Volume 39 #3

Contents

1. FREE AND BOUND FRACTION OF cGMP IN THE OUTER SEGMENT OF VERTEBRATE PHOTORECEPTORS
2. DISEASE DETECTION BY VOLATILE ORGANIC COMPOUND ANALYSIS: I. DETECTION DOGS
3. DISEASE DETECTION BY VOLATILE ORGANIC COMPOUND ANALYSIS: II. DIRECT SAMPLE INJECTION MASS SPECTROMETRY
4. RESPONSE OF CELLS IN THE TEMPORAL CORTEX OF A NON-NARCOTISED CAT TO HUMAN SNORING SOUNDS
5. FEATURES OF THE INFLUENCE OF NOISE BACKGROUND ONTHE CHOICE OF VISUAL STIMULI BY CHILDREN OF EARLY PRESCHOOL AGE WITH DIFFERENT LEVELS OF ANXIETY
6. VIRTUAL SELECTIVE OCCLUSION BASED ON POLARIZATION 3D TECHNOLOGY IN FUNCTIONAL TREATMENT OF BINOCULAR VISION DISORDERS

Computerized functional treatment of binocular vision disorders, amblyopia and strabismus in particular, has opened fundamentally new opportunities for increasing the efficiency and decreasing time needed for treatment: improved correction and training procedures, new stimuli and exercises, previously practically unrealizable, and reduced physiological and psychological discomfort. Taking into account more than 10-year experience of using the “POISK” (the computer program developed in IITP RAS for amblyopia treatment) in laboratory and clinical conditions, the authors discuss the possibilities and features of employing virtual selective occlusion based on polarization separation of left and right images instead of traditional methods of occlusion. The analysis shows that, in the vast majority of cases, the traditional methods involving the long-term use of patching (occlusion therapy), which turns one of the eyes off from work, or regular injection of atropine to defocus retinal images (atropine penalization) can and should be replaced by more effective and less uncomfortable computer-based methods of virtual selective occlusion.

Key words: binocular vision disorders, amblyopia, virtual occlusion, polarization 3D technologies

DOI: 10.7868/S3034593625030063

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