Abstract: The present invention provides an OLED display device and a manufacturing method thereof, in which a planarization layer (5) of a white sub pixel zone (40) is made to have a thickness greater than the thickness of a planarization layer (5) of the other sub pixel zones so as to increase the vertical distance between bottom wiring (2) and a first electrode (6) in the white sub pixel zone (40) thereby compensating the problem that the vertical distance between the bottom wiring (2) and the first electrode (6) of the white sub pixel zone (40) is relatively small resulting from lacking of a filter in the white sub pixel zone (40) and preventing the occurrence of shorting or over current between the first electrode (6) and the bottom wiring (2) of the white sub pixel zone (40).

Abstract: A sealing method for the glass plate comprises the following steps: Step 1) forming a glass hollowing area on the first glass plate for receiving the electronic components on the second glass plate; Step 2) dividing two glass sealing areas respectively from the glass plates, the two glass sealing areas are aligned to each other with the glass plates face to face; Step 3) filling the inactive gas into an attaching apparatus to adhere the two glass plate together, the atmospheric pressure in the glass hollowing area is 0.95˜1.0 atm; Step 4) moving the laser along the glass sealing area to weld the two glass plates together. During the welding process of the glass plates, the two glass plate can be adhered together without adhesive or glass dust. The environment pollution will be reduced. The produce processes will be simplified without the coating or wiping off the dissolvent processes.

Abstract: The present invention provides an OLED device packaging method and an OLED device packaged with the method.

Abstract: The present invention provides a curvature adjustable display device, which includes a base (3), a display panel (1) arranged on the base (3), a rear cover (2) arranged rearwards of the display panel (1) and having a bottom extending into an interior of the base (3), connection sections (21) arranged in the interior of the base (3) and respectively connected to two opposite side edges of the rear cover (2), an adjustment mechanism (4) arranged in a front portion of the base (3), and two chains (20) arranged in the interior of the base (3) and each having two ends respectively connected to the connection sections (21) and the adjustment mechanism (4).

Abstract: The present invention provides a method and a device for peeling a photoresist layer. The method for peeling a photoresist layer includes: (1) providing an already-etched substrate (20) from which a photoresist layer is to be removed; (2) irradiating the photoresist layer to be removed with high-energy ultraviolet light so as to achieve full exposure of the substrate (20); (3) applying a developer solution to develop and wash the exposed substrate (20); (4) using water/air dual-flow and deionized water to remove residue of the developer solution from the substrate (20) that has been washed with the developer solution; (5) applying air knife cleaning to the substrate (20) from which the residue of the developer solution has been removed and after the air knife cleaning, employing a hot plate (27) to carry out a drying operation on the substrate (20) to complete the removal of the photoresist layer.

Abstract: The present invention provides an organic p-n junction based infrared detection device and a manufacturing method thereof and an infrared image detector using the device. The organic p-n junction based infrared detection device (40) includes: an active glass substrate (42) and a packaging glass substrate (44) that are arranged to be parallel to and opposite to each other, a plurality of organic p-n junctions (43) arranged between the active glass substrate (42) and the packaging glass substrate (44), and a package material (48) arranged on a circumferential marginal area of the active glass substrate (42) and the packaging glass substrate (44). The plurality of organic p-n junctions (43) is arranged in the form of a matrix on the active glass substrate (42).

Abstract: The present invention provides an OLED element, a substrate (1), an OLED thin film element (2), being positioned on the substrate (1), an organic package thin film (3), being positioned on the substrate (1) and completely covering the OLED thin film element (2), an inorganic package thin film (4), being positioned on the substrate (1) and completely covering the organic package thin film (3), a protective cover (5) sealing the peripheric edges of the substrate (1) and mantling on the inorganic package thin film (4) and a rigid support plate (6) positioned at a side of the protective cover (5) away from the substrate (1). The OLED element of the present invention possesses the better mechanical property and is hard to be damaged by an external force. Meanwhile, the better airtightness protection can be provided to the OLED thin film element.

Abstract: The invention provides a color display device structure, including a substrate (1), an anode (21), a thin film transistor array (23), a hole injection layer (24), a hole transport layer (25), a light emitting layer (26), an electron transport layer (27), a cathode (28), a cover plate (3), a color conversion layer (4) formed on the inner side of the cover plate (3), and a sealant (6). The light emitting layer (26) is a blue and green light emitting layer (26). The color conversion layer (4) includes a blue filter unit (41), a green filter unit (43) and a red conversion unit (45) separated one another. The blue light and the green light emitted by the blue and green light emitting layer (26) is filtered to become blue light by the blue filter unit (41). The blue light and the green light emitted by the blue and green light emitting layer (26) is filtered to become green light by the green filter unit (43).

Abstract: The present disclosure relates to an electroluminescent diode device, comprising a transparent flexible substrate which is successively disposed with a first protective layer, an anode, a hole transport layer, a UV light emitting layer, a hole blocking layer, an electron transport layer, and a cathode, wherein the UV light emitting layer comprises a UV light emitting material which is at least one selected from the group consisting of fluorenes, triphenylamines, and quinquephenyls.

Abstract: The present invention discloses a display device. The display device includes an OLED display and a voltage converter. The OLED display used for displaying images comprises at least one pixel comprising red, green and blue sub-pixels and arranges an OPV cell used for converting solar energy into electrical energy. The voltage converter is used for converting voltage of the electrical energy. The present invention also discloses a method that the display device converts solar energy into electrical energy.

Abstract: The invention provides a color display device structure, including a substrate (1), an anode (21), a thin film transistor array (23), a hole injection layer (24), a hole transport layer (25), a light emitting layer (26), an electron transport layer (27), a cathode (28), a cover plate (3), a color conversion layer (4) formed on the inner side of the cover plate (3), and a sealant (6). The light emitting layer (26) is a blue and green light emitting layer (26). The color conversion layer (4) includes a blue filter unit (41), a green filter unit (43) and a red conversion unit (45) separated one another. The blue light and the green light emitted by the blue and green light emitting layer (26) is filtered to become blue light by the blue filter unit (41). The blue light and the green light emitted by the blue and green light emitting layer (26) is filtered to become green light by the green filter unit (43).

Abstract: The present invention provides an organic p-n junction based ultraviolet detection device and an ultraviolet image detector using the device. The organic p-n junction based ultraviolet detection device (40) includes: an active glass substrate (42) and a packaging glass substrate (44) that are arranged and opposite to each other, a plurality of organic p-n junctions (43) arranged between the active glass substrate (42) and the packaging glass substrate (44), and a packaging material (48) arranged along a circumferential edge area of the active glass substrate (42) and the packaging glass substrate (44). The plurality of organic p-n junctions (43) is arranged in the form of an array on the active glass substrate (42).

Abstract: The present disclosure relates to an electroluminescent diode device, comprising a transparent flexible substrate which is successively disposed with a first protective layer, an anode, a hole transport layer, a UV light emitting layer, a hole blocking layer, an electron transport layer, and a cathode, wherein the UV light emitting layer comprises a UV light emitting material which is at least one selected from the group consisting of fluorenes, triphenylamines, and quinquephenyls.

Abstract: The present invention provides a color OLED device and method of fabricating the same. The color OLED device includes an OLED substrate, an OLED cover adhered to the OLED substrate and a color conversion layer formed on the OLED cover. The OLED substrate includes an OLED element formed thereon, and the OLED element includes a light emitting layer. The color conversion layer includes a plurality of quantum dots, light emitting from the light emitting layer is converted to colored light with the plurality of quantum dots in the color conversion layer. According to present invention, a color OLED device can be colorized with the plurality of quantum dots in the color conversion layer; moreover, with the characteristics of the plurality of quantum dots, a thickness of the color OLED device including the light emitting layer can be shrunken, lifetime, and color purity thereof can be enhanced.

Abstract: The present invention provides an infrared OLED display device and the manufacturing method thereof. Wherein, the infrared OLED display device comprises multiple infrared OLED units, which are used to display infrared image; a solar cell, which is used to absorb sunlight and then convert it to electrical energy; a transformer, which is used to transform the voltage of the electrical energy generated from the solar cell to the voltage of power for the infrared OLED units; and a rechargeable battery, which is used to store the electrical energy after the transformer converts the voltage and to provide the power for the infrared OLED units; wherein, the solar cell is connected with the transformer, the transformer is connected with the rechargeable battery, and the rechargeable battery is connected with the multiple infrared OLED units.

Abstract: The present invention provides a glass packaging structure, comprising an active glass substrate and a packaging glass substrate. An active area is formed upon the active glass substrate. Glass packaging lines are formed on a surface of the packaging glass substrate and the glass packaging lines protruding from the packaging glass substrate. The packaging glass substrate entirely overlapping upon the active glass substrate and then the glass packaging lines are irradiated by a laser to couple the packaging glass substrate and the active glass substrate.

Abstract: The present invention provides OLED panel and a manufacturing method thereof and a method for inspecting packaging effectiveness, which use a hygroscopically expandable polymeric substance mixed in a metal compound salt to make a moisture-sensitive color change film.

Abstract: The present inversion provides an organic display device comprising at least infrared display pixel, the infrared display pixel includes a transparent substrate which is deposited with a first electrode layer, an infrared organic light emitting layer and a second electrode layer thereon, and the infrared organic light emitting layer is filled with an infrared light emitting material. The present invention can allow the organic display device to carry out large area of infrared display; and the present invention uses the flexible transparent substrate, so as to conveniently use and carry the organic display device.

Abstract: The present disclosure relates to an organic light-emitting diode (OLED) device and the method for manufacturing the same. The OLED device includes an OLED substrate, on the inner surface of which a plurality of OLEDs are arranged; and a package substrate arranged opposite to the inner surface of the OLED substrate, wherein the OLED substrate and the package substrate are welded and hermetically connected together through a metal solder located therebetween, so that the OLEDs are hermetically packaged between the OLED substrate and the package substrate. In this OLED device, the OLED substrate and the package substrate are hermetically connected together by using the metal solder, so that water and the oxygen can be prevented from entering a sealed area from the exterior, thus prolonging the service life of the OLED device.