Remotely controllable weapon station including a weapon, which is adjustably mounted in a carriage in azimuth and elevation, for combatting a target object, comprising: a display system for an optical representation of a target area of the weapon, a first unit for determining an image point, depicted on the display system, of a target point of impact of a projectile of the weapon, a second unit for determining an image point, depicted on the display system, of an actual point of impact according to image data of the actual point of impact of the projectile, the image data being recorded by means of a recording device, and a third unit for determining a deviation of the weapon in dependence on the image point determined for the target point of impact and the image point determined for the actual point of impact on the display system, wherein the third unit is configured to determine an azimuth deviation (ΔA) and an elevation deviation (ΔE) based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, characterized in that the third unit for determining the azimuth deviation (ΔA) is configured, for a plurality M of successive shots by the weapon, to set the elevation angle in each case to 0°, and to change the azimuth angle in each case by a predetermined number of degrees, to determine a value for the azimuth deviation (ΔA) for each of the successive shots based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, respectively, and to determine the azimuth deviation (ΔA) using a probabilistic method applied to the M values for the azimuth deviation, and the third unit for determining the elevation deviation (ΔE) is configured, for a plurality M of successive shots by the weapon, to set the azimuth angle in each case to 270° and to change the elevation angle in each case by a predetermined number of degrees, to determine a value for the elevation deviation (ΔE) at each of the successive shots based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, respectively, and to determine the elevation deviation (ΔE) using a probabilistic method applied to the M values for the elevation deviation, and a fire control computer for controlling of the weapon using the determined azimuth deviation (ΔA) and the determined elevation deviation (ΔE) is provided. a display system for an optical representation of a target area of the weapon, a first unit for determining an image point, depicted on the display system, of a target point of impact of a projectile of the weapon, a second unit for determining an image point, depicted on the display system, of an actual point of impact according to image data of the actual point of impact of the projectile, the image data being recorded by means of a recording device, and a third unit for determining a deviation of the weapon in dependence on the image point determined for the target point of impact and the image point determined for the actual point of impact on the display system, wherein the third unit is configured to determine an azimuth deviation (ΔA) and an elevation deviation (ΔE) based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, characterized in that the third unit for determining the azimuth deviation (ΔA) is configured, for a plurality M of successive shots by the weapon, to set the elevation angle in each case to 0°, and to change the azimuth angle in each case by a predetermined number of degrees, to determine a value for the azimuth deviation (ΔA) for each of the successive shots based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, respectively, and to determine the azimuth deviation (ΔA) using a probabilistic method applied to the M values for the azimuth deviation, and the third unit for determining the elevation deviation (ΔE) is configured, for a plurality M of successive shots by the weapon, to set the azimuth angle in each case to 270° and to change the elevation angle in each case by a predetermined number of degrees, to determine a value for the elevation deviation (ΔE) at each of the successive shots based on the determined image point of the target point of impact and on the determined image point of the actual point of impact on the display system, respectively, and to determine the elevation deviation (ΔE) using a probabilistic method applied to the M values for the elevation deviation, and a fire control computer for controlling of the weapon using the determined azimuth deviation (ΔA) and the determined elevation deviation (ΔE) is provided.