Abstract: A shielding wire includes: an electric wire; and a conductive nonwoven fabric tape. The conductive nonwoven fabric tape includes a conductive nonwoven fabric and an adhesive layer. The adhesive layer adheres to the electric wire and adheres to the conductive nonwoven fabric tape that overlaps when wound in a spiral shape. Relationships of: S/tL?0.5; and (S1?S2)/tL?0.25 are satisfied, in which tis a width of the conductive nonwoven fabric tape wound in a spiral shape, L is a length of the conductive nonwoven fabric tape, S is an area of the adhesive layer in the conductive nonwoven fabric tape, S1 is an area of a lapped portion where the conductive nonwoven fabric tape overlaps when the conductive nonwoven fabric tape is wound in a spiral shape, and S2 is an area of the adhesive layer in the lapped portion.

Abstract: A shielded electric wire includes an electric wire including a conductor portion and a cover portion covering the conductor portion, a shielded braid formed of a conductive linear material, the shielded braid covering an outer periphery of the cover portion and a sheath formed of an insulating resin, the sheath being provided around the shielded braid. The electric wire and the shielded braid together form an electric wire assembly. A flexible value of the sheath is equal to or smaller than a flexible value of the electric wire assembly, the flexible value being a value of a load required for bending an object for a predetermined extent.

Abstract: A plated material containing a base material and a metal plating that covers the base material, the base material containing a main raw material free of any carbon materials, and a carbon material that is present inside the main raw material. A plating pretreatment method including a first step of preparing a base material from a main raw material free of any carbon materials and a carbon material, the base material containing the main raw material and the carbon material that is present inside the main raw material; and a second step of charging the base material into a treatment tank, and immersing the base material in a supercritical fluid or subcritical fluid containing an organometallic complex of palladium in the treatment tank.

Abstract: There are provided a conductive nonwoven fabric and a manufacturing method thereof, the conductive nonwoven fabric including: a plated felt portion including a felt portion formed of a plurality of first fibers that extend in irregular directions and that are stacked, and a metal plating applied to the first fibers of the felt portion; and at least one plated warp including a warp formed of a plurality of second fibers and the metal plating applied to the second fibers of the warp. The at least one plated warp is formed to extend in a specific direction with respect to the plated felt portion, and a density of the second fibers is higher than a density of the first fibers.

Abstract: A conductive nonwoven fabric includes: a nonwoven fabric; and a plating portion having a conductive metal and covering a fiber of the nonwoven fabric. A value obtained by dividing an electric resistance value at an intermediate layer of the conductive nonwoven fabric by an electric resistance value at a surface layer of the conductive nonwoven fabric is 4.0 or less. The intermediate layer is a layer at an intermediate position in a thickness direction of the conductive nonwoven fabric.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: A shielded electric wire includes an electric wire including a conductor portion and a cover portion covering the conductor portion, a shielded braid formed of a conductive linear material, the shielded braid covering an outer periphery of the cover portion and a sheath formed of an insulating resin, the sheath being provided around the shielded braid. The electric wire and the shielded braid together form an electric wire assembly. A flexible value of the sheath is equal to or smaller than a flexible value of the electric wire assembly, the flexible value being a value of a load required for bending an object for a predetermined extent.

Abstract: A metal-plated carbon material includes: a carbon material; and a metal layer covering a surface of the carbon material, in which, in the metal layer, crystal grains forming the metal layer have an average crystal grain size of 110 nm or less. A method of manufacturing a metal-plated carbon material, includes: a metal complex fixation step of immersing a carbon material in a supercritical fluid or subcritical fluid containing an organometallic complex of a first metal; and a first energization deposition step of energizing the metal-complex-fixed carbon material in an electroless plating solution containing a second metal.

Abstract: A metal-plated carbon material includes: a carbon material; and a metal layer covering a surface of the carbon material, in which, in the metal layer, crystal grains forming the metal layer have an average crystal grain size of 110 nm or less. A method of manufacturing a metal-plated carbon material, includes: a metal complex fixation step of immersing a carbon material in a supercritical fluid or subcritical fluid containing an organometallic complex of a first metal; and a first energization deposition step of energizing the metal-complex-fixed carbon material in an electroless plating solution containing a second metal.

Abstract: A post-fitting shield member to be post-fitted with an electric wire is a plated fiber bundle wound in coil form and formed by performing metal plating on a high-strength fiber member. A manufacturing method of a shielded wire includes an insertion step of inserting an electric wire into the post-fitting shield member having a coil shape; a first fixing step of fixing one end portion of the post-fitting shield member into which the electric wire was inserted in the insertion step; an expansion step of expanding the post-fitting shield member that was fixed in the first fixing step toward the side of its other end portion; and a second fixing step of fixing the other end portion of the post-fitting shield member that was expanded in the expansion step.

Abstract: A braid includes a plurality of metal-plated bundles braided to each other, each of the metal-plated bundle having a flattened shape. Each of the metal-plated bundle includes a plurality of tensile strength fibers, a plurality of first metal plating portions that are formed on the tensile strength fibers respectively, and a second metal plating portion including the first metal plating portions therein, the first metal plating portions having the tensile strength fibers respectively.

Abstract: A post-fitting shield member to be post-fitted with an electric wire is a plated fiber bundle wound in coil form and formed by performing metal plating on a high-strength fiber member. A manufacturing method of a shielded wire consists of an insertion step of inserting an electric wire into the post-fitting shield member having a coil shape; a first fixing step of fixing one end portion of the post-fitting shield member into which the electric wire was inserted in the insertion step; an expansion step of expanding the post-fitting shield member that was fixed in the first fixing step toward the side of its other end portion; and a second fixing step of fixing the other end portion of the post-fitting shield member that was expanded in the expansion step.

Abstract: A braid includes a plurality of metal-plated bundles braided to each other, each of the metal-plated bundle having a flattened shape. Each of the metal-plated bundle includes a plurality of tensile strength fibers, a plurality of first metal plating portions that are formed on the tensile strength fibers respectively, and a second metal plating portion including the first metal plating portions therein, the first metal plating portions having the tensile strength fibers respectively.

Abstract: A conductive resin body includes a plurality of conductive fibers which are made of at least one type of carbon fibers, high-strength fibers, and glass fibers, and which are metal plated. A metal member is electrically connected to the plurality of conductive fibers. The conductive resin body also includes resin in which a part of the metal member is buried and with which the plurality of conductive fibers are impregnated. A rest of the metal member is exposed from the resin.

Abstract: a conductive resin body includes a plurality of conductive fibers which are made of at least one type of carbon fibers, high-strength fibers, and glass fibers, and which are metal plated, a metal member which is electrically connected to the plurality of conductive fibers, and resin in which a part of the metal member is buried and with which the plurality of conductive fibers are impregnated. A rest of the metal member is exposed from the resin.