DocumentCode
3086589
Title
A Vision Interface System to predict the visual output of different retinal architectures
Author
Lopez, E.Y.B. ; Villalpando, L.C.G. ; Brito, J.A.L. ; Calzada, R. ; Nino de Rivera y Oyarzabal, L.
Author_Institution
Grad. Dept. of ESIME-UPC, Nat. Polytech. Inst. of Mexico, Mexico City, Mexico
fYear
2012
fDate
26-28 Sept. 2012
Firstpage
1
Lastpage
6
Abstract
Foveated retina has been studied in the last decades by researchers, however animal bio-inspired artificial retina is a new field that will produce new artificial light sensing artefacts which visual properties could be applied in different fields. A key point is the effect of unlike space photoreceptor distribution over the retina layout. The space distribution of photoreceptors over retina association defines unknown vision properties of those artefacts, then researchers and designers will require brand new software tools to predict the visual performance of brand new retina architectures. Animal world is full of distinctive photoreceptor retinal distribution examples that let animal´s acquired specific skills for living. We discuss in this paper a kindly software tool that can be applied to predict the performance of different photoreceptor arrangements in both: natural or artificial retinas. The kindly software presented in this paper is called Vision Interface System (VIS). The VIS predicts the visual performance of four different foveated models. The Loaiza[1], The Maximum and Minimum, the Polygonal and The Fuga foveated models.
Keywords
eye; image processing; medical computing; user interfaces; visual perception; Fuga foveated model; Loaiza foveated model; VIS; animal bio-inspired artificial retina layout; artificial light sensing artefacts; foveated retina architectures; maximum-and-minimum foveated model; natural retinas; photoreceptor retinal distribution; photoreceptor space distribution; polygonal foveated model; retina association; software tools; unknown vision properties; vision interface system; visual performance prediction; Machine vision; Photoreceptors; Retina; Semiconductor device modeling; Trajectory; Visualization; Artificial retina; bio-inspired artificial retina; foveated vision;
fLanguage
English
Publisher
ieee
Conference_Titel
Electrical Engineering, Computing Science and Automatic Control (CCE), 2012 9th International Conference on
Conference_Location
Mexico City
Print_ISBN
978-1-4673-2170-9
Type
conf
DOI
10.1109/ICEEE.2012.6421190
Filename
6421190
Link To Document