A consolidated buttstock power supply eliminates individual battery bulk to resolve weapon weight imbalance while enabling rapid modular swaps.
Shared communication bus enables autonomous balancing and monitoring, eliminating complex dedicated wiring for each cell.
A battery pack controller detects excess discharge in specific single batteries by measuring voltage changes across individual cells.
Central site controller monitors individual battery voltage to discharge overcharged cells, resolving electrochemical variations that shorten lifespan.
A battery controller uses dedicated driving pins to directly control charge and discharge switches.
Segmented parallel branches with coupling units charge cells through stator windings, resolving reliability issues from single cell failures.
A charge/discharge control circuit manages parallel secondary batteries through a connection circuit and controller.
A modular charge equalization apparatus uses a master and slave configuration to share sensing circuits across multiple battery modules.
A modular electrical energy storage segment balances cell voltages through series-connected filter capacitors and impedance links.
An equalization circuit uses an inductor and variable resistance loops to fine-tune cell capacities.
A power storage system uses a voltage sensor to monitor terminal connections before enabling charge or discharge operations.
A multi-pole contactor unifies switching actions to manage series and parallel battery pack configurations in electric powertrains.
Segmentation and intermediary principles allow isolated branch maintenance without power interruption, reducing system complexity.
A charger circuit balances battery voltages by periodically connecting a capacitor in parallel with each series-connected cell.
A battery management system groups modules to alternate power supply and regulation phases.
An equalization circuit discharges secondary batteries to balance charge levels while monitoring temperature.
A self-powered energy storage module uses a rectifying unit to draw power from its own series-connected cells for internal control.
Multi-winding transformers enable bi-directional energy transfer between battery modules, resolving voltage deviations caused by cell impedance differences.
Zener diodes in the bypass prevent current flow during normal operation, eliminating voltage drops that impair measurement accuracy.
A battery control device uses photocouplers to transmit signals between integrated circuits, ensuring reliable communication across different voltage levels.
An active battery balancing circuit uses an inductance to transfer charge between series-connected cells.