Solid Electrolytes TRIZ Cases

Elastic locking portions anchor the conductive plate in container holes to keep contact stable and maintain sealability despite thickness variation.

A lithium-salt-free fluoroelastomer and sulfide particle electrolyte improves current-collector adhesion and flexibility without sacrificing ionic conductivity.

A Li-Cl-F solid electrolyte balances high ionic conductivity with stronger reduction resistance, supporting safer, higher-energy all-solid-state batteries.

Low-dew-point exposure before press molding suppresses electrode warpage while preserving sulfide electrolyte ionic conductivity.

A porous interlayer and dry-process binder improve constituent uniformity in high-loading electrodes, cutting resistance and extending cycle life.

A ZrxSi1-xO2/TiO2 coating on LATP improves ionic conductivity, capacity retention, and thermal stability in solid-state lithium-ion batteries.

Nitrogen incorporation forms P-N bonds that suppress moisture-driven H2S release while preserving lithium-ion conductivity in sulfide solid electrolytes.

A chelating compound in a solid electrolyte boosts room-temperature lithium-ion conductivity and suppresses dendrite growth in all-solid-state batteries.

A Li-P-Sn-S-X electrolyte composition uses controlled mixing and low-temperature heat treatment to raise ion conductivity in solid-state batteries.

A gel polymer electrolyte bonds the anode current collector to the separator to suppress dendrites, prevent short circuits, and extend cycle life.

A symmetrical cell with controlled SOC enables stable electrochemical signal measurement without disassembling all-solid-state batteries.

Matching plasticizer and salt levels across redox and electrolyte layers improves adhesion, ion transport, and durability in electrochromic IGU windows.

Remote plasma sputtering from non-parallel lithium and transition-metal targets forms crystalline layers with controlled stoichiometry without annealing.

Remote plasma sputtering forms crystalline solid-state battery cathode layers without post-annealing, cutting energy use and substrate damage.

Specific Li-Ca-Y-Gd oxide-halide ratios avoid hydrogen sulfide release while maintaining high lithium-ion conductivity in solid-state batteries.

Controlling Si-solid electrolyte overlap within a measured range lowers initial resistance while preserving energy density and conductivity.

Specific additive compounds reduce particle friction in sulfide solid electrolytes, enabling denser layers with high ionic conductivity.

A lithium halide and lithium titanium halide coating blocks cathode–electrolyte side reactions while preserving ionic conductivity and cycle life.

Mixed halogen-free and halogenated closo-borate salts lower cation mobility activation energy and boost solid electrolyte conductivity below 60°C.

An unsaturated-bond binder concentrated around Si active material limits peeling during cycling and helps suppress battery resistance increase.

A PEDOT:PSS-ceramic-lithium salt solid electrolyte improves adhesion and lowers interfacial resistance to boost ion and electrical conductivity.

Full-surface laser irradiation in a controlled atmosphere forms a passivation layer on lithium, reducing dendrites and interfacial resistance.

A dual-chamber battery layout uses a breathable waterproof membrane to isolate adsorbent powder while removing hydrogen sulfide.

Inorganic nanotubes and solid electrolyte particles improve separator heat resistance, wettability, and Li-ion transport while lowering battery resistance.

A particulate-and-fibrous binder membrane boosts strength, preserves ionic conductivity, and limits negative-electrode side reactions.

A moisture reservoir sub-layer buffers humidity swings, sustaining charge generation and more stable electric output even in dry conditions.

A sulfide electrolyte coating on cathode active particles expands interfacial contact, speeding ion transport in all-solid-state batteries.

Fibrous sulfide electrolyte in the cathode preserves ion paths during volume change, lowering interfacial resistance and improving rate capability.

Mechanical milling without post-heat treatment avoids sulfur volatilization, grain growth, and energy loss while maintaining high lithium-ion conductivity.

Balancing anode capacity below 50% of the cathode and using 2D sulfide solid electrolyte helps maintain ion paths and suppress dendrites.

A multilayer battery pouch exterior balances low weight with strong heat sealing and load resistance, maintaining integrity at 150°C.

A ZrO2 and Li6Zr2O7 cathode coating improves interfacial stability and lithium-ion transport, extending battery capacity and cycle life.

Combining sulfide-based and halogen-based batteries in one module balances high output with safer fire containment and stable capacity.

Offset outer electrodes and groove-filled conductive bonding reduce parasitic capacitance while improving pulse cycling and energy density.

Low-temperature cross-linking and solvent exchange keep polymer chains amorphous, boosting ionic conductivity without plasticizers.

Selected ether, halogen, or Si-O-C solvents improve sulfur-free solid electrolyte dispersibility without degrading ion conductivity.

Fe mixed with sodium salts forms a composite cathode that lifts capacity in sodium, lithium, and potassium batteries beyond conventional cathodes.

An elastic conductive member and embedded porous metal substrate keep solid-state battery electrodes connected without sacrificing sealing.

Ionic liquid and urea groups help composite electrolytes balance conductivity, strength, and electrode interface contact in solid-state batteries.

A gallium-magnesium bilayer anode improves solid-state battery cycle retention while preserving the high output voltage of lithium-alloy materials.

An integrated side-surface reference electrode layout simplifies three-electrode solid-state battery measurement while improving stability and accuracy.

Controlled carbide distribution in a sintered electrolyte layer improves fracture resistance while preserving insulation to reduce self-discharge.

A frame-shaped insulating reinforcement stiffens the sheet edge to prevent damage and short circuits while preserving a large ion conduction region.

A P-O and B-O bond coating suppresses resistive interfacial layers in sulfide solid-state cathodes while preserving lithium ion conductivity.

High-strength single-particle cathodes and a sulfide solid electrolyte limit cracking from cycling-induced pressure, extending battery life.

A thin foil-like or pore-like electrode chamber cuts crack formation and sodium volume, improving Na-S battery wall safety and durability.

Fluorine introduced by topotactic reaction helps cubic garnet lithium oxide overcome solid electrolyte conductivity limits for Li-ion batteries.

High-pressure pressing with organic sintering agents forms gas-tight ion-conducting ceramic layers at lower temperatures, limiting shrinkage and phase damage.

A compliant inorganic-polymer electrolyte composite maintains electrode contact, supports thin-film processing, and helps suppress dendrites.