Non-Aqueous Electrolyte Cells TRIZ Cases

High-lithium alloy anodes curb ion transfer during faults, limiting battery heat while preserving normal power output.

An organic support with a 10-500 nm copper layer cuts collector weight while preserving conductivity, strength, and fracture resistance.

Separate battery and capacitor housings remove glue filling and soldering, simplifying assembly, lowering cost, and improving safety.

Separate battery and capacitor housings replace glue filling and soldering, simplifying assembly while improving safety, quality, and cost.

Grooved current collection pins expand electrode contact area in lithium thionyl chloride cells, raising discharge current without sacrificing energy density.

Circumferential slots on the current collection pin expand electrode contact area, raising discharge current and easing expansion stress.

Circumferential grooves enlarge current collection area in lithium thionyl chloride cells, raising discharge current and energy density.

A fluorinated or chlorinated polyolefin safety coating adds a stable PTC layer that helps block internal shorts during nail penetration.

A primer-coated anode and sulfur- or boron-containing sodium salts stabilize the SEI, cutting high-temperature gas generation and cycling loss.

Controlled manganese dioxide and conductive agent surface area cuts side reactions, swelling, and resistance growth after high-temperature storage.

A mixed ion-electron conductive sulfur transition layer suppresses polysulfide dissolution, buffers volume change, and improves battery cycling.

A mixed ion-electron conductive sulfur shell and graphene oxide transition layer improve conductivity, buffer swelling, and suppress polysulfide shuttling.

A lithium-aluminum alloy layer and carbon coating protect the lithium anode, limiting swelling at high temperature while preserving -40°C discharge.

A protruding electrode terminal and adapting component move welding shavings out of the battery cell, reducing short-circuit risk.

A constant-current secondary-cell charging signal lets a battery-powered node estimate primary-cell depletion and schedule replacement accurately.

A lithium-aluminum alloy and carbon-coated negative electrode helps non-aqueous batteries resist high-temperature degradation and low-temperature power loss.

A wound cathode wrapped at least twice expands electrode area, helping lithium primary cells deliver longer pulse current with stable output.

A polymer-supported copper current collector balances conductivity, toughness, and weight to reduce cracking and improve battery yield.

A water-responsive safety layer turns conductive in body fluids to short a button cell, lowering voltage and preventing electrolysis burns.

Radial lid channels route electrolyte past the current collector in sub-0.5 cc cells, enabling vacuum filling, full wetting, and acceptable discharge.

A siloxane-bonded silicate coating traps hydrogen sulfide in sulfur-based battery electrodes while limiting polysulfide elution.

A nano-grain copper layer on an organic support cuts collector weight while preserving conductivity, toughness, and battery reliability.

A water-responsive safety layer turns conductive in saliva or stomach fluids, shorting a button cell to prevent electrolysis and tissue burns.

A high-resistance transferable tip concentrates heat to weld nickel anode tabs to stainless-steel casings without sticking or copper contamination.

Staged pH- and temperature-controlled precipitation removes Fe, Al, Cu, Ca, Mg, and Pb while improving filtrate washing and NCM recycling yield.

A conductive polymer shell on phosphate sodium salt over carbon boosts conductivity, capacity, and cycle stability while limiting side reactions.

Subfluorinated carbon cathodes retain unfluorated regions to boost electrical conductivity, overcoming high resistivity limits at high discharge rates.

Using helium for pressure feeding prevents nitrogen dilution of the detection gas, ensuring accurate leakage measurement during battery manufacturing.

Mono[bidentate]borate salts dissolve in siloxane solvents to lower viscosity and boost ionic conductivity.

A lithium primary battery uses a composite electrolyte to enable two-stage discharging with distinct voltage levels.

A binary-output electrical switch detects when compression force overcomes a bias, triggering staple firing only within the optimal range.

A composite thickener stabilizes gel viscosity to prevent zinc powder sedimentation in alkaline batteries.

A hybrid battery merges a lithium primary cell with an electric double layer capacitor to deliver stable power output.