Abstract: Provided is a solder-metal mesh composite material in which a lead-free solder layer formed of Sn—Cu—Ni-based lead-free solder contains metal mesh having high thermal conductivity, a void occupancy in a cross-section in a thickness direction is 15% or less, and the Sn—Cu—Ni-based lead-free solder contains 0.1 to 2% by weight of Cu, 0.002 to 1% by weight of Ni, and Sn as a remainder or contains 0.1 to 2% by weight of Cu, 0.002 to 1% by weight of Ni, 0.001 to 1% by weight of Ge, and Sn as a remainder.

Abstract: A method of manufacturing a solar cell electrode comprising steps of: preparing a semiconductor substrate, applying a conductive paste onto the light receiving side of the semiconductor substrate, wherein the conductive paste comprises (i) a conductive powder, (ii) a glass frit, (iii) an organic polymer comprising an elastomer and (iv) an organic solvent; and firing the applied conductive paste.

Abstract: A method of manufacturing an electrical device comprising steps of: preparing a substrate; applying a conductive paste onto the substrate, wherein the conductive paste comprises (i) an inorganic powder comprising at least a conductive powder, (ii) an organic polymer, (iii) a solvent and (iv) a gellant selected from the group consisting of a polyalkyleneoxy terminated polyamide (PAOPA), an ester terminated polyamide (ETPA), polyether polyamine (PEPA) and a mixture thereof; and heating the applied conductive paste to form an electrode.

Abstract: A method of manufacturing an electrical device comprising steps of: preparing a substrate; applying a conductive paste onto the substrate, wherein the conductive paste comprises (i) an inorganic powder comprising at least a conductive powder, (ii) an organic polymer, (iii) a solvent and (iv) a gellant selected from the group consisting of a polyalkyleneoxy terminated polyamide (PAOPA), an ester terminated polyamide (ETPA), polyether polyamine (PEPA) and a mixture thereof; and heating the applied conductive paste to form an electrode.

Abstract: A method of manufacturing a solar cell electrode comprising steps of: preparing a semiconductor substrate, applying a conductive paste onto the light receiving side of the semiconductor substrate, wherein the conductive paste comprises (i) a conductive powder, (ii) a glass frit, (iii) an organic polymer comprising an elastomer and (iv) an organic solvent; and firing the applied to conductive paste.

Abstract: Disclosed are: a method for production of an organic-inorganic complex by intercalation of a positively charged organic compound between layers of a non-swellable layered silicate which is believed to be difficult to achieve under convenient conditions; the organic-inorganic complex; and a layered silicate/polymer nanocomposite using the organic-inorganic complex. The method comprises: step (I) wherein a hydrous layered silicate having a hydroxyl group in its crystalline structure is heat-treated at a temperature not higher than 1,200° C. and lower than the phase transition temperature of the silicate to dehydrate the silicate; and step (II) wherein the dehydrated layered silicate is contacted with an aqueous solution of a positively charged organic compound.

Abstract: Disclosed are: a method for production of an organic-inorganic complex by intercalation of a positively charged organic compound between layers of a non-swellable layered silicate which is believed to be difficult to achieve under convenient conditions; the organic-inorganic complex; and a layered silicate/polymer nanocomposite using the organic-inorganic complex. The method comprises: step (I) wherein a hydrous layered silicate having a hydroxyl group in its crystalline structure is heat-treated at a temperature not higher than 1,200° C. and lower than the phase transition temperature of the silicate to dehydrate the silicate; and step (II) wherein the dehydrated layered silicate is contacted with an aqueous solution of a positively charged organic compound.