Abstract: A method of preparing a transparent conductive film (100) comprising the steps of: —applying a nano-silver composition on a substrate thereby forming a nano-silver coating (20) on the substrate (10), —imagewise exposing the nano-silver coating with Near Infrared (NIR) radiation (40) thereby forming exposed and non-exposed areas, and —removing (70) the non-exposed areas of the nano-silver coating.

Abstract: A method of preparing a conductive silver pattern on a substrate comprising the steps of: applying a silver ink on the substrate to form a silver pattern, and sintering the applied silver pattern in one step at a temperature of at least 50° C. and a relative humidity (RH) of at least 50%.

Abstract: A method of preparing a conductive pattern on a substrate includes the steps of applying a receiving layer on a substrate, applying a metallic nanoparticle dispersion on the white receiving layer thereby forming a metallic pattern, and sintering the metallic pattern, characterized in that the receiving layer has a roughness Rz between 1 and 75.

Abstract: A method of preparing a conductive pattern on a substrate includes the steps of applying a receiving layer on a substrate, applying a metallic nanoparticle dispersion on the white receiving layer thereby forming a metallic pattern, and sintering the metallic pattern, characterized in that the receiving layer has a roughness Rz between 1 and 75.

Abstract: Disclosed is a smart information carrier containing a security element laminated with a transparent polymer foil having a melting point higher than 150° C. and the security element is surrounded by an edge at least 1 mm wide in which the transparent polymer foil on each side of the security element are laminated to one another, the security element including an IC-module and a fibre-containing continuous support, wherein the support is security printed on at least the side of the support nearer to the IC-module and the IC-module is encapsulated with a transparent polymer or polymer mixture with a melting point up to 150° C. wherein the transparent polymer or polymer mixtures also coats the side of the support nearer to the IC-module. Also disclosed is a method of preparing the smart information carrier.

Abstract: A smart information carrier comprising a security element having two sides each side being laminated with at least one transparent polymer foil having a melting point higher than 150° C. so that the security element is surrounded by an edge at least 1 mm wide in which the at least one transparent polymer foil on each side of the security element are laminated to one another, the security element comprising an IC-module and a natural fibre-containing or synthetic fibre-containing continuous support exclusive of an antenna, the IC-module comprising an electronic chip and an antenna integrated therein, wherein the support is security printed on at least the side of the support nearer to the IC-module and the IC-module is at least substantially encapsulated with a transparent polymer or polymer mixture with a melting point up to 150° C.

Abstract: An electroluminescent device comprising a transparent or translucent support, a transparent or translucent first electrode, a second conductive electrode and an electroluminescent phosphor layer sandwiched between the transparent or translucent first electrode and the second conductive electrode, wherein the first and second electrodes each comprises a polymer or copolymer of a 3,4-dialkoxythiophene, which may be the same or different, in which the two alkoxy groups may be the same or different or together represent an optionally substituted oxy-alkylene-oxy bridge; a display comprising the above-mentioned electroluminescent device; a lamp comprising the above-mentioned electroluminescent device; manufacturing processes for the above-mentioned electroluminescent devices; and the use of such devices for the integrated backlighting of static and dynamic posters and signage.

Abstract: An electroluminescent device comprising a transparent or translucent support, a transparent or translucent first electrode, a second conductive electrode and an electroluminescent phosphor layer sandwiched between the transparent or translucent first electrode and the second conductive electrode, wherein the first and second electrodes each comprises a polymer or copolymer of a 3,4-dialkoxythiophene, which may be the same or different, in which the two alkoxy groups may be the same or different or together represent an optionally substituted oxy-alkylene-oxy bridge; a display comprising the above-mentioned electroluminescent device; a lamp comprising the above-mentioned electroluminescent device; manufacturing processes for the above-mentioned electroluminescent devices; and the use of such devices for the integrated backlighting of static and dynamic posters and signage.

Abstract: An electroluminescent device comprising a transparent or translucent support, a transparent or translucent first electrode, a second conductive electrode and an electroluminescent phosphor layer sandwiched between the transparent or translucent first electrode and the second conductive electrode, wherein the first and second electrodes each comprises a polymer or copolymer of a 3,4-dialkoxythiophene, which may be the same or different, in which the two alkoxy groups may be the same or different or together represent an optionally substituted oxy-alkylene-oxy bridge; a display comprising the above-mentioned electroluminescent device; a lamp comprising the above-mentioned electroluminescent device; manufacturing processes for the above-mentioned electroluminescent devices; and the use of such devices for the integrated backlighting of static and dynamic posters and signage.

Abstract: An electroluminescent device comprising a transparent or translucent support, a transparent or translucent first electrode, a second conductive electrode and an electroluminescent phosphor layer sandwiched between the transparent or translucent first electrode and the second conductive electrode, wherein the first and second electrodes each comprises a polymer or copolymer of a 3,4-dialkoxythiophene, which may be the same or different, in which the two alkoxy groups may be the same or different or together represent an optionally substituted oxy-alkylene-oxy bridge; a display comprising the above-mentioned electroluminescent device; a lamp comprising the.above-mentioned electroluminescent device; manufacturing processes for the above-mentioned electroluminescent devices; and the use of such devices for the integrated backlighting of static and dynamic posters and signage.