Deye MC-LC480-2H2

Commercial battery energy storage system

The MC-LC480-2H2 is a 200 kW AC battery cabinet with 482.304 kWh of 314 Ah LiFePO4 cells, built as the storage core of Deye’s PV, battery and EV charging solution. It couples to Deye MPPT and DC charging cabinets on a DC bus and lists RS485, Modbus TCP and DIDO for site energy management. Edge reads it over Modbus TCP with the project point list from Deye, or measures its 400 V AC feeder with an EpiSensor ZEM.

Deye MC-LC480-2H2
  • Modbus TCP
  • RS485

Commercial battery energy storage system

Ask an engineer

Compatibility

Compatible with EpiSensor Edge over Modbus TCP, or through an EpiSensor ZEM on the AC feeder

Deye’s product page and brochure list RS485, Modbus TCP and DIDO, and the brochure draws the MS-EMS linked to the MC-LC480-2H2 over those interfaces. Edge is a Modbus TCP client and reads the cabinet with the addresses, data types and units in the project point list from Deye. Edge also measures the cabinet through an EpiSensor ZEM with Rogowski coils on its 380/400 V AC connection; energy that flows over the DC bus to the charging cabinet does not pass that feeder.

MC-LC480-2H2 AC cabinet with MC-LC480-BC-2 battery cabinets, MS-MPPT and MS-DC480-2 charging cabinets, from the 20260731 V1.0 EU brochure and the product page. Site check: obtain the Modbus TCP endpoint and point list for the installed cabinet and MS-EMS from Deye, and record the nameplate, firmware and DC bus arrangement. Read only; dispatch and charger power allocation stay with the MS-EMS and the charging system.

Connect it with

Route into Edge

When Deye supplies the Modbus TCP endpoint and point list for the installed cabinet or its MS-EMS

  • Modbus
  • Edge
  • Platforms
Commercial battery energy storage system
Interface
Gateway
Edge
Output
MC-LC480-2H2MC-LC480-2H2 cabinet
Protected EthernetSegmented LAN
ZGW-20 GatewayHosts Edge locally
EpiSensor EdgeModbus client + register map
Customer platformMQTT · API · files
Modbus TCP
Protected Ethernet
Runs locally
Optional onward data
Give the Gateway an address on the protected site network and configure the reads from the project point list: identity, operating state, AC power, DC bus power, state of charge and alarms first. The brochure connects the MS-EMS to the cabinet over RS485, Modbus TCP and DIDO, so agree with Deye which device serves the monitoring client and whether a second client may poll alongside the EMS. Read only. The customer-platform output is optional; Edge remains the local system of record.

For power and energy the cabinet exchanges with the site’s 380/400 V AC network

  • Wired
  • Edge
  • Platforms
Commercial battery energy storage system
Interface
Gateway
Edge
Output
MC-LC480-2H2MC-LC480-2H2 PCS AC output
EpiSensor ZEMMeasures the cabinet’s AC feeder with its own Rogowski coils and reports over the EpiSensor wireless network
ZGW-20 GatewayHosts Edge locally
EpiSensor EdgeProtocol client + point model
Customer platformMQTT · API · files
Rogowski coils on the 380/400 V AC feeder
EpiSensor wireless
Runs locally
Optional onward data
A qualified electrician fits the ZEM’s Rogowski coils on the three phases of the cabinet’s AC feeder, with the voltage reference taken from the same circuit. The ZEM reports over the EpiSensor wireless network. It measures the AC exchange only: PV and battery energy delivered to vehicles over the DC bus does not pass this feeder. The customer-platform output is optional; Edge remains the local system of record.

Models

Download
ModelsInterfaceRoute into Edge
MC-LC480-2H2AC cabinet: 200 kW rated, 220 kW maximum, 482.304 kWh, 314 Ah LiFePO4 at 768 V DC nominal; charge 0.4P, discharge 0.9PRead over Modbus TCP with Deye’s project point list, or measure the cabinet’s AC exchange with an EpiSensor ZEM.
MC-LC480-BC-2DC battery cabinet: 482.304 kWh, 768 V DC nominal, RS485, Modbus TCP and DIDO, 4800 kg or lessTake battery-cabinet values from the point list Deye issues for the system; it has no AC feeder of its own.
MS-DC480-2 and MS-DCC180-2480 kW DC charging power cabinet and charging terminals with two CCS2 guns at up to 180 kW eachCharging sessions and per-vehicle energy come from the charging system, not from the battery cabinet or its AC feeder.
MC-L430-2H2 and MC-LC430-2H2Earlier 280 Ah cabinets with 430.08 kWh nominal energyTreat each as a separate product; do not reuse the MC-LC480-2H2 ratings.

Specifications

Deye sells the MC-LC480-2H2 as the storage core of a PV, battery and EV charging system. With Deye MPPT equipment, the MS-DC480-2 charging power cabinet and MS-DCC180-2 terminals, solar, storage and vehicle charging share a DC-coupled architecture.12

Power
200 kW rated; 220 kW maximum (1.1 times rated); power factor -1 to 112
Energy
482.304 kWh nominal; 314 Ah LiFePO4; charge 0.4P, discharge 0.9P12
DC voltage
768 V DC nominal; 648 to 876 V DC range2
AC connection
380/400 V, 3P + N + PE, 50/60 Hz2
Communication
RS485, Modbus TCP, DIDO12
Enclosure and environment
Overall IP54 (battery compartment and chiller control box IP55, PCS IP65); C4-M, C5 optional; -25 to 55 °C; up to 2000 m2
Size and weight
2000 × 1350 × 2480 mm without the air outlet cover; 5100 kg or less12

Interface

Documented measurements and integration boundaries for MC-LC480-2H2.

  • Deye does not publish the cabinet’s Modbus TCP point list in the brochure or on the product page; the project point list from Deye supplies addresses, function codes, data types, scale factors, word order and power sign.
  • From that list, start with identity, operating state, AC active power, DC bus power, state of charge and alarm words, and keep the cabinet, battery cabinets, MPPT cabinet, charging cabinet and site meter as separate sources with their own timestamps.
  • Through an EpiSensor ZEM on the AC feeder, Edge records voltage, current and active power per phase and import and export energy for the cabinet’s AC exchange only.
  • No charge, discharge, charger power allocation or grid-service command is in scope of this guide; any control needs the site owner’s and Deye’s agreement.

Assessment

MC-LC480-2H2 with MC-LC480-BC-2, MS-MPPT and MS-DC480-2 cabinets, from the 20260731 V1.0 EU brochure and the product page. Read-only monitoring; no dispatch, charger control or grid-service claim.

InteroperabilityLimited
Deye lists Modbus TCP, RS485 and DIDO and draws them between the MS-EMS and the cabinet. The point list is not public, so each project needs Deye’s document before Edge can read the cabinet.12
AccuracyNot yet assessed
The retained documents give ratings but no readable point set with units, resolution, sign or update rate.
SecurityNot yet assessed
No authentication, roles or network hardening are documented for the local Modbus TCP interface, so keep it on a protected site network.
ReliabilityLimited
Liquid cooling and aerosol and water fire suppression are published, and the brochure lists real-time fault alarms in the MS-EMS. The retained documents do not describe client recovery or data buffering for the monitoring interface.12
RuggednessSupported with conditions
Overall IP54 with an IP65 PCS, C4-M corrosion protection (C5 optional), -25 to 55 °C and up to 2000 m are published for outdoor installation.2
ScalabilityLimited
The brochure states up to 10 cabinets in parallel and shows battery cabinets on a shared DC bus. The number of monitoring clients and polling capacity are not published.2
LifecycleLimited
Deye ESS publishes a dated brochure and a product page; no MC-LC480-2H2 user manual is listed in the download centre. Record firmware and the point-list revision at commissioning.12

Setup

  1. Record the installed system

    Record the MC-LC480-2H2 nameplate, the number of MC-LC480-BC-2 battery cabinets, the MS-MPPT and MS-DC480-2 cabinets, the charging terminals, the MS-EMS and the firmware. Note which equipment shares the DC bus, because DC energy to vehicles does not appear on the cabinet’s AC feeder.

  2. Ask Deye for the Modbus TCP point list

    The brochure and product page list Modbus TCP but publish no register table and name no third-party port. Ask Deye ESS for the endpoint (IP address, TCP port and unit identifier), the point list for the installed firmware and whether the cabinet or the MS-EMS serves it. Ask whether a second client may poll while the MS-EMS is running.

  3. Configure the first reads

    In Edge, add a Modbus TCP device at the address Deye gives. From the point list, read identity, operating state, AC active power, DC bus power, state of charge and the alarm words first, with the function code, data type, scale, word order and sign the list states. Compare each value with Deye EMS at the same time before adding more points. A timeout or exception is missing data, not zero.

  4. Fit the ZEM on the AC feeder

    220 kW at 400 V is about 318 A per phase at unity power factor, so 1000 A Rogowski coils suit the cabinet feeder. A qualified electrician fits them on the three phases of the cabinet’s AC feeder and takes the ZEM voltage reference from the same circuit. Record which direction is import.

  5. Compare during an existing schedule

    During a charge from the grid that the MS-EMS already schedules, compare the ZEM active power with the cabinet AC power in Deye EMS over the same interval. During vehicle charging from the DC bus, expect the ZEM to show only the AC share. Send no new command for the check.