the ultra-large solid-liquid interface, the pressure-induced intrusion of liquid into nanopores can contribute to a highly efficient energy absorption system [7; 8]. Such advanced energy absorption system has the potential application for high-performance protection devices to protect the personnel and civil infrastructures from impact [9; 10; 11; 12; 13]. In comparison with the various types of materials developed for impact protection, the nonwetting liquid-hydrophobic nan-porous system possesses the advantages of high energy absorption efficiency [14], ultra-fast energy dissipation rate [14], and fully reusability after up to thousands of cyclic loadings. However, not all of the tested nonwetting liquid-hydrophobic nanopores systems are reusable [15]. For a number of porous materials, it has been observed that the confined liquid tends to be \"locked\" inside the nanopores after intrusion [16; 17], and may flow out again after certain irritation, such as lifting the system temperature [18]. For a steady use, the stability of the nonwetting liquid dispersed in the porous material has been studied in a number of works. [PERSON] et al. [19] reported a jump phenomenon in a water and hydrophobic zeolites system and introduced a jump avoidance criterion through the frequency response function analysis. [PERSON] et al. [20] studied the physical mechanism to describe the formation process of a stable state of nonwetting liquid filling porous material. [PERSON] et al. [21] constructed models representing the pore structures of amorphous, mesoporous silica pellets, and explained the physical processes of mercury retraction and entrapment in silica materials. Results showed that the portion of liquid confined in porous materials varies with the porosity, the average radius, the width of the pore size distribution, the concentration of substances in water, and the temperature. To improve the system's reusability, experiments on the behaviors of nanoporous energy absorption systems that were subjected to cyclic loadings and the molecular dynamic simulations on mechanisms of liquid intrusion into nanopores have also been carried out. Adding chemical additives into water/nanopores systems can modify the inner surface of the porous material, change liquid-solid interaction, and improve the system's recoverability by assisting the liquid outflow. [PERSON] et al. [22] found the system recoverability to be strongly dependent on the NaCl concentration. As NaCl concentration increased from 0% to 25.9 wt. %, the recoverability was improved by a factor of 3. [PERSON] et al. [23] reported a defiltration control method of the zeolite ZSM-5/liquid system by adding sodium hydroxide (NaOH). They believed the infiltration of NaOH aqueous solutions would increase the density of silanol (Si-OH) groups on the inner surface of the porous ZSM-5, which helped to convert the originally hydrophobic surface to hydrophilic that ceased the liquid outflow. Lifting the system temperature is beneficial in establishing a recoverable and reusable energy absorption system. Correspondingly, the weakened intermolecular forces and temperature sensitivity of liquid viscosity may contribute to the infiltration and outflow process at a higher temperature level. [PERSON] and [PERSON] [24] improved the system recoverability significantly by lifting system temperature in a water/hydrophobic mesoporous silica system. [PERSON] et al. [18] conducted cyclic loading experiment on a glycerol/ZSM-5 zeolite system, indicating that higher system temperature enable to enlarge the entry area of the nanochannels and to trigger the outflow of glycerol molecules. As gas is inevitable in a liquid/nanoporous system, gaseous phase trapped in nanoholes plays an important role in the system's reversibility. In 2007, [PERSON] et al. [25] reported that the gas-liquid interaction to be an indispensable factor in nanoenvironments.