Electrode Thermal Treatment TRIZ Cases

Basic copper salt cathodes reduce humidity sensitivity and extend shelf life while maintaining rapid activation speed.

Transition metal-doped nitrogen carbon anchors polysulfides in nanostructured pores, preventing shuttle effect and capacity fade.

Sulfur-nitrogen-codoped carbon nanotube composite resolves low sulfur utilization and rapid capacity fading in lithium-sulfur batteries.

Composite coatings suppress gas generation during high temperature storage while maintaining the high output characteristics of the core material.

A positive electrode active material precursor powder with a crystallization temperature of 490°C or lower undergoes thermal treatment to form a stable structure.

Calcined lithium manganate particles with controlled sulfur content mitigate manganese dissolution to sustain high-temperature cycle retention.

High-temperature firing of composite electrode material forms dense structure, resolving manufacturing density constraints while boosting power.

Heat treatment near the melting point transforms lithium impurities into a stable boron oxide layer, suppressing side reactions.

A lithium-molybdenum-containing coating layer forms between primary particles to protect surfaces and reduce interfacial resistance in cathode active materials.

Amorphous lithium tungsten oxide coating adheres uniformly to cathode cores at low firing temperatures.

Covalently grafted polymers on silicon particles prevent hydrogen formation in aqueous media, maintaining high capacity and cycle stability.

A complexometric precursor formulation method synthesizes lithium metal oxide nanopowders via controlled nucleation on gas bubble surfaces.

Hyperporous silicon flakes buffer volume expansion and enhance conductivity in lithium secondary batteries.

Dual substitution with lithium borate and aluminum oxide reduces sintering energy consumption while maintaining high lithium ion conductivity.

Asymmetric hollow electrodes prevent dendrite growth and side reactions, enabling safe high-capacity lithium metal batteries.

Flash lamp annealing creates multi-phase silicon-metal structures that absorb volume changes during lithiation cycles.

Coating a polymerization initiator on the separator enables room-temperature gelation of electrolyte monomers inside the battery case.

Deposits liquid compositions on a removable substrate to form a combined positive electrode and current collector structure.

Metal oxide coatings and substitution doping stabilize lithium cobalt oxide surfaces at high voltages, preventing structural degradation.

Direct heat conduction via a large wrap angle heating roller eliminates external air feeding systems, lowering production costs and facility size.

A saddle-like silicon carbon precursor material with recessed parabolic surfaces enhances mechanical strength during electrode sheet rolling.

Nitrogen-doped carbon coatings on electrode particles enhance electron conductivity and lithium ion diffusion without sintering.

Uniform tungsten coating on cathode active material reduces reaction resistance and stabilizes battery characteristics.

A core-shell lithium composite transition metal oxide particle with a layered core and rock-salt shell enhances thermal stability.

Organic washing with multivalent carboxylic acid removes lithium salt impurities from cathode active material without causing surface damage.

In situ doping consumes inactive oxygen to form silicate buffers, reducing volume expansion and improving initial coulombic efficiency.

Porous flexible carbon matrix accommodates lithium-sulfur electrode volume changes, maintaining electrical contact and preventing polysulfide diffusion.

Replacing rigid metal cans with a segmented flexible pouch structure prevents electrode cracking and resistance fluctuations under repeated mechanical stress.

Lithium phosphate forms a protective film on active material particles to inhibit oxidative decomposition and improve high voltage durability.

Calcium diffusion creates a concentration gradient in positive electrode active material particles.

A mixed layer containing active material and a specific matrix enhances lithium-ion conductivity in all-solid-state batteries.

A composite oxide with a high-nickel core and nickel-poor shell improves charge-discharge characteristics while preventing material deterioration.

Fibrous carbon mesh covers silicon anode cores to prevent cracking from volume expansion, extending cycle life.

Negative electrode active material particles with controlled diameter distribution stabilize the solid electrolyte interphase film on current collectors.

Sequential zirconium oxide and lithium zirconium oxide layers coat lithium composite oxide particles.

Balancing sulfur and halogen cyclic carbonate additives prevents positive electrode deterioration under high temperatures, maintaining discharge capacity.

Cathode made from copper sulfate monohydrate and anhydrous copper sulfate mixture with conductive carbon powder resolves slow activation in water.

Calcining a nickel precursor onto lithium metal oxide creates a stable interface film that enables continuous ion diffusion at voltages below 1 V.

Spherical carbon nanotubes with controlled density resolve agglomeration issues to enhance battery performance at low temperatures.

Two-stage mixing of lithium, cobalt, and phosphorus compounds at controlled temperatures produces uniform precursor materials.

A composite cathode active material with a multi-phase coating layer minimizes residual lithium and side reactions to extend battery lifespan.

Electron donating groups in a buffering zone mask lithium ion charges to prevent dendrite growth and enable fast charging rates.

A hydrothermal process creates a Si@C core/shell structure that accommodates volume expansion while preserving electrical conductivity and cycling stability.

A sagger with a side wall notch and rounded edge manages gas flow during secondary battery active material firing.

A precursor solution coats active material particles with a dense lithium salt layer to improve electrode adhesion.

Molybdate salt sintering agent expands primary particles in solid solution cathodes, increasing electrode density and battery capacity per unit volume.

A lithium metal composite oxide with a controlled NiO layer and specific surface area suppresses oxygen release, improving thermal stability and energy density.

Columnar amorphous silicon forms vaulted arches that dissipate lithiation stress, maintaining mechanical stability and capacity.

Co-precipitating lithium and manganese salts to form a carbonate precursor, eliminating washing steps that increase production time.

Composite particles with a porous carbonaceous layer accommodate silicon expansion while an inner covering layer blocks electrolyte contact to prevent side reactions and improve battery reliability.