some did not. d) None of them did. I could not get my program to work correctly. 2. Approximately how many total hours do you believe you worked on the graduate student project? 3. Rate your overall computer programming experience before taking this class: a) No experience c) Some experience / Intermediate b) Little experience / Beginner d) Significant experience 4. Rate your MATLAB programming experience before taking this class: a) No experience c) Some experience / Intermediate b) Little experience / Beginner d) Significant experience 5
machine interfacedesign (HMI), and supervisory control and data acquisition (SCADA) topics.4,5 Somedevelopers recognized the high cost of control hardware and produced systems to simulate PLCsusing software alone. Others created multimedia tutorial materials for Web delivery.6,7This paper presents the design and student evaluation of an integrated process simulator andassessment tool for teaching PLC programming. The simulator includes animation anddebugging to enhance student learning. Data acquisition (DAQ) boards plugged into PCs withsimple external interfaces provide an inexpensive connection between process software andexternal PLCs. This hardware, coupled with simulator and assessment tools written in a high-level graphical language, create
. Wittwer, V. Aleven, and R. Salden, “The worked-example effect: Not an artefact of lousy control conditions,” Comput. Human Behav., vol. 25, no. 2, pp. 258–266, Mar. 2009.[3] T. van Gog, F. Paas, and J. Sweller, “Cognitive Load Theory: Advances in Research on Worked Examples, Animations, and Cognitive Load Measurement,” Educ. Psychol. Rev., vol. 22, no. 4, pp. 375–378, Oct. 2010. Page 26.1700.15[4] J. Sweller and G. A. Cooper, “The use of worked examples as a substitute for problem solving in learning algebra,” Cogn. Instr., vol. 2, no. 1, pp. 59–89, 1985.[5] T. van Gog, F. Paas, and J. J. G. van Merriënboer
Session 2793 Using computer simulation to teach technical aspects of construction in a liberal arts setting Ashraf M. Ghaly Associate Professor, Civil Engineering Department Union College, Schenectady, NY 12308AbstractThe general education curriculum at Liberal Arts colleges requires students to take courses inhistory, literature, civilization, social sciences, sciences, and cultural diversity. These coursescomprise almost a third of the entire curriculum. All students, including engineering students, arerequired to take these
, such as the contents of registers after each instruction.They show students what happens within a computer, but not the actions that cause each operation Page 6.1030.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationto occur. They do not show how data moves from one place to another, only that it does so.The Relatively Simple CPU Simulator uses visualization to illustrate the flow of data betweencomponents in a CPU. Animating the flow of data within the system provides students with a
]. Furthermore, Tabaran et al. [4] found that studentsexpressed significantly more cognitive activity on interactive computer screens compared to text-based screens. D’Angelo et al. [5] reviewed the effects of computer-based simulation forlearning in K-12 in STEM education and observed that, overall, simulations have a beneficialeffect over cases in which there were no simulations.Employing simulations or graphical user interfaces (GUIs) in a System Dynamics or Vibrationscourse is not a new approach. A search of the ASEE PEER Document Repository using the key 2 words “vibration simulation” and “vibration GUI” returned 838 and 90 results, although onlyfew of the papers were relevant to this work. Davari
teaching construction management concepts. In: Proceedings of the 27th International Conference on Applications of IT in the AEC Industry. Cairo, Egypt: 2010.8. Kamat VR, Martinez JC. General-purpose 3D animation with VITASCOPE. 2004.9. Kamat VR, Martinez JC. Validating Complex Construction Simulation Models Using 3D Visualization. Syst Anal Model Simul 2003.10. Martinez JC, Ioannou PG. General-purpose systems for effective construction simulation. J Constr Eng Manag 1999.11. Halpin DW, Woodhead RW. CONSTRUCTO - A computerized construction management game. Constr Res Ser No 14 Dep Civ Eng Univ Ill Urbana IL 1970.12. AbouRizk SM, Dozzi SP. Application of computer simulation resolving construction disputes. J Constr
authors’ beliefthat the approach taken is on the right track. The negative comments centered around theTutorial Workbook. Some typos and other errors in the first edition created some confusion.ConclusionThe authors feel that reinforcing the lecture portion of a Dynamics course with problems solvedwith a computer simulation software package, such as the one used, does generate studentinterest. Graphic animation seem to improve students understanding and visualizing of dynamicsproblems. Several students saw the potential of applying this type of simulation to practicalproblems encountered in industry.The plan is to revise and expand the Workbook to make error free and more user friendly. Aformal evaluation of this approach is also planned at both
the fall semester of 2010, Stephen developed and taught a cross-listed undergraduate and graduate level course on simulation- based modeling and design using computational fluid dynamics. Prior to being at South Dakota State University, Stephen worked with the Simulation, Modeling, and Decision Science Division at Iowa State University’s Virtual Reality Application Center. His research while at these institutions included modeling complex multiphase fluid flows and systems of models to optimize engineering designs of energy systems. Stephen has been a coordinating instructor for undergraduate engineering laboratories, including fluid mechanics and heat transfer laboratories. Also, Stephen is actively involved with
5GUUKQP Aircraft Landing Gear Simulation and Analysis1 Derek Morrison2, Gregory Neff 3 and Mohammad Zahraee4AbstractA computer aided graphical synthesis was undertaken to understand the kinematics of a nosewheel landing gear mechanism such as that on the Lockheed F-16 using Working Modelsoftware. The mobility of the design was verified by computer animation.To contrast the nose gear kinematic simulation, the main landing gear located under the wing of alight weight aircraft such as the Berkut (Ber-koot) was also studied. The Berkut is the product ofExperimental Aviation, Inc. (E.A.I
be familiarwith these modern tools and their applications, and to understand when and how to effectivelyutilize them. At our university these applications are being taught under the title of virtualsimulation (VS). This paper explains how VS has been integrated into our curriculum, and hasbeen used to establish effective partnerships with major manufacturing companies.IntroductionWe are in our eighth year of a curriculum utilizing advanced industrial computer simulationsoftware. The virtual simulation classes are offered in a sequence of three quarters, earning fourcredits per quarter. Students learn specific simulation applications from tutorials and onlinecourse materials. Teams of students then work with local companies to create
industrialenvironments. Benefits include exposure to in-plant manufacturing operations, and theopportunity to personally deal with company professionals. Students have obtainedcoop/internship positions, and graduates are finding simulation jobs in the fields of manufacturingand applications engineering.Defining Digital Manufacturing and SimulationDigital manufacturing (DM) encompasses a variety of computer applications and processes thatare being embraced by companies of all sizes to remain competitive in the global market. Boeingis recognized for its design of the entire 777 airliner without using a single 2-D drawing—only3D models were used. 1One definition is “Digital manufacturing is the ability to describe every aspect of the design-to-manufacture process
, B., Lane, J. L. (2005). The dynamics concept inventory assessment test: A progress report and some results. Proceedings of the 2005 ASEE Annual Conference and Exposition, Portland, OR.[5] Streveler, R. A., Litzinger, T. A., Miller, R. L., Steif, P. S. (2008). Learning conceptual knowledge in the engineering sciences: Overview and future research directions. Journal of Engineering Education, 97 (3):279-294,.[6] Flori, R. E., Koen, M. A., Oglesby, D. B. (1996). Basic Engineering Software for Teaching (BEST) dynamics. Journal of Engineering Education, 85(1), pp. 61-67.[7] N. Fang, Y. Guo. (2016). Interactive computer simulation and animation for improving student learning of particle kinetics. Journal of Computer Assisted
program editor should have a look and feel similar to Allen- Bradley’s RSLogix 5000, which can also be used to monitor the ladder logic program with animations if the Soft PLC is in Run Mode. iii) The data tag editor and monitor should support data as objects partially conformant to IEC 61131 [7], just as all Allen-Bradley 5000 series PLCs are based on Object-Oriented Programming (OOP) where data objects are defined as tags. iv) The 3D I/O simulator should be similar to the lab console as shown in Fig 2 (a) vs (b). It should have: 4 animated switches (double click to turn ON/OFF); 4 animated push buttons (click to push); 16 lights (4 x 4 light matrix) that can turn ON (illuminate) or OFF; 1 fan
system that is capable of providing Tracking and semi-immersive capabilities at reasonable costs. This is a versatile VR system that is a good trade-offbetween high-end systems like CAVE that may be extremely expensive and low-end systemslike dVR which lack immersion and intuitive interaction. Faculty members do not need intensivetraining to use the systems as the system is based on intuitive skills such as navigation andimmersion. Some of the prominent applications of the pdVR system are listed below.This system can be used to● Demonstrate visualization, animations, and simulation applications to schools. Schoolsmay not be equipped with or have access to such high-end facilities. Also, procuring suchfacilities involves significant cost
the laptop offers more computational power. The laptop displayseen in Figure 3 also allows the instructor to follow the learner’s progress and see the learner isduring the simulation.Fig. 2. Process steps and their order in the simulator. (a) Process steps (b) Top view of silicon wafer (c)Cross section of silicon waferFig. 3. Setup for playing the simulator. It includes an Oculus Quest Headset and a laptop to run thecomputing as well as serve as a secondary display.2.2. Mixed methods studyWe designed a mixed methods study to investigate how students in a nanoelectronics courseutilized our virtual reality cleanroom prototype and what changes they recommended to improveits instructional value and usability. The study consisted of a quantitative
the inclusion of animated pedagogical agent will add the affectivecomponents to the e-Lecture. A literature review25-30 suggested that animated pedagogical agent Page 11.478.3establish social collaboration with learners and facilitate learning.Table 1: A timeline sampling of e-Learning digital content using ICT in teaching Structural Mechanics and Numerical Analysis. e-Learning Digital Content Timeline Area e-Content e-Lecture e-Assessment e-Computation e-Simulation Finite Element
Interactive Web Based Animation Software: An Efficient Way to Increase the Engineering Student’s Fundamental Understanding of Particle Kinematics and KineticsAbstractAnimation software for an introductory Dynamics course has been developed, which may be asupplement to the proposed text: Riley, Sturges, Stanley “Dynamics”, 3rd Edition (Wiley andSons, Inc. New York). This interactive software is unique because each animation is directlylinked to a homework problem and no programming is required of the user. The animations areweb-based (hard-coded in Adobe Flash Action Script), so no external computer programs areneeded.The software was piloted in two sections of Dynamics during the fall term of 2007, where it
Interactive Web Based Animation Software: An Efficient Way to Increase the Engineering Student’s Fundamental Understanding of Particle Kinematics and KineticsAbstractAnimation software for an introductory Dynamics course has been developed, which may be asupplement to the proposed text: Riley, Sturges, Stanley “Dynamics”, 3rd Edition (Wiley andSons, Inc. New York). This interactive software is unique because each animation is directlylinked to a homework problem and no programming is required of the user. The animations areweb-based (hard-coded in Adobe Flash Action Script), so no external computer programs areneeded.The software was piloted in two sections of Dynamics during the fall term of 2007, where it
Interactive Web Based Animation Software: An Efficient Way to Increase the Engineering Student’s Fundamental Understanding of Particle Kinematics and KineticsAbstractAnimation software for an introductory Dynamics course has been developed, which may be asupplement to the proposed text: Riley, Sturges, Stanley “Dynamics”, 3rd Edition (Wiley andSons, Inc. New York). This interactive software is unique because each animation is directlylinked to a homework problem and no programming is required of the user. The animations areweb-based (hard-coded in Adobe Flash Action Script), so no external computer programs areneeded.The software was piloted in two sections of Dynamics during the fall term of 2007, where it
currently working as exchange professor at California Polytechnic State University in San Luis Obispo. Page 25.1252.1 c American Society for Engineering Education, 2012 Teaching Multibody System Simulation, an Approach with MATLABAbstractTeaching Multibody Systems needs to cover the related theoretical concepts of advanceddynamics, the application of the necessary numerical methods in a sufficient depth, andneeds to give students the opportunity to model and solve authentic problems on theirown. The last step may only be done with the help of a computer. A variety of
manually control all of the computer subsystems, the students were enthusiastic and felt theyunderstood how a computer operates. References[1] Moser, A. T., “Animated Simulator for 68000 Microcomputer Architecture,” ASEE Annual ConferenceProceedings, June 1995, pg 179 -181.[2] Henderson, W. D., “Animated Models for Teaching Aspects of Computer Systems Organization,” IEEETrans. on Education, Vol. 37, No. 3, pp. 247-256, August 1994.[3] Miller, D. S., “Computer-1 -- A Modern Computer to Introduce Computer Organization and AssemblerLanguage Programming,” ACM SIGCSE Bulletin, Vol. 15, No. 1, pp. 271-277, 1983.[4] Cutler, M., “A Microprogrammed Computer Simulator,” IEEE Trans. on Education, Vol. E-30, No
develop & improve the Construction Graph- ics Communication specialty area within the Computer Graphics Department at Purdue. Clark has had over 35 years experience in the AEC industry with positions ranging from general laborer to project man- ager of residential & commercial structures and even designer. In addition to professional experience, teaching, and student organizations participation; Clark is currently involved in industry/educational part- nerships with such companies as Holder Construction, Saterfield & Pontikes as well as software develop- ers like AutoCAD & Argos Systems Inc. that develop and promote construction visualization, Building Information Modeling, 4D CAD, 5D CAD, animation for
userinterface and has options for a two-level and three-level pipelined machine. The program iscurrently in use in a sophomore level course in logic design as a mechanism to illustrate how acomputer works and to introduce computer architecture concepts.I. IntroductionMicroprogramming is a concept dating back to the early 1950's1 and is widely used in the designof modern computers. The concept is easy to understand and presents a general solution to thecontrol problem for a central processing unit. Students who understand how microprogrammingworks from a logical point of view have insight into the inner workings and magic of digitalcomputer systems that is difficult to obtain otherwise. An animated simulation of amicroprogrammed computer in which a user
learning, with longer lasting impact, is expected throughthis experience.In January 2003, the students in EMgt-351, Industrial Marketing, participated in this simulationduring the class period. A few weeks later they were asked to respond to a web-based surveyvery similar to the one described for the EMgt-475 class. Thirty four out of the 35 studentsenrolled answered the questionnaire. They were asked to determine and record their Myers-Briggs personality type, whether they were undergraduate or graduate students, their homedepartment, work experience, current GPA and grade expectations. In addition they were askedto assess their opinion regarding the class and the Palmtop simulation. Some of the more usefulquestions were as follows: 1. I find
ASession 2793@ Simulating Industry in the Classroom By Joel Weinstein, Ron Chin, Gary Krikorian, & Kamran Qamar Northeastern UniversityIntroductionOne way that engineering technology differentiates itself from other technical disciplines is in itsindustrial flavor. Engineering technology tries to create industry-ready technologists. From anacademic perspective, most curricula do an admirable job of preparing students for the technicalchallenges they will face. However, academia traditionally falls very short in preparing thestudent for the kinds of social and political
concepts.Preliminary assessment data shows that students respond favorably to the combined textbook andsimulation approach. Students generally rate the textbook as average to below average and theuse of simulation helps to fill some of the perceived shortcomings of the book.background on manufacturing systems coursesA course in ‘manufacturing systems’ may cover topics ranging from metalworking processes,computer applications in automated equipment 4, to production system design withsimulation1,8,9, to a survey of management techniques such as lean manufacturing. Therefore,there appears to be no ‘typical’ course content for a manufacturing systems class. This paperdescribes the development of a manufacturing systems class focusing on widespread
Session 3263 Utilizing Manufacturing Process Simulation Tools as Instructional Aids Arif Sirinterlikci, Shah Galib Habib Ohio Northern University / Hewlett-Packard CompanyAbstractEngineering numerical analysis software has been utilized in design of manufacturing processes,parts or tooling by major manufacturing companies. These tools have become available to smallercompanies with the advents in computers. Even though cost of most software is still much greaterthan cost of a computer with great capacity, software involvement is becoming more and morecommon in
into the academicarena particularly in construction.IntroductionNew advancements in technology have changed the education environment. Different programsare incorporating technological methods to promote research and teaching in academia andprovide instructors with a set of practical and effective tools to facilitate the learning process.Various research projects have shown the effectiveness of technological tools in education(Department of Education, 2014). The advent of gaming and 3D modeling has enabled educatorsto utilize computer-based learning activities and mingle engaging 3D graphical features withtraditional learning approaches. One of these technological tools are the simulation applicationsthat are being used in higher education
the periphery andround worktables in the middle of each room. The rooms were designed to be aestheticallyengaging to the students.The students were provided with a binder of resource materials, including a step-by-step guide tobuilding a computer. This material was supplemented with lessons about computer componentsand demonstrations on how to build a computer. The materials were designed to accommodatevarious learning styles (i.e. tactile, visual, audio) and create a strong foundation for the remainingcomputing activities (see Figure 3, 4, & 5). Through short lectures, we could simulate a collegeclassroom that might prepare students for their own college careers. The students were avidlisteners and raised thoughtful questions. We divided