GRCVSep 10, 2025

CameraVDP: Perceptual Display Assessment with Uncertainty Estimation via Camera and Visual Difference Prediction

arXiv:2509.08947v21 citationsh-index: 10SIGGRAPH Asia
Originality Incremental advance
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This work addresses the need for improved display assessment methods for display manufacturers and researchers, offering a more accurate and perceptually relevant approach compared to traditional sparse sampling methods.

The paper tackles the problem of accurately measuring and assessing perceptual quality of electronic displays by combining a camera-based reconstruction pipeline with a visual difference predictor, resulting in a system that enables precise display measurement and models visibility of distortions for the human visual system, validated through applications like defective pixel detection and display non-uniformity evaluation.

Accurate measurement of images produced by electronic displays is critical for the evaluation of both traditional and computational displays. Traditional display measurement methods based on sparse radiometric sampling and fitting a model are inadequate for capturing spatially varying display artifacts, as they fail to capture high-frequency and pixel-level distortions. While cameras offer sufficient spatial resolution, they introduce optical, sampling, and photometric distortions. Furthermore, the physical measurement must be combined with a model of a visual system to assess whether the distortions are going to be visible. To enable perceptual assessment of displays, we propose a combination of a camera-based reconstruction pipeline with a visual difference predictor, which account for both the inaccuracy of camera measurements and visual difference prediction. The reconstruction pipeline combines HDR image stacking, MTF inversion, vignetting correction, geometric undistortion, homography transformation, and color correction, enabling cameras to function as precise display measurement instruments. By incorporating a Visual Difference Predictor (VDP), our system models the visibility of various stimuli under different viewing conditions for the human visual system. We validate the proposed CameraVDP framework through three applications: defective pixel detection, color fringing awareness, and display non-uniformity evaluation. Our uncertainty analysis framework enables the estimation of the theoretical upper bound for defect pixel detection performance and provides confidence intervals for VDP quality scores.

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