A method of manufacturing a current collector electrode sheet in which an active material is applied to both surfaces of a sheet-shaped metal foil, the method comprising: an application step of alternately forming a slurry application area, on which an active material layer is continuously present, and a slurry non-application area in a winding direction of the metal foil having a strip shape by intermittently applying and drying a slurry containing the active material over the metal foil having a strip shape; a first detection step of detecting a length of a tailing portion at a terminal end of each application area formed in the application step; a compression step of continuously compressing the slurry application area and the non-application area using a pair of compression rollers in a thickness direction of the metal foil on which the active materiel layer is formed; and a cutting step of continuously cutting the slurry application area and the non-application area to be parallel with the winding direction of the metal foil on which the active material layer is formed through the first detection step and the compression step, wherein the first detection step includes detecting the tailing portion which is formed continuously from the terminal end of the slurry application area to the non-application area and which satisfies the following Equation, x ≥ 2 rt min − t min 2 1 / 2 − y max − z max − w max wherein, x is a maximum value of the length of the tailing portion at the terminal end of each application area in the application step, r is a roll diameter of the compression roller used in the compression step, t min is a minimum value of an assumed thickness acquired after pressurizing compression is performed in a central portion of each application area successively formed in the application step, y max is a maximum value of a discrepancy amount of an application start position between both surfaces of the metal foil in the winding direction of the metal foil, z max is a maximum value of a discrepancy amount of an application length of the active material on both surfaces of the metal foil in the winding direction of the metal foil, and w max is a maximum value of a distance from a coating terminal end of the active material on both surfaces of the metal foil to a portion where a thickness of a coating film becomes the same as a center of a coating area; wherein, in the detection step, a position, at which the tailing portion is detected, includes a position where cutting processing is performed in the cutting step and a peripheral portion of the position. an application step of alternately forming a slurry application area, on which an active material layer is continuously present, and a slurry non-application area in a winding direction of the metal foil having a strip shape by intermittently applying and drying a slurry containing the active material over the metal foil having a strip shape; a first detection step of detecting a length of a tailing portion at a terminal end of each application area formed in the application step; a compression step of continuously compressing the slurry application area and the non-application area using a pair of compression rollers in a thickness direction of the metal foil on which the active materiel layer is formed; and a cutting step of continuously cutting the slurry application area and the non-application area to be parallel with the winding direction of the metal foil on which the active material layer is formed through the first detection step and the compression step, wherein the first detection step includes detecting the tailing portion which is formed continuously from the terminal end of the slurry application area to the non-application area and which satisfies the following Equation, x ≥ 2 rt min − t min 2 1 / 2 − y max − z max − w max wherein, x is a maximum value of the length of the tailing portion at the terminal end of each application area in the application step, r is a roll diameter of the compression roller used in the compression step, t min is a minimum value of an assumed thickness acquired after pressurizing compression is performed in a central portion of each application area successively formed in the application step, y max is a maximum value of a discrepancy amount of an application start position between both surfaces of the metal foil in the winding direction of the metal foil, z max is a maximum value of a discrepancy amount of an application length of the active material on both surfaces of the metal foil in the winding direction of the metal foil, and w max is a maximum value of a distance from a coating terminal end of the active material on both surfaces of the metal foil to a portion where a thickness of a coating film becomes the same as a center of a coating area; wherein, in the detection step, a position, at which the tailing portion is detected, includes a position where cutting processing is performed in the cutting step and a peripheral portion of the position.