Primary Cell To Battery Grouping TRIZ Cases

Segmented cell barrier stabilizes unit cells while enabling coolant flow paths, resolving heat dissipation trade-offs.

Plastic insulating walls isolate battery cells from metal bands, preventing short circuits during expansion.

Absorption device with support pockets captures leaked temperature-control fluid, preventing short circuits and ensuring operational reliability.

A zigzag dissipation element transfers heat from round cells through an insulating thermoplastic elastomer, resolving electrical isolation constraints.

Overlapping first and second metal layers in a battery pack lead plate reduce electrical resistance while maintaining a thin profile for compact devices.

This connecting member adjusts circuit lengths and sectional areas to equalize internal resistances, preventing current disparities that reduce battery pack lifespan.

A film covered battery casing incorporates a continuous buffer region to accumulate internal gas through structural deformation.

Staircase spacer supports battery cells via line contact to create void spaces for heat flow, resolving thermal retention that reduces battery life.

Different radii for winding start and end taps prevent ellipsoid shape deviation, reducing scratches during assembly.

A movable electrical contact on the cover adjusts position to hold different battery lengths, resolving adaptability constraints in portable devices.

Asymmetrical coupling members connect end plates and side plates, increasing space utilization within limited electric vehicle mounting areas.

Stainless steel fastener enables high torque mounting on copper terminals, reducing contact resistance under vibration.

A method selects reclaimed battery modules using relative acceptable ranges centered on statistical averages to rebuild new assembled batteries.

Tapered passage slots in main frames direct airflow to lithium battery unit cells, reducing path length and improving heat radiation efficiency.

Asymmetric electrode terminals increase spacing between adjacent connections, preventing electrical shorts during high-capacity module assembly.

Merging separate seals into a single unitary structure reduces battery volume by eliminating tolerance stackup issues.

Polyoxymethylene housing provides electrical insulation and structural integrity for deepwater power cells.

Connecting decoupled functional units to energy storage via a DC/DC converter reduces self-discharge and temperature increases in vanadium redox flow batteries.

Orthogonal positioning projections on the outer case enable smooth device insertion while preventing surface deformation and ensuring stable alignment.

Real-time cell reconfiguration bypasses defective units and adjusts voltage, maintaining operation during single cell failures.

A copper-lead connector uses a lateral contact element to join the welding lug, optimizing electrical conduction paths.

Elastic members on the end plate generate repulsive force to secure batteries, eliminating screw abrasion and vibration-induced release.

Segmented coupling holes and wedge bars stabilize lithium-ion battery modules by restraining expansion while simplifying assembly complexity.

Positioning trailing edges of anode and cathode collectors outside the pressed portion of rolled electrode bodies ensures uniform pressure application.

A trend based predictive system combines real time and historical traffic speed data to generate short term forecasts.

A surface-mediated cell uses high-surface-area electrodes to exchange lithium ions directly at the interface.

Direct bonding of sensing wire harness terminals to cell leads via welding eliminates separate bus bars, reducing production costs and space usage.

Piezoresistive sensors embedded between cells detect forces to prevent damage.

Integrated busbar cooling ducts reduce device complexity while threaded fasteners protect cell integrity during assembly.

A stepped battery mounting structure arranges groups at varying heights to increase storage capacity within a vehicle floor.

A secondary battery module uses a cell barrier plate to transfer heat from unit batteries to a cooling plate.

Contracting coupling parts bring battery supports into intimate contact, preventing rattling under vibrations and temperature variations.

Linking portion extends second conductive members in an intersecting direction to enable side-by-side arrangement.

An exhaust duct with a defined flow area and spark trap cools released gas below its ignition point, preventing burning during venting.

A rotatable battery pack maintains electrical connectivity during removal via spring-loaded pogo pins and contact pads.

Differential cold work creates a galvanic couple in metallic articles to induce compressive residual stresses.

A receptacle in a battery pack cover houses a circuit board within a cured potting compound, isolating the electronics from vibration and environmental damage.

Transversely oriented current collectors in electrochemical panels provide structural support while preventing electrical shorting through localized insulation.

Nested connection substrates occupy empty volume in battery drawer wall portions to improve volumetric efficiency.

A detachable mold cover blocks arc heating to prevent upper thinned portions, eliminating excessive cutting waste in silica crucible manufacturing.

Segmented battery units prevent charging loops by redirecting power to downstream cells once upstream units reach full charge.

Cooling system uses vehicle corrugated structure for side-mounted inlet and outlet ports to stabilize battery pack mounting.

Cap structure integrates conductive wires and insertion grooves to electrically connect unit cells without separate individual connections.

A lithium battery module combines cells to deliver a 13.6 V to 15.6 V output voltage range.

Arranging unit batteries in an oblique direction within stacked aggregates to enhance heat emission efficiency.

Strategic junction orientation prevents hot gas penetration between adjacent cells, stopping thermal cascading while maintaining high energy density.

Intermediary damping components absorb impacts to prevent direct contact, ensuring secure terminal connections while maintaining compact volume.

Clamshell battery potting structure sandwiches cells with adhesive protrusions to reduce vibrational wear while maintaining stable voltage.

Quick-release housing and clamps bundle battery units into modules, eliminating precise alignment needs that slow assembly speed.

Recirculating electrolyte in ionic power stations stabilizes voltage by managing Tafel corrosion, enabling reliable renewable energy production.