AC 2009-2154: INCORPORATING VIRTUAL FIELD INFORMATION INLEARNING CONSTRUCTION OPERATIONSLingguang Song, University of Houston Dr. Lingguang Song is an Assistant Professor of Construction Management at the University of Houston. He teaches construction management, scheduling, reinforced concrete, quality management, and computer applications at undergraduate and graduate level. His primary research interests include process simulation and visualization, productivity measurement and improvement, and IT applications in construction. For more than ten years, he has been involved in research funded by various grants and has published more than 25 journal and conference papers on his research.Sang
® gasification process for the production of syngas. International Seminar on Gasification andMethanation, Gothenburg, Sweden, 2007.16. Abu-Hajar, A.; Holden, M. INTERACTIVE COMPUTER-BASED VIRTUAL CLASSROOM FOR ENGINEERING COURSES. American Society for Engineering Education, Honolulu, Hawaii, 2007; p 1808. Page 26.986.1017. Fang, N.; Stewardson, G. A.; Lubke, M. M. Enhancing Student Learning of an Undergraduate Manufacturing Course with Computer Simulations. Int. J. Engng Ed. 2008, 558-566. 918. MIT. Open Courseware. http://ocw.mit.edu/index.html.19. Hogan, K., Pressley, M
technology? Gamification, also known as serious game, is theuse of game thinking and game mechanisms such as points, levels, challenges, leaderboard,badges, or even rewards in a non-game context to engage learners in solving problems ([8]–[12]). It is believed that gamification with careful thought and planning can be an ultimate wayto motivate student success ([13], [14]). Gamification can include the application of animation,simulation, and game elements and represents a shift from learning by listening to learning bydoing. It also represents a shift from recalling information to finding and using it. From passivelearning to positive learning, by including an instructional context, gamification can enhance thelearning process. Since fall 2018
undergraduate study. Haptics, the research and application on thesense of touch and force feedback, provides a novel human computer interface for students tointeract with virtual dynamics world to potentially gain a better understanding of the dynamicsconcepts. Under this assumption, this research started with the identification of key dynamicsconcepts from engineering teaching experience and converted these concepts into interestinginteractive animation with both graphics and haptics learning channels. The developed learningtools have been tested with 99 undergraduate engineering students in Spring 2008, Summer 2008and Spring 2009 semesters. The positive effect of the novel learning tools is confirmed with thestatistical analysis of the experimental
” tool butan integrated simulation/animation environment for total web delivery of simulations, animations, andstreaming video lectures. It is both a tool for students performing on-line labs and for instructors [Spa01]that create web lectures with coordinated simulations. Therefore it is distinctly different than typical"number-crunching" environments (such as Simulink®, SPW®, etc.). Additional Java functionality arebeing developed and embedded in J-DSP to support the various SP-COM functions that support themodules.5. Assessment and ConclusionConcept-specific and general evaluation forms have been developed to obtain an overall assessment onthe computer laboratories and to collect a subjective opinion on the Java modules, respectively. Details
.[7] Canessa, E., Fonda, C., & Radicella, S. M., (2002). Virtual laboratory strategies for data sharing,communications and development [Electronic version]. Data Science Journal, 1, 248-256.[8] Collins, F.S. (1999). Medical and societal consequences of the human genome project [Electronic version]. TheNew England Journal of Medicine, 341, 1, 28-37.[9] Couture, M. (2004). Original article realism in the design process and credibility of a simulation-based virtuallaboratory [Electronic version]. Journal of Computer Assisted Learning, 20(1), 40-49.[10] Venneman, S., & Knowles, L. (2005). Sniffing out efficacy: Sniffy Lite, a virtual animal lab. Teaching ofPsychology, 32(1), 66-68.[11] Alloway, T., Wilson, G., Graham, J.,&Krames, L
assignments and exams toreinforce skills and test comprehension. The greatest weakness of this technique seemed the lackof hands-on experience which I gave my students, and their subsequent lack of physical intuition.Enhancing their physical intuition drove the first curricular revision using in-classdemonstrations and simulations of key physical and biological processes. This technique did notwork as well as expected, probably because it continued to rely on a source - sink model oflearning, with myself as the fount of knowledge. Therefore, increasing student involvement andfostering student maturity drove the second revision, consisting of the inclusion of two teamdesign experiences, and the addition of more student-led problem solving during
. Page 8.769.4 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationa 56 K modem with a 200 MHz computer using Windows 95, or higher, and a web browser. Aweakness of the MimioTM system, however, is that it cannot capture computer-generated visualssuch as PowerPoint presentations or videos. The problem is more severe if and when computerbased animations or software simulation demonstrations are used in the classroom duringlectures. This means that off-campus students will not have equal access to exactly the sameclassroom materials as their on-campus peers.To mitigate or eliminate the problem, the authors have
of the Snap software where the block based compiler was displayed. 2. The teacher asked the students to introduce themselves by creating a sprite of themselves in the SNAP application and then use the appropriate commands in order for their sprites to say something interesting about the student when the correct key was pressed. The teacher demonstrated how the task was to be done from his/her own computer. The computer’s screen was shown in real-time from a projector. 3. The teacher then asked the students to load a pre-programmed environment from a drop menu. In this program, the backgrounds had already been made. The backgrounds were of each kind of zone which an animal may thrive - the sky, the ocean, the
Experiment,representing the three important elements in a good engineering learning environment - theory,practical example and physical experimentation. Besides delivering the theoretical knowledgeand important concepts, the learning module also allows students further examine the gainedknowledge through animated simulations in the interactive Apps. In addition, the moduleincludes a mobile remote shake table laboratory (RSTLab) which provides students theopportunity to remotely participate and conduct physical shake table experiments in real-timethrough smart mobile devices (e.g. smartphones and tablets). Through these physicalexperiments, students may easily use scaled physical models to test theories and implement theirown innovations to observe
equipment. As a senior, I got involved in research doing finite element analyses of a prosthetic foot. This immediately got me hooked on applying engineering to medical applications. I obtained my Biomedical Engineering PhD at the University of Wisconsin-Madison. My work focused on computational biomechanics. More specifically, developing musculoskeletal models of the body to simulate movement and see how surgery and soft tissue injury affects movement. During my graduate work, I was also a teaching assistant for Introduction to Biomechanics where I developed a love for teaching. I then did postdoctoral research at the University of Kentucky where I experimentally measured movements (e.g running form), which provides
representations of phenomena that can be simulated by a computer^ (p. 137).Proper oriented scaffolding materials, such as modeling and simulation, can construct asustainable framework for pupils to stand their understanding firm upright (Schwarz &Gwekwerere, 2007; White & Frederiksen, 1998). Modeling can be physical, mathematical, orconceptual, while a simulation is a visual aid that shows pupils how a model functions based ontheir input and different set constraints. For example, the small sized machine, which weconstructed for this study, is a physical model capable to test material performs at different typeof forces (tension, compression and buckling loading) and set different constratints (boundaryconditions like simple support, fixed
electronic circuits and systems including: oscillators, non-linearwaveform generation and waveshaping, power electronics, communication circuits, and digitalgates. There was a strong emphasis on computer-aided analysis and design.The textbook used was an out-of-print electronics textbook coauthored by the course instructor.Since the authors now own the copyright to the textbook and it is undergoing revision for a newedition, both hard and electronic copies were made available at no cost to the students for theirprivate use. Each student was provided with a licensed copy of National Instruments Multisim™12.0 for use as a circuit simulator – arrangements were made so that the department’s licensecould be extended to the student laptops for this
or other catastrophes related to public health and safety.The testing is how the students' project will be used by the Chicago Fire Department.This model includes streets, buildings and other detailed information that will help theChicago Fire Department in planning interventions, considering various scenarios andcase studies.The model has been built in phases, with the overall design incorporating a sophisticated,computer-driven illumination scheme built within the model base, thus allowing themodel to be able to display animated scenarios of virtually any depth and focus, by meansof time-varying color and brightness. CAD Computer-generated images and laser-cuttingmethods have been the primary methods of design and construction for the
Paper ID #49601Visible simplified microcontroller model for teaching and learningDr. Brian Krug, Grand Valley State University I have spent 24 years as an electrical engineer in both the telecom industry aerospace industry. I have spent the last 7 years as an engineering professor teaching both EE and CE courses, but specializing in embedded systems.Dr. Chirag Parikh, Grand Valley State University Chirag Parikh is an Professor of Electrical and Computer Engineering at Grand Valley State University, Grand Rapids, Michigan. He received his B.S. degree from University of Mumbai, India in 2000. He received both his M.S. and
musculoskeletal system, including types andfunctions of skeletal muscles and joints(ii) knowledge of Newton’s laws, and ability to solve problems involving statics and dynamicsapplications, including linear and angular motions(iii) knowledge and skills using computer software dedicated to human movement analysisOne three-hour lecture has been used to introduce students to knowledge from the (i) group. Theknowledge and abilities from group (ii) have already been acquired by students in their pre- Page 13.928.3requisite studies. A brief review has been conducted to refresh this knowledge, and furtherapplication has been introduced through homework
he does not need any notes. This keeps him ’on his toes’ and he is able to highlight theessentials as he has just memorised them. It also ensures that with maths derivations he is ableto say where the topic is going and what the objective is. Extensive use is made of severallarge blackboards as a large amount of information has to be viewed at any time. Computersimulations of dynamic systems are also provided via a computer and video projector. At NUSthere was no facility for using blackboards and a limited area overhead projector was used forthe live presentations. Computer simulations were shown as at UWA. On a previous occasionat NUS in 1993 Prof. Stone, as a visitor, had been the first to use such animations in lectures.The students
will not retain subjects whichhave limited real-world relevance. This is especially true for engineering (applied science)majors.To overcome these retention issues, the author has developed a sequence of lecture videos thatexplains electromagnetics-related math and physics topics using practical examples includingwaves on ropes and Matlab wave animations, standing wave effects (cell phone reception), andmicrowave ovens (water heating by resonance). Through video-captured simulations and in-classdemonstrations, it is hoped that students will link electromagnetics concepts to modern wirelesssystems and thereby retain these concepts in long-term memory.A difficult topic in this course is graphical methods involving Smith Charts. Students
semestersof calculus, and during their high-school studies they must have already studied particlekinematics and dynamics. Simulation software and computer algebra systems allow students toexperiment with phenomena which are too complex to calculate or too expensive to bereproduced in a laboratory, or are simply not accessible to the senses. A computer algebra systemis essentially the ability to manipulate concepts, using computer expressions, which aresymbolic, algebraic and not limited to numerical evaluation. A computer algebra systems canperform many of the mathematical techniques which are part and parcel of a traditional physicscourse. The successful use of computer algebra systems does not imply that the mathematicalskills are no longer at a
in the science of design.21 It is important tonote that the affordances of a system depend on the physical form of the system, whereas thefunctions of a system do not. This is a useful feature “because it allows engineers to analyze andcompare the affordances of product concepts (especially at the system level) as well as ofexisting products for reverse engineering.”22Although the term “affordance” has its roots in Gestalt psychology23, perceptual psychologistJames Gibson defined it in the modern era as “what it [the environment] offers the animal [user],what it provides or furnishes, either for good or ill…I mean by it something that refers to both
are being added to the INSPIRES Curriculum in 2006-2007: Engineering inFlight: A Hot Air Balloon Case Study and Engineering Energy Solutions: A Renewable EnergySystem Case Study. Each introduces students to the engineering design and decision-makingprocess, while also teaching basic engineering concepts. In these curriculum modules, thestudents progress through a series of hands-on activities and demonstrations, web-based tutorials,and computer simulations during which they learn the principles that govern the system understudy. Next, the students are issued a challenge to design, build and evaluate their own systemsby utilizing results obtained from computer simulations. At the end of the project, the studentsreturn to the computer module to
, Chen et al. 2007). The involvement of undergraduate students ininnovative projects and research as part of their curriculum, will greatly benefit the students aswell as the society. As the new generation students are well familiar with social networking,internet browsing and gamming, new instruction and engagement methods are required to utilizetheir experience for good (O'Keeffe and Clarke-Pearson 2011). Moreover, to capture students’interest and to maximize learning, projects need to use a compelling and feeling element thatinvolves authentic problems. Research has shown that Computer Modeling and Simulation is a © American Society for Engineering Education, 2017 2017 ASEE Midwest
prototypingcoupled with computer aided product design and development that provides zero-lead times inproduct conception and development. The main goal of the developed course is to simulate thisreal-life engineering development experience for our online graduate students who will work inteams to develop consumer products and at the end able to produce Acrylonitrile butadienestyrene (ABS) plastic prototypes using web-based remote log-in capability of the rapidprototyping machine. Hardware and software components are integrated with prototypingmethodologies to achieve maximum effectiveness in teaching web-based prototyping concepts inET615-Rapid Prototyping and Product design. The course includes theory and application ofrapid prototyping technologies for
vehicle requires a model of the vehicle that provides thepower requirements as a function of the driving conditions along with the ability to simulate a range of realisticdriving patterns. A vehicle was instrumented with an accelerometer for on line computer data acquisition andcomputer to calculate engine and braking power throughout a driving cycle. The results of this test and analysis indicate that the potential fuel conservation benefits of the currentlycommercialized hybrid vehicles are minimal. An alternative that was evaluated Proceedings of the 2001 American Society for Engineering Education Annual Conference and Exposition Copyright @2001, American Society for Engineering Educationto provide comparable
Engineering Education” 3265 24. Bruno Osorno, “Innovative (new teaching technique) Computer Simulation of Rotating Magnetic Fields in Three-Phase Induction Motors Using MatlabTM Animation,” ASEE annual conference. Proceedings. Alburqueque New Mexico. June 22 to 28, 2001. 25. Bruno Osorno, “Introduction of Technology in a Power Systems Program,” ASEE/PSW Proceedings. March 1999. University of Las Vegas Nevada. 26. Bruno Osorno, “Harmonic Analysis of a Typical Commercial Load,” XX International Congress of Engineering Electronics. Proceedings. Chihuahua Mexico. October 27-31
need to understand the specific Page 11.1463.3content. Interactive animations are usedthroughout the online content to illustrate key concepts, such as how various parameters affectdiffusion. Each student then mathematically simulates a hemodialysis system online to predictthe performance. This allows the student to manipulate a variety of parameters to determinewhich combination is likely to yield a successful design. After a student successfully completesthe computer simulation, the patient and doctor (via video segment) discuss their visions ofhemodialysis for the future and reiterate the challenge to design and build a hemodialysis
and simulations where appropriate • Actual physical models of reasonable size if possible • Examples of practical applicationsThese principles were implemented in our Statics course as reported elsewhere 5. In this paper,we discuss how these ideas have been implemented in our course in Engineering EconomicAnalysis. In this course, computer-based instructional tools were used heavily. These allow theinstructor to plan out the main points of a lecture presentation so that less time is spent in writingand more on explanation. In this case, presentation slides were prepared in Acrobat andPowerPoint. PowerPoint’s animation capabilities proved to be of great value as they allowed theinstructor to present procedural steps in problem
design industry, a major transition is underway in the manner products aredesigned, tested, and brought to market. With increasing power of computers, today’s engineersand designers are able to create 3-D solid models of their designs on their desktop PCs. Thesemodels are often termed virtual prototypes because once the models are created, analysis toolscan be used to simulate the operation of the device being designed. The models can also be usedto create and manufacturing data.Solid Modeling derives its name from the fact that a solid modeler creates an object called asolid, or body, representing a part. A solid is a model that clearly identifies any point in space aseither inside or outside of the model. This sounds simplistic, but has
Release 12 for DOS was1993 SolidWorks AutoCAD v. 12 for Windows1994 Hewlett Packard v. 3.5 PE/Solid Designer ArchiGraph's PowerDraw v. 6.0 for Macintosh computers HP's PE/Solid Designer (version 3.5)1995 3DStudio MAX for the NT platform CATIA-CADAM AEC plant solutions1996 Intergraph's Solid Edge v. 3.0 Solid Works Lightscape v. 3.0, a high-end rendering and animation application with Illuminating Engineers Society (IES) standards New Tek's Lightwave 3D v. 5 and 5.5 Page 12.792.8 Intergraph's Solid Edge (version 3) SolidWorks Corel's CorelCAD 3D/EYE's Tri Spectives Technical (version 2
motion.In past quarters, the computer simulations did not always match what was being covered in thelectures. Because of the difficulty in performing three dimensional analysis, projects focused onkinematic analysis of linkages and numerical solutions of differential equations. This alsoexposed students to numerical analysis tools that are not present elsewhere in the curriculum.Recently, we have decided to include a full three-dimensional simulation as a final class project.During the final week of the course, we cover gyroscopic motion. This is a very difficultconcept for most students to grasp, and simple instructor demonstrations don’t allow the studentsto actually feel the gyroscopic moments. To help remedy this situation and hopefully