Abstract: The application provides a display apparatus. The display apparatus includes: a touch panel, configured to receive a touch operation and comprising a touch film and a display panel configured to display an image; a backlight module configured to provide a backlight source to the touch panel and including a backplane, a reflective sheet, a light guide plate, an optical film and a light source located on one side of the backplane; a touch pad, configured to drive and control the touch film; and a plurality of flexible circuit boards, through which the touch film is electrically connected with the touch pad, and which are located on a same side of the touch film.

Abstract: The application provides a display apparatus. The display apparatus includes: a touch panel, configured to receive a touch operation and comprising a touch film and a display panel configured to display an image; a backlight module configured to provide a backlight source to the touch panel and including a backplane, a reflective sheet, a light guide plate, an optical film and a light source located on one side of the backplane; a touch pad, configured to drive and control the touch film; and a plurality of flexible circuit boards, through which the touch film is electrically connected with the touch pad, and which are located on a same side of the touch film.

Abstract: A liquid crystal displaying method, apparatus and device are provided. For each frame of picture, a timing controller firstly sends N STV signals corresponding to the frame of picture to a gate driver, and the gate driver controls respective rows of TFTs on a liquid crystal panel sequentially according to the N STV signals to be pre-turned on for N times; and the timing controller sends the (N+1)-th STV signal to the gate driver before an end of the first time pre-turning-on of the M-th row of TFTs, and the gate driver control the respective rows of TFTs on the liquid crystal panel sequentially according to the (N+1)-th STV signal to be turned on for the (N+1)-th time, so that the source driver finally charges respective rows of storage capacitors and pre-charge respective rows of storage capacitors of the rows of TFTs pre-turned on.

Abstract: A liquid crystal displaying method, apparatus and device are provided. For each frame of picture, a timing controller firstly sends N STV signals corresponding to the frame of picture to a gate driver, and the gate driver controls respective rows of TFTs on a liquid crystal panel sequentially according to the N STV signals to be pre-turned on for N times; and the timing controller sends the (N+1)-th STV signal to the gate driver before an end of the first time pre-turning-on of the M-th row of TFTs, and the gate driver control the respective rows of TFTs on the liquid crystal panel sequentially according to the (N+1)-th STV signal to be turned on for the (N+1)-th time, so that the source driver finally charges respective rows of storage capacitors and pre-charge respective rows of storage capacitors of the rows of TFTs pre-turned on.

Abstract: The present invention provides a vitreous-bonded abrasive tool wherein the abrasive grit portion comprises a thermally sensitive abrasive grain, such as sintered sol gel microcrystalline alpha alumina abrasive grain or superabrasive grain, and wherein the vitrified bond may be matured by firing at a temperature below about 875.degree. C. The invention further includes a novel vitrified bond composition.

Abstract: A process for producing silicon carbide whiskers in which a particulate form of carbon is combined with a silicon component, a boron component and seeding component to form a mixture which is then subjected to temperatures above about 1300.degree. C. in a nonoxidizing atmosphere such that carbon reacts with silica to form silicon carbide whiskers. The preferred particulate carbon, silicon component, boron component and seeding component are, respectively, carbon black, fumed silica, boron oxide and cobalt, iron or nickel. The size and shape of the whiskers can be controlled by varying the size of the seeding component and the concentration of the boron component.