undergraduate and graduate levels. His tremendous re- search experience in manufacturing includes environmentally conscious manufacturing, Internet based robotics, and Web based quality. In the past years, he has been involved in sustainable manufacturing for maximizing energy and material recovery while minimizing environmental impact.Toshika Fegade, Drexel University (Eng. & Eng. Tech.) I am a fine young lady in the field of robotics, machine learning, and computer vision. Currently, I am a graduate student at Drexel University, majoring in systems (Electrical Engineering) and a minor in Computer Science. I am working as a Research Assistant in the Engineering Technology department at Drexel. I am currently working on
learners. However, always, meta-cognitive skills formanaging personal learning conversations with ones-selves and others are of greatimportance [1].VI - ILLUSTRATA MODELS AND SIMULATIONSThe POWERGUIDE models are Systemic problem worksheets, computationalsimulations of components, circuits, and algorithmic computer animation displays. Thetutorial simulation combines two modes of discourse: didactic and experiential.Laurillard [10] describes the two types of feedback particular to these modes: extrinsicand intrinsic feedback. The tutorial aspect of instruction involves extrinsic feedback,which consists of comments on the learner’s action (e.g., "That is correct" or "Pleasechoose a different option").The simulations, however, offer intrinsic feedback
of the students in this class. 1The introductory assignmentIn computer Assignment 1, students are instructed on how to download, install and setup FreePascal IDE and the MeKin2D subroutines. A source code i.e. the program Crank.PAS inAppendix 1, is provided as a starter application of the MeKin2D subroutines. The Crank.PASprogram has almost all elements of a MeKin2D simulation program i.e. declaration of the libraryof subroutines (units) utilized, workspace-limit definition, main simulation loop, use of a meterto display the crank angle, DXF file output etc. The program animates on the computer screen arotating crank (see Figure 1-a), and writes to a
theanimations and researched other programs available to all students in the college of engineering.Civil and mechanical engineering students enrolled in the dynamics course have completed acomputer-aided design course such as autocad or Solidworks. Working Model 2D [1] wasselected as the adequate software as it builds on the students’ CAD skills. The availability ofWorking Model 2D animations complemented the app. The design of the layout was primarilythat of the author with minor suggestions provided by a graduate student assistant [2] in thecollege of computer science. The graduate student selected Visual Basic as an acceptablesoftware and developed the code. The free-body diagrams, kinetic diagrams, and the feedbackthat was to be given to the
electrical, computer and energy engineering One online approach Produce, debug, produce, pilot-deliver, assess, evaluate, debug, repeat … Instructional designers are key: how do students want to learn?FULTON schools of engineering electrical, computer and energy engineering One online approach Pedagogical innovation: Short videos on a single topic, include animations, integrate self assessments, pass quiz before progressing Extra material, unlimited time for examples, link in prerequisite material t FULTON schools of engineering
: Digital SimulationsStudents are presented with several real-world examples of dynamics simulations in theform of animations taken from popular culture. Examples include the computer generatedanimation of spacecraft from science fiction films, computer generated characters fromfantasy films, and the animation of human characters from popular video games. Nextstudents are shown animations from various engineering presentations that show thesimulated deformation of solid objects, the simulated flow of air currents in a weathermodel, and the simulated results of an automotive crash test. What all of these exampleshave in common is they are all visually appealing products of some underlying dynamicsmodel.Figure 7: Digital Dynamics Simulations: 1
Web-Based Distance Education: Experiences Teaching Material and Energy Balances Alec B. Scranton Professor Chemical and Biochemical Engineering University of Iowa alec-scranton@uiowa.eduAbstractThe features and advantages offered by the Internet are well suited for providing effective andengaging distance learning experiences. These advantages include: i) convenient access to thecourse from any location and on any schedule; ii) an added level of communication of thescientific concepts through well-designed audio-visual content (including voice, simulations,animations, pictures
Paper ID #8811Balancing Daylight, LEDs, and Controls: The Future of Lighting for Design-ersMrs. Lisa A VanZee, Purdue University, West Lafayette Lisa VanZee is an Assistant Professor in Interior Design at Purdue University. She began her career in computer visualization, where she was involved in computer graphics technology, artanimation research and teaching. She holds an M.S.in Computer Graphics Technology and an M.F.A. in Interior Design. Her previous work experience includes threedimensional rendering and animation for architectural and engineering firms. Her research interests focus on interior visualization and
environment mainly developed for data acquisition, instrumentation,and monitoring in addition to process control and modeling. These virtual tools also helpto develop learning and knowledge level of students in many applied subjects.There are variety of research attempts to add simulations tools into laboratoryexperiments in engineering education courses. Virtual Control Workstation Design usingSimulink, SimMechanism, and the Virtual Reality Toolbox was conducted in educationto teach control theory principles as well as a test station for control algorithmdevelopment2. Authors used two workstations from Quanser Consulting for theirelectrical and computer engineering program student projects. Their claim was thatincorporating a laboratory support into
, 2005.5. DE0-Nano FPGA Development Kit, Terasic Corp.6. G. Law, “Quantitative comparison of flood fill and modified flood fill algorithms”, IJCTE International Journal of Computer Theory and Engineering, vol. 5, no. 3, pp. 503-508, June 2013.7. L. Last, N. Veun, V. Frey and J. Smith, “Maze-Solver Simulator”. Available: http://code.google.com/p/maze- solver/downloads/list, 2010.8. G. Law, “Augmented and revised maze-solver”. Available: https://github.com/glaw-csun/svn/downloads, 2012.9. B. Collins-Sussman, B. Fitzpatrick, and C. Pilato, “Version Control with Subversion”, Sebastopol, CA: O’Reilly Media, Inc., 2004.10. J. Loeliger, “Version Control with Git”, Sebastopol, CA: O’Reilly Media, Inc., 2009.11. Google Project Hosting, available
," Computational Statistics & Data Analysis, vol. 50, no. 3, pp. 775-782, 2006, doi: https://doi.org/10.1016/j.csda.2004.10.003.[43] D. G. Bonett, "Confidence interval for a coefficient of quartile variation," Computational Statistics & Data Analysis, vol. 50, no. 11, pp. 2953-2957, 2006, doi: https://doi.org/10.1016/j.csda.2005.05.007.[44] S. J. Stone, B. Crockett, K. S. Xu, and M. W. Liberatore, "Animation Analytics in an Interactive Textbook for Material and Energy Balances," in ASEE Annual Conference, Minneapolis, MN, 2022, doi: https://peer.asee.org/41361.[45] S. J. Stone and M. W. Liberatore, "Attitudes Toward and Usage of Animations in an Interactive Textbook for Material and Energy Balances," in ASEE Virtual Annual
are text files that contain information regarding the objects and linkages betweenobjects in a virtual world. It can be applied to a number of areas including web-basedentertainment, 3-D user interfaces to remote web resources, 3-D collaborative environments,interactive simulations for education, virtual museums, virtual retail spaces, and more. Theability to animate, to play sound and video within the virtual world, to interact with the virtualworld and to control and enhance the virtual world with scripts, allows development of dynamicand sensory-rich virtual environments on the Internet 9. These features of VRML can bebeneficially utilized to build teaching aids that will supplement classroom instruction.As part of ICMLS the authors are
period of time. Sendinga packet via a route will reset the associated expiration time.2. Testing EnvironmentIn this paper, we use NS simulator for simulating different routing protocols [1, 2]. NS simulator uses avisual tool called NAM. NAM is a Tcl/TK based animation tool for viewing network simulation tracesand real world packet trace data. The design theory behind NAM was to create an animator that is able toread large animation data sets and be extensible enough so that it could be used in different networkvisualization situations. 2The first step to use NAM is to produce the trace file. The trace file contains topology information, e.g.,nodes, links, as well as packet traces. Usually, the
any labs/hands on experiments. Computer simulation is a vital part of anycourse involving moving systems. Vibrations is mathematically very intensive course and oftenstudents find it very difficult and boring. To make this class interesting and engaging, theinstructor integrated Simulink and Matlab in the course to help students understand thedynamics of moving parts and vibrating systems. In this paper our focus is on Single Degree ofFreedom Vibration, both free and Forced Vibration problem is discussed. This paper alsopresents results from a survey regarding how the software affected students’ learning andunderstanding of vibrating systems.Introduction:Mechanical Vibration[8] is a mandatory class for Mechanical Engineering major in
) Exploring the Role of Visualization and Engagementin Computer Science Education, Working group reports from ACM SIGCSE/ITiCSE on Innovation and technologyin computer science education.[3] Korhonen, A. and Malmi, L. (2000) Algorithm Simulation with Automatic Assessment, Proc. 5th ACMSIGCSE/SIGCUE Conference on Innovation and Technology in Computer Science Education.[4] Dann, W., Cooper, S. and Pausch, R. (2000) Making the Connection: Programming with Animated Small World,Proc. 5th ACM SIGCSE/SIGCUE ITiCSE Conf. on Innovation and technology in computer science education .[5] Cooper, S., Dann, W. and Pausch, R. (2000) ALICE: A 3-D Tool For Introductory Programming, Journal ofComputing Sciences in Colleges, 15.[6] Rosenberg, J. and Kölling, M. (1997
Paper ID #36623Deriving Closed Formula Design Restrictions in Electronics LabsDr. Nashwa Elaraby, Pennsylvania State University, Harrisburg, The Capital College Dr. Elaraby is a faculty at Penn State Harrisburg. She received her PhD degree in Electrical and Computer Engineering from Temple University in 2014. She received her B.Sc and M.Sc. in Electrical Engineering from Alexandria University, Egypt. Her resea ©American Society for Engineering Education, 2022 Deriving Closed Formula Design Restrictions in Electronics Labs Nashwa Elaraby, Ph.D., Penn State
. Deliver homework problems and solutions to support developer’s electronic lectures. 4. Complete voice recording accompanying lectures (FIC interaction required). 5. Deliver a storyboard (plan) with notes on augmenting the base lecture electronic files with pictures, graphs, animations and video. 6. Deliver final electronic form of lecture series compatible with voice and graphical resources.Simulation 7. Deliver layout for simulation (scenarios, decisions, evaluation of decision) 8. Deliver scripts for dialogue in scenarios. 9. Complete voice recordings accompanying simulation. 10. Deliver electronic files for scenarios (case information, data, etc.). 11. Deliver decision possibilities/branches in electronic format
integrated into the sample exergame Scratch animation Play exergame without technology 2-Tues Play Scratch animation homework 1. Team develops Review EDP animation to Flowchart programming describe simple Create simple exergame flowchart program, test with exergame simulator 2. Individual Basic electricity & safety homework to Assemble TECHFIT
animated Bragg-Brentano diagram andthe Bragg’s law simulations that allow a lecturer to improve the lectures by (i) animating theprocesses and presenting them in a more dynamic and attractive format, (ii) saving time spent ondrawing, (iii) altering various parameters to demonstrate the impact of different factors on thepositions, intensities and shapes of x-ray reflexes on an XRD pattern; (iv) minimizing time of hisbeing back to the audience. Figure 1. The video lecture on X-ray diffraction (in the middle) available from the web-based open course repository of the Massachusetts Institute of Technology (MIT OpenCourseWare). Two static images embedded in the lecture (on the left) and hand drawings on the black board can be replaced with
and back, building up understanding andintuition in the process. Both experiment and theory are useful in making this connection.Incorporate modern computer simulation into the curriculum.While scientific computing has achieved equal standing with experimentation and analyticaltheory in research, it has not yet had a significant impact on the teaching of fluid mechanics.This is a serious challenge that must be addressed. Learning is enhanced by the ability tosimulate and visualize flows which cannot be expressed by analytical theory. The use ofcomputation is invaluable in providing the ability to systematically vary parameters and studythe evolution of flow structures and flow physics that occurs as a result. Parametric dependence,including
modeling,computer simulation, and laser communication. His research efforts includes development of components of laser-based space communication systems, control, optimization and diagnostic system for power plants, diagnosticsystems for avionics, adaptive motion control systems. He served as a consultant to major US companies and theAir Force. He is actively involved in instructional TV and technical lecturing. Dr. Skormin is an author of manytechnical publications. His current research is funded by NSF, NASA, and Air Force. Dr. Skormin is a recipient ofthe IEEE Region I Award “For Leadership in Establishing University-Industry Links in Research and Education”,the University Award for Graduate Teaching from Binghamton University, and the SUNY
evaluation, usability assessment, genre analysis, media history Games and Society player demographics, game cultures, game affect, game applications Game Design game/play mechanics, game theory, interface design, user task analysis, design tradeoffs, quality assurance Game Programming physics, information design, artificial intelligence, networking, multimedia programming, implementation tools, prototyping, testing Visual Design architectural design, information visualization, computer graphics, animation, cinematography, 3D hardware Audio Design audio theory, audio aesthetics, music, sound effects, 3D audio Interactive
formats, and understand how software uses global memory tostore permanent information and the stack to store temporary information. Our goal is forstudents to learn these concepts:0) Understanding how the computer stores and manipulates data,1) The understanding of embedded systems using modular design and abstraction,2) Assembly language and C programming: considering both function and style,3) Understanding how the computer executes instructions,4) The strategic use of memory,5) Debugging and verification using a simulator and on the real microcontroller6) How input/output using switches, LEDs, DACs, ADCs, and serial ports,7) The implementation of an I/O driver, multithreaded programming,8) Understanding how local variables and parameters work
to quote a few opinions.“Although the computer test was faster to complete, I found I learnt more from performing thetest myself.”“The simulation is good because it is ‘purged’ from redundant details that you have in a real test.It is better as an introduction to the laboratory work, but it cannot substitute a physical lab.”“I don’t prefer the lab over the computer simulation or vice versa. The lab should not beexcluded from the curriculum as it provides useful hands-on learning. The computer simulationcould also be added as a supplementary addition to the course.When in the actual laboratory, we worked in groups of 6 people. Each person had theresponsibility of only one task (i.e. measuring height, time for flow rate measurement, etc
lab times.• Limited resources to support students outside labs and the classroom: In many cases, no lab assistant support is available.• Limited equipment to support lab assignments: Because lab equipment is often expensive, students must often work in groups. For example, an industrial scale PLC—such as an Allen Bradley RSLogix 5550 processor and a set of I/O cards—costs about $8000.To help offset these obstacles, in recent years, a variety of computer and networkingtechnologies have been developed. For example, remote laboratories (also known as e-Lab,Tele-Lab)5,6, virtual laboratories8,9,10,11, and hybrid laboratories6 have been developed to reducelab equipment setup costs and increase accessibility. Other developments include
computation and simulation capabilities to the determination of the motion(including velocity and acceleration) of mechanisms starting from the governing ordinarydifferential equations. It was noted that the animations were effective in supporting the learningof visual learners6. Yin devised a 2-semester long computationally intensive project to designtwo specific mechanisms one for de-watering of moored boat and the other a piston crankmechanism for small internal combustion engine7. Excel computation and graphic capabilitieswere central to the project. The spreadsheet computations mainly consisted of inverting thecoefficient matrix of the systems of simultaneous equations describing the mechanism motion.Liu and Boyle used a pseudgraphical method
the line. Clicking Reset cleans the canvas. Figure 7. Line Mode PageLetter mode. In Letter mode, the user can draw coherent graphics and then the printer willcomplete the shape (Figure 8). The user presses and holds the left mouse button to draw lines.When the user clicks Submit, the printer completes the shape. Figure 8. Letter ModeUpload mode. Upload mode allows the user to upload a G-code file to the printer. The userclicks Choose File to select a G-code file from the local computer, then clicks Submit to uploadthe file (Figure 9). The program then offers to displays an animation of the printing process(Figure 10). Note that the printer can print other 3D file types
pages of a textbookor in the traditional classroom chalkboard lecture. These computer based lessons consist ofrealistic images, animations of parts deforming as loads are applied, color stress contours, andsimulated “pencil-on-paper solutions.” These lessons provide an alternative learningenvironment which can be used as a supplement to the traditional classroom. The process ofhow a combination of three-dimensional images, animation sequences, and audio narrations wereused to create these lessons is discussed. This includes the various software packages were usedand how these various multimedia components were combined and delivered.IntroductionThere are currently many areas in which computer based products are being used to improveinstruction
University 5) Preparing Teachers for Problem Solving Instruction 6) Developing a State of the Art Physics Laboratory at Fort Valley State College. Page 26.682.1 c American Society for Engineering Education, 2015 Establishing a Web-Based Dual-Rating System to Centralize and Evaluate Educational Resources for Undergraduate Nuclear Engineering CoursesAbstractSupplemental educational learning resources such as PowerPoint presentations, animations,instructional video clips, and simulations are some important tools that could impact studentlearning of the subject matter. Nuclear engineering courses often
for Engineering EducationReferences1. www.laaplatform.org2. www.modelscience.com3. R.E. Kfir, “Virtual Laboratories in Education”, November 2001, Proceedings of the 1st International Conference on Computer Graphics, Virtual Reality and Visualisation..4. C.R. Nippert ,Use of JAVA Applets to Provide Simulations for Process Control, 2001 Annual A. I. Ch. E. Annual Meeting, Reno , Nev., October 6, 20015. C.R. Nippert, Using Web based Supplemental Instruction for Chemical Engineering Laboratories, Proceedings of the 2001 American Society of Engineering Education Annual Conference and Exposition, Albuquerque, NM.6. Triona, L.M.; Klahr, D., “Children’s developing the ability to create