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Unité de recherche
INNOSUISSE
Numéro de projet
13404.1;10 PFFLE-LS
Titre du projet
OptimEyes, a software tool for the pre-operative planning of patient-specific refractive surgeries - Enabling fast biomechanical calculations for clinical applications
Titre du projet anglais
OptimEyes, a software tool for the pre-operative planning of patient-specific refractive surgeries - Enabling fast biomechanical calculations for clinical applications

Textes relatifs à ce projet

 AllemandFrançaisItalienAnglais
Description succincte
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Résumé des résultats (Abstract)
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Textes saisis


CatégorieTexte
Description succincte
(Allemand)
OptimEyes, a software tool for the pre-operative planning of patient-specific refractive surgeries - Enabling fast biomechanical calculations for clinical applications
Description succincte
(Anglais)
OptimEyes, a software tool for the pre-operative planning of patient-specific refractive surgeries - Enabling fast biomechanical calculations for clinical applications
Résumé des résultats (Abstract)
(Allemand)
A software tool has been developed to plan patient-specific refractive surgeries. This tool relies on a validated biomechanical model of the human cornea. However, calculation time remains a limiting factor, which prevents wide acceptance by the clinical community. Therefore, this project aims at a significant speed up of the overall simulation process. Different techniques will be used: i) Statistical shape models of pre-calculated results, ii) linearization of the biomechanical material law and iii) parallel computation of the finite element solution.
Résumé des résultats (Abstract)
(Anglais)
A software tool has been developed to plan patient-specific refractive surgeries. This tool relies on a validated biomechanical model of the human cornea. However, calculation time remains a limiting factor, which prevents wide acceptance by the clinical community. Therefore, this project aims at a significant speed up of the overall simulation process. Different techniques will be used: i) Statistical shape models of pre-calculated results, ii) linearization of the biomechanical material law and iii) parallel computation of the finite element solution.