NOVELTY - The dynamic accelerated reaction battery comprises a battery cell, cylinder-like electrodes of first and second polarities located with the cell, an electrolyte chamber for flowing electrolyte between the cell's electrodes of first and second polarities, a unit for pumping electrolyte through the electrodes, a unit for creating Taylor Vortex Flows (TVF) in the electrolyte chamber, a unit for creating Circular Couette Flows (CCF) in the electrolyte chamber, and a unit for providing relative motion between an electrode and the electrolyte chamber.    USE - Used as a dynamic accelerated reaction battery.    ADVANTAGE - The dynamic accelerated reaction battery has improved performance and lifespan, high current density and energy density, and fast charge/discharge rate performance.    DETAILED DESCRIPTION - The dynamic accelerated reaction battery comprises a battery cell, cylinder-like electrodes of first and second polarities located with the cell, an electrolyte chamber for flowing electrolyte between the cell's electrodes of first and second polarities, a unit for pumping electrolyte through the electrodes, a unit for creating Taylor Vortex Flows (TVF) in the electrolyte chamber, a unit for creating Circular Couette Flows (CCF) in the electrolyte chamber, a unit for providing relative motion between an electrode and the electrolyte chamber and between one electrode of one polarity separated from another electrode of another polarity by the electrolyte chamber, a second cell containing an electrode of one polarity separated by the electrolyte chamber from another electrode of another polarity, a unit for electrically connecting one of the electrodes in the first cell to the electrodes that have opposite polarity in the second cell, a unit for spinning a first electrode such as an anode of the first cell within another electrode of the first cell and spinning an electrode of the opposite polarity to that of the first electrode of the first cell within and relative to another electrode of the second cell, a membrane dividing the electrolyte chamber into a first semi-electrolyte-chamber adjacent to the first electrode and a second semi-electrolyte-chamber adjacent to the second electrode, a unit for providing relative motion between the membrane and the electrodes, a unit for discharging the cell, a unit for pumping electrolyte through the anode electrode during the cell discharge cycle, a fuel cell, a balance of plant that includes a unit for using exothermic heat energy and water from the fuel cells to maintain optimum battery cell temperature and optimum battery cell electrolyte pH, a unit for sequestering water from the fuel cell to provide make-up water to the electrolyte in the battery cell, a unit for rotating both the battery electrode and the fuel cell electrode to create TVF and CCF in both the battery cell electrolyte chamber and the fuel cell electrolyte chamber, a unit for cycling hydrogen and oxygen gases produced by the battery cell into fuel and oxygen consumed by the fuel cell, a unit for creating laminar CCF in the electrolyte chamber, protuberances extending from one of the electrodes into the laminar CCF in the electrolyte chamber, a unit for admixing catalyst nanoparticles with the electrolyte to promote the formation of water molecules from oxygen and hydrogen gas in the electrolyte. One electrode of one polarity is located within one electrode of another polarity, and the electrode of one polarity rotates relatively within the electrode of another polarity. The electrolyte flows: into the electrolyte chamber after flowing through an anode electrode when the cell is in a discharge cycle; and through the anode into the semi-electrolyte chamber adjacent to the anode when the cell is in the discharge cycle. One of the electrodes comprises: an isotropic 3-dimensional open-pore-structure foam sponge with nanometer-diameter pores; and smaller diameter scaffold struts made by a process in which one metal element is removed from an alloy of that metal by selective dissolution to yield the nanoporous metal foam sponge for absorbing electrolyte. The nanoporous metal foam sponges (340) comprise an alloy having face-centered cubic geometry with a Miller Index of (1,1,1), and an alloy having a perovskite structure of (1,1,1). The TVF creating unit comprises: a first cylinder-like electrode enclosing a second cylinder-like electrode separated from the first by an electrolyte chamber of gap distance d and length L; a unit for rotating one electrode surface with respect to the other at Omega radians per second; a unit for pumping electrolyte into and out of the chamber at a total volumetric exchange rate of U1/U, where U is the volume of electrolyte in the chamber and U1 is the volumetric rate of flow into and out of the chamber; and a unit for regulating the volumetric exchange rate of axial flow and Taylor Number Tc of vortex flow in the electrolyte such that, Tc=2r2 Omega 2d3(1+(r1/r2)) greater than 1,715 (f(Ra)) and Rc=( Omega r1d/v) less than or equal to 104, where f(Ra)=1+(0.297)(log10Ra)(4.04342) for Ra greater than or equal to 1, f(Ra)=1 for Ra=0-1, r1=radius of the electrode of the first polarity, r2=radius of the electrode of the second polarity, d=r1-r2, v=kinematic viscosity of electrolyte= mu (poise)/p (grams/cc), Ra=(dL/v)(U1/U), U1/U less than or equal to 0, RPM=30 Omega / pi and coordinates of d and RPM are within a zone of operable parameters.    DESCRIPTION OF DRAWING(S) - The diagram shows a cross-sectional view of a dynamic accelerated reaction battery.    Shaft (16)    Spin axis (17)    Electric motor (18)    Electrical conductors (46)    External electrical circuit. (48)