Electrolyte Moving Arrangements TRIZ Cases

See how separable manifold members with male connecting portions and sealing members enable qui

See how a segmented connecting fitting with nested rotating structure enables firm pipe attachm

Bottom-to-top coolant channels improve cooling uniformity across battery cells and also remove heat from the BMS within the pack.

A retaining ring and abutment-guided curved fitting keep a pipe connection secure while allowing rotation for different coupling angles.

Movable cathode discs and a spinning anode keep electrode spacing stable, enabling constant power and quick anode replacement.

Corrugated separator spaces and ultrasonic cavitation improve electrolyte flow, heat dissipation, and impurity handling in lithium batteries.

Turbulent or pseudoturbulent electrolyte flow improves ion distribution in redox flow cells, cutting diffusion losses while raising power density.

Shared electrolyte channels in the battery shell unify cell-core electrolyte conditions, improving large-capacity battery consistency, yield, and safety.

A transducer-triggered shear-thickening electrolyte raises viscosity during shorts, reducing ionic conductivity and stabilizing electrochemical cells.

Magnetohydrodynamic convection drives electrode-surface bubbles into a gas pocket, improving battery electrolyte impregnation and reducing pre-aging time.

A monitored valve-and-pump design flushes electrolyte with non-conductive liquid to curb thermal runaway and lower ignition risk.

Ultrasonic waves applied to battery electrolyte during activation charging improve impregnation, reduce gas, and preserve structural stability.

Controlled electrolyte circulation removes formation heat in lead-acid batteries, cutting swelling risk and shortening cell formation time.

Flow-guiding grooves in the end cover assembly redirect electrolyte from vibration-induced gaps back to the electrode assembly, reducing waste.

Modular stiffener batteries circulate electrolyte through hollow channels, combining vehicle structure with scalable metal-air energy storage.

Limiting protrusions and shielded flow-guiding grooves route electrolyte from the end cover gap back to the collector disk during vibration.

Integrating metal-air battery modules into vehicle stiffeners with pumped electrolyte boosts energy density, payload capacity, and serviceability.

A membrane-free Zn/MnO2 flow battery uses reversible zinc and manganese reactions to improve cycling stability and energy density for grid storage.

Pump-driven electrolyte flow through porous electrodes boosts ion mobility and limits dendrite growth, extending rechargeable cell cycle life.

Electrolyte sharing across parallel battery cells reduces cell inconsistency, improving capacity, cycle life, and thermal runaway resistance.

Separate positive, negative, and electrolyte modules use looped channels to isolate thermal runaway risk while enabling refill, maintenance, and recycling.

A shared electrolyte pipeline links parallel prismatic cells to balance heat, simplify cooling, and improve battery pack safety and life.

An elastic bottom support and concave case floor stabilize the electrode assembly under impact while improving electrolyte distribution.

Staggered support protrusions keep battery cells compressed while preserving electrolyte flow paths and cooling efficiency.

Orthogonal, non-overlapping support protrusions keep battery cell flow paths open for electrolyte circulation, cooling, and module reliability.

An inverted inlet-and-air-hole layout speeds battery wick wetting by venting displaced air and preventing bubble trapping.

A collapsible electrolyte reservoir uses pyrotechnic heating and pressure-driven collapse to speed reserve battery activation in extreme cold.

Phase-change electrolyte transfer recovers liquefied gas and battery salt while preserving fire safety and wide-temperature lithium metal cycling.

Porous anodes and circulating molten carbonate electrolyte help direct carbon fuel cells form triple phase boundaries and raise carbon conversion.

A side-and-bottom vapor chamber redirects electrode assembly heat to reduce top-bottom cell temperature differences and extend pack life.

A side-and-bottom vapor chamber redirects heat from the electrode assembly to the cooling plate, reducing cell temperature differences and extending pack life.

A ring-and-mediator inlet structure reduces electrolyte impact, preventing jelly-roll deformation while improving cylindrical cell impregnation.

Spent electrode materials are removed and replenished in a refuelable primary battery, enabling lower-cost seasonal grid energy storage.

Grooves, tapered stream guidance holes, and reinforcing features let a thinner battery end cover maintain insulation, strength, and molding efficiency.

Circulating electrolyte between an external tank and zinc gel electrodes stabilizes KOH concentration, limiting dendrites and electrode deposition.

Preconditioning electrolyte in a receiving tank enables continuous, temperature-stable supply and simpler lot management for battery production.

Rotating a lead-acid battery while applying alternating pulses homogenizes sulfuric acid and restores discharge capacity and charge acceptance.

Reservoirs, pumps, and return conduits keep metal-air battery electrolyte at controlled levels, improving long-duration reliability and performance.

A selectively gas-permeable membrane lets hydrogen enter a sealed hollow chamber for reliable leak detection while protecting sensor elements.

A microfluidic pump circulates electrolyte from a separate lithium source half-battery to pre-lithiate cells with lower cost and safer handling.

Openings in axial-end metal pieces let electrolyte reach the separator in wound cells while preserving conductivity and reducing delamination risk.

Tapered stream-guidance holes, grooves, and concave regions help a thin battery end-cover plastic part manage electrolyte while maintaining insulation.

A porous flow-guiding component improves electrolyte infiltration around side tabs, reducing lithium precipitation and extending battery life.

Directional sound waves remove air bubbles after electrolyte injection, speeding impregnation and improving charging uniformity in lithium cells.

Rotating a lead-acid battery during charging homogenizes sulfuric acid concentration and restores discharge capacity and charge acceptance.

Varying-flow reflux channels redistribute electrolyte and gas in a battery cell, preventing uneven wetting and gas buildup during cycling.

A downward capillary element returns accumulated electrolyte into the electrode gap, extending vehicle battery cell service life without pumps.

A non-uniform magnetic field separates redox ions to generate heat-driven current, avoiding outlet- or solar-dependent charging.

A detachable capped injection hole enables vacuum electrolyte filling and gas removal without complex sealing facilities, cutting cost and improving output.

Differential reflux channels return more electrolyte to the cell center, limiting gas buildup and preserving uniform distribution over time.

Rotating columnar battery cells during electrolyte infiltration speeds wetting, improves full penetration, and reduces production time.

Real-time electrolyte circulation adjusts pH, flow, and salt concentration to improve aqueous battery safety, conductivity, and stability.

A manganese redox flow battery uses titanium ions to stabilize the positive electrolyte and maintain high electromotive force.

A control system regulates fuel utilization in a fuel cell stack by adjusting electrical load based on detected pressure.