Nickel Cadmium Spacecraft Battery Charge Control with Auxiliary Electrodes
Nickel-cadmium spacecraft battery with auxiliary charge control electrode
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Nickel-cadmium spacecraft battery with auxiliary charge control electrode
Radiation effects on silver and zinc battery electrodes
Radiation effects on silver-zinc battery electrodes
Gamma radiation effects on silver and zinc battery electrodes
Radiation effects on silver and zinc electrodes in silver-zinc battery
Effect of radiation on nickel-cadmium battery electrodes
Gamma radiation effects determined on silver and zinc battery electrodes and silver-cadmium cells
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Not provided.
A battery electrode composition is provided that comprises composite particles. Each of the composite particles in the composition (which may represent all or a portion of a larger composition) may comprise a porous electrode particle and a filler material. The porous electrode particle may comprise active material provided to store and release ions during battery operation. The filler material may occupy at least a portion of the pores of the electrode particle. The filler material may be liquid and not substantially conductive with respect to electron transport.
Embodiments include an iron-air rechargeable battery having a composite electrode including an iron electrode and a hydrogen electrode integrated therewith. An air electrode is spaced from the iron electrode and an electrolyte is provided in contact with the air electrode and the iron electrodes. Various additives and catalysts are disclosed with respect to the iron electrode, air electrode, and electrolyte for increasing battery efficiency and cycle life.
Supercapacitors are widely recognized as a favorable option for energy storage due to their higher power density compared to batteries, despite their lower energy density.
Previous reports have shown how a battery model was developed using porous electrode theory. Since then the model has been upgraded and expanded. These upgrades include oxygen reation and positive electrode intercalation and proton diffusion. The effects of additional details of the solid state physics of the nickel electrode will be reported here.
Lithium and copper electrode studies in research and development of high capacity nonaqueous secondary battery
This project, funded by the U.S. Department of Energy under Award DE-EE0009248, advances the domestic development of fuel-cell stack technologies for heavy-duty transportation applications. The work directly supports the Million-Mile Fuel Cell Truck (M2FCT) initiative by improving performance, durability, and manufacturability—key requirements for next-generation hydrogen fuel-cell systems.
X-ray diffraction patterns of nickel-cadmium battery electrodes and stabilization of nickel oxides and hydroxides
Identification and characterization of battery active compound structures formed on nickel oxide electrode during charging and discharging