Vibration damper, comprising a container pipe, an inner pipe, a piston, a piston valve device, a bottom valve device, an overflow pipe, an electrically controllable first control valve, and an electrically controllable second control valve, the inner pipe being arranged in the container pipe, the piston being arranged so as to be axially movable in the inner pipe and dividing an interior of the inner pipe into two working chambers (AK1, AK2), the piston valve device being arranged on the piston and being designed to allow an overflow of damping medium between the working chambers (AK1, AK2) in a rebound stage and in a compression stage of the vibration damper, a compensation chamber being provided between the inner circumference of the container pipe and the outer circumference of the inner pipe, the overflow pipe being arranged between the inner pipe and the container pipe and providing a first additional flow path (Ü1) from one of the working chambers to the compensation chamber, the first control valve cooperating with the first additional flow path in order to check an overflow of damping medium via the first additional flow path, the second control valve cooperating with a second additional flow path (Ü2) from the other working chamber to the compensation chamber in order to check an overflow of damping medium via the second additional flow path (Ü2), and portions of the first control valve and portions of the second control valve protruding radially outward from the container pipe, characterized in that the bottom valve device connects one of the working chambers to the compensation chamber in order to allow an overflow of damping medium between said working chamber and the compensation chamber in the rebound stage and in the compression stage of the vibration damper, the overflow pipe has an end portion which is beveled with respect to the longitudinal axis of the vibration damper, the first control valve is attached to this beveled end portion, and the second control valve is arranged at the level of the beveled end portion with respect to the longitudinal axis of the vibration damper. the inner pipe being arranged in the container pipe, the piston being arranged so as to be axially movable in the inner pipe and dividing an interior of the inner pipe into two working chambers (AK1, AK2), the piston valve device being arranged on the piston and being designed to allow an overflow of damping medium between the working chambers (AK1, AK2) in a rebound stage and in a compression stage of the vibration damper, a compensation chamber being provided between the inner circumference of the container pipe and the outer circumference of the inner pipe, the overflow pipe being arranged between the inner pipe and the container pipe and providing a first additional flow path (Ü1) from one of the working chambers to the compensation chamber, the first control valve cooperating with the first additional flow path in order to check an overflow of damping medium via the first additional flow path, the second control valve cooperating with a second additional flow path (Ü2) from the other working chamber to the compensation chamber in order to check an overflow of damping medium via the second additional flow path (Ü2), and portions of the first control valve and portions of the second control valve protruding radially outward from the container pipe, characterized in that the bottom valve device connects one of the working chambers to the compensation chamber in order to allow an overflow of damping medium between said working chamber and the compensation chamber in the rebound stage and in the compression stage of the vibration damper, the overflow pipe has an end portion which is beveled with respect to the longitudinal axis of the vibration damper, the first control valve is attached to this beveled end portion, and the second control valve is arranged at the level of the beveled end portion with respect to the longitudinal axis of the vibration damper.