Method for manufacturing a coated body having at least a surface coated with a coating comprising a nanolaminated structure of alternating A nano-layers of (Al x Ti 1-x-y W y)N, with 0.50 ≤ x ≤ 0.65 and 0 ≤ y ≤ 0.10, where the coefficients given by x, 1-x-y and y correspond to the atomic concentration of aluminum, titanium and tungsten, respectively, considering only the elements aluminum, titanium and tungsten for the element quantification in the A nano-layers, and B nano-layers of (Ti 1-z-u Si z W u)N, with 0.05 ≤ z ≤ 0.30 and 0 ≤ u ≤ 0.10, where the coefficients given by 1-z-u and u correspond to the atomic concentration of titanium, silicon and tungsten, respectively, considering only the elements titanium, silicon and tungsten for the element quantification in the B nano-layers, the nanolaminated structure having a thickness between 0.01 and 30 μm and the A and B nano-layers having individual average thickness between 1 and 200 nm, wherein at least one arc vaporization source comprising a target consisting of coating source material is used for the deposition of the nanolaminated structure, the method characterized in that the at least one arc evaporation source comprises a magnetic field arrangement provided on the target for generating magnetic fields on and above the target surface, wherein the magnetic field arrangement comprises marginal permanent magnets, a centric permanent magnet and at least one ring coil placed behind the target, whose inner diameter defined by the windings is smaller than or equal to, and in any case not considerably larger than the diameter of the target, and during the deposition of the nanolaminated structure the marginal permanent magnets are positioned away from the target, at a distance of several millimeters in relation to the target, in such a manner that the projection of the marginal permanent magnets onto the target surface is further away from the middle of the target surface by comparison to the projection of the ring coil onto the target surface, and the centric permanent magnet is positioned back away rear in relation to the target, wherein - the nanolaminated structure doesn't exhibit a columnar structure but exhibits a fine grained structure characterized by comprising fine grains whose grain boundary doesn't extend to the substrate across the coating thickness, - the fine grains have approximately the same dimensions in all directions, - the nanolaminated structure exhibits a ratio of the peak width PW I_10/90 which is less than 7.5, preferably less than 7, where - - PW I _ 10 / 90 ° = ° PW I _ 10 ⁢ % / PW I _ 90 ⁢ %, - PW I_10% and PW I_90% are the meaning full width of the peak 200 at 10% and 90% of the maximum peak intensity, respectively, and - the 200 peak is measured using X-ray diffraction with CuKα radiation at approximately 43° in the 2θ axis, and the diffraction line is corrected regarding contribution from CuKα 2 radiation, diffraction statistics (smoothening) and background. - the nanolaminated structure doesn't exhibit a columnar structure but exhibits a fine grained structure characterized by comprising fine grains whose grain boundary doesn't extend to the substrate across the coating thickness, - the fine grains have approximately the same dimensions in all directions, - the nanolaminated structure exhibits a ratio of the peak width PW I_10/90 which is less than 7.5, preferably less than 7, where - - PW I _ 10 / 90 ° = ° PW I _ 10 ⁢ % / PW I _ 90 ⁢ %, - PW I_10% and PW I_90% are the meaning full width of the peak 200 at 10% and 90% of the maximum peak intensity, respectively, and - - PW I _ 10 / 90 ° = ° PW I _ 10 ⁢ % / PW I _ 90 ⁢ %, - PW I_10% and PW I_90% are the meaning full width of the peak 200 at 10% and 90% of the maximum peak intensity, respectively, - the 200 peak is measured using X-ray diffraction with CuKα radiation at approximately 43° in the 2θ axis, and the diffraction line is corrected regarding contribution from CuKα 2 radiation, diffraction statistics (smoothening) and background.