Iron carbide nanoparticles integrated with carbon nanotubes were created using a dual-MOF restricted pyrolysis approach . Iron carbide nanocrystalline integrated with carbon nanotubes encased in a porous carbon matrix were used to create a complex structured composite material using a unique . When creating MOF-derived 1D nanomaterials, which would be employed as self-templates, the precise manufacture of 1D MOF regulated the morphology and preserved chemical or thermal transformation. One method for making 1D carbon nanorods uses 1D MOFs nanorods with unstable Zn-components as originators. The precursors of the MOFs were dissolved, and unstable Zn species were eliminated via a pyrolysis reaction at 1000 ºC using rod-shaped Znbased MOFs as their template. 1D carbon nanorods were produced as a result, and they might be employed as electrode resources for SC applications . A combination of very porous nitrogen-doped C and CNTs was made using a MOF-based technology. In this system, the Ni species acted as a catalyst, and the Zn-based MOF and injected urea functioned as nitrogen and carbon resources, respectively .