DocumentCode
270697
Title
Visual neural adaptation models for optimization of multifocal intraocular lens
Author
ZaraÌndy, AÌkos ; OrzoÌ, LaÌszloÌ R. ; Pencz, Borbala
Author_Institution
Comput. & Autom. Res. Inst., Budapest, Hungary
fYear
2014
fDate
29-31 July 2014
Firstpage
1
Lastpage
2
Abstract
An interactive neuromorph model is constructed that combines the simulated optical imaging properties of the human eye with the region specific special sampling properties of the human retina. We need such a model to estimate the achievable visual acuity in different illuminating conditions depending on the actual optics of the eye. It is an essential modeling step as our goal is to investigate the neural adaptation mechanisms that take place after the alteration of the optical imaging properties of the eye, especially in the case of surgical replacement of the intraocular lens (e.g. a diffractive multifocal lens). This model demonstrates what are the achievable visual resolutions at the foveal and peripheral parts of the retina and provide an input for the models of the consecutive steps of the visual information processing.
Keywords
biomedical optical imaging; eye; image resolution; image sampling; medical image processing; neurophysiology; vision; actual optics; human eye; human retina; illuminating conditions; interactive neuromorph model; multifocal intraocular lens optimization; neural adaptation mechanisms; optical imaging properties; region specific special sampling properties; simulated optical imaging properties; surgical replacement; visual acuity; visual image processing; visual information processing; visual neural adaptation models; visual resolutions; Adaptation models; Lenses; Optical diffraction; Optical imaging; Retina; Visualization; Cataract; Optical system; Sensor array; Vision; adaptation models; neural network;
fLanguage
English
Publisher
ieee
Conference_Titel
Cellular Nanoscale Networks and their Applications (CNNA), 2014 14th International Workshop on
Conference_Location
Notre Dame, IN
Type
conf
DOI
10.1109/CNNA.2014.6888607
Filename
6888607
Link To Document