Abstract: The present invention relates to a surface treatment method for an implant, comprising: providing an implant; and forming a ceramic layer on a surface of the implant by atomic layer deposition, wherein the ceramic layer has a thickness of 5-150 nm; a root mean square roughness increase in a range of 15 nm or less; and a friction coefficient of 0.1-0.5. The ceramic layer formed on the surface of the implant can fully encapsulate the surface of the implant with excellent uniformity to effectively block the free metal ions dissociated from the implant. Moreover, it has anti-oxidation and anti-corrosion effects, and greatly enhances the biocompatibility of the implant.

Abstract: A system, device, and method for virtually connecting a media device to a computing device are disclosed. One embodiment comprises a method to operate a virtual media device in a computing device, wherein the virtual media device that is controlled by a remote media device. In this manner, a computing device may stream media data to and from the remote media device.

Abstract: A stereoscopic display device includes a stereoscopic display unit, a backlight module and an outer frame. The stereoscopic display unit includes an LCD panel and a parallax barrier opposite to each other. The backlight module is disposed on a side of the stereoscopic display unit and includes a light source and a rubber frame, wherein the rubber frame is disposed on an outer side of the light source. The outer frame encompasses the stereoscopic display unit and the backlight module. At least one of the rubber frame and the outer frame includes a light shielding component disposed on a side facing the light source to prevent light leakage form an edge of the stereoscopic display unit.

Abstract: A color filter including a substrate, a light-shielding layer, a plurality of first color filter patterns and a plurality of second color filter patterns is provided. The light-shielding layer has a plurality of openings arranged in array, and the substrate is exposed by the openings. The first color filter patterns and the second color filter patterns are arranged in interlace and parallel. The first color filter patterns are disposed on a part of the openings and are overlapped to the neighboring light-shielding layer, and there is a first overlap width between the first color filter patterns and the light-shielding layer. The second color filter patterns are disposed on another part of the openings and are overlapped to the neighboring light-shielding layer, and there is a second overlap width between the second color filter patterns and the light-shielding layer. The second overlap width is not equal to the first overlap width.

Abstract: A system, device, and method for virtually connecting a media device to a computing device are disclosed. One embodiment comprises a method to operate a virtual media device in a computing device, wherein the virtual media device that is controlled by a remote media device. In this manner, a computing device may stream media data to and from the remote media device.

Abstract: A color filter including a substrate, a black matrix and a plurality of colored patterns is provided. The black matrix is disposed on the substrate and defines a plurality of sub-pixels on the substrate. In each sub-pixel, the height of the black matrix gradually decreases from the outside to the inside of the sub-pixel. The colored patterns are respectively disposed in the sub-pixels. Besides, a manufacturing method for the color filter mentioned above is also provided.

Abstract: A liquid crystal display panel and a method for fabricating the same are provided. The liquid crystal display panel comprises an active device array, a front substrate, at least one first spacer, and a liquid crystal layer. Wherein, the front substrate is disposed over the active device array. The first spacer is disposed between the front substrate and the active device array, and is partially embedded into an opening formed on the active device array. In addition, the liquid crystal layer is disposed between the front substrate and the active device array. Since the first spacer is embedded into the opening, the misalignment between the front substrate and the active device array can be effectively prevented, and the abnormal display due to the misalignment causing by external force can therefore be prevented.