AINEGY 500kW–1MW Solar-Diesel BESS Container Series
Scale solar, battery reserve and hybrid power control from 500kW/1MWh to 1MW/2MWh in one coordinated containerized platform.
The AINEGY Solar-Diesel BESS Container Series integrates LiFePO4 battery storage, BMS, PCS, high-capacity PV MPPT input, expert EMS, integrated ATS, diesel generator access, liquid cooling, fire protection and remote communication for large remote and industrial microgrid projects.
Built for High-Capacity Solar-Diesel Hybrid Microgrids
Large remote and industrial sites do not need another battery box. They need an energy platform that can receive substantial PV power, maintain battery reserve, respond to changing loads and coordinate grid or diesel support as operating conditions change.
Explore the wider AINEGY containerized BESS range or review the solar-diesel hybrid microgrid application architecture for project-level planning.
Coordinate Multiple Energy Sources as One System
PV, battery storage, grid supply, diesel generation and site demand are brought into one operating strategy through AINEGY EMS.
Scale PV Input from 480kW to 960kW
Each system power class is paired with a larger MPPT architecture to support substantial solar integration.
Choose 1MWh, 1.5MWh or 2MWh
Match stored energy to site load behavior, renewable production and the required operating reserve.
Support Multi-Unit Parallel Deployment
Multiple units can operate in parallel where project power and energy requirements require a larger system architecture.
AINEGY Engineering and Quality Support
A high-capacity hybrid BESS is only as strong as the engineering between its energy interfaces. AINEGY combines BMS and EMS development, inverter technology, lithium battery integration, manufacturing, factory validation and international project experience.
Years of BMS / EMS Technology Accumulation
Long-term development of battery-management and energy-management technologies for lithium battery systems.
R&D Team Members
Engineering support across BMS, EMS, inverter technology, lithium battery integration and customized energy storage systems.
Countries and Regions
International project exposure across different grid conditions, generator systems, communication requirements and environments.
Cumulative Battery Shipment
Manufacturing and delivery experience supporting repeatable battery integration and global project execution.
Integrated Around the Complete Energy Path
Battery, BMS, PCS, EMS, MPPT, ATS, generator interface, liquid cooling, fire protection and communication are engineered as one operating platform.
Test More Than Battery Charge and Discharge
Factory validation focuses on battery operation, PCS response, PV input, EMS communication, source switching and generator-side interfaces.
Configure the System Around Actual Site Conditions
Load profile, PV configuration, generator characteristics, motor starting demand, grid voltage and environmental conditions should be reviewed before final configuration.
500kW/1MWh, 750kW/1.5MWh and 1MW/2MWh Technical Specifications
The three liquid-cooled Solar-Diesel BESS Container configurations share an 832V LiFePO4 battery platform, high-capacity PV MPPT input, rated on-grid and off-grid power, diesel generator access and fast switching below 10ms.
| Item | 500kW / 1MWh | 750kW / 1.5MWh | 1MW / 2MWh |
|---|---|---|---|
| Model | IYP-CB1ML-500H3S-480M4-HX1 | IYP-CB1M5L-750H3S-720M6-HX1 | IYP-CB2ML-1MH3S-960M8-HX1 |
| Battery System | |||
| Battery Type | LiFePO4 Battery | LiFePO4 Battery | LiFePO4 Battery |
| Rated Energy | 1MWh | 1.5MWh | 2MWh |
| Nominal Voltage | 832V | 832V | 832V |
| Rated Capacity | 1256Ah | 1884Ah | 2512Ah |
| Battery Cooling Method | Liquid cooling | Liquid cooling | Liquid cooling |
| PV Input | |||
| Maximum PV Power | 480kW / 4 channels | 720kW / 6 channels | 960kW / 8 channels |
| Maximum PV Voltage | 950Vdc | 950Vdc | 950Vdc |
| MPPT Voltage Range | 250–850Vdc | 250–850Vdc | 250–850Vdc |
| Maximum PV Input Current | 200A × 4 | 200A × 6 | 200A × 8 |
| MPPT Channels | 4 | 6 | 8 |
| AC On-grid | |||
| Rated Power | 500kW | 750kW | 1000kW |
| AC Voltage | 400Vac / 230Vac | 400Vac / 230Vac | 400Vac / 230Vac |
| AC Wiring | L1 / L2 / L3 / N / PE | L1 / L2 / L3 / N / PE | L1 / L2 / L3 / N / PE |
| Rated Frequency | 50Hz / 60Hz | 50Hz / 60Hz | 50Hz / 60Hz |
| Maximum AC Current | 750A | 1100A | 1500A |
| AC Off-grid | |||
| Rated Power | 500kW | 750kW | 1000kW |
| AC Voltage | 400Vac / 230Vac | 400Vac / 230Vac | 400Vac / 230Vac |
| Rated Frequency | 50Hz / 60Hz | 50Hz / 60Hz | 50Hz / 60Hz |
| Maximum AC Current | 750A | 1100A | 1500A |
| On/Off-grid Switching Time | <10ms | <10ms | <10ms |
| General Parameters | |||
| Diesel Generator Port | Yes | Yes | Yes |
| Integrated ATS | Yes | Yes | Yes |
| Multiple Units in Parallel | Supported | Supported | Supported |
| Communication Type | RS485 / Ethernet / 4G | RS485 / Ethernet / 4G | RS485 / Ethernet / 4G |
| Battery Protection Rating | IP65 | IP65 | IP65 |
| Fire Protection System | Yes | Yes | Yes |
| Operating Temperature | -10°C to 55°C | -10°C to 55°C | -10°C to 55°C |
| Humidity Range | 5%–95% | 5%–95% | 5%–95% |
| Altitude | <2000m | <2000m | <2000m |
| PCS Cooling Method | Intelligent cooling | Intelligent cooling | Intelligent cooling |
| Size | 6058 × 2438 × 2896mm | 6058 × 2438 × 2896mm | 6058 × 2438 × 2896mm |
| Approximate Weight | About 11500kg | About 15000kg | About 23500kg |
Load Profile
- Hourly or 15-minute load data
- Peak and average site demand
- Selected priority loads
- Required operating reserve
PV Design
- PV capacity and production profile
- String voltage within 250–850Vdc MPPT range
- Maximum PV voltage below 950Vdc
- Input-current distribution across MPPT channels
Generator Data
- Rated and standby generator power
- Minimum stable operating load
- Step-load response and overload characteristics
- Controller and communication interface
Industrial Load Checks
- Motor and compressor starting current
- VFD or soft-start configuration
- Power factor and reactive demand
- Load sequencing and simultaneous demand
One Platform for PV–Battery–Grid–Diesel Coordination
The AINEGY platform connects high-capacity PV input, LiFePO4 battery storage, PCS power conversion, grid supply, diesel generation and site loads through a coordinated hybrid energy architecture.
AINEGY Expert EMS + Integrated ATS
High-capacity hybrid power requires visibility across every connected energy interface. AINEGY EMS observes real-time operating status and dynamically coordinates how PV, battery storage, grid supply and diesel generation participate in the power system.
Real-Time Energy Interface Coordination
AINEGY EMS continuously observes PV input, battery SOC, PCS operating status, grid availability, generator status and site load demand. It dynamically coordinates energy participation according to current system conditions and the configured operating strategy.
On/Off-grid Switching
Fast transition capability between configured grid-connected and off-grid operating conditions.
Rated Off-grid Power
Each configuration supports off-grid rated power equal to its corresponding on-grid power class.
Frequency Support
Product configurations support 50Hz and 60Hz project environments.
AC Platform
Three-phase AC architecture with L1 / L2 / L3 / N / PE connection.
Fast On/Off-Grid Transition Below 10ms
Remote and industrial microgrids may operate through changing grid conditions. The AINEGY Solar-Diesel BESS Container Series supports switching below 10ms between configured on-grid and off-grid operating modes.
Factory Integration and System Interface Validation
High-end BESS quality should be visible in how the complete system is engineered and checked. AINEGY focuses on the energy interfaces between battery storage, power conversion, PV input, EMS communication, source switching and generator access.
Battery Operating and Management Checks
Verify battery-system operation and BMS communication as part of the integrated storage platform.
Power Conversion Interface Review
Confirm PCS operating response and communication within the configured energy architecture.
High-Capacity Solar Interface Checks
Review PV input architecture, MPPT channels, voltage range and communication for the selected system configuration.
Connected Energy Status Visibility
Verify communication paths used by EMS to observe and coordinate the connected energy interfaces.
Source Transfer Interface Validation
Check the source-switching architecture within the configured grid, generator, BESS and load arrangement.
Review Diesel-Side Project Conditions
Generator rating, controller interface, operating characteristics and system coordination should be reviewed before commissioning.
Quality Built Through System-Level Engineering
AINEGY does not present battery capacity as the complete product story. The value of this series comes from integrating the major energy interfaces into one coordinated platform and reviewing the actual project conditions before final configuration.
Application Scenarios for AINEGY 500kW–1MW Solar-Diesel BESS Container Series
Designed for large remote and industrial sites where renewable integration, diesel dependency, grid conditions and changing load demand directly affect power-system operation.
Use More Available Solar Before Imported Fuel
Remote power systems may depend on diesel generation for long operating periods while also having substantial solar resources.
High-capacity PV input, 1–2MWh battery reserve and EMS coordination create a controlled path between solar availability, site demand and generator support.
Hybrid Energy for High-Demand Remote Sites
Mines and quarries can combine large daily energy demand with weak-grid conditions and expensive fuel logistics.
The 500kW–1MW platform provides substantial AC power, battery reserve and PV integration for engineered industrial load profiles.
Coordinate Renewable Energy and Generator Support
Remote energy sites require electricity for pumping, controls, communication, auxiliary systems, lighting and camp loads.
AINEGY EMS can coordinate available PV and battery energy with generator-supported operation according to the configured site strategy.
High-Capacity Energy Support for Changing Plant Demand
Industrial sites may experience changing production demand, motor loads, grid instability and large renewable-energy systems.
Three power classes allow engineers to match the BESS platform to actual load, PV capacity and reserve requirements.
Coordinate Grid, Battery and Generator Resources
Large service facilities, supermarkets, transport hubs and selected critical facilities may require multiple energy sources within one electrical strategy.
Expert EMS and integrated ATS support facility-level energy coordination when the BESS is engineered into the compliant site architecture.
Build Storage Into Large Solar Energy Systems
Large PV projects may need battery storage to absorb available renewable energy and coordinate power use under changing site conditions.
PV input scales from 480kW with four MPPT channels to 960kW with eight MPPT channels across the AINEGY series.
Engineering FAQ and RFQ Readiness
Selecting a high-capacity Solar-Diesel BESS Container should start with real load behavior, PV production, generator characteristics and the required operating reserve—not MWh capacity alone.
The series is available in 500kW/1MWh, 750kW/1.5MWh and 1MW/2MWh configurations. The corresponding maximum PV input ratings are 480kW, 720kW and 960kW with 4, 6 and 8 MPPT channels.
AINEGY EMS observes real-time operating status across PV input, battery SOC, PCS operation, grid availability, generator status and site load demand. It dynamically coordinates energy participation according to current system conditions and the configured operating strategy.
Yes. Each configuration supports rated off-grid power equal to its rated on-grid power, from 500kW to 1MW. The series also supports on-grid and off-grid switching below 10ms.
In a properly configured project, available PV and stored battery energy can carry part of the site demand before generator support is required. EMS coordination can therefore help reduce unnecessary generator operating hours.
Liquid cooling provides a direct thermal-management path across the high-capacity battery system and supports more consistent module operating conditions during repeated charging and discharging.
Yes. The product specification lists a fire protection system. The specific project fire-protection design and site integration should be reviewed during engineering.
Yes. The series supports multiple units in parallel. The required AC bus, communication, protection and EMS coordination should be engineered according to project power and energy requirements.
Provide the site load profile, peak demand, critical-load list, PV array data, generator specification, grid voltage, required operating reserve, motor-starting data, ambient temperature, altitude, communication requirements and installation layout.
Configure Your 500kW–1MW Solar-Diesel BESS Container with AINEGY
Send your load profile, PV design, generator specification, motor-starting data, selected priority loads, required operating reserve and site conditions. AINEGY will review the required power class, 1–2MWh battery reserve, 480–960kW PV input, MPPT architecture, EMS strategy, integrated ATS operation and multi-unit expansion requirements.