Liquid Crystal Display Protrusions for Fast Response and Reliability

The patent applies preliminary action by forming protrusions with pretilt angles before the liquid crystal molecules are aligned. These protrusions are created through photopolymerization of compounds with pretilt structures, which preliminarily set the desired alignment state. When voltage is applied, the liquid crystal molecules transition from this pre-configured state more rapidly, improving response speed while maintaining the vertical alignment benefits for contrast ratio and viewing angle.

The patent uses composite materials by combining protrusions made from polymerized compounds (with pretilt structures) and liquid crystal materials. The protrusions serve as a structural framework that provides mechanical support and predetermined alignment guidance, while the liquid crystal molecules fill the spaces and provide the optically active function. This composite structure enhances panel reliability through the rigid protrusion framework while maintaining fast response speeds through the liquid crystal's electrotropic properties.

The patent applies the extraction principle by removing the alignment layer from the conventional liquid crystal display structure. Instead of using a separate alignment layer to control liquid crystal orientation, the invention extracts this function and integrates it directly into the protrusion structures formed through photopolymerization. The protrusions themselves provide the alignment function through their geometric configuration and pretilt angles, eliminating the need for the alignment layer while maintaining precise alignment control.

The patent replaces mechanical alignment methods (such as rubbing alignment layers or using mechanical pretilt structures) with a photochemical approach. By using photopolymerization of compounds containing pretilt structures, the alignment function is achieved through chemical bonding and molecular self-organization rather than mechanical processes. This substitution simplifies manufacturing by eliminating mechanical rubbing steps, reducing contamination risks, and enabling precise control through light exposure patterns.