Correction to “Research on the Mid‐Infrared Anti‐Reflection Performance of Disordered Porous Structures”

In the "ABSTRACT" section, the text "Horizontal line scanning at 10 m spacing and 50 mm s 1 speed yields the best performance with 0.041% reflectance."was incorrect.This should have read: "Horizontal line scanning at 10 m spacing and 50 mm s 1 speed yields the best performance with 4.1% reflectance."In paragraph 3 of the "Introduction" section, the text "Guo et al. [17][18][19] fabricated groove structures with varying dimensional parameters on metals such as Pt, Au, Ag, Ti, Al, and W using ultrafast lasers.In the wavelength range of 250-2500 nm, their total reflectivity decreased to 5-10%; in the range of 2.5-16 m, the surface reflectivity was also significantly reduced compared to polished metal surfaces.However, as the wavelength increased, the surface reflectivity rapidly rose to 40%.Fan et al. [20] used femtosecond lasers to fabricate microcone structures on Cu, Ti, and W metal surfaces.In the 400-2000 nm range, the average reflectivity of the textured metal surfaces was 4.1, 2.4, and 3.2%, respectively.They also proposed combining picosecond lasers with hightemperature oxidation to fabricate microcone structures with nanowires on copper surfaces, further improving copper's antireflection properties.In the range of 14-18 m, the average reflectivity remained stably below 3%". [21] was incorrect.This should have read: "Guo et al. [17][18][19] fabricated groove structures with varying dimensional parameters on metals such as Pt, Au, Ag, Ti, Al, and W using ultrafast lasers.In the wavelength range of 250-2500 nm, their total reflectance decreased to 5-10%; in the range of 2.5-16 m, the surface reflectance was also significantly reduced compared to polished metal surfaces.However, as the wavelength increased, the surface reflectance rapidly rose to 40%.Fan et al. [20] used femtosecond lasers to fabricate microcone structures on Cu,