A wind turbine, comprising: a wind-driven rotor for converting wind energy to a mechanical driving force; a power converter for converting the driving force to exploitable power; and a drive train for rotatably transmitting the driving force from the wind-driven rotor to the power converter, the drive train comprising: at least one rotatable driving element configured to provide at least one torsional resonance frequency in the drive train; a first detuner having at least one first mass element with a first mass inertia and at least one first elastic element with first elastic properties, the first mass element and the first elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is influenced by said first mass inertia and said first elastic properties; and a second detuner having at least one second mass element with a second mass inertia and at least one second elastic element with second elastic properties, the second mass element and the second elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is further influenced by said second mass inertia and said second elastic properties, wherein said first and second detuners are configured to provide attenuation of the torsional resonance frequency in an overlapping frequency range. a wind-driven rotor for converting wind energy to a mechanical driving force; a power converter for converting the driving force to exploitable power; and a drive train for rotatably transmitting the driving force from the wind-driven rotor to the power converter, the drive train comprising: at least one rotatable driving element configured to provide at least one torsional resonance frequency in the drive train; a first detuner having at least one first mass element with a first mass inertia and at least one first elastic element with first elastic properties, the first mass element and the first elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is influenced by said first mass inertia and said first elastic properties; and a second detuner having at least one second mass element with a second mass inertia and at least one second elastic element with second elastic properties, the second mass element and the second elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is further influenced by said second mass inertia and said second elastic properties, wherein said first and second detuners are configured to provide attenuation of the torsional resonance frequency in an overlapping frequency range. at least one rotatable driving element configured to provide at least one torsional resonance frequency in the drive train; a first detuner having at least one first mass element with a first mass inertia and at least one first elastic element with first elastic properties, the first mass element and the first elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is influenced by said first mass inertia and said first elastic properties; and a second detuner having at least one second mass element with a second mass inertia and at least one second elastic element with second elastic properties, the second mass element and the second elastic element being arranged to rotate during operation of the wind turbine, wherein said torsional resonance frequency is further influenced by said second mass inertia and said second elastic properties, wherein said first and second detuners are configured to provide attenuation of the torsional resonance frequency in an overlapping frequency range.