Abstract: A conductive coating composition includes graphite intercalation compounds, graphite oxides, a binder, and a dissolving agent. The graphite intercalation compounds are compounds having a sandwich structure where various atoms, molecules, etc., are inserted between layers of graphite, which is a layered material in which carbon hexagonal net planes are laminated in parallel. The binder and the dissolving agent allow the graphite intercalation compounds and the graphite oxides to be bonded. The graphite intercalation compounds and the graphite oxides are chemically bonded.

Abstract: A conductive coating composition includes graphite intercalation compounds, metal particles, a binder, and a dissolving agent. The graphite intercalation compounds are compounds having a sandwich structure where various atoms, molecules, etc., are inserted between layers of graphite, which is a layered material in which carbon hexagonal net planes are laminated in parallel. The binder and the dissolving agent allow the graphite intercalation compounds and the metal particles to be bonded. The volume of the graphite intercalation compounds in the conductive coating composition is larger than the volume of the metal particles in the conductive coating composition.

Abstract: An electrically conductive material according to an embodiment of the present disclosure comprises: a graphite structure comprising graphene layers, the graphite structure having a first surface that is an outer surface of one of two outermost layers of the graphene layers, and a second surface that is an outer surface of the other of the two outermost layers of the graphene layers; and a metal chloride located between the graphene layers. The graphite structure has holes on the first surface, the holes passing through at least one of the graphene layers toward the second surface. A number of the holes per unit area on the first surface is one or more per 1 mm2.

Abstract: A substrate with a transparent conductive layer (1) of the present invention includes a substrate (11) and a transparent conductive layer (12) disposed on the substrate (11). The transparent conductive layer (12) has a conductive region (13) and a non-conductive region (14). The conductive region (13) contains conductive fine particles (121) and a resin matrix (122). The non-conductive region (14) contains conductive fine particles (123) and the resin matrix (122). A haze value in the non-conductive region (14) is larger than a haze value in the conductive region (13).

Abstract: Provided is a transparent conductive film wherein an electrically conductive region is converted to an electrically insulating region more readily and rapidly than traditional conductive films and the level difference between the electrically conductive region and the electrically insulating region is smaller. The transparent conductive film has an electrically conductive region 4 and an electrically insulating region 5. The electrically conductive region 4 contains a resin component 10, a metal nanowire 2 and an insulation-promoting component 3. The insulation-promoting component 3 has a light absorption higher than that of the metal nanowire 2. The electrically insulating region 5 is defined by a region which contains a resin component 10 but not the metal nanowire 2 or a region which contains a resin component 10 and additionally a metal nanowire 2 having an aspect ratio of smaller than that of the metal nanowire 2.

Abstract: A substrate with a transparent conductive layer 1 of the present invention includes a substrate 11 and a transparent conductive layer 12 disposed on the substrate 11. The transparent conductive layer 12 has a conductive region 13 and a non-conductive region 14. The conductive region 13 contains conductive fine particles 121 and a resin matrix 122. The non-conductive region 14 contains conductive fine particles 123 and the resin matrix 122. A haze value in the non-conductive region 14 is larger than a haze value in the conductive region 13.