Abstract:
PROBLEM TO BE SOLVED: To provide a transparent conductive film exhibiting excellent transparency, conductivity and gas barrier properties, and to provide an organic thin film solar cell having excellent conversion efficiency and temporal stability.SOLUTION: A transparent conductive film 1 sequentially includes, on a plastic film substrate 10, a gas barrier layer 20 in which at least one organic layer 21 and at least one inorganic layer 22, having a steam permeability of 5×10g/m/day or less, are formed alternately so that the uppermost layer is the inorganic layer 22, and a conductive layer 30 having auxiliary metal wiring 32 formed by patterning a plurality of thin metallic wires having a plurality of apertures 32p, and a transparent conductive layer 31 composed of a transparent conductive resin filling at least the apertures 32p.
Abstract translation:要解决的问题:提供透明性,导电性和阻气性优异的透明导电膜,提供转换效率和时间稳定性优异的有机薄膜太阳能电池。解决方案:透明导电膜1依次包括在 塑料薄膜基板10,其中交替地形成有至少一个有机层21和至少一个具有5×10g / m 2 /天的蒸气渗透率的无机层22的阻气层20,使得最上层是 无机层22和具有辅助金属布线32的导电层30,该导电层30通过图案化多个具有多个孔32p的细金属线而形成,以及由填充至少孔32p的透明导电树脂构成的透明导电层31。
Abstract:
PROBLEM TO BE SOLVED: To provide a photoelectric conversion device enabling a reduction of thickness dimension without reducing a light emission area and a light reception area, and provide a method for manufacturing the same.SOLUTION: A photoelectric conversion device 1 includes a first substrate 11, a first electrode 12, an organic layer 15, a second electrode 16, and a second substrate 17 which are arranged in this order. An auxiliary electrode 13 is disposed between the first electrode 12 and the organic layer 15. As the photoelectric conversion device 1 is seen in a cross section in a direction of the thickness of the first substrate 11, the thickness dimension of the auxiliary electrode 13 is larger than the thickness dimension of the organic layer 15.
Abstract:
PROBLEM TO BE SOLVED: To provide a transparent conductive film which has high conductivity and achieves good physical device property when used as an electrode of an organic electronic device, and to provide a method for manufacturing the transparent conductive film and an organic electronic device which has high generation efficiency, such as an organic thin film solar cell.SOLUTION: A transparent conductive film 10 includes a support medium 12, conductive meshes 14 disposed on the support medium, a conductive fiber layer 16 disposed on an opening 20 of each conductive mesh and the conductive meshes so as to be in contact with the conductive meshes and containing conductive fiber and binder, and a hole transport polymer layer 18 having volume resistivity higher than volume resistivity of the conductive fiber layer and disposed on the conductive fiber layer.
Abstract:
A method for producing an organic radiation-emitting component is specified, which comprises, in particular, the following method steps: A) providing a first electrode layer (2) on a substrate (1), B) applying a structured electrically conductive layer (3) on the first electrode layer (2), wherein the electrically conductive layer (3) comprises a metal, C) producing an electrically insulating layer (4) comprising an oxide of the metal of the electrically conductive layer (3) on surfaces (31) of the electrically conductive layer (3) which are remote from the first electrode layer (2) by oxidation of the metal, D) applying at least one organic functional layer (5) on the first electrode layer (2) and the electrically insulating layer (4), and E) applying a second electrode layer (9) on the at least one organic functional layer (5). An organic radiation-emitting component is furthermore specified.
Abstract:
PROBLEM TO BE SOLVED: To provide a light-weighted, thin, and flexible photoelectric conversion device which can improve conversion efficiency, and its manufacturing method.SOLUTION: The manufacturing method of the photoelectric conversion device has: a first process to form a porous carbon layer 12 on a face of a conductive sheet 10; a second process to form a porous insulating layer on the face of the conductive sheet to cover the porous carbon layer; a third process to form a current collecting grid 20 on the face of the porous insulating layer; a fourth process to form a porous metal oxide semiconductor layer on the face of the porous insulating layer to cover the current collecting grid; a fifth process to make the porous metal oxide semiconductor layer carry a dye; a sixth process to permeate an electrolytic solution in the porous metal oxide semiconductor layer, the porous insulating layer, and the porous carbon layer; and a seventh process to form a translucent sealing layer 22 to cover at least the porous insulating layer and the porous metal oxide semiconductor layer.