Abstract: An organic electro luminescence device is provided. A thin film transistor (TFT) is formed within a sub-pixel region defined by a gate line and a data line on a substrate. A passivation layer and a first electrode are sequentially formed on the substrate where the TFT is formed. A contact hole is formed at a predetermined portion of the passivation layer and the first electrode so as to expose a drain electrode of the TFT. An electrode separator and a buffer layer are misaligned with the gate line by a predetermined position, such that an emission region corresponding to the sub-pixel and a region including the contact hole of the TFT are separated. An organic electro luminescent layer is formed within a region defined by the buffer region. A second electrode is formed on the organic electrode luminescent layer and is connected to the drain electrode of the TFT through the contact hole.

Abstract: An image forming apparatus capable of performing a skip copy and an image forming method using the same, the image forming apparatus including: an image forming unit to copy a document, and a control unit to control the image forming unit to skip a designated region of the document when the image forming unit copies the document. Accordingly, resources, such as ink, and time can be preserved.

Abstract: An organic light-emitting display device and a method of fabricating the same is disclosed, to prevent contact defects, the organic light-emitting display device comprising a first substrate formed a sub-pixel driving array; a second substrate formed an OLED array; a sealant to bond the first and second substrates to each other; and a conductive material deformed when bonding the first and second substrates to each other so as to electrically connect the sub-pixel driving array and the OLED array to each other, the conductive material formed on the sub-pixel driving array.

Abstract: An organic light emitting device including a first electrode disposed on a substrate, a separator disposed on the first electrode in a lattice shape and having a groove-shaped isolation portion that gradually expands from an entrance toward an inside of the isolation portion, organic light emitting patterns disposed on the first electrode surrounded by the separator, the organic light emitting patterns being separated by the isolation portion, and second electrodes disposed on the organic light emitting patterns and separated by the isolation portion.

Abstract: Disclosed are a shadow mask and a deposition device having the same. The deposition device includes a shadow mask that has a plurality of openings, a chamber that has the shadow mask therein, a deposition cell disposed on a lower portion of the chamber, in which the deposition cell contains deposition materials, and a blocking member interposed between an inner side of the chamber and an outer side of the shadow mask so as to prevent the deposition materials from passing through between the inner side of the chamber and the outer side of the shadow mask. Deposition materials sublimated from a deposition cell are prevented from passing through the shadow mask, except for the openings of the shadow mask, so that the inside of a chamber can be prevented from being contaminated, thereby improving workability of a thin film deposition device. Deposition materials attached to the inside of the chamber can be prevented from being separated from the chamber, so the deposition materials cannot serve as particles.

Abstract: A shadow mask and a method of fabricating an OLED display using the same is disclosed, wherein the shadow mask is not sagging, and the shadow mask includes a plurality of columns, each column including a plurality of first or second cell-forming parts, wherein the first and second cell-forming parts are alternately arranged in the columns, and the first and second cell-forming parts provided in the adjacent columns include transmission parts having the different open directions.

Abstract: The display device includes a first substrate, a second substrate, a spacer and a connection electrode. The first substrate includes an organic electroluminescence diode device, and the second substrate faces the first substrate and includes a thin film transistor. The connection electrode is configured to electrically connect the thin film transistor and the organic electroluminescence diode device. The display device further includes a first buffer pattern configured to separate two adjacent pixel regions and a second buffer pattern overlying the first buffer pattern and having a predetermined shape. The first buffer pattern is etchable to produce a cavity between the two adjacent pixel regions. The cavity can be enlarged to the extent that the shape of the second buffer pattern is maintained.

Abstract: An organic electroluminescent device includes first and second substrates facing and spaced apart from each other, the first and second substrates including a pixel region; a gate line on an inner surface of the first substrate; a data line crossing the gate line; a switching thin film transistor connected with the gate line and the data line; a driving thin film transistor connected with the switching thin film transistor; a power line connected with the driving thin film transistor; a first electrode on an inner surface of the second substrate; a first sidewall and a second sidewall on the first electrode at a boundary of the pixel region, the first sidewall and the second sidewall spaced apart from each other; an electroluminescent layer on the first electrode in the pixel region; a second electrode on the electroluminescent layer in the pixel region; and a connection electrode electrically connected to the first and second substrates.

Abstract: An organic thin film transistor and a method for manufacturing the same is disclosed, which can improve the device properties by decreasing a contact resistance which occurs in a contact area between an organic semiconductor layer and source/drain electrodes. The organic thin film transistor includes a gate electrode formed on a substrate, a gate insulation layer formed on the gate electrode, source and drain electrodes overlapped with both edges of the gate electrode and formed on the gate insulation layer, an organic semiconductor layer formed on the gate insulation layer including the source/drain electrodes, a first adhesive layer having hydrophilic properties formed between the gate insulation layer and the source/drain electrodes, and a second adhesive layer having hydrophobic properties formed between the organic semiconductor layer and the gate insulation layer.

Abstract: Provided is an inkjet printer, comprising a print head including a chamber, a heater to heat ink accommodated in the chamber, and an ejector from which the heated ink is ejected; an ink adjusting input to adjust the size of an ink droplet ejected from the print head; and a controller to control the size of the ink droplet ejected according to a signal received from the ink adjusting input. Thus, the present invention provides an inkjet printer which adjusts the density of a printed image according to a user's selection.

Abstract: An organic electroluminescent device includes first and second substrates facing and spaced apart from each other, the first and second substrates including a pixel region; a gate line on an inner surface of the first substrate; a data line crossing the gate line; a switching thin film transistor connected with the gate line and the data line; a driving thin film transistor connected with the switching thin film transistor; a power line connected with the driving thin film transistor; a first electrode on an inner surface of the second substrate; a first sidewall and a second sidewall on the first electrode at a boundary of the pixel region, the first sidewall and the second sidewall spaced apart from each other; an electroluminescent layer on the first electrode in the pixel region; a second electrode on the electroluminescent layer in the pixel region; and a connection electrode electrically connected to the first and second substrates.

Abstract: An organic electroluminescent device includes first and second substrates facing and spaced apart from each other, the first and second substrates including a pixel region; a gate line on an inner surface of the first substrate; a data line crossing the gate line; a switching thin film transistor connected with the gate line and the data line; a driving thin film transistor connected with the switching thin film transistor; a power line connected with the driving thin film transistor; a first electrode on an inner surface of the second substrate; a first sidewall and a second sidewall on the first electrode at a boundary of the pixel region, the first sidewall and the second sidewall spaced apart from each other; an electroluminescent layer on the first electrode in the pixel region; a second electrode on the electroluminescent layer in the pixel region; and a connection electrode electrically connected to the first and second substrates.

Abstract: A method of fabricating a substrate for an organic electroluminescent device includes forming a first electrode on a substrate having a pixel region; forming an insulating layer on the first electrode at a boundary of the pixel region; forming an electroluminescent layer on the first electrode in the pixel region by printing a solution type electroluminescent material; forming a second electrode material layer on an entire surface of the substrate having the electroluminescent layer and the insulating layer; and oxidizing or ablating by laser the second electrode material layer at the boundary of the pixel region to form a second electrode in the pixel region and a metal oxide layer at the boundary of the pixel region.

Abstract: A multi-domain liquid crystal display device includes first and second substrates facing each other and a liquid crystal layer between the first and second substrates. A plurality of gate bus lines are arranged in a first direction on the first substrate and a plurality of data bus lines are arranged in a second direction on the first substrate to define a pixel region. A pixel electrode is electrically charged through the data bus line in the pixel region. A dielectric frame is in a region other than a region where the pixel electrode is formed, and distorts electric field applied to the liquid crystal layer. A common electrode is on the second substrate, and an alignment layer is on at least one substrate between the first and second substrates.

Abstract: A method of fabricating an organic electroluminescence display device includes the steps of forming a first electrode; forming an emissive layer on the first electrode using a solvent and a polymer, the solvent having a surface tension less than 30 dyne/cm and a boiling point greater than 200 degrees centigrade; and forming a second electrode on the emissive layer.

Abstract: A method of fabricating an organic electroluminescence display device includes the steps of forming a first electrode; forming an emissive layer on the first electrode using a solvent and a polymer, the solvent having a surface tension less than 30 dyne/cm and a boiling point greater than 200 degrees centigrade; and forming a second electrode on the emissive layer.

Abstract: An electro-luminescence display that is capable of widening an effective display area of a pixel. In the electro-luminescence display, a data line is formed in a direction crossing a gate line. A power supply line is formed in a manner such that it is insulated from the gate line and the data line. A first switching device has a gate connected to the gate line and a source connected to the data line. A second switching device has a gate connected to a drain of the first switching device and a source connected to the power supply line. An electro-luminescence emitting part is connected to the drain of the second switching device. A storage capacitor is formed in a lengthwise direction of the power supply to charge a voltage applied to the gate of the second switching device.

Abstract: An electro-luminescence display (ELD) wherein a voltage supply line is separated into a plurality of lines to reduce the number of pixels connected to each line. In the ELD, a pixel array has a number of pixels, each of which includes an electro-luminescence device having a luminescent layer made from an-electro-luminescent material, an anode electrode and a cathode electrode serving as a common electrode. The pixel array is arranged in an active matrix type. A gate driving circuit and a data driving circuit are connected, via a number of scanning electrode wiring and a number of data electrode wiring, respectively, to the pixel array, for switching the pixels to selectively drive the pixels. First and second supply voltages are applied from an external circuit to the first and second supply terminals. First and second power supply lines couple the first and second voltage supply terminals with the pixel array.

Abstract: In a method and apparatus for patterning forming pixels into minute patterns in an electroluminescent display device, a molding plate having convex and concave portions is attached to a roller and rotated. A polymer solution is applied to the molding plate via another roller. The polymer solution thus coated on the molding plate is printed on a substrate by rotation of the molding plate. Barrier ribs may be formed on the substrate to prevent spreading of the deposited polymer solution.

Abstract: This invention is an apparatus for the separation of liquid such as serum or plasma from centrifugated solid particles such as red cells, and for the separation of the liquid into containers for use in an auto-analyzer, and/or storage as well as preservation and distribution of the remainder of the separated liquid samples into other containers.A single component device is utilized for the separation and distribution of the upper layer of the liquid prepared by centrifugal motion. The apparatus comprises a flexible tubing, a stopper and a capillary tube passing through the system. There is provided the means for the storage of the remainder of liquid, after the adequate amount of samples are obtained and placed in containers for use in an auto-analyzer, and for the easy distribution or transfer of the liquid in the main tube, into other tubes or containers without the need of other apparatus. Several embodiments are illustrated.