text: MOFs with high surface area, redox active organic linker/metal nodes, intrinsic conductivity have attracted attention as electrode materials for electrochemical energy storage. First Conductive MOF-based electrochemical double layer capacitor (EDLC) was reported by Dinca and co-workers in 2017. They used Ni(HITP) MOF for the fabrication of the device without using conductive additives which are mixed to enhance the conductivity. The resulting electrodes showed a gravimetric capacitance of 111 F g and areal capacitance of 18 μF cm at a discharge rate of 0.05 A g. These electrodes also exhibited a capacity retention of 90% after 10000 cycles. A conductive MOFs based on hexaaminobenzene (HAB) organic linker and Cu/Ni metal ions has been tested as electrode for supercapacitor. Ni-HAB and Cu-HAB exhibited gravimetric capacitance of 420 F g and 215 F g respectively. The pellet form of Ni-HAB electrode showed a gravimetric capacitance of 427 F g and volumetric capacitance of 760 F g. These MOFs also exhibited a capacitance retention of 90% after 12000 cycles. First conductive MOF based cathode material for Lithium-ion battery was reported by Nishihara and co-workers in 2018. In this study they employed Ni(HITP) MOF, It exhibited a specific capacity of 155 mA h g, specific energy density of 434 Wh kg at A current density of 10 mA g, and good stability over 300 cycles. In another study, two MOFs based on 2,5‐dichloro‐3,6‐dihydroxybenzoquinone (Cldhbqn) organic linker and Fe metal ions have been employed for Lithium ion battery. (HNMe)Fe(Cldhbq) (1) and (HNMe)Fe(Cldhbq)(SO) (2) showed electrical conductivity of 2.6×10 and 8.4×10 S cm respectively. (2) exhibited discharge capacity of 165 mA h g at a charging rate of 10 mA g) and (1) exhibited 195 mA h g at 20 mA g and a specific energy density of 533 Wh kg.