Cells Structural Combination TRIZ Cases

Dual battery system enables independent on and off vehicle charging via universal connectors.

Replacing fluorine-based resins with acrylic binders prevents swelling-induced disconnection of electron conduction networks during high temperature cycling.

A voltage sensitive heating device triggers a temperature sensitive switch to interrupt current flow during overcharge events.

A vehicle battery management system uses periodic controller wake-ups to monitor state parameters while minimizing power consumption.

A neural network learns vehicle energy strategies from simulated driving cycles and reflex-augmented reinforcement learning.

Segmented compartments electrically isolate individual energy storage devices to prevent short circuits while maintaining compact housing.

Segmented battery blocks contact metal plates to isolate gas-induced pressure, preventing safety hazards while maintaining high energy density.

A discharging control circuit regulates battery module power levels and temperature to prevent swelling.

A battery pack adjusts charging current limits based on deterioration to prevent overheating.

Juxtaposed battery mount sections align packs parallel to minimize device volume, resolving handling difficulties caused by overlapping configurations.

A battery assembly module uses a caulking pipe to apply pressing force for connecting pouch cells and voltage sensing busbars.

Holder protrusion with notch and supporting surfaces couples to protection circuit board grooves, accommodating size mismatches without mold adjustments.

A battery voltage conversion module sums submodule voltages via a coupling device to supply flexible power without over-dimensioning components.

A battery pack model estimates state of charge using cell-specific thermal and electrochemical parameters.

A battery management unit generates operating voltage from the module to power wireless communication for internal parameter detection.

Extending a temperature sensor through a case hole enables direct cell contact, resolving accuracy versus assembly complexity trade-offs.

A processing device determines charging cycles by detecting coherent charging events to a predetermined target.

Integrated coupling protrusions in high-strength cell covers eliminate separate members, reducing assembly complexity and weight.

A software-configurable battery management system uses a multiplexer to dynamically route voltage sensing across varying cell stack configurations.

Excess connection terminals on the flex circuit resolve measurement errors from direct current internal resistance shifts across parallel groups.

A battery degradation authentication device acquires server-computed degradation data via an output portion to display an authentication mark for portable reading.

Dual measurement circuits drive alternating current into a battery to capture voltage and current signals for impedance calculation.

Selective thermal conditioning of specific battery modules reduces energy waste while maintaining efficiency across varying environmental conditions.

A reusable battery indicator uses a voltage sensor and antenna to transmit digital charge data wirelessly.

A high-voltage detection circuit relocates control components into the battery loop to remove isolation units.

A mobile device over-discharge detection circuit reduces standby power consumption by halting operations during deep discharge states.

Wireless alarm transmission detects thermal issues in stacked battery storage, preventing fires through immediate notification.

A battery module design overlaps a voltage detection circuit board on a cover member with a wiring member to simplify assembly.

Coupling members on connection tabs allow automated resistance welding to join protection circuit modules, reducing manufacturing failure rates.

A flexible printed circuit board connects to battery cell connectors via conductive wire elements.

A single wire battery pack identification method measures transient response to determine chemistry without extra pins.

Dual power utilization circuits manage battery energy in surgical instruments by switching between high and low acquisition rates.

A storage cell case features a cut-away side-wall portion that houses an electrical connector within the device envelope.

A battery monitoring apparatus uses a ventilation passage to draw heat away from the low-voltage part.

A battery carrier assembly integrates electrical connections, venting channels, and cell monitoring units into a single non-conductive structure.

Marking element permanently records decommissioning data on the battery component, preventing information loss during battery management system replacement.

A control device manages secondary battery charging rates within specific ranges to enhance deterioration state estimation accuracy.

Orthogonal composite connectors merge main-circuit and communication lines to reduce assembly complexity and connection errors.

Copper plates bridge nickel and aluminum terminals to resolve poor weldability, merging connection steps for simplified manufacturing.

A power feed unit uses a switch to couple multiple battery communication terminals to a single interface.

Dual adhesive layers fix an insulating member between the energy storage device and outer case, preventing movement under vibration.

A ripple generator produces current at minimized impedance frequencies to heat secondary batteries internally.

Stacked layers with aligned pad portions prevent step-differences between interfaces, improving shear resistance and damage tolerance during mechanical stress.

Calculated timing offsets synchronize voltage and current sampling across daisy-chained sensors, resolving measurement precision issues.

Merging positive and negative contact element production into a single forming device simplifies manufacturing equipment.

Estimates battery capacity fade by measuring the ratio of change in open-circuit potential relative to temperature, avoiding complete discharge cycles.

Parallel discharge circuit removes charge during fast charging to prevent electrolyte consumption and electrode expansion.

An integrated flexible printed circuit joins cell terminals to resolve manufacturing complexity while compensating for thermal expansion.

Surface area enhancing features on battery cell contacts increase ultrasonic welding force to withstand mechanical stress in vehicle modules.

A terminal device detects lithium separation by comparing battery voltages during operation and rest periods.