High lithium storage capacity, rate capability, and cycle stability are made possible by the mesoporous structure and 1D nanorod form, which provide a fast diffusion channel for electron/mass transfer while maintaining structural integrity during charged-discharge operations. One may also construct 1D carbon nanorods utilising 1D MOF nanorods and volatile Zn components as precursors . 1D tubular MOF-based nanostructures were investigated for a variety of uses, including separation and sensing in catalysis. It was discovered that the MOF's hierarchical porosity and dimensionality increased the analyte's mass transport efficiency toward the catalytic and adsorption sites. Due to their structural characteristics (hybrid nature, excellent tunability, large surface area, changeable pore diameters, etc.), MOFs have attracted a lot of interest in energy-related applications like SCs . With only one or a few atomic layers of thickness and a large proportion of unsaturated metal sites, which are frequently utilised as active sites, Metallenes, derived from MOFs, are recently created 2D metallic materials that are perfect for heterogeneous catalysis . A greater amount of electron transfer occurs during catalysis, particularly electrocatalysis, because of the more linked atoms in metallenes than in conventional thin metal nanoparticles .