TECHNOLOGY FOCUS - ELECTRICAL POWER AND ENERGY - Preferred Components: There are anode and cathode active materials contained within the electrolyte. There is a top layer positioned along the channel and resting on the spacer. Parts forming the energy storage battery are in the form of a spiral allowing the energy storage battery to be spiral shaped. The electrochemically inert and electrically insulating substrate is a substantially flat planar structure and is made from a polymer film e.g. polyethylene terephthalate (PET), polypropylene (PP), polycarbonate (PC), acrylic, Teflon and has a thickness of about 0.1 mm. Anode and cathode are similar or dissimilar materials in the same cell design. The anode and cathode are capable of being reversed in operation. The energy storage battery have conductive connector ends which are covered with conductive layers on the outer surface of the single cell energy storage battery where the conductive layers form common connection points for battery terminals. Preferred Parameters: The anode and cathode have a thickness of about 10 microns and are made from electrically conductive material e.g. carbon, carbon as graphite or graphene, carbon polymer composite, carbon metal composite, gold, platinum, silver, palladium copper, molybdenum, nickel, zinc, aluminum, iron; metal alloys e.g. zinc nickel, nickel iron, metal oxides e.g. indium tin oxide, ruthenium oxide, lithium cobalt oxide, porous or fibrous conductor e.g. from elemental carbon or graphite or graphene; and carbon allotrope forms such as carbon graphite and carbon graphene; and 'conducting polymer films e.g. polyaniline, polythiophene, poly(3,4-ethylenedioxythiophene) poly(styrenesulfonate) or combinations of layers, e.g. carbon coated on copper or aluminum film. The substrate and the anode and cathode electrodes have a spacer layer of about 0.2 mm in thickness located on their outer sides. The energy storage battery contains at least an organic acid battery electrolyte between pH of 3 and 6 comprising zinc, manganese, acetate and chloride ions in aqueous or organic solvent which self-forms separate cathode (manganese oxides) and anode (metallic zinc) chemistries on applying a charging voltage and current between anode and cathode electrodes. Preferred Process: The channel is filled and deposited with the required amount of electrolyte i.e. chemical material. Electrolyte is pumped into the channel in a battery comprising a stack of multiple cells with each cell having an entry hole alternating through the layers so as to fill the battery with minimal air entrapment; electrolyte is pumped into the channel in a battery comprising a spiral form with filling holes and the start and exit holes at the end of each cell within the spiral shape battery so as to fill the battery with minimal air entrapment; electrolyte is pumped into the channel in a battery comprising a stack or spiral and where new electrolyte can be flushed through after charging to replenish the previous electrolyte fill so as to increase the battery power or to re-life the battery; or the electrolyte is deposited onto the substrate and electrodes and confined within the channel and where optionally the deposition occurs directly so that the cathode and anode pastes are applied to the electrodes followed by electrolyte. Chemicals forming the aqueous or organic based electrolyte are in the form of liquid or paste forms, e.g. a lithium salt in an organic electrolyte e.g. ethylene carbonate. At least two or more of multiple single cell energy storage batteries are laminated together. In manufacturing energy storage battery, substrate is first of all selected and then conductive layers are deposited. The substrate is a series of cards or a continuous web of material in a reel to reel process. The conductive layers are patterned to define the conductive geometries making the electrodes and the conductive connector ends. Spacer layers are bonded together to form the channel. The substrate is a series of cards, and the process involves laminating over the next substrate layer over the channel thus confining any chemicals in the channel and where the layering is then repeated until sufficient power specification is met and the top of the channel is blanked off using an insulating substrate. The substrate is in the form of a reel, the channel is covered by rolling a sub-assembled web onto itself thus confining the chemicals with the underside of the substrate and winding is continued until the end of the web and the conductive connector ends are coated with a conductive material to form a common connection point for the battery terminals. The electrolyte is pumped into the battery cells via filling and exiting ports.