Abstract: A semiconductor structure and a method for forming same are provided.

Abstract: A semiconductor structure and a method for forming same are provided.

Abstract: The present disclosure discloses a method for evaluating crosstalk in a naked-eye stereoscopic display, including: controlling a display panel to display sequentially viewpoint images; when displaying each of the viewpoint images, each of sub-pixels for displaying a current viewpoint image displays a white image, each of sub-pixels for displaying other viewpoint images displays a black image; obtaining sequentially, on a light emitting side of the display panel, first luminance values of light at respective test angles corresponding to the current viewpoint image; controlling the display panel to display an all-black image, obtaining sequentially second luminance values of light at the respective test angles; determining a crosstalk value of light at one test angle corresponding to any one of luminance peaks in the first luminance values, according to the one of luminance peaks and one second luminance value at the same test angle corresponding to the one of the luminance peaks.

Abstract: Embodiments of the invention provide a test method and a test apparatus for a transparent display device. The test apparatus for the transparent display device comprises: an optical measuring device disposed on one side of the transparent display device to be tested, and a reference object disposed on the other side of the transparent display device to be tested. A brightness of the transparent display device to be tested is adjustable, and the optical measuring device measures a display effect of the reference object through the transparent display device to be tested which is set to different brightness.

Abstract: The disclosed technology involves a polymer dispersed liquid crystal film including: a first base substrate, a second base substrate, and a polymer dispersed liquid crystal film between the first base substrate and the second base substrate, wherein a first transparent conductive layer is formed on the first base substrate, the first transparent conductive layer is contacted with the first light permeable pressure-sensitive adhesive layer, and the polymer dispersed liquid crystal is adhered to the first base substrate through the first light permeable pressure-sensitive adhesive layer; and a second transparent conductive layer is formed on the second base substrate, the second transparent conductive layer is contacted with the second light permeable pressure-sensitive adhesive layer, and the polymer dispersed liquid crystal is adhered to the second base substrate through the second light permeable pressure-sensitive adhesive layer.

Abstract: The present disclosure discloses a method for evaluating crosstalk in a naked-eye stereoscopic display, including: controlling a display panel to display sequentially viewpoint images; when displaying each of the viewpoint images, each of sub-pixels for displaying a current viewpoint image displays a white image, each of sub-pixels for displaying other viewpoint images displays a black image; obtaining sequentially, on a light emitting side of the display panel, first luminance values of light at respective test angles corresponding to the current viewpoint image; controlling the display panel to display an all-black image, obtaining sequentially second luminance values of light at the respective test angles; determining a crosstalk value of light at one test angle corresponding to any one of luminance peaks in the first luminance values, according to the one of luminance peaks and one second luminance value at the same test angle corresponding to the one of the luminance peaks.

Abstract: Disclosed in an embodiment of the present disclosure is a preparation method of a micro-cup substrate and a display device thereof, involving the electrophoretic display field, simplifying the process and reducing the cost. The micro-cup substrate preparation method comprises assembling together a bottom substrate and a surface-hydrophilized cover to form a substrate cell; pouring into the substrate cell a solution dissolved with UV-polymerizable monomer(s) and photoinitiator; UV-irradiating the substrate cell through a patterned photomask plate to allow the UV polymerizable monomer(s) in the translucent region to be subject to UV cross-linking polymerization, thereby enabling the bottom substrate to form a micro-cup substrate with a micro-cup structure, and removing the cover and the solvent to obtain the micro-cup substrate.

Abstract: Embodiments of the invention provide a test method and a test apparatus for a transparent display device. The test apparatus for the transparent display device comprises: an optical measuring device disposed on one side of the transparent display device to be tested, and a reference object disposed on the other side of the transparent display device to be tested. A brightness of the transparent display device to be tested is adjustable, and the optical measuring device measures a display effect of the reference object through the transparent display device to be tested which is set to different brightness.

Abstract: A rod securing device includes a securing plate and a first driving arm. The securing plate is capable of receiving a rod. The first driving arm is located in the securing plate. The first driving arm is capable of moving along a first direction. The first driving arm includes a first engaging portion and is capable of moving from a securing position, where the first engaging portion of the first driving arm is capable of engaging the rod received in the securing plate, to a release position, where the first engaging portion is capable of being disengaged from the rod received in the securing plate.

Abstract: Disclosed in an embodiment of the present disclosure is a preparation method of a micro-cup substrate and a display device thereof, involving the electrophoretic display field, simplifying the process and reducing the cost. The micro-cup substrate preparation method comprises assembling together a bottom substrate and a surface-hydrophilized cover to form a substrate cell; pouring into the substrate cell a solution dissolved with UV-polymerizable monomer(s) and photoinitiator; UV-irradiating the substrate cell through a patterned photomask plate to allow the UV polymerizable monomer(s) in the translucent region to be subject to UV cross-linking polymerization, thereby enabling the bottom substrate to form a micro-cup substrate with a micro-cup structure, and removing the cover and the solvent to obtain the micro-cup substrate.

Abstract: The disclosed technology involves a polymer dispersed liquid crystal film comprising: a first base substrate, a second base substrate, and a polymer dispersed liquid crystal film between the first base substrate and the second base substrate, wherein a first transparent conductive layer is formed on the first base substrate, the first transparent conductive layer is contacted with the first light permeable pressure-sensitive adhesive layer, and the polymer dispersed liquid crystal is adhered to the first base substrate through the first light permeable pressure-sensitive adhesive layer; and a second transparent conductive layer is formed on the second base substrate, the second transparent conductive layer is contacted with the second light permeable pressure-sensitive adhesive layer, and the polymer dispersed liquid crystal is adhered to the second base substrate through the second light permeable pressure-sensitive adhesive layer.

Abstract: A rod securing device includes a securing plate and a first driving arm. The securing plate is capable of receiving a rod. The first driving arm is located in the securing plate. The first driving arm is capable of moving along a first direction. The first driving arm includes a first engaging portion and is capable of moving from a securing position, where the first engaging portion of the first driving arm is capable of engaging the rod received in the securing plate, to a release position, where the first engaging portion is capable of being disengaged from the rod received in the securing plate.