05 / Energy storage
Lithium iron phosphate systems from 10 kWh homes to 4.47 MWh containers, with battery management, thermal control and energy software.
05 / Storage technology
Electrochemistry, power electronics and software work together to turn battery capacity into controllable energy infrastructure.
Site-level scheduling, tariffs, operating data and remote services.
Inverters, operating modes, electrical interfaces and power conversion.
Sensing, balancing, state estimation, diagnostics and protection.
LiFePO4 modules, structures, electrical protection and liquid cooling.
05 / Residential storage
Combine rooftop generation, battery modules, inverter technology and intelligent controls around household energy needs.
Stacked battery modules make configuration and installation more flexible. Battery management, power conversion and structural design are coordinated with the PV system, enabling storage to become part of the home energy architecture.
Configuration-specific. Final supply parameters follow the approved technical specification.
Protection functions are distributed across sensing, control and electrical hardware rather than concentrated in a single device.
Voltage and temperature sensing, insulation monitoring and battery-state information.
Cell balancing, charge/discharge control, and overvoltage, overcurrent and temperature protection with fuses at pack and system level.
Mechanical design, thermal behaviour and electrical interfaces engineered as one assembly.
Coordinate shared generation, electrical distribution and available installation areas with the needs of multiple households.
Combine rooftop PV and modular storage to improve on-site use of solar electricity and provide an energy-management foundation.
Consider repeatable deployment, maintenance access and the role of digital services across a portfolio of homes.
05 / Commercial & industrial storage
Liquid cooling supports temperature control within the battery system. The cabinet concept emphasises compact deployment, relocation flexibility and robust mechanical design.
Multiple-cabinet arrangements are determined by grid mode, site requirements and control design, with liquid cooling, battery monitoring and fire-protection design coordinated within the system.
Liquid cooling manages heat removal and limits temperature differences within the battery assembly.
Voltage, current and temperature measurements underpin state estimation, alarms and operating control.
Electrical protection and control logic coordinate responses to abnormal operating conditions.
Module access, structural interfaces and diagnostics support servicing throughout the operating life.
05 / Utility storage
Containerized storage packages substantial battery capacity within a prefabricated system architecture.
Battery assemblies, thermal management and electrical protection are integrated within a containerized enclosure. Application design determines the power-conversion system, grid interface, operating strategy and site balance of plant.
Site and system interfaces are project-specific.
Manage renewable output, support energy shifting and reduce mismatches between generation and system demand.
Assess network support, reserve capacity and operating flexibility alongside connection and electrical-protection requirements.
Load management, tariff-based charging and discharging, and backup where supported by the complete electrical design.
06 / Digital energy
Digital energy management links project configuration, device monitoring and site-level operating strategies.
Support equipment selection, deployment planning and investment modelling.
Collect operating data and organise equipment status, alarms, battery conditions and maintenance information.
Coordinate charging and discharging with renewable output, load and tariff conditions.
Interface and operating-environment illustrations
Cell voltage | Temperature | Current | Insulation
State of charge | State of health | Energy and power capability
Balancing | Charge/discharge limits | Relay and thermal coordination
Fault classification | Alarm output | Fault response and recovery
07 / R&D and manufacturing
Product engineering, manufacturing teams and facility planning translate technical designs into integrated storage equipment.
Manufacturing facility
Product and manufacturing engineering team
Integrated facility planning
Industrial building
Facility construction progress
Modular product architecture
Requirements, operating conditions, interfaces and product configuration.
Battery assemblies, structures, thermal systems, protection and controls.
Electrical interfaces, monitoring, control behaviour and protection checks.
Installation, commissioning, handover information and maintenance.
07 / Industrial energy
A multi-site chemical-industry configuration illustrates how storage can be phased across energy-intensive facilities.
82.2 MW
Overall planned storage power
164.5 MWh
Overall planned storage energy
6.9 MW / 13.76 MWh
First-phase configuration
The project concept covers eight chemical plants, with an initial phase providing a smaller implementation boundary within the wider portfolio plan. These figures describe a project plan, not completed delivery.
Solar and wind resources provide clean generation.
Collection, substations and grid connections link the system.
Battery capacity and controls add time-based flexibility.
Industrial and commercial loads shape the operating strategy.
Pack structures, BMS, electrical interfaces and thermal design underpin commercial-vehicle battery applications, while prefabricated charging and swapping concepts connect vehicle energy needs with site power capacity and operating routines.
Contact
Solar investment. Wind investment. Grid engineering. Energy storage R&D, manufacturing and intelligent operations. Tell us about your site, load profile or project stage and our engineering team will respond with a suitable configuration.
