Recently, the anti-icing, [1][2][3] self-cleaning, [4,5] and anticorrosion [6][7][8] applications of super-hydrophobic surface inspired by the lotus-leaf have received extensive attention in industry and daily life. [9][10][11][12] However, these functional surfaces rely on the micro/nanostructures to trap air, which causes unavoidable failure of its liquid-repelling performance under conditions of pressure and friction. To overcome the shortcomings of the super-hydrophobic surfaces, slippery liquid-infused porous surfaces (SLIPSs) are designed so that lubricant liquid is injected into the porous surface and exhibited antiwetting behavior. These surfaces display an ultra-lubricated and chemically continuous liquid lubricant interface that rapidly restores damaged areas through the fluidity of the liquid lubricant, providing inherent low hysteresis and self-healing properties. [13][14][15] Such functional surfaces show great application prospects in microbial corrosion inhibition [16][17][18] and energy harvesting. [19,20] The formation of stable SLIPS requires chemically stable lubricating oil, as well as a structured surface to store lubricating oil and provide sufficient capillary force. However, the application of the SLIPS under actual working conditions faces environmental shear stresses to fluids, friction damage, or the evaporation loss of liquid lubricant due to the continuous exposure to air, all of which affect the capillary phenomenon that holds the lubricant, leading to surface failure. [21] Based on this, a two-scale functional structure is proposed to prepare wear-resistant surfaces, where microstructures provide wear resistance and nanostructures provide water repellence. This strategy is applied in various materials and demonstrated universal applicability. [22,23] The micro-nano structure is effective to deal with wear resistance, but it does