For sustainable environment research on the Low-cost, scalable power storage cells are significantly increased, to overcome some of the limitations of organic redox flow battery and to enhance the power efficiency the introduction of a new type of hybrid cells derived from the bio-inspired quinonebased , electron transport and storage unit is designed for the storage of the excess renewable energy produced mainly generated by tidal and solar energy and further use of the excess energy that is stored for further utilities. The metal and organic hybrid cells show promise for storing energy with excellent efficiency , cost, and flexibility to allow those for large-scale applications. The Li-HRFB are used for long life and a high large number of charging and discharging cycles that make use of the oxidation and reduction of the metal and organic species and induce charging and discharging of the battery . Unlike traditional secondary batteries, the power-bearing species aren't saved inside an electrode shape but they are present in separate liquid reservoirs and pumped towards the electrolytic chamber and release the energy stored in the unit cell while power is being transferred. Because of this key difference, flow battery structures are extra long-lasting than traditional battery structures as electrode reactions aren't observed via way of means of modifications because of the insertion or elimination of the lively species and the organic species used in the Li-HRFB are replaceable, unlike traditional battery structures, because the power capability can be without problems and inexpensively - modulated via way of means of various the reservoir extent or the species concentration, without sacrificing energy density. Thus, whilst flow batteries might not compete with compact lithium (Li)-ion batteries for transportable applications (e.g., cell phones, and laptops). They may be wellideal for storing and holding large amounts of charge generated from renewable green energy.