional approachfor computer graphics courses. The course discusses the idea of raster display techniques,reviews some basic mathematics, introduces line and other drawing algorithms, discussespolygons and fill strategies, and then moves into transformation techniques and clipping andeventually covering 3-D objects. Along the way additional information is shared on the ideas ofcurves, text, color, and shading. This is common approach in such texts as Hearn and Baker[1]and Foley, et al.[2]. This achieves the goal of introducing a number of mathematically wellunderstood algorithms and places sufficient emphasis on how to look for and handle specialcases
of the Pros and Cons of commercial EDA tools are summarized in Table 1. Pros Cons Real World Exposure Steep Learning Curve Engineering Quality Products Requires High End Workstation Environment Common User Interface for all Tools Requires Systems Administration Support Annual Upgrades Annual Fee Hotline Product Support Available Training Support Table 1: Pros and Cons of Commercial EDA ToolsProblems with commercial EDA tools typically fall into two categories; those associated withsystems administration and those associated with the learning curve
doing as well as our students. Without suchinformation, it is difficult to continuously improve our teaching abilities. F D C B A x Page 2.468.2Figure 1 -- Normal curve theory of grades distributionStatistical research tells us of a wonderful device called a “normal curve”. We often speak of thiscurve to our students. The words “I grade on the curve” can strike terror into the hearts of eventhe bravest undergraduate hopefuls. As shown in Figure 1, the curve represents the knowledgedistribution found in a typical class of
teaching of ethics. What kind of outcome-based measure can be used toassess whether we are producing ethical engineers from our undergraduate programs, programswhich must demonstrate an “. . . emphasis on effective communication and professional andethical responsibility, awareness of the global societal context of engineering, and knowledge ofcontemporary issues . . .” (Luegenbiehl, 1996)?Adapting Mortimer Adler’s Paiadeaia Proposal (Adler, 1982) to ethics, we would argue that weseek outcomes in three areas: 1) Knowledge: Every student ought to know something about ethical theory. For example, Harris, Pritchard & Rabins teach students to distinguish between a utilitarian approach and one based on respect for persons (RP
the study were: 1. How well did the program experiences meet the 'needs' of the managers? Evidence used to answer this question was gathered using a follow up questionnaire. 2. What were the impacts of these experiences on attending managers and on their corporations? The impact of the training on the managers and their organization was analyzed. Theimpact was assessed using Kirkpatrick's ( 1987) four levels of evaluation of the training programfor effectiveness consisting of (1) Reaction (2) Learning (3) Behavior and (4) Impact or Results. 1. Reaction: Reaction is a measure of how well the participant liked the training programwith respect to its content and delivery. Reacting to a training program with
2.471.1grading strategies collectively known as holistic grading. As described by Cooper3, Holistic evaluation of writing is a guided procedure for sorting or ranking written pieces. The rater takes a piece of writing and either (1) matches it with another piece in a graded series of pieces or (2) scores it for the prominence of certain features important to that kind of writing or (3) assigns it a letter or number grade. The placing, scoring, or grading occurs quickly, impressionistically, after the rater has practiced the procedure with other raters. The rater does not make corrections or revisions in the paper. Holistic evaluation is usually guided by a holistic scoring guide which describes each
falling body (in this case a small metal plumb bob) is made on a waxed papertape. A spark timer is connected to the apparatus so that as the bob drops a tiny mark is burnedon a waxed paper tape at 1/60 second intervals. Position-time data was used to determine theaverage velocity of the falling object in each prescribed interval of time. Students then plotted,by hand, a graph of average velocity of the falling object versus time. From the slope of the linestudents were able to determine the acceleration due to gravity. Students who received laboratory instruction using interactive digital video techniquesperformed this same experiment to determine the acceleration due to gravity. The data includeda digitized video clip of themselves (or a
Session 2302 Using Java To Develop Educational Engineering Software John A. Reed, Abdollah A. Afjeh The University of ToledoIntroductionOne of the most exciting recent developments in software technology is Java, the programmingsystem developed by Sun Microsystems Inc.1 Since its introduction in early 1995, both thetechnical and mainstream press have been filled with articles about how Java will revolutionizethe nature of the World Wide Web (WWW), client/server application development, and theeconomic model for software delivery
0.25 m 123456789 123456789 123456789 123456789 123456789 123456789 θ3 0.5 m D 0.6 m Figure 1 A four-bar linkage with no lockup positions.Four-Bar Linkage The linkage mechanism employed herein has a full range of motion (i.e
WorkingModel and Analytix allow users t o create mechanisms with various constraints and produceanimations of the resulting motion. The packages provide a valuable asset for helping stu-dents to realize the kinematics associated with a wide variety of mechanisms. However,computer programs written for specific mechanisms and specific purposes can serve as ex-cellent complements to these software packages The animation of a specific mechanisminvolves both computer programming and numerical methods. The objective of this paperis to share the programming strategy with instructors who may contemplate animating alinkage and the generation of a space centrode using MATLAB.Consider the four-bar linkage in Fig. 1, which can be assembled in a collinear
determiningwhich primary school students were at risk for failure[1]. The first “IQ” test was developed andsimilar tests are still in use today. These tests assess mathematical, logical, and word usage skillsto determine intelligence. It wasn’t until 1983 that Howard Gardner, a Harvard psychologist,challenged the concept of a single measure of intelligence. He proposed a broader definition ofintelligence which included the existence of at least seven basic intelligences, all of which wouldfocus on the capacity for problem solving and fashioning products in a context-rich andnaturalistic setting. MI theory was very controversial in the psychology arena; however itattracted considerable attention from the educational community.Eight Multiple
factor, constant stress beam, etc.Design of Machine Elements is the only major Design course taken at the associate degree level.Typical topics covered in this course are design and selection of power transmission components,such as shafts, gears, bearings, chain and belt drive. In the past students were assigned twoacademic projects during the laboratory session. Typical projects are shown in figures 1 and 2.In the first project, students are required to size the cheek of the crankshaft. The second projectconsists of designing, analyzing and selecting various components of a power transmissionsystem (Fig. 2). Normally, the first project is of shorter duration than the second one. However,these projects did not involve any conceptual design
example of a leading edge commercially available product which incorporates OLEtechnology. The paper will also suggest how this technology can be used in a manufacturingcurriculum.I. Introduction To OLE TechnologyOLE enables two or more applications to work together and share data. OLE technology (firstreleased by Microsoft in 1991) was originally an evolution of DDE (dynamic data exchange).DDE is a messaging system which allows two Microsoft Windows applications to share data.Compared to DDE, the average computer user will find OLE technology relatively easier toimplement (for additional information on DDE and how it can be used to teach manufacturingintegration, see reference 1).Many people associate OLE with applications such as spreadsheet
summary evaluation only containsevaluations discussing general team dynamics and the strengths and weaknesses of that one teammember.This paper describes the peer review process used in teaching ENGR 111: Introduction toDesign. An example of a midterm peer evaluation is provided. The paper will present how bothstudents and instructor benefit from the peer evaluation process.Previous Use of Peer Evaluations to Assess Team Work EffectivenessThough their use has not been well documented, peer evaluations have been used in engineeringeducation as well as other disciplines. Rhinehart [1] provides a description of a junior levelchemical engineering transport course, which is team project based. He uses a group memberevaluation form to assess team
determined their final learningobjectives, interim benchmark targets, and individual responsibilities in fulfilling these contracts.At each benchmark 360O evaluations were performed including team peers, instructor and labassistants to provide timely feedback allowing for student and team improvement. Preliminaryresults indicate (1) improved learning, (2) increased acceptance of responsibility, and (3) asignificant understanding of how team members must function to attain the desired results.INTRODUCTIONThe andragogical methodology for college engineering students has been found to be superior toother teaching methods.2 Once a foundation has been established, students develop self-directed,team oriented projects, plus final and interim learning
. Page 2.481.1Considerable help is available to those interested in incorporating portfolios into their classes.Three excellent resources on the use of portfolios for assessment of either programs orindividuals are Assessment in Higher Education: Politics, Pedagogy, and Portfolios by Patrick L.Courts and Kathleen H. McInerney, Portfolios: Process and Product, edited by Pat Belanoff andMarcia Dickson, and Portfolios in the Writing Classroom, edited by Kathleen Blake Yancey. 1-3The sections below provide a starting point for thinking about using portfolios in writing-intensive courses.Types of Portfolios and Their PurposesAlthough faculty who have used portfolios to assess individual student growth have developed anumber of variations, there are
behavior of the resulting solutions. Studentsare able to implement algorithms in a more convenient format, removing some of thesteps typically required in reaching a solution and thus allowing more effort to be spentcomparing various algorithms and studying the behaviors of the equations themselves. One example of a tool with which equations are easily solved is the spreadsheet,which is particularly well-suited to the numerical solution of both differential and integralequations. In this paper, Microsoft Excel 5.0 is used to solve a series of problems,including 1-D initial value problems (Runge-Kutta methods), 1-D boundary value Page
career decisions.This paper discusses the use of self-reports of beginning engineering students using theMathematics Science Inventory (MSI). The MSI is used in placing students in beginningmathematics and chemistry courses and to evaluate their perceptions of their achievements inthese courses.IntroductionThis paper reports on the mathematics and chemistry phases of a comprehensive research effortconducted at Purdue University to measure the background, achievements and self-perceptions ofbeginning engineering students. Initial efforts to examine the differential computer abilities ofengineering, science and technology students demonstrated the feasibility of using self-reports tomeasure computer literacy, knowledge and competency[1]. Later