Abstract: One aspect of the present disclosure is a pharmaceutical composition which includes (R)—N-[1-(3,5-difluoro-4-methansulfonylamino-phenyl)-ethyl]-3-(2-propyl-6-trifluoromethyl-pyridin-3-yl)-acrylamide as a first component and a cellulosic polymer as a second component, wherein the composition of one aspect of the present disclosure has a formulation characteristic in which crystal formation is delayed for a long time.

Abstract: The present invention relates to an apparatus and method for encoding and decoding an image by skip encoding. The image-encoding method by skip encoding, which performs intra-prediction, comprises: performing a filtering operation on the signal which is reconstructed prior to an encoding object signal in an encoding object image; using the filtered reconstructed signal to generate a prediction signal for the encoding object signal; setting the generated prediction signal as a reconstruction signal for the encoding object signal; and not encoding the residual signal which can be generated on the basis of the difference between the encoding object signal and the prediction signal, thereby performing skip encoding on the encoding object signal.

Abstract: Provided are an apparatus and method for generating an internal voltage adaptively with respect to an external supply voltage. The apparatus includes a class detector and an internal voltage generator. The class detector outputs detection signals indicating a class of a plurality of classes, which correspond to predetermined voltages, to which an input external voltage belongs with respect to a first reference voltage. The internal voltage generator generates and outputs an internal voltage corresponding to the class to which the external voltage belongs as indicated by the detection signals.

Abstract: Provided are an apparatus and method for generating an internal voltage adaptively with respect to an external supply voltage. The apparatus includes a class detector and an internal voltage generator. The class detector outputs detection signals indicating a class of a plurality of classes, which correspond to predetermined voltages, to which an input external voltage belongs with respect to a first reference voltage. The internal voltage generator generates and outputs an internal voltage corresponding to the class to which the external voltage belongs as indicated by the detection signals.

Abstract: A plasma display including a rear substrate having a picture display area including partitions arranged in parallel, address electrodes between the partitions and a phosphor layer deposited over the address electrodes; a front substrate having electrodes formed on the bottom surface thereof to cross the address electrodes, and sealed with the rear substrate by an adhesive on the edges of the substrates; an inlet and an outlet formed in the rear substrate, through which a flushing gas flows into and out of the display, respectively; and at least one path block for blocking flow of the flushing gas along paths nearest to the edges, such that the flushing gas flowed in through the inlet flows along the paths between the partitions to exit via the outlet.

Abstract: A partition of a plasma display device is fabricated by forming a dielectric layer on the surface of a rear substrate having an address electrode; forming a conductive layer and a photoconductive layer in order on the surface of said dielectric layer; charging the surface of said photoconductive layer; exposing aid photoconductive layer covered with a mask of a predetermined pattern to ultraviolet rays so that an electrostatic latent image can be formed on said photoconductive layer; developing the electrostatic latent image by allowing said photoconductive layer, on which the electrostatic latent image is formed, to be in contact with a charged liquid toner layer so that liquid toner can stick to the electrostatic latent image; drying the toner stuck to the electrostatic latent image and absorbing the toner remaining an area other than the electrostatic latent image; repeating three times the steps from said step of charging the surface of said photoconductive layer through to said step of drying and absorbi

Abstract: The present invention provides with a black matrix, a phosphor screen, and a method of manufacturing thereof. For a method of manufacturing the black matrix formed on the inner surface of a panel of a color CRT, a photoresist is not used, but a wet electrophotographic method was employed, using graphite for a main component of the black matrix materials, and forming a phosphor screen by a dry electrophotographic method to improve the quality of a color cathode-ray-tube.

Abstract: A method of developing a screen of a cathode ray tube includes the steps of establishing an uniform electrostatic charge on selected areas of an inner surface of a panel with a predetermined pattern, rotating a nozzle to a predetermined angle with respect to the inner surface of a panel, and moving the rotated nozzle backwards and forwards while spraying a dry-powdered and electrically charged screen structure material on the selected areas of the inner surface of the panel.

Abstract: The black matrix of the faceplate panel is deposited by a wet-layer photoconductive manner. An organic conductive layer is initially deposited on the faceplate panel, on which an organic photoconductive material is formed to form an organic photoconductive layer. The photoconductive layer is charged to positive or negative potential and a selective area of the organic photoconductive layer is exposed to light radiated from an exposure device, such that the potential can be left on the unexposed area, where the black matrix will be deposited, of the organic photoconductive layer. Then, As novel steps, deposition of the conductive black matrix is achieved according to the following steps. First, a conductive black matrix material is charged having the opposite potential to that left on the unexposed area of the organic photoconductive layer.

Abstract: In a method forming a phosphor layer on a screen panel, the black matrix is made of a conductive material. The conductive black matrix is formed by a wet-layer photoconductive method. That is, an organic conductive layer is initially deposited on the screen panel, then an organic photoconductive material is formed on the organic conductive layer. The plotoconductive layer is charged to a positive or negative potential and a selective area of the organic photoconductive layer is exposed to light radiated from an exposure device, such that the potential can be left on the unexposed area where the black matrix will be deposited. Finally, the conductive black matrix material is deposited on the unexposed area.

Abstract: An apparatus for exposing a color cathode ray tube includes a light source producing light for exposing parts of the color cathode ray tube during manufacture of the tube. A slit disposed near the light source permits adjustment of the size of an exposure pattern produced by light from the light source and passing through the slit. The light source is mounted on a support that is moved in each of two orthogonal directions. The support may be driven by a cam assembly. The apparatus produces a cathode ray tube including dots of phosphor producing particular colors in response to an incident electron beam, the dots having improved circularity and boundary definition. The apparatus can also be employed to produce a cathode ray tube with a linear stripe pattern by moving the light source in only one direction during the exposure process.

Abstract: A light fixing layer is deposited on the panel during the screening process of a panel. The light fixing layer can be softened when it is subjected to light so as to allow the phosphor layers to be fixed on the panel. That is, the light fixing layer shows adhesive characteristics when subjected to light. Therefore, after developing all phosphor layers on the panel, when the light is radiated to the light fixing layer, the light fixing layer is softened, thereby fixing the phosphor layers.