Abstract: An organic electro-luminescence display includes an organic electro-luminescence device array, a first passivation layer completely covering organic electro-luminescence device array, and a plurality of color filters disposed on the first passivation layer. The color filters include a plurality of red color filters, green color filters, or blue color filters. The organic electro-luminescence device array includes a white light organic electro-luminescence device array. The type of the organic electro-luminescence device array includes an active matrix array or a passive matrix array.

Abstract: In a process of fabricating an organic electro-luminescence display, a substrate, a plurality of organic electro-luminescence devices, and a patterned separator structure are provided. The organic electro-luminescence devices and the patterned separator structure are disposed over the substrate. The patterned separator structure separates the organic electro-luminescence devices. A thickness of the patterned separator structure is greater than that of the organic electro-luminescence devices. A first passivation layer is then formed to completely cover the patterned separator structure and the organic electro-luminescence devices. A plurality of color filters are formed on the first passivation layer. The color filters are located above the organic electro-luminescence devices.

Abstract: A pixel structure driven by a scan line and a data line arranged on a substrate is provided. The pixel structure includes a control unit, an OEL unit and a semi-transparent reflector structure. The control unit driven by the scan line and the data line is arranged on the substrate. The OEL unit is arranged on the substrate and includes a transparent electrode, a light-emitting layer and a metal electrode. The transparent electrode is electrically connected with the control unit. The light-emitting layer is disposed on the transparent electrode. The metal electrode is disposed on the light-emitting layer. The semi-transparent reflector structure is sandwiched between the substrate and the OEL unit, and includes at least a plurality of first and second dielectric layers. The first and second dielectric layers are alternately stacked, and the refractive index of the first dielectric layers is different from that of the second dielectric layers.

Abstract: A method for fabricating a carbon-enriched film includes the following steps. First, a substrate is provided. Next, a CFx film (fluorinated carbon films) containing carbon-fluoride bonded molecules is formed on the substrate. Next, a treatment process is performed on the CFx film to convert the carbon-fluoride bonded molecules into carbon-carbon bonded molecules.

Abstract: A pixel structure driven by a scan line and a data line arranged on a substrate is provided. The pixel structure includes a control unit, an OEL unit and a semi-transparent reflector structure. The control unit driven by the scan line and the data line is arranged on the substrate. The OEL unit is arranged on the substrate and includes a transparent electrode, a light-emitting layer and a metal electrode. The transparent electrode is electrically connected with the control unit. The light-emitting layer is disposed on the transparent electrode. The metal electrode is disposed on the light-emitting layer. The semi-transparent reflector structure is sandwiched between the substrate and the OEL unit, and includes at least a plurality of first and second dielectric layers. The first and second dielectric layers are alternately stacked, and the refractive index of the first dielectric layers is different from that of the second dielectric layers.

Abstract: A method for fabricating a carbon-enriched film includes the following steps. First, a substrate is provided. Next, a CFx film (fluorinated carbon films) containing carbon-fluoride bonded molecules is formed on the substrate. Next, a treatment process is performed on the CFx film to convert the carbon-fluoride bonded molecules into carbon-carbon bonded molecules.

Abstract: A method for fabricating an organic electroluminescent device (OLED) includes the following steps. First, a substrate is provided. Next, an anode layer is formed on the substrate. Next, a buffer layer is formed on the anode layer, wherein the buffer layer include a CFx film (fluorinated carbon films) containing carbon-fluoride bonded molecules. Next, a treatment process is performed on the CFx film to convert the carbon-fluoride bonded molecules into carbon-carbon bonded molecules. A plurality of organic layers is formed on the buffer layer. A cathode layer is formed on the organic layer. Because the buffer layer has a better conductivity, the organic electroluminescent device (OLED) of the present invention has a better luminous efficiency.

Abstract: A pixel structure including a control unit, an organic electro-luminescent (OEL) unit, and a filter structure is provided. The control unit is disposed on a substrate and is driven by a scan line and a data line. The OEL unit is disposed on the substrate, and includes a transparent electrode, a light-emitting layer, and a metal electrode. The transparent electrode is electrically connected with the control unit, and the light-emitting layer and the metal electrode are sequentially placed on the transparent electrode. The filter structure is sandwiched between the substrate and the OEL unit, and the filter structure includes a plurality of the first and second dielectric layers. The first and second dielectric layers are alternately stacked, and the refractive index of the first dielectric layers is different from that of the second dielectric layers.

Abstract: In a process of fabricating an organic electro-luminescence display, a substrate, a plurality of organic electro-luminescence devices, and a patterned separator structure are provided. The organic electro-luminescence devices and the patterned separator structure are disposed over the substrate. The patterned separator structure separates the organic electro-luminescence devices. A thickness of the patterned separator structure is greater than that of the organic electro-luminescence devices. A first passivation layer is then formed to completely cover the patterned separator structure and the organic electro-luminescence devices. A plurality of color filters are formed on the first passivation layer. The color filters are located above the organic electro-luminescence devices.

Abstract: An organic electro-luminescence display includes an organic electro-luminescence device array, a first passivation layer completely covering organic electro-luminescence device array, and a plurality of color filters disposed on the first passivation layer. The color filters include a plurality of red color filters, green color filters, or blue color filters. The organic electro-luminescence device array includes a white light organic electro-luminescence device array. The type of the organic electro-luminescence device array includes an active matrix array or a passive matrix array.

Abstract: An organic electro-luminescence display is disclosed. The organic electro-luminescence display comprises a substrate, a plurality of organic electro-luminescence devices, a patterned separator structure, a passivation layer and a plurality of color filters. Wherein, the organic electro-luminescence devices are disposed over the substrate. The patterned separator structure is disposed over the substrate to separate the organic electro-luminescence devices. The thickness of the patterned separator structure is greater than that of the organic electro-luminescence devices. The passivation layer completely covers the patterned separator structure and the organic electro-luminescence devices to separate the organic electro-luminescence devices from the color filters. The color filters are disposed on the passivation layer and are located above the organic electro-luminescence devices for colorful display.

Abstract: An organic electro-luminescence display including a substrate, a plurality of white light electro-luminescence devices, a first protecting film, a second protecting film and a third protecting film is provided. The white light electro-luminescence devices are disposed on the substrate. The first protecting film covers a portion of the white light electro-luminescence devices and has a property of filtering first-color light. The second protecting film covers another portion of the white light electro-luminescence devices and has a property of filtering second-color light. The third protecting film covers other portion of the white light electro-luminescence devices and has a property of filtering third-color light.

Abstract: An active matrix organic electro-luminescence device array comprises an active element array substrate, a patterned rib, a conductive layer, an organic luminescent layer and a common electrode layer. The active element array substrate has a plurality of active elements, and the patterned rib is disposed over the active element array substrate, wherein the patterned rib has a plurality of apertures exposing the active elements. The conductive layer is disposed over the active element array substrate and the patterned rib, wherein a portion of the conductive layer disposed over the active element array substrate and a portion of the conductive layer disposed over the patterned rib are disconnected. The organic luminescent layer is disposed over the conductive layer in the apertures. Finally, for example, the common electrode layer is formed by a plasma diffusion method to cover the organic luminescent layer and the patterned rib completely and continuously.

Abstract: A method of fabricating a double side emitting organic light emitting diode (OLED) including the following steps is provided. First, a transparent substrate is provided. Then, a first transparent electrode and an organic light emitting layer are sequentially formed on the transparent substrate. Next, a second transparent electrode is formed on the organic light emitting layer. The method of forming the second transparent electrode includes the following steps. A first film composed of alkali metal compound or alkaline-earth metal compound is formed on the organic light emitting layer; a second film composed of metal material is formed on the first film and has a thickness between 20 angstroms and 50 angstroms; a third film composed of transparent conductive material is formed on the second film by using a plasma diffusion deposition process or an ionic thermal evaporation process.

Abstract: A method for fabricating an organic electroluminescent device (OLED) includes the following steps. First, a substrate is provided. Next, an anode layer is formed on the substrate. Next, a buffer layer is formed on the anode layer, wherein the buffer layer include a CFx film (fluorinated carbon films) containing carbon-fluoride bonded molecules. Next, a treatment process is performed on the CFx film to convert the carbon-fluoride bonded molecules into carbon-carbon bonded molecules. A plurality of organic layers is formed on the buffer layer. A cathode layer is formed on the organic layer. Because the buffer layer has a better conductivity, the organic electroluminescent device (OLED) of the present invention has a better luminous efficiency.

Abstract: A pixel structure including a control unit, an organic electro-luminescent (OEL) unit, and a filter structure is provided. The control unit is disposed on a substrate and is driven by a scan line and a data line. The OEL unit is disposed on the substrate, and includes a transparent electrode, a light-emitting layer, and a metal electrode. The transparent electrode is electrically connected with the control unit, and the light-emitting layer and the metal electrode are sequentially placed on the transparent electrode. The filter structure is sandwiched between the substrate and the OEL unit, and the filter structure includes a plurality of the first and second dielectric layers. The first and second dielectric layers are alternately stacked, and the refractive index of the first dielectric layers is different from that of the second dielectric layers.

Abstract: An organic electro-luminescence display including a substrate, a plurality of white light electro-luminescence devices, a first protecting film, a second protecting film and a third protecting film is provided. The white light electro-luminescence devices are disposed on the substrate. The first protecting film covers a portion of the white light electro-luminescence devices and has a property of filtering first-color light. The second protecting film covers another portion of the white light electro-luminescence devices and has a property of filtering second-color light. The third protecting film covers other portion of the white light electro-luminescence devices and has a property of filtering third-color light.

Abstract: An organic electro-luminescence element and an organic electro-luminescence display are provided. The organic electro-luminescence display includes a substrate and a plurality of organic electro-luminescence elements disposed in array on the substrate. The organic electro-luminescence element includes a first electrode layer, an organic luminescent layer, a second transparent electrode layer, a first transparent filler layer, a second transparent filler layer and a semitransparent layer. Wherein, the organic luminescent layer is disposed on the first electrode layer, and the second transparent electrode layer is disposed on the organic luminescent layer. The first transparent filler layer and the second transparent filler layer are disposed on the second transparent electrode layer, and the thickness of the second transparent filler layer is larger than the thickness of the first transparent filler layer.

Abstract: An organic electro-luminescence display is disclosed. The organic electro-luminescence display comprises a substrate, a plurality of organic electro-luminescence devices, a patterned separator structure, a passivation layer and a plurality of color filters. Wherein, the organic electro-luminescence devices are disposed over the substrate. The patterned separator structure is disposed over the substrate to separate the organic electro-luminescence devices. The thickness of the patterned separator structure is greater than that of the organic electro-luminescence devices. The passivation layer completely covers the patterned separator structure and the organic electro-luminescence devices to separate the organic electro-luminescence devices from the color filters. The color filters are disposed on the passivation layer and are located above the organic electro-luminescence devices for colorful display.

Abstract: An active matrix organic electro-luminescence device array comprises an active element array substrate, a patterned rib, a conductive layer, an organic luminescent layer and a common electrode layer. The active element array substrate has a plurality of active elements, and the patterned rib is disposed over the active element array substrate, wherein the patterned rib has a plurality of apertures exposing the active elements. The conductive layer is disposed over the active element array substrate and the patterned rib, wherein a portion of the conductive layer disposed over the active element array substrate and a portion of the conductive layer disposed over the patterned rib are disconnected. The organic luminescent layer is disposed over the conductive layer in the apertures. Finally, for example, the common electrode layer is formed by a plasma diffusion method to cover the organic luminescent layer and the patterned rib completely and continuously.