Abstract: A touch control light adjustable device including a first transparent substrate, a macromolecule dispersed liquid crystal composite layer, a first touch control structure, and a driving circuit is provided. The first transparent substrate has a first surface and a second surface opposite to each other. The macromolecule dispersed liquid crystal composite layer is disposed on the first surface of the first transparent substrate. The first touch control structure is disposed on the second surface of the first transparent substrate. The macromolecule dispersed liquid crystal composite layer and the first touch control structure are electrically connected to the driving circuit. The driving circuit provides a voltage signal to drive the macromolecule dispersed liquid crystal composite layer based on a change of a capacitance value of at least one capacitor in the driving circuit by touching the surface of the first touch control structure.

Abstract: A backlight module and a head-up display (HUD) are provided. The backlight module includes a bottom plate and light-emitting sources arranged in an array on a surface of the bottom plate facing a transparent device to provide a light beam. A distance between the bottom plate and the transparent device in a direction of an optical axis is determined according to a total illuminance distribution of the light beam projected on the transparent device and locations where the light-emitting sources are arranged on the surface. The HUD includes a projection unit having a display panel and the above-mentioned backlight module and an optical sheet for reflecting the image beam to a user's eyes. The light beam penetrates the display panel to form the image beam. The transparent device of the backlight module is a display panel or a diffusion sheet located between the display panel and the light-emitting sources.

Abstract: A flexible liquid crystal display (LCD) is provided. The flexible LCD includes a first substrate, a second substrate, and a liquid crystal layer. The first substrate includes a first flexible substrate, a second flexible substrate, a reflective layer, and an active component layer. The second flexible substrate is disposed on the first flexible substrate. The reflective layer is disposed between the first flexible substrate and the second flexible substrate. The active component layer is disposed on the second flexible substrate. The second substrate is disposed on the first substrate. The liquid crystal layer is disposed between the first substrate and the second substrate. The substrate of the flexible LCD above has good strength and can block the laser from irradiating to the active component layer to prevent the damage of the active components of the active component layer.

Abstract: The invention provides a head-up display, including a first image source, a first reflection device, a second image source, and a light combining device. The first image source is configured to provide a first image light. The first reflection device is located beside the first image source. The second image source is located on the first reflection device and configured to provide a second image light. The second image source is located between the light combining device and the first reflection device. The first image light is sequentially reflected by the first reflection device, passes through the second image source, and reflected by the light combining device to be transmitted to user's eyes. The second image light is reflected by the light combining device to be transmitted to the user's eyes.

Abstract: The present disclosure discloses a reflective liquid crystal display which includes a reflective layer, a light scattering adhesive layer, an array substrate, a color filter substrate, and a liquid crystal layer. The light scattering adhesive layer is positioned on the reflective layer and includes an adhesive layer and a plurality of light scattering particles dispersing in the adhesive layer. The array substrate is positioned on the light scattering adhesive layer. The color filter substrate is disposed opposite to and on the array substrate. The liquid crystal layer is disposed between the array substrate and the color filter substrate. By using the light scattering particles in the light scattering adhesive layer to scatter the light entering the light scattering adhesive layer, the reflective liquid crystal display can have higher ambient light utilization rate and provide a display screen with high contrast and high visibility.

Abstract: A liquid crystal composition is provided. The liquid crystal composition includes a liquid crystal body, a first monomer, and an initiator. The first monomer is selected from one of a monomer shown in formula 1, a monomer shown in formula 2, and a monomer shown in formula 3; wherein the definitions of R1, R2, R3, R4, R5, and R6 are as provided in the specification. Based on the total weight of the liquid crystal composition, the content of the liquid crystal body is 50 wt % to 90 wt %, the content of the first monomer is 2 wt % to 30 wt %, and the content of the initiator is 0.5 wt % to 3 wt %.

Abstract: A head-up display module is provided. The head-up display module includes a polarized light source, an optical sheet, and a display panel. The polarized light source is capable of emitting a polarized light beam. The optical sheet is disposed on a transmission path of the polarized light beam, and the polarized light beam is reflected by the optical sheet. The display panel is disposed on the transmission path of the polarized light beam between the polarized light source and the optical sheet, and a polarization of the polarized light beam is modulated by the display panel.

Abstract: The present invention provides a pixel structure disposed on a substrate, and the pixel structure includes an alignment layer, a common electrode, and a pixel electrode. The alignment layer is disposed on the substrate, and the alignment layer has a first section and a second section. The first section has a first alignment direction, and the second section has a second alignment direction perpendicular to the first alignment direction. The common electrode is disposed between the substrate and the alignment layer, and the pixel electrode is disposed between the substrate and the alignment layer.

Abstract: An image adjusting method configured to adjust an original image on a transparent display device includes: adjusting a saturation level of the original image to generate a saturation optimization image; adjusting a contrast level of a first image associated with the saturation optimization image to generate a contrast optimization image; adjusting an exposure level of the contrast optimization image to generate an exposure optimization image; and adjusting a sharpness level of a second image associated with the exposure optimization image to generate an output image.

Abstract: A head-up display module is provided. The head-up display module includes a polarized light source, an optical sheet, and a display panel. The polarized light source is capable of emitting a polarized light beam. The optical sheet is disposed on a transmission path of the polarized light beam, and the polarized light beam is reflected by the optical sheet. The display panel is disposed on the transmission path of the polarized light beam between the polarized light source and the optical sheet, and a polarization of the polarized light beam is modulated by the display panel.

Abstract: A flexible device substrate includes a flexible substrate, a device layer, and a waterproof layer. The flexible substrate has a top surface and a bottom surface disposed opposite to each other. The device layer is disposed on the top surface of the flexible substrate. The waterproof layer is disposed on the bottom surface of the flexible substrate.

Abstract: A fabricating method of a transparent liquid crystal display includes the following steps. First, a first substrate and a second substrate are assembled. Then, a liquid crystal composition is injected between the first substrate and the second substrate. The liquid crystal composition includes a plurality of liquid crystal molecules and a polymerizable material, wherein the polymerizable material includes a polyether polyol acrylate monomer and a liquid crystal polymerization initiator. Afterward, an irradiation procedure and a thermal procedure are executed.

Abstract: The present invention provides a pixel structure disposed on a substrate, and the pixel structure includes an alignment layer, a common electrode, and a pixel electrode. The alignment layer is disposed on the substrate, and the alignment layer has a first section and a second section. The first section has a first alignment direction, and the second section has a second alignment direction perpendicular to the first alignment direction. The common electrode is disposed between the substrate and the alignment layer, and the pixel electrode is disposed between the substrate and the alignment layer.

Abstract: An oxide semiconductor composition comprises graphene, a metal oxide precursor, and a solvent. Based on a total weight of the oxide semiconductor composition, a concentration of the graphene is between 0.01 and 10 wt %, a concentration of the metal oxide is between 0.01 and 30 wt %, and a concentration of the solvent is between 60 and 99.98 wt %.

Abstract: A flexible device substrate includes a flexible substrate, a device layer, and a waterproof layer. The flexible substrate has a top surface and a bottom surface disposed opposite to each other. The device layer is disposed on the top surface of the flexible substrate. The waterproof layer is disposed on the bottom surface of the flexible substrate.

Abstract: An oxide semiconductor composition comprises graphene, a metal oxide precursor, and a solvent. Based on a total weight of the oxide semiconductor composition, a concentration of the graphene is between 0.01 and 10 wt %, a concentration of the metal oxide is between 0.01 and 30 wt %, and a concentration of the solvent is between 60 and 99.98 wt %.

Abstract: A method for manufacturing an alignment layer is provided. An alignment material having an ultraviolet reactive functional group is formed on a substrate. A pre-baking process is performed on the alignment material located on the substrate. An ultraviolet polarizer is provided on the substrate. An aligning process is performed on the pre-baked alignment material, so as to irradiate an ultraviolet light to the substrate. The ultraviolet light passes through the ultraviolet polarizer and irradiates to the pre-baked alignment material. A post-baking process is performed on the alignment material after being aligned, so as to fully cure the alignment material.

Abstract: A fabricating method of a transparent liquid crystal display includes the following steps. First, a first substrate and a second substrate are assembled. Then, a liquid crystal composition is injected between the first substrate and the second substrate. The liquid crystal composition includes a plurality of liquid crystal molecules and a polymerizable material, wherein the polymerizable material includes a polyether polyol acrylate monomer and a liquid crystal polymerization initiator. Afterward, an irradiation procedure and a thermal procedure are executed.

Abstract: A method for manufacturing an alignment layer is provided. An alignment material having an ultraviolet reactive functional group is formed on a substrate. A pre-baking process is performed on the alignment material located on the substrate. An ultraviolet polarizer is provided on the substrate. An aligning process is performed on the pre-baked alignment material, so as to irradiate an ultraviolet light to the substrate. The ultraviolet light passes through the ultraviolet polarizer and irradiates to the pre-baked alignment material. A post-baking process is performed on the alignment material after being aligned, so as to fully cure the alignment material.

Abstract: The present invention provides a liquid crystal lens for a 3D display, which includes a first substrate, a second substrate, a liquid crystal layer, a first electrode layer, and a first alignment layer. The second substrate is disposed corresponding to the first substrate. The liquid crystal layer is disposed between the first substrate and the second substrate. The first electrode layer is disposed on a side of the first substrate facing the second substrate. The first alignment layer is disposed on the first electrode layer. The first alignment layer has a plurality of first regions, and alignment directions of the first regions gradually change from one end to an opposite end and are symmetrical. A manufacturing method thereof is also disclosed.