active learning.Most simulations described by Schank and co-workers deal with training to perform managerialtasks. A recent review on the potential relevance of this approach as part of the education offuture engineers has been recently presented by the author 6.In the early tools developed by Schank’s group, simulations as close to reality as possible weredeveloped, involving animations and multimedia; however, as stated by Schank 7, the cost ofsuch implementations may become prohibitive if a realistic simulation is attempted. Analternative has been proposed in the form of Story-Centered Activities (SCA), which are alsoforms of active learning in a computer environment 7. In SCA the participant performs tasks toreach a goal; however, SCA do not
modules for this study.Videos were created using a camcorder, tripod, and attachable microphone. Video footage wasthen edited using the iMovie software, a video editing software provided by Apple that allowsfor high-quality editing and overlay of voice recordings. Animation- and simulation-based videoswere developed using the Moovly software, an online video editing software that has anextended library of existing images, videos, and simulation techniques to allow for easy usageand development. The Moovly software offers several different versions of its software thatallow for the creation of longer videos, larger disposal of images and videos, and a computer-generated text-to-speech option. The software and tools used to develop the learning
thehuman eye. It should be noted that if at any point during the visualization the user invokes a newloading scenario, computations from step 1 will be repeated and the object is morphed into theupdated shape (and response) via appropriate transitional animation.3. User InterfaceThis step involves obtaining user input on the experiment and the display of results via mixedreality. The user can also interact with the model and closely examine the results both by usingtouch screen gestures as well as through an information display overlaid on the scene. Figure 4depicts the details of the UI design, which is composed of four subcomponents. M de D a a d I e ac
compared to the traditional teaching modes.The use of visual aids in education has also been demonstrated by Hsieh6, who combined anintelligent tutoring system, animation, and other presentation tools to better implement hislectures. Students rated the teaching innovations and the learning gains positively after takingthese lessons. Romero and Museros7 tried a different approach specific to structural analysiscourses by mixing experimental models with computer simulations. Their approach was wellreceived by the students and it increased their motivation and satisfaction, again compared totraditional methods.The cases mentioned above are just a few of the many examples where some professors aretaking advantage of teaching structural principles in a
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
mechanics facultyto date [9], [1].In that same time period, Dollár et al. [10] developed a web-based Engineering Statics coursethat included multimedia animations and simulations. This team also chose Flash as the mostappropriate software for this purpose. The multimedia aspects of the web-based EngineeringStatics course were largely developed in two dimensions, yet effectively communicate abstractconcepts. Furthermore, the interactive models often require the user to make and test hypotheses,such as those related to static equilibrium [10].Around 2013, V. Carbonell et al. [11] demonstrated the use of Geogebra (a graphical softwareprincipally intended for use with visualization of mathematics principles) as a tool forengineering mechanics. Geogebra
structure.In an effort to increase laboratory access for students, some educators and researchers developedvirtual laboratories [11-15]. These include the simulated laboratory, in which experiments aremodeled through computer simulations, and the remote laboratory, in which experiments areconducted by sending control commands remotely to a server and data is streamed back to thestudents’ computers. Despite their strengths, these laboratories have drawbacks. The simulatedlaboratory does not fully replicate actual experiments due to assumptions that need to be made inthe modeling process. The remote laboratory requires computers and specific software forstudents to participate remotely. In addition, both the remote and simulated laboratories
National ScienceFoundation (NSF) Network for Earthquake Engineering Simulation (NEES), or polytechnic/technical institutions. When the course is offered at the undergraduate level, the curriculumincludes analysis of single and multiple degree-of-freedom dynamic systems subject to free orforced vibration. With respect to earthquake excitations, students learn about response spectrumand response history analysis methods. Available literature on structural dynamics courseinstruction underscores the importance of incorporating hands-on experimentation coupled withdata analysis and/or computer simulation to not only help students develop their intuition, butalso their confidence in conducting engineering calculations. Some examples of the
for each user.Another advantage of the extension is the coherence between the URL and the actual openedbrowser window (windowId), respectively the actual active browser tab (tabId). In this waythe differential time of URL’s within one window / tab is build by a new array. ∆ti. j = U i , j − U i −1, j i = number of URL, j = number of tabBesides the differential time and the URL coherence the extension monitors informationabout using the backward- forward button. Furthermore using other application within thebrowser will be recorded, for example, flash-animations, downloaded video and audio files.Using several data analyzing-algorithms the learning path of the user can be rebuild.Digital – personal feedback loopAfter detecting the
2006-1697: AN INTEGRATED MODELING, ANALYSIS, AND AUTHORINGENVIRONMENT FOR STRUCTURAL/MECHANICAL ENGINEERINGEDUCATIONGregory Miller, University of Washington Gregory R. Miller is a Professor of Civil Engineering at the University of Washington in Seattle. He received his B.S.C.E. from the University of Washington (1980), and M.S.C.E (1981) and Ph.D. (1983) degrees from Northwestern University in Chicago. He has been a faculty member at the University of Washington since 1984, working primarily in the areas of structural mechanics and computational modeling. He received a National Science Foundation Presidential Young Investigator Award in 1987, and has received numerous awards for his educational
Assessment,” Comput. Appl. Eng. Educ., vol. 19, no. 3, pp.411–420, 2011, doi: 10.1002/cae.20291.Appendix – Sample Lab ModuleLearning Objectives - Lab 2 Part ILab 1 Part I: Differential Leveling Proceduresdifferential leveling1 / dif-uh-ren-shuh l le-vəl-ing / procedure used to determine the difference in elevation between twopoints that are some distance apart.Elevation is a critical consideration in the design/development of modern infrastructure.In this lab, you will learn the procedure for determining the elevation difference between points using an Autolevel.While doing this, you will be introduced to the roles of a leveling survey team, of which you may act in some capacity as a futureengineer or builder.Upon completion of this lab, you should
, Mind, Experience, andSchool: Expanded Edition. Washington DC, National Academy Press.[8] McLennan, M., Kennell, R, (2010), HUBzero: A Platform for Dissemination and Collaboration inComputational Science and Engineering. Computing in Science & Engineering 12(2), 48 – 53[9] Network for Earthquake Engineering Simulation (NEES) website. [URL] nees.org. Last viewed January 2012. Page 25.1007.14
probability, statistics, and stochastic dynamics in order to handle data inter- Page 12.846.7pretation, risk, and the necessity of stochastic simulation in dealing scientifically with ecologicaland social phenomena. Page 6 of 18Similarly in the sciences, the foundational need is classic. Sustainable engineering requires a sci-entific approach, one based on observation, deduction, and theory. Earth science and biologymust be added to the traditional requirements of physics and chemistry. These are necessary tosupport studies of natural resources and the environment.In the