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Last updated January 31, 2026
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Lithium-rich manganese oxide stoichiometry: DysonRecent Research Landscape

Energy density ceilings in standard cathodes limit battery range, which is overcome by engineering specific molar ratios of lithium, nickel, cobalt, and manganese. Precise control of the oxide lattice structure prevents voltage fade and increases discharge capacity.

What technical problems is Dyson addressing in Lithium-rich manganese oxide stoichiometry?

Low energy density degradation

(5)evidences

Standard manganese oxide configurations suffer from limited discharge capacity and voltage fade. Increasing lithium-to-manganese ratios addresses the insufficient energy storage capacity of conventional cathode structures.

Low specific energy density

(5)evidences

Standard cathode materials suffer from limited charge storage capacity and restricted voltage windows. Increasing the lithium and manganese content addresses the fundamental capacity bottleneck in conventional layered oxides.

Cathode gas evolution

(2)evidences

Structural instability during high-voltage charging leads to oxygen release and gas buildup. Eliminating this failure mode prevents cell swelling and capacity fade.