TECHNOLOGY
Battery-management technologies engineered for efficiency, consistency, safety and system-level reliability.
ACTIVE BALANCING
Unlike conventional passive balancing, which dissipates surplus energy as heat, active balancing redistributes energy between cells. The architecture supports independent cell-level control and parallel balancing response across a battery cluster.
CELL-LEVEL ENERGY MANAGEMENT
BMSer active-balancing hardware supports controlled energy redistribution between cells as part of application-specific battery-management architecture.
Architecture, configuration and suitability depend on the final battery chemistry, system design and project requirements.
ACTIVE BALANCING IN MOTION.
WHY ACTIVE BALANCING MATTERS
TECHNOLOGY
Intelligent monitoring and control architecture designed to support cell-level visibility, battery consistency and system-level decision-making.
Role: connects cell data with system control. Applications: battery packs, energy storage and charging systems.Discuss your project ↗Active energy redistribution between cells to support more consistent battery behaviour across varying operating conditions.
Role: supports cell-level balancing control. Applications: high-voltage packs and energy-storage systems.Discuss your project ↗
Coordinated monitoring, protection and communication architecture for high-voltage battery systems.
Role: links battery subsystems. Applications: stationary storage and infrastructure-scale battery systems.Discuss your project ↗
Modular battery-management units that connect cell-level data with rack, pack and system-level control.
Role: structures management across the battery hierarchy. Applications: modular racks, packs and systems.Discuss your project ↗Power-conversion solutions supporting energy transfer between battery systems, charging infrastructure and DC-based loads.
Role: connects DC energy domains. Applications: charging, mobile energy and integrated power architectures.Discuss your project ↗Battery-management strategies adapted to the operating characteristics and integration requirements of sodium-ion energy-storage systems.
Role: supports sodium-ion system coordination. Applications: stationary and project-specific storage.
Project-specific integration of cells, BMS architecture, thermal management, high-voltage distribution, protection, communications and mechanical enclosure into one engineered battery system.
Role: combines critical battery subsystems into a coordinated system architecture for stationary energy storage and project-specific battery platforms.Discuss your project ↗CELL PLATFORM ECOSYSTEM
BMSer’s sodium-ion system architecture is designed to integrate qualified cell platforms according to project requirements, performance targets and supply strategy.
Current DC CORE configurations are primarily developed around HiNa Battery sodium-ion cell technology, while the platform architecture is designed to support additional qualified cell technologies as the ecosystem evolves.
CELL TECHNOLOGY EVOLVES. THE SYSTEM ARCHITECTURE REMAINS ADAPTABLE.
CURRENT CELL PLATFORM
Sodium-Ion Cell Technology
CURRENT REFERENCE CELL PLATFORMADDITIONAL CELL PLATFORMS
Additional cell technologies can be integrated as the BMSer platform ecosystem evolves and project requirements develop.
CELL TECHNOLOGY IS THE FOUNDATION. SYSTEM INTELLIGENCE DETERMINES HOW IT IS MANAGED.
EXPLORE ACTIVE BALANCING ↗SYSTEM-LEVEL BATTERY ARCHITECTURE
BMSer system architecture brings together battery modules, monitoring and control hardware, communications, power interfaces and thermal-management considerations within a project-specific energy-storage design.
This illustration is intended to explain system architecture. Final configuration, interfaces and equipment selection depend on the individual project.Discuss your project ↗
SYSTEM CONTROL & COMMUNICATION
Energy-management hardware can support communications, data collection and coordination across battery systems, power-conversion equipment and project-specific supervisory control architecture.
Energy-management controller for system-level monitoring, communication and integration requirements.
Compact energy-management controller for project-specific monitoring, communication and control architecture.
BMS HARDWARE
BMSer battery-management architecture can connect module, cluster, array and high-voltage system functions within application-specific energy-storage designs.
Coordinates information and communication across battery-array level architecture.
Supports cluster-level battery monitoring, communication and system coordination.
Supports module-level battery data collection and control architecture.
Provides a controlled high-voltage interface within battery-system configurations.
Project-engineered high-voltage DC aggregation, protection and connection equipment for battery-system integration.
Final voltage range, terminals, protection design, interfaces and installation requirements are confirmed during project engineering.CELL CONNECTION & INTEGRATION
Cell connection and sensing components form an important interface between battery cells, monitoring electronics and the wider battery-management architecture.
Battery-System Integration ↗
Unlike conventional passive balancing, which dissipates surplus energy as heat, active balancing redistributes energy between cells. The architecture supports independent cell-level control and parallel balancing response across a battery cluster.
Intelligent monitoring and control architecture designed to support cell-level visibility, battery consistency and system-level decision-making.
Technical characteristics may vary by product configuration, battery chemistry and project requirements.Cell voltage, temperature, current and state-of-charge information can support battery management, fault diagnosis, lifecycle-oriented operation and energy-storage system coordination.