A unified control container with home-run and daisy-chain links stabilizes ESS communication and simplifies battery container expansion.
Cross-beam-mounted sensors capture battery cell temperature distribution without direct cell contact, improving pack safety and monitoring reliability.
AI estimates battery SoH from real-time equivalent circuit parameters, avoiding deep charge-discharge tests in float-charge use.
A bent fusible link plate localizes Joule heating at a reduced cross-section, enabling compact battery pack overcurrent protection.
Filters battery signals by correlation before neural estimation, improving internal cell state accuracy from observable data.
By comparing cell and pack-case temperatures, the BMS separates internal overheating from ambient heat to avoid false battery fault diagnosis.
A side-mounted protection circuit and opposing electrode terminals expand PCB area while keeping the battery assembly compact and precise.
A reference negative electrode profile is transformed into positive and future battery profiles to speed degradation analysis without cell disassembly.
Independent home-run and daisy-chain links stabilize ESS communication while allowing modular battery container expansion.
Front-mounted sensing and BMS integration simplify battery module assembly while reducing partitions, weight, and cooling constraints.
A side-mounted interwoven harness moves voltage sensing out of the battery load path to cut compressive stress, height, and damage.
A stepped floor edge creates a water-receiving volume that blocks door runoff, protects battery modules, and preserves full stacking space.
Combining switching, fuse, battery management, and current sensing cuts wire harness failure points, assembly effort, and cost.
An adhesive block replaces bulky end plates by sealing the cell-tab opening, cutting module weight while improving space use and thermal insulation.
Independent cell-unit switching lowers maintenance voltage risk, supports mixed cell health, and improves remaining capacity estimation.
An adhesive block seals the casing opening and protects cell tabs, cutting module weight and parts while improving space use and energy density.
Embedded flux cores in a battery fuse eliminate surface flux coating, improve fusing consistency, and reliably cut off current after melting.
An inductive sensor tracks battery expansion through conductive-surface response, enabling alerts, charge limits, or shutdown before swelling causes damage.
Integrated PCB sensing patterns and wire connections cut harnesses and soldering, reducing battery module volume, cost, and assembly time.