Arrangement for dynamic pixel-based correction of presbyopia on digital display devices

The system dynamically adjusts display images using a distance sensor and optimization algorithm to address presbyopia, improving visual acuity by adapting to individual user needs.

DE202026000411U1Undetermined Publication Date: 2026-07-09RAHHAL ASIM

Patent Information

Authority / Receiving Office
DE · DE
Patent Type
Utility models
Current Assignee / Owner
RAHHAL ASIM
Filing Date
2026-01-29
Publication Date
2026-07-09

AI Technical Summary

Technical Problem

Existing digital display devices fail to dynamically adjust image output to accommodate individual user needs, particularly for correcting presbyopia, leading to suboptimal visual acuity for users at varying distances.

Method used

A system comprising a distance sensor, central processing unit, and image optimization algorithm that processes user parameters and distance data to adapt image output in real-time for optimal visual acuity.

Benefits of technology

Enables dynamic pixel-based correction of presbyopia by adjusting display images based on user distance and vision profiles, enhancing visual acuity for users with presbyopia.

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Abstract

Arrangement (100) for software-based correction of visual defects on digital displays, comprising a central computing unit (20) configured for real-time modification of image pixels based on optical correction parameters.
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Description

Regarding Fig. 1 (The block diagram): "Fig. 1 shows a functional block diagram of the arrangement (100) according to the invention. The arrangement comprises a distance sensor (10) configured to detect the distance between a user and the display device (50). The determined distance data are transmitted to the central processing unit (20). In parallel, the processing unit (20) retrieves specific user parameters from the memory module for vision profiles (30). The integrated image optimization algorithm (40) processes this data in real time to adapt the image output to the individual needs of the user." Regarding Fig. 2 (interaction and algorithm): "Fig. 2 illustrates the technical interaction between the user (1) and the terminal device (3). Here, the measured distance (5) is represented as a variable input value for the control algorithm. The schematic representation of the algorithm clarifies the decision-making process: Based on the user profile (1) and the current distance, a correction factor is calculated, which directly modifies the display on the screen (3) to ensure optimal visual acuity." Reference symbol list For Fig. 1 (Technical arrangement for distance measurement and image correction): 1 User profile 3 Display device 5 Measured distance (User interaction) For Fig. 2 (Functional block diagram of the system): 10 Distance sensor 20 Central processing unit 30 Storage module for vision profiles 40 Image optimization algorithm 50 Display device 60 Image input source

Claims

Arrangement (100) for software-based correction of visual defects on digital displays, comprising a central computing unit (20) configured for real-time modification of image pixels based on optical correction parameters. Arrangement (100) according to claim 1, characterized in that it comprises a storage module (30) in which at least one personalized vision profile (1) for individual calibration of the image pixel modification is stored. The arrangement (100) according to claim 1, 2 comprises at least one distance sensor (10) for detecting the user distance (5), wherein the central computing unit (20) is configured to dynamically adjust the correction strength to the measured distance by means of an image optimization algorithm (40).