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Lithium Iron Phosphate (LiFePO₄) technology, cycle life ≥ 6000 times, 15 years design life, 90% capacity retention rate.

Modular expansion is supported. Within the voltage range of inverter or PCS, multiple machines can be connected in parallel to realize megawatt-level energy storage.

The BMS of industrial and commercial energy storage system adopts the BMS management system independently developed by Huadu, which has been applied and perfected for many years.

Operating temperature -20~50℃ (greater than 45℃ derating), built-in intelligent temperature control system to ensure wide temperature range operation.

Calibrate the battery, check battery consistency; check the sensor, check the BMS hardware; update the BMS algorithm, check the software settings; consider the temperature effect, avoid electromagnetic interference. If you encounter any complicated or difficult problems during the above troubleshooting and processing, you should contact our technicians for further support and assistance.

Comply with UN38.3 transportation certification, anti-vibration and anti-short-circuit packaging, sea/land transportation is available, ready to use right out of the box.

To determine whether a battery needs maintenance, the energy storage system can consider the performance parameters, appearance, operating environment and historical data of the battery.

It supports off-grid power supply, with the optional black start function, and the optional switching device can make the switching time less than 20ms.

With built-in self-heating technology, the battery can be charged and discharged normally at low temperature of -20℃ with efficiency ≥85%.

Power = rated capacity of battery pack × charging/discharging multiplication rate (e.g. 1C multiplication rate for 100kWh system is 100kW).

Optional WiFi/4G module can be used to view real-time data such as battery level, power, alarms, etc. via cell phone APP or web platform.

The system supports parallel connection of multiple units, which can be matched with different energy storage solutions according to different capacities and operation modes.

Check whether the line connection, power supply, interface and slot are intact; check the communication module, network equipment, communication protocol and parameters; check the BMS software, system compatibility, check the logs and alarms; electromagnetic interference problems, environmental factors. If you encounter complicated or difficult problems during the above troubleshooting and processing, you should contact our technicians for further support and assistance.

The energy storage system supports linkage with diesel generators, which can realize more reliable and flexible energy supply.

According to the peak and valley times of electricity price, the forecast of renewable energy generation as well as the change rule of loads, a reasonable charging and discharging plan can be formulated.

≥ 1 year of historical data is stored locally, and unlimited storage is supported in the cloud (service subscription required).

Wired network support is required, OTA remote upgrade is supported, and firmware update packages are automatically pushed without on-site operation.

Self-testing of energy storage system faults can start from the battery system, inverter, monitoring system and other major components. Battery system appearance check, voltage check, internal resistance check, temperature check; inverter appearance and connection check, operation status check, noise check; monitoring system data display check, communication function check, alarm function check; and other components such as fuse check, lightning protector check, cable and bus bar check. When carrying out self-inspection of energy storage system faults, it should be carried out in strict accordance with relevant operating procedures and safety norms, and for some complicated faults or uncertainties, it is recommended to contact professional technicians for maintenance in time.

It adopts intrinsically safe design and passes the tests of pinprick, overcharge and short-circuit, without the risk of thermal runaway.

The battery cabinet is IP54, dustproof and waterproof, adapting to the harsh outdoor environment.

Direct lightning protection: installing lightning catchers and establishing a good grounding system; Induced lightning protection: installing surge protectors, line shielding and isolation; Equipment protection: improving the insulation level of the equipment, strengthening the electromagnetic compatibility design of the equipment; regular maintenance and inspection.

MSDS, UN38.3 report is required for sea transportation, air transportation is not supported for the time being.

We provide recycling service and commission professional organizations to dismantle the batteries. The reuse rate of core materials is ≥95%.

The data communication of energy storage system is usually encrypted, which is mainly due to the considerations of data security and stable operation of the system.

Energy storage systems are designed to be earthquake resistant to ensure stable operation in the event of natural disasters such as earthquakes, reducing damage and safety risks.

The energy storage system is protected against leakage of electricity through the following means: grounding system, earth leakage protection device, insulation monitoring and protection, and equipotential bonding.

Basic knowledge training: principle of energy storage system, system composition and components, electrical knowledge; safety operation procedure training: operation process and steps, equipment operation specification, emergency operation procedure; safety risk and prevention training: potential risk identification, safety precautionary measures, safety system and regulations; maintenance and troubleshooting training: daily maintenance points, troubleshooting diagnostic methods, troubleshooting skills; fire fighting and first aid knowledge Training: fire fighting knowledge, first aid knowledge.

First connect the communication line between batteries, then connect the power line, and finally connect to the inverter, the whole process is operated without power. After the wiring is completed, conduct a comprehensive inspection of the entire battery pack, including the firmness of the connection points, the correctness of the positive and negative connections, and the consistency of the batteries with each other. At the same time, measure the total voltage and capacity of the battery pack to ensure that it meets the design requirements.

Battery Configuration: Calculate the load demand and consider the safe capacity; Battery voltage should be matched with the inverter; Evaluate the load characteristics and determine the appropriate battery charging/discharging multiplier. Inverter Configuration: Match the power of the load and consider future expansion; improve the energy efficiency of the system and choose an inverter with higher conversion efficiency according to the usage scenario; match the input voltage to the battery and the output voltage to the grid or load.

Check the connection of the device, confirm the power supply, check the environmental factors; check the upgrade file, confirm the version compatibility, clean the cache and temporary files; restart the device and try to upgrade again, using different upgrade methods. If none of the above methods can solve the problem, contact our technical support staff in time. Describe in detail to our technical support staff the specific circumstances of the upgrade failure, including the error message that appeared during the upgrade process, the model number and current version of the device, etc., so that they can make accurate judgment and guidance.

The system currently uses multiple sinks for control, and does not use master-slave control for the time being.

First of all, determine the maximum working current of the energy storage system, which includes the charging and discharging currents of the battery packs as well as the currents of other equipment connected to the energy storage system. Based on the calculated load current, select a cable with sufficient current-carrying capacity. The current-carrying capacity of the cable is related to factors such as the material of the cable, the cross-sectional area of the core, the laying method and the ambient temperature. Determine the maximum permissible voltage drop according to the equipment requirements of the energy storage system and the electrical code. Consider environmental conditions, mechanical strength and installation requirements.

Separate grounding is required for energy storage systems for two main reasons related to safety and performance: to prevent the risk of electric shock, lightning protection, and electrostatic discharge; and to ensure stable system operation and improve measurement accuracy.

Determine the sensor type and interface, select the appropriate cable, connect the sensor to the energy storage system, and configure the communication parameters. If you encounter any complicated or difficult problems during the above processing, you should contact our technicians for further support and assistance.

Check the network cable, confirm the status of the network device, check the hardware interface; verify the IP address setting, check the network protocol configuration, and verify the network privileges; update the driver, check the firewall settings, and upgrade the system software; assess the compatibility of the network environment, and confirm the interoperability of the devices. If you encounter complicated or difficult problems during the above troubleshooting and processing, you should contact our technicians for further support and assistance.

After installation, the energy storage system needs to be tested in various aspects such as electrical performance, functionality and safety to ensure that the system can operate normally, safely and stably.