Advanced 3D LUT-based calibration for high fidelity display systems: A novel approach to medical-grade color accuracy

Display calibration for high-fidelity color reproduction presents significant challenges, particularly at low drive levels where conventional methodologies fail to maintain accurate color and contrast. The novel calibration technique presented addresses these limitations through measurement-based primary characterization, grey balance optimization, and perceptually-weighted 3D LUT implementation. Rather than relying on mathematical approximations, direct measurement protocols with strategic sampling capture actual display behavior across the luminance range, with particular attention to critical low-level regions. Grey balance optimization employs device-independent colorimetric calculations to maintain neutral reproduction, while sophisticated 3D LUT generation incorporates perceptual weighting to prioritize accuracy in visually significant regions. Performance evaluation demonstrates superior results compared to traditional methods, particularly for medical imaging applications where subtle contrast differences may convey diagnostically relevant information. The calibration framework enables consistent compliance with professional standards like EBU Tech 3325 while maintaining primary chromaticity stability throughout the operational range, facilitating accurate color reproduction across diverse application domains from medical diagnostics to professional content creation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-05-31
DOI
https://doi.org/10.5281/zenodo.17337178
Primary Topic
Historical and Literary Analyses
Type
article
Field-Weighted Citation Impact
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article

Advanced 3D LUT-based calibration for high fidelity display systems: A novel approach to medical-grade color accuracy

Zenodo (CERN European Organization for Nuclear Research)
Historical and Literary Analyses
article

Advanced 3D LUT-based calibration for high fidelity display systems: A novel approach to medical-grade color accuracy

article en

Abstract

Display calibration for high-fidelity color reproduction presents significant challenges, particularly at low drive levels where conventional methodologies fail to maintain accurate color and contrast. The novel calibration technique presented addresses these limitations through measurement-based primary characterization, grey balance optimization, and perceptually-weighted 3D LUT implementation. Rather than relying on mathematical approximations, direct measurement protocols with strategic sampling capture actual display behavior across the luminance range, with particular attention to critical low-level regions. Grey balance optimization employs device-independent colorimetric calculations to maintain neutral reproduction, while sophisticated 3D LUT generation incorporates perceptual weighting to prioritize accuracy in visually significant regions. Performance evaluation demonstrates superior results compared to traditional methods, particularly for medical imaging applications where subtle contrast differences may convey diagnostically relevant information. The calibration framework enables consistent compliance with professional standards like EBU Tech 3325 while maintaining primary chromaticity stability throughout the operational range, facilitating accurate color reproduction across diverse application domains from medical diagnostics to professional content creation.

Zenodo (CERN European Organization for Nuclear Research)
Oldham Council (GB)
Openalex Percentile: Top 42%
Historical and Literary Analyses
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