3D Display Luminance Control for Crosstalk and Resolution

The patent applies local quality by differentiating the luminance control strategy for different subpixel groups. Specifically, the first subpixel group (corresponding to the first eye image) is driven at a higher luminance level than the second subpixel group (corresponding to the second eye image). This localized differentiation allows the first eye image to maintain high visibility while reducing the luminance contribution of the second eye image, thereby minimizing crosstalk interference without compromising overall image quality.

The patent implements parameter changes by dynamically adjusting the drive signal parameters for different subpixel groups based on environmental illuminance conditions. The controller modifies the luminance parameter independently for the first and second subpixel groups, allowing adaptive optimization where the luminance ratio between groups changes according to ambient light levels, thus resolving the contradiction between visibility and crosstalk under varying conditions.

The patent applies local quality by maintaining high luminance for the first subpixel group while reducing luminance for the second subpixel group. This selective approach ensures that the primary image (first eye image) maintains its resolution and visibility, while only the secondary image (second eye image) luminance is reduced to minimize crosstalk. The local differentiation preserves image quality where needed while suppressing interference elsewhere.

The patent implements partial action by applying luminance reduction only to the extent necessary for the second subpixel group, rather than uniformly reducing all subpixel luminance. The controller adjusts the drive signals to achieve just enough luminance differential to suppress crosstalk while maintaining adequate brightness and resolution for the primary display content, avoiding excessive dimming that would degrade overall image quality.

The patent applies segmentation by dividing the subpixels into distinct groups (first subpixel group and second subpixel group) with independent drive signal control. This segmentation enables the controller to apply different luminance levels to different groups based on environmental conditions, achieving adaptability without requiring complex per-pixel control. The segmented approach balances simplicity and versatility by creating manageable control zones rather than individual pixel control.

The patent implements dynamics by making the drive signal parameters adaptive rather than static. The controller dynamically adjusts the luminance levels of different subpixel groups based on detected environmental illuminance, transitioning between different operating modes (e.g., high luminance for both groups in bright environments, differential luminance in dim environments). This dynamic adaptation maintains device simplicity while achieving environmental versatility.