Empowering hydrogen storage performance of B4C3 monolayer through decoration with lithium: A DFT study

This paper explores the merits of a recently proposed 2D material, the B4C3 monolayer, for hydrogen storage by adsorption. The monolayer is decorated by Li to enhance adsorption. Density Functional Theory (DFT) is used to find the adsorption energy and electronic structure, while molecular dynamics runs to ensure the thermodynamic stability of the systems. The present study results show that a concentration corresponding to 3 Li atoms per unit cell is the optimal configuration for H-2 storage, as it has good adsorption energy from-0.23 to-0.24 eV, the gravimetric capacity of 6.22 wt% within the requirements and desorption at room temperature. The current study outcomes concluded the conceivable utilization of the 3Li/B4C3 adsorptive medium for hydrogen storage applications.

Automated summary

This paper explores the merits of a recently proposed 2D material, the B4C3 monolayer, for hydrogen storage by adsorption. The study shows that the monolayer decorated with Li has good adsorption energy and a gravimetric capacity of 6.22 wt%. The optimal configuration is found to be a concentration of 3 Li atoms per unit cell.