To better suppress and understand ARTI, we use 2D radiation hydrodynamic simulation to investigate the influence of laser wavelength on ARTI growth. We adjust the intensity to maintain a constant kinetic energy of the implosion fluid, thereby obtaining the relative coupling efficiency under a given intensity benchmark. Subsequently, we employ lasers of varying wavelengths and corresponding intensities to act on targets. We find that extreme ultraviolet lasers with specific wavelength ranges can better control the growth of hydrodynamic instability, thereby significantly reducing the laser energy required for fusion ignition and achieving higher fusion energy gain. In comparison, the ARTI growth rates are larger for both wavelengths longer and shorter for which the longer wavelength is traditionally used in direct-drive ICF and the shorter, used in indirect-drive. What's more, we verify the validity of the ARTI growth theory at shorter wavelengths for the first time and analyze the effects that cause deviations. This study and its achievements are beneficial for better understanding of the ICF process and perfecting the theory of ARTI growth, thereby, provide a valuable and meaningful reference for future design of inertial confinement fusion engineering.

ARTI,ICF,Simulation,Laser wavelength