LED Blinder Module Color Decay Modeling

The patent extracts and removes green and blue LEDs from the circuit board, recognizing that these colors are rarely used in actual blinder applications. This extraction frees up valuable circuit board space that can then be utilized for additional warm white, amber, or red LEDs, thereby increasing total illumination power while retaining color decay modeling capability through the remaining red and amber LEDs.

The patent applies local quality by optimizing the color distribution across the circuit board based on actual usage requirements. Instead of uniformly distributing all LED colors, the design concentrates warm white, amber, and red LEDs in proportions that match typical blinder applications, where warm white provides main illumination, amber contributes to color decay modeling, and red provides accent color. This localized optimization ensures both high illumination power and adequate color decay modeling.

The patent extracts unnecessary green and blue LEDs from the circuit board design, as these colors are rarely used in professional blinder applications. This removal of redundant components frees up significant circuit board real estate, allowing for the installation of additional warm white, amber, or red LEDs that directly contribute to illumination power and color decay modeling, thereby increasing total output without expanding the physical footprint.

The patent applies multi-functionality by selecting LED colors that serve multiple purposes simultaneously. Warm white LEDs provide both main illumination and contribute to color decay modeling, amber LEDs serve dual roles in color rendering and decay simulation, and red LEDs provide both accent color and temporal behavior modeling. This multi-functional approach maximizes the utility of each LED placed on the circuit board, achieving high illumination power with efficient space utilization.