38results about How to "Improve alignment stability" patented technology

An antenna mount is provided with a pivot base and a pivot saddle rotatably coupled to the pivot base by a pivot connection and at least one pivot arm connection. The pivot connection is provided with dual opposing conical countersunk head pivot connection bolts seated within conical countersunk pivot connection bolt holes of the pivot saddle, the conical countersunk head pivot connection bolts extending through the conical countersunk pivot connection bolt holes of the pivot saddle to couple with the pivot base about a pivot axis.

A directional illumination apparatus comprises a waveguide with a reflective surface comprising reflective pairs of light input facets, reflective light extraction facets and an output transmissive surface. An array of micro-LEDs is arranged to illuminate the reflective surface in a rearwards direction. The pairs of light input facets direct light within the waveguide and reflective light extraction facets cooperate to provide a uniform output illumination across the output aperture of the waveguide with collimated light. A thin and efficient illumination apparatus may be used for high dynamic range display backlighting, privacy display or environmental illumination applications.

A centering unit for aligning at least two grouped vessels, a liftable and lowerable precentering mechanism as well as a liftable and lowerable final centering mechanism being provided so as to improve the alignment. According to a preferred embodiment, the precentering mechanism may include a plurality of subcentering mechanism so that vessels coming from different infeeds can be centered by mechanism a centering unit.

An alignment film is given a 2-layer structure comprising a photoalignment film that is photoalignable and a low-resistivity alignment film whose resistivity is smaller than that of the photoalignment film. The photoalignment film is formed by a polyimide whose precursor is polyamide acid alkyl ester, the number molecular weight of the photoalignment film is large, and the stability of alignment of the photoalignment film by photoalignment is excellent. The low-resistivity alignment film is formed by a polyimide whose precursor is polyamide acid, the number molecular weight of the low-resistivity alignment film is small, and the resistivity of the low-resistivity alignment film is small. The 2-layer structure alignment film can be maintaining an excellent photoalignment characteristic, so DC afterimages can be controlled.

An alignment film is given a 2-layer structure comprising a photoalignment film that is photoalignable and a low-resistivity alignment film whose resistivity is smaller than that of the photoalignment film. The photoalignment film is formed by a polyimide whose precursor is polyamide acid alkyl ester, the number molecular weight of the photoalignment film is large, and the stability of alignment of the photoalignment film by photoalignment is excellent. The low-resistivity alignment film is formed by a polyimide whose precursor is polyamide acid, the number molecular weight of the low-resistivity alignment film is small, and the resistivity of the low-resistivity alignment film is small. The 2-layer structure alignment film can be maintaining an excellent photoalignment characteristic, so DC afterimages can be controlled.

A liquid crystal display is presented. The liquid crystal display includes: a first substrate; a pixel electrode formed on the first substrate; a first alignment layer formed on the pixel electrode; a second substrate facing the first substrate; a common electrode formed on the second substrate; a second alignment layer formed on the common electrode; a liquid crystal layer formed between the first alignment layer and the second alignment layer; and a light absorption layer formed between the first substrate and the first alignment layer, or the second substrate and the second alignment layer, wherein the light absorption layer absorbs light having a UV wavelength between about 280 nm and about 450 nm.

A centering unit for aligning at least two grouped vessels, a liftable and lowerable precentering mechanism as well as a liftable and lowerable final centering mechanism being provided so as to improve the alignment. According to a preferred embodiment, the precentering mechanism may include a plurality of subcentering mechanism so that vessels coming from different infeeds can be centered by mechanism a centering unit.

To provide a photoalignable material that can yield a photoalignable film having a high optical uniformity and no alignment defect, and allows photoalignment with exposure in a short period of time. A photoalignable polymer composition containing a specific photoalignable polymer having a silicone group or a fluorine-substituted alkyl group, and a photoalignable group, and a specific non-photoalignable polymer is manufactured, and the photoalignable film is manufactured by applying the polymer composition onto a base material or the like, drying an applied surface thereon, and irradiating the applied surface with light.

Embodiments of the present invention provide a low-temperature polysilicon display panel, a manufacturing method thereof, and a liquid crystal display device, which relate to the field of display technology and effectively improve metal light leakage on the premise of ensuring high display performance. The above-mentioned low-temperature polysilicon display panel includes: an array substrate and a box substrate arranged oppositely, and a liquid crystal filled between the array substrate and the box substrate; wherein, the array substrate includes a base substrate, and the base substrate is sequentially arranged along the light emitting direction. Low-temperature polysilicon active layer, gate layer, and source-drain layer; the low-temperature polysilicon display panel also includes: a color filter layer, the color filter layer is arranged on the array substrate, and the color filter layer is located on the side of the source-drain layer facing away from the substrate substrate Side: light-shielding layer, the light-shielding layer is used to limit the opening area of ​​the low-temperature polysilicon display panel, at least part of the light-shielding layer is provided on the array substrate, and the light-shielding layer on the array substrate is located on the side of the source-drain layer facing away from the base substrate.

The application discloses a self-aligned liquid crystal display panel and a processing method thereof. Alignment material is added to liquid crystal molecules. The processing method comprises: a cleaning agent is prepared, the bonding agent is added to the cleaning agent, and the bonding agent comprises a first binding group which can be combined with the alignment material; the substrate is cleaned with the cleaning agent so that the bonding agent adheres to the surface of the substrate, thereby increasing the bonding force between the substrate and the alignment material, thereby improving the alignment stability; the cleaned substrate is dried. The bonding agent attached to the surface of the substrate is combined with the alignment material to increase the bonding force between the substrate and the alignment material, thereby improving the alignment stability.

An active diffuser for reducing a speckle in accordance with an embodiment of the present invention includes: an electroactive polymer film having at least one or more scattering patterns; a first transparent electrode coated on one surface of the electroactive polymer film; and a second transparent electrode coated on the other surface of the electroactive polymer film, and a shape of the scattering pattern of the electroactive polymer film is varied by voltage applied through the first transparent electrode and the second transparent electrode.

An alignment method of an alignment film is provided, including: providing a substrate and manufacturing an alignment film on the substrate; implementing laser engraving to the alignment film to form a plurality of micro trenches which are directionally consistent on the alignment film; cleaning the substrate and the alignment film to remove the powders generated by laser engraving; and implementing a following liquid crystal cell process. The method is easy to handle and is capable of preventing the non-uniform rubbing issue existing in the alignment method according to prior art to raise the stability of the alignment and promote the effect of the alignment.