Organic Electrolyte Cells TRIZ Cases

Low surface area manganese oxide cathodes reduce gas evolution and prevent battery rupture while eliminating pre-discharge steps.

A lithium primary battery negative electrode incorporates a specific electrolyte additive and narrow resin tape to prevent adhesive void degradation.

A protective film on the cathode prevents solvent decomposition in organic electrolytic solutions.

Lithium mixed transition metal oxides reduce final discharge voltage to 1.5 V, increasing capacity by 10-20% compared to traditional LCO materials.

Gradient ceramic distribution in the electrolyte layer maintains battery performance by resisting deformation-induced short circuit loads.

An anode thickness variation at the outermost wind position mitigates premature voltage drop-off on intermittent discharge tests.

A vitreous eutectic mixture of lithium fluorosulfonimides and sulfonamides serves as a non-flammable electrolyte for lithium ion batteries.

Amorphous copper manganese oxide cathode material produces a distinct voltage plateau for accurate end-of-life detection in non-aqueous cells.

Aluminum halide complexes in ether solvents boost magnesium battery discharge capacity to 99% of theoretical limits without increasing size.

A specialized electrolyte additive initiates polymerization at high voltages to increase electrode resistance and consume overcharge current.

Novel aromatic redox shuttle additives stabilize lithium-ion battery electrolytes against overcharge conditions through reversible electrochemical reactions.