LED Display Sub-Pixel Shifting for High Resolution

The patent employs dynamic pixel-shifting technology where a single physical pixel can be electronically repositioned to multiple spatial locations over time. The pixel position is dynamically adjusted using sub-pixel addressing and timing control, allowing one pixel to serve multiple spatial roles and achieve high apparent resolution without requiring a correspondingly high physical pixel count.

The patent introduces temporal dimension to the spatial pixel arrangement by shifting pixel positions across multiple time frames. A single pixel is displayed at different spatial coordinates in different time periods, effectively adding a time dimension to the spatial pixel distribution and achieving super-resolution without increasing physical pixel density.

The patent implements periodic pixel-shifting cycles where pixels are systematically repositioned across multiple time periods in a repeating pattern. The shifting follows a predetermined sequence that cycles through different spatial positions, allowing the display to maintain high apparent resolution through rhythmic, periodic repositioning rather than continuous adjustment.

The patent pre-calculates and pre-arranges pixel-shifting sequences in advance, storing the shifting patterns in memory. The display controller retrieves pre-computed shifting instructions for each frame, eliminating the need for real-time calculation and reducing response time. The pixel positions are predetermined based on the display refresh rate and resolution requirements.

The patent maintains continuous light emission from each physical pixel while it shifts positions over time. Rather than turning pixels on and off during shifting, the pixels emit light continuously throughout the shifting cycle, ensuring that light is always being provided to the current displayed position. This continuous emission compensates for the dilution of light intensity across multiple positions.

The patent uses periodic pixel-shifting with synchronized light emission, where pixels emit light in rhythm with their position changes. The light emission is timed to coincide with the pixel's presence at each spatial location, creating periodic bursts of illumination that maintain perceived brightness despite the pixel serving multiple positions over time.