• Seamless connection between EMS and BMS.
• Integration of Level 3 BAU and EMS.
• Supports multiple types of device access such as Ethernet, CAN, RS485, IO, etc.
• Support OTA software for the entire site system.
• Support local and cloud storage of operational data and event data.
• Support multiple modes such as independent operation, parallel operation, multi-level master-slave operation, etc.
Energy storage controller is an intelligent device that integrates multiple control strategies and algorithms, used for precise management of battery charging and discharging processes, optimizing the operational efficiency and service life of energy storage systems. It can work in conjunction with battery management systems (BMS), energy storage inverters (PCS) and other devices to achieve comprehensive management of energy storage systems.
Release energy storage during peak load periods and charge during low load periods to optimize grid operation efficiency.
Smooth out the output fluctuations of renewable energy sources such as solar and wind power, and enhance the stability of the power grid.
Provide stable power support during isolated operation of microgrids to ensure the power quality of local users.
Reduce electricity costs and improve economic benefits through peak shaving, valley filling, demand control, and other methods.
As an edge node of a virtual power plant, participate in the demand side response of the power grid and optimize energy scheduling.
Optimize charging strategies, improve charging efficiency, and reduce load pressure on the power grid.
Combining photovoltaic systems to achieve self-sufficiency in household electricity consumption and ensure basic electricity needs during power outages.
Control the charging and discharging process of the battery, including constant current charging, constant voltage charging, trickle charging, discharge cut-off, etc., to prevent overcharging and overdischarging and extend the battery life.
Real time monitoring of battery voltage, current, temperature, and other conditions, recording charging and discharging data, analyzing battery performance, and providing a basis for system optimization.
Intelligent scheduling of energy storage and release based on grid demand, battery status, and electricity price signals, achieving functions such as peak shaving and valley filling, demand control, frequency and voltage regulation.
Supports multiple communication protocols such as Modbus, MQTT, IEC104, etc., and can be used with photovoltaic inverters BMS、 Seamless integration of charging stations and other equipment.
Equipment project |
Specifications |
CPU |
ARM Cortex series quad core processors |
Power supply |
12VDC,15A |
Working power consumption |
Under 12VDC, the average power consumption in idle state (no lights on, no 4G communication) is less than 7W; |
Working temperature |
-30℃~+65℃ |
Storage temperature |
-40℃~ +85℃ |
External dimensions |
Maximum external dimensions: 245mm*169mm |
Short distance wireless |
One channel Bluetooth interface, working in basic mode or low-power mode |
One channel WIFI interface, integrated with Bluetooth on the same module |
|
Wireless 4G |
One PCIE can be plugged into a full network 4G communication module, with the option of GPS. |
SIM card slot |
1 SIM card interface, insert half sized card |
Network port |
1 separate network segment network port |
3 network ports in the same network segment |
|
USB |
2-channel USB |
1 OTG USB (for program debugging) |
|
Serial communication |
The motherboard (upper layer) is equipped with four RS485 serial ports (switching between sending and receiving signals, requiring the other party to delay sending back for 2ms) |
The sub board (lower layer) is equipped with four RS485 serial ports (switching between sending and receiving signals, requiring the other party to delay sending back for 2ms) and one RS232 serial port. |
|
Debug UART |
Motherboard (upper layer) 1 channel, MINUSB form, can be connected to a PC through a USB cable, super terminal to view debugging information. |
Sub board (lower layer) with a single-chip microcontroller simulation needle burning 4PIN port holder. |
|
CAN |
Motherboard (upper layer) has 2 CAN ports, each equipped with a 120 ohm terminal resistor. CAN1 port is internally connected to CAN1 port of the secondary board. |
Sub board (lower layer) has 2 CAN ports, each equipped with a 120 ohm terminal resistor, which can be connected or disconnected by the rightmost two positions of the 8-bit dip switch. |
|
Voice |
1 speaker interface, volume less than 1.5W, external 8-ohm speaker. |
Hard drive |
Internally provides SATA signal and 5VDC socket for power supply, and can be optionally connected to a portable hard drive. |
High definition display port |
HDMI Type A socket (HDMI-19plug Type A) with one channel; Reserve a 12VDC power output for one screen. |
Key |
1 RST reset key, 1 function key |
Indicator light |
1 power indicator light, 3 status indicator lights |
Buzzer |
Internal 1 |
TF card holder |
1pcs, used for burning programs |
RTC |
Internal 1, can be equipped with CR2032-3V_200mAh battery for RTC clock power supply |
State input |
Reserve 2 status detection channels (empty node input, the same below) |
One channel circuit breaker status detection |
|
One channel lightning protection status detection |
|
2-channel door status detection |
|
One channel smoke detection status detection |
|
One channel water level status detection |
|
One channel fire protection status detection |
|
Switching output |
One channel lighting control output, DC12V MAX 1A |
One channel alarm control output, DC12V MAX 1A |
|
2-channel DC fan control output, DC12V MAX 1A |
|
One channel trip control output (contact capacity AC250V 3A or DC30V 3A) |
|
One channel fire control output, DC12V greater than 700mA electric start, start pulse maintained for more than 1 second duration |
|
3-channel external status light control outputs, DC12V maximum 1A |
|
3-channel reserved relay control output, contact capacity 250VAC 1A |
|
Analog input |
2-channel 0-5V DC analog AD input |
2-channel NTC 10K B3950 temperature sensor input |
|
Communication address setting |
The sub board has a 6-digit dip switch for setting the communication address of CAN port 1, which is used by default to communicate with the main board |
Digital temperature sensing |
There is a DS18B20 digital temperature sensor on the secondary board, which is used to measure the internal air temperature of the device. |
Cloud management |
Support |
Network timing |
Support NTP/RTC clock synchronization |
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