Charging Management TRIZ Cases

See how dynamic accumulator switching and voltage detection enable cordless appliances to avoid

See how dynamic switching between multiple small-capacity accumulators enables flexible power d

Centralized control manages battery charger sharing across modular units, resolving the contradiction between high power capacity and technical safety risks.

A dual battery power storage system switches between a small fast-charging cell and a large capacity cell to supply immediate power.

A battery charger switch mechanism stores alarm data to disconnect power flow between the battery and output terminals.

A voltage management system uses a linear mode transistor to dissipate excess energy from an energy storage device.

A battery pack controller calculates a deterioration coefficient from measured internal resistance to adjust charge conditions dynamically.

A battery health management system segments monitoring into distinct state of charge, life, and health modules for precise real-time characterization.

A constant-current control circuit uses FETs to regulate current flow between parallel battery blocks.

Central voltage supply powers local control units to monitor battery health, reducing degradation costs.

External power source charges auxiliary battery to upper level, reducing onboard energy usage and extending electric driving range.

Scanning cell voltages allows a processing device to adjust charging current dynamically, preventing overcharging while maximizing energy storage capacity.

A predictive battery cell management system compares real-time performance data against statistical baselines to identify early degradation trends.

Uses MOSFETs as both switches and sensors to reduce component count and energy consumption in battery protection systems.

A battery charging device segments modules into independent cell blocks for precise voltage detection and current adjustment.

Segmented storage batteries with dynamic switching resolve the contradiction between long power maintenance and rapid voltage increase speed.

Switching units isolate the battery from the inverter when input power disconnects, preventing parasitic discharge and extending battery life.

A mobile battery train transports stored electrical energy via rail to remote locations without traditional grid infrastructure.

Periodic monitoring of alarm conditions reduces current consumption by about 70% compared to traditional chargers.

A battery charger manages simultaneous charging of multiple batteries using a charge controller that allocates current based on real-time power source limits.

An inner current loop control structure reduces response time and enhances voltage adjustment accuracy across multiple DC power sources.

An inverter inductor generates charging current to heat batteries at low temperatures, eliminating fire risks from external heaters.

A universal energy management system detects voltage levels to determine operating states of diverse storage devices.

A hybrid power converting unit uses a common transformer to generate separate voltages for charging both high voltage and auxiliary batteries.

Segmented battery modules rotate usage patterns to prevent premature degradation from uneven solar energy supply.

A battery charger cross-over controller dynamically adjusts charge current between multiple batteries to maximize available power from a common source.

A power supply controller adjusts battery charging voltage based on detected use environments to mitigate ignition risks.

Segmenting junction box fuses with a current limiting circuit and battery microprocessor prevents fuse blowouts during high current events.

Merging battery and charging modules eliminates wire complexity while redundant array units ensure fault-tolerant power continuity.

Merging power, chamber, and climate units reduces cable length to lower voltage drop during battery cell testing.

A manually controlled coupling mechanism routes AC power between utility grids and onsite energy storage systems.