233kWh 100kW Liquid Cooled Commercial Battery Energy Storage Cabinet for C&I Projects

Product Summary
100kW 233kWh Liquid Cooling C&I Energy Storage System The 100kW 233kWh Liquid Cooling C&I Energy Storage System combines a 233kWh LiFePO4 battery with a 100kW rated PCS for commercial and industrial energy storage projects where energy duration is as important as power capacity. The battery section ...
Basic Properties
Place of Origin: China
Brand Name: Voltertech
Certification: IEC62477-1 , IEC61000-6/2/4 , UN3536
Model Number: BESS-233KWH-105KW-W-2
Trading Properties
Minimum Order Quantity: 1 Unit
Price: Negotiable
Payment Terms: L/C,T/T,Western Union
Supply Ability: 5000 Units per Month
Product Description

100kW 233kWh Liquid Cooling C&I Energy Storage System

The 100kW 233kWh Liquid Cooling C&I Energy Storage System combines a 233kWh LiFePO4 battery with a 100kW rated PCS for commercial and industrial energy storage projects where energy duration is as important as power capacity.

The battery section operates at 832V nominal voltage with a specified 702–936V operating range. Liquid cooling is used for battery thermal management, while the system provides LAN, RS485 and CAN communication for project integration.

233kWh Total Battery Capacity
100kW Rated PCS Output Power
2.33h Nominal Energy-to-Power Ratio

233kWh and 100kW Are Two Different Project Sizing Parameters

A commercial energy storage project should not be selected from battery capacity alone.

The 233kWh rating describes how much nominal energy is stored in the battery, while the 100kW PCS rating describes the rated power at which the system converts energy on the AC side.

233kWh ÷ 100kW = approximately 2.33 hours of nominal energy duration at constant rated power. Actual operating duration depends on usable SOC range, conversion losses, control settings and the real site load.

How Long Can a 233kWh Battery Supply Different C&I Loads?

When project engineers evaluate an energy storage system, the expected discharge power has a direct impact on operating duration.

The examples below are simple nominal calculations using 233kWh of battery energy.

≈ 2.33 Hours At a constant 100kW load
≈ 3.11 Hours At a constant 75kW load
≈ 4.66 Hours At a constant 50kW load

These figures are theoretical nominal comparisons rather than guaranteed discharge times. Actual operating duration will change with the control strategy, usable battery capacity, PCS efficiency and site load variation.

When Does 233kWh Make More Sense Than 215kWh?

The 215kWh and 233kWh configurations in this series both use a 100kW rated PCS according to the supplied parameter table.

The main reason to move to the 233kWh version is therefore additional stored energy rather than additional rated AC output.

215kWh / 100kW

Nominal battery energy: 215kWh

Rated PCS output: 100kW

Nominal duration: approximately 2.15h

Nominal battery voltage: 768V

233kWh / 100kW

Nominal battery energy: 233kWh

Rated PCS output: 100kW

Nominal duration: approximately 2.33h

Nominal battery voltage: 832V

If 100kW of rated power already meets the site's power requirement but the project needs additional discharge duration or more stored energy per cycle, the 233kWh configuration may be worth evaluating.

Choosing 233kWh instead of 215kWh does not increase the rated PCS output. It increases the amount of nominal battery energy available within the 100kW power class.

Use the Site Load Curve to Size the Energy Storage System

The most useful information for C&I BESS selection is often the site's actual load curve rather than a single peak power number.

A load profile shows how power demand changes throughout the operating day and helps determine both the required PCS power and the amount of battery energy needed.

Peak Power Shows how much discharge power may be required during the highest demand periods.
Peak Duration Shows how long the battery may need to support the targeted demand period.
Daily Operating Hours Helps determine when charging and discharging may be scheduled within the site energy strategy.
PV Generation Profile For solar-plus-storage projects, compare PV production with the site's consumption pattern.

100kW PCS for Commercial and Industrial Power Conversion

The PCS section is specified with 100kW rated output power and a maximum AC current of 167A.

Rated operating voltage is AC230/400V and the approved grid frequency range is 50/60Hz. AC harmonic voltage is specified at less than 3%.

The actual site connection, conductor sizing, electrical protection and grid interface should be designed according to the project requirements and applicable local regulations.

832V High-Voltage LiFePO4 Battery Architecture

The battery section uses LiFePO4 chemistry with a nominal capacity of 280Ah.

Nominal system voltage is 832V and the specified operating voltage range is 702V to 936V.

Nominal charging current and nominal discharging current are both listed at 140A.

These parameters form part of the DC-side system design and should be evaluated together with the PCS and complete project electrical architecture.

Liquid Cooling for Repeated C&I Charge and Discharge Operation

The supplied specification identifies liquid cooling as the battery cooling method.

Thermal management forms an important part of commercial and industrial battery operation because the battery may experience repeated charging and discharging according to the site's energy schedule.

The specified operating temperature range is -20°C to +60°C, while storage temperature is listed from -30°C to +45°C.

Liquid cooling is one part of the thermal management design. Installation conditions should still remain within the specified environmental limits of the complete energy storage system.

Core Technical Specifications

Swipe left or right to view the complete specification table.

Parameter Specification
Battery Chemistry LiFePO4
Total Battery Capacity 233kWh
Nominal Capacity 280Ah
Nominal Battery Voltage 832V
Operating Voltage Range 702–936V
Nominal Charging Current 140A
Nominal Discharging Current 140A
Rated PCS Output Power 100kW
Maximum AC Current 167A
Rated Operating Voltage AC230 / 400V
Grid Frequency 50 / 60Hz
AC Harmonic Voltage < 3%
Communication LAN / RS485 / CAN
Cooling Method Liquid Cooling
Protection Rating IP54
Cycle Life 8000 Cycles
Calendar Life 15 Years
Dimensions 1400 × 1000 × 2399mm
Net Weight Approx. 2.3T

Site Planning for a 2.3-Ton C&I Energy Storage System

The system measures 1400 × 1000 × 2399mm and has an approximate net weight of 2.3 tonnes.

Before delivery, the project team should consider equipment access, installation space, foundation or supporting structure and maintenance clearance.

The supplied specification lists IP54 protection, operating relative humidity of 5% to 95% and a nominal working altitude of up to 2000m.

233kWh Is Not Automatically Better Than 215kWh

The larger battery capacity only provides value when the site actually needs the additional stored energy.

If the required 100kW discharge period is short enough that 215kWh already meets the energy target, the smaller configuration may be sufficient.

If the project requires more energy at the same 100kW PCS power level, the 233kWh configuration provides additional nominal duration.

The appropriate BESS should be selected from both power demand in kW and required energy duration in kWh rather than battery capacity alone.

What Data Should an EPC Provide Before BESS Selection?

24-Hour Load Curve Provide hourly or more detailed site demand data where available.
Peak Demand Identify the maximum site power demand and when it normally occurs.
Target Discharge Period Define how long the storage system needs to support the targeted power level.
Grid Information Provide site voltage, frequency and relevant grid connection requirements.
PV Information For solar projects, provide installed or planned PV capacity and expected production profile.
Installation Conditions Provide available equipment space, ambient conditions and site access information.

Frequently Asked Questions

Q1. Is a 100kW / 233kWh BESS a 2-hour energy storage system?

Its nominal energy-to-power ratio is approximately 2.33 hours because 233kWh divided by 100kW equals 2.33 hours. Actual discharge duration depends on usable SOC range, conversion losses and operating settings.

Q2. What is the difference between 100kW and 233kWh?

100kW is the rated PCS power and describes the rate of energy conversion, while 233kWh describes the nominal amount of battery energy stored in the system.

Q3. How long can a 233kWh battery supply a 50kW load?

The nominal calculation is approximately 4.66 hours. Actual operating time will differ after considering usable battery energy, conversion losses, system reserve settings and changing site loads.

Q4. How long can a 233kWh battery supply a 100kW load?

The theoretical nominal calculation is approximately 2.33 hours at a constant 100kW load. This is not a guaranteed discharge duration because actual system operation includes losses and control limits.

Q5. Should I choose a 215kWh or 233kWh C&I energy storage system?

Both configurations use a 100kW rated PCS according to the supplied specification. The 233kWh version provides more stored energy, so the decision should be based mainly on the required discharge duration and site energy requirement.

Q6. Can the 233kWh BESS be used with a commercial solar PV system?

It can be evaluated as the storage component of a solar-plus-storage project. The complete PV, PCS, control and electrical architecture should be designed according to the specific site.

Q7. What battery voltage does the 233kWh system use?

The nominal battery voltage is 832V, with a specified operating voltage range of 702V to 936V.

Q8. What is the maximum AC current of the 100kW PCS?

The supplied technical parameter table specifies a maximum AC current of 167A.

Q9. What communication interfaces are available for project integration?

The supplied specification lists LAN, RS485 and CAN communication interfaces.

Q10. What information is needed before selecting a 233kWh C&I BESS?

Provide the site load curve, peak demand, required discharge duration, grid voltage and frequency, PV capacity if applicable, operating schedule and installation conditions. These data help determine whether the 100kW / 233kWh configuration matches the project.

Do You Need More Energy Duration at the 100kW Power Level?

Send us your site load curve, peak demand, target discharge period, grid information and PV data. We can help compare the 215kWh and 233kWh configurations and evaluate which capacity better matches the project.

Check Your 100kW C&I Storage Requirement
Product Details
Highlight:

233kWh Commercial Battery Energy Storage Cabinet

,

100kW C&I Energy Storage System

,

Liquid Cooling Battery Storage

System Sizing Profile: System Sizing Profile
Duration Planning: Approx. 2.33-Hour Nominal Energy-to-Power Ratio
Capacity Upgrade Logic: More Energy Duration At The Same 100kW PCS Class
Load Curve Fit: Sustained Medium-Power Commercial Demand
Project Evaluation Basis: Site Load Curve & Operating Schedule
Retrofit Suitability: Existing And New-Build C&I Energy Projects
Energy Scheduling Role: Store Energy For Later Site Consumption
Deployment Consideration: Space, Access & Foundation Planning

Customer Service

Related Products
  • 48.23kWh 51.2V 942Ah LiFePO4 Solar Energy Storage Battery with Up to 15 Units Parallel Configuration

    48.23kWh 51.2V 942Ah LiFePO4 Solar Energy Storage Battery 48.23kWh 51.2V 942Ah LiFePO4 Solar Energy Storage Battery . Built for energy storage projects that require substantially more capacity from each low-voltage battery unit, this LiFePO4 battery provides 48.23kWh nominal energy on a 51.2V 942Ah ...
  • 2.56kWh 51.2V Wall Mounted LiFePO4 Battery For Compact Solar Storage

    2.56kWh 51.2V Wall Mounted LiFePO4 Battery for Compact Solar Storage Compact 51.2V Battery for Residential Solar Storage This 2.56kWh wall mounted LiFePO4 battery combines a nominal voltage of 51.2V with a rated capacity of 50Ah. It is designed for compatible residential solar systems, backup power ...
  • Stackable 10kW 30kWh All In One Energy Storage System With 15kW PV

    Stackable 10kW 30kWh All In One Energy Storage System with 15kW PV Modular Solar Storage Without a Fixed Cabinet Configuration This stackable 10kW 30kWh all in one energy storage system combines a pure sine wave inverter, two battery modules, dual MPPT solar charging, priority-load outputs and ...
Send An Inquiry