233kWh 100kW Liquid Cooling Commercial Battery Storage for Compact C&I Sites

Product Summary
233kWh 100kW Liquid Cooling C&I Battery Storage for Compact Sites The 233kWh 100kW Liquid Cooling C&I Battery Storage for Compact Sites is designed for commercial and industrial projects where equipment space, stored energy and PCS power must be considered together. The system combines 233kWh of ...
Basic Properties
Place of Origin: China
Brand Name: Voltertech
Certification: IEC62477-1 , IEC61000-6/2/4 , UN3536
Model Number: BESS-233KWH-100KW-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

233kWh 100kW Liquid Cooling C&I Battery Storage for Compact Sites

The 233kWh 100kW Liquid Cooling C&I Battery Storage for Compact Sites is designed for commercial and industrial projects where equipment space, stored energy and PCS power must be considered together.

The system combines 233kWh of LiFePO4 battery capacity with a 100kW PCS in a cabinet measuring 1400 × 1000 × 2399mm. It uses an 832V battery architecture, liquid cooling and CAN, RS485 and Ethernet communication.

233kWh Nominal Battery Energy
100kW Rated PCS Power
1.40m² Approx. Cabinet Floor Footprint

When Equipment Space Becomes Part of BESS Sizing

Commercial energy storage is often selected by comparing kW and kWh, but the physical space available at the site can also influence which system is practical.

The cabinet measures 1400mm wide by 1000mm deep, giving an equipment footprint of approximately 1.40m² before installation clearance is added.

The 1.40m² figure represents the cabinet footprint only. Actual project space must also include maintenance clearance, cable access, safety distances and any site-specific installation requirements.

233kWh in a 100kW Power Class

The 233kWh and 100kW ratings describe two different parts of the system.

Battery energy determines how much nominal energy is stored, while the PCS rating determines the power conversion level.

At a theoretical constant 100kW output, the nominal energy-to-power ratio is approximately 2.33 hours.

233kWh ÷ 100kW = approximately 2.33 hours. Actual discharge time depends on usable SOC range, conversion losses, reserve settings and the real site load.

Why Choose 233kWh Instead of 215kWh at the Same 100kW Power?

The 215kWh and 233kWh configurations both use a 100kW rated PCS in this product series.

Moving to the 233kWh version therefore increases nominal stored energy without changing the rated 100kW PCS power level.

215kWh / 100kW

Battery energy: 215kWh

Rated PCS power: 100kW

Nominal voltage: 768V

Cabinet size: 1400 × 1385 × 2203mm

233kWh / 100kW

Battery energy: 233kWh

Rated PCS power: 100kW

Nominal voltage: 832V

Cabinet size: 1400 × 1000 × 2399mm

If 100kW already satisfies the project's target PCS power but additional stored energy is required, the 233kWh configuration can be evaluated without moving to a higher PCS power class.

Capacity per Cabinet Footprint as a Site Planning Reference

Using the cabinet width and depth only, the 233kWh configuration provides approximately 166kWh of nominal battery capacity per square meter of cabinet footprint.

This calculation is useful only as a preliminary equipment-layout reference. It should not be treated as battery cell energy density or as the total installation-space requirement.

For space-constrained C&I projects, compare not only battery capacity but also cabinet dimensions, maintenance access and the amount of usable installation area available at the site.

Where Can a Compact 233kWh Cabinet Be Evaluated?

This configuration can be considered where a commercial or industrial site needs a 100kW-class energy storage system but has defined equipment-layout constraints.

Existing Facilities Retrofit projects may have limited unused equipment space compared with a newly designed energy-storage site.
Commercial Buildings Equipment placement may need to fit within an existing electrical or utility area.
Industrial Sites Storage equipment may need to be positioned around existing production, electrical and logistics infrastructure.
Multi-Cabinet Projects Cabinet dimensions become increasingly important when several units must be planned within one equipment area.

832V LiFePO4 Battery Architecture

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

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

Maximum charging and discharging current are both specified at 140A.

These parameters should be considered together with the PCS and complete DC-side electrical design during project engineering.

Liquid Cooling for Commercial Battery Thermal Management

The battery system uses liquid cooling for thermal management.

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

Relative humidity is specified from 5% to 95%, with an operating altitude of up to 2000m and an IP54 enclosure rating.

100kW PCS for C&I Energy Conversion

The system uses a 100kW rated PCS with a maximum AC current of 167A.

Rated AC voltage is 230/400V and grid frequency is 50/60Hz. THDi is specified at less than 3%.

Final conductor sizing, electrical protection and grid connection design should follow the actual site requirements and applicable electrical standards.

Core Technical Specifications

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Parameter Specification
System Type Liquid Cooling Commercial ESS
Battery Chemistry LiFePO4
Rated Energy 233kWh
Battery Capacity 280Ah
Nominal Battery Voltage 832V
Battery Voltage Range 702–936V
Maximum Charging Current 140A
Maximum Discharging Current 140A
Rated PCS Power 100kW
Maximum AC Current 167A
Rated AC Voltage 230 / 400V
Grid Frequency 50 / 60Hz
THDi <3%
Cycle Life ≥8000 Cycles
Calendar Life ≥15 Years
Cooling Method Liquid Cooling
Protection Rating IP54
Communication CAN / RS485 / Ethernet
Dimensions 1400 × 1000 × 2399mm
Net Weight Approx. 2300kg

Installation Planning for a 2.3-Ton Cabinet

Although cabinet footprint is important, physical deployment should be evaluated as a complete installation task.

The system has an approximate net weight of 2300kg, so the project team should confirm transport access, unloading method, lifting equipment and the load-bearing capability of the installation area.

Access Route Check doorways, gates, turning space and the route between the unloading point and final equipment position.
Foundation Confirm that the supporting area is suitable for the cabinet weight and project installation conditions.
Cable Routing Reserve suitable space for AC, DC and communication connections according to the final electrical design.
Service Clearance Do not use the cabinet footprint alone as the total required installation area; maintenance access must also be considered.

Is a 233kWh System Suitable for an Existing C&I Site?

A retrofit project should be evaluated from both electrical and physical perspectives.

Before selecting the system, check whether 100kW of PCS power matches the intended load strategy, whether approximately 233kWh of nominal energy provides sufficient operating duration and whether the cabinet can be safely installed within the available equipment area.

This approach helps avoid selecting a BESS that meets the electrical requirement but creates unnecessary difficulties during site deployment.

Frequently Asked Questions

Q1. How much floor space does the 233kWh cabinet occupy?

The cabinet dimensions are 1400 × 1000 × 2399mm, giving an equipment footprint of approximately 1.40m². The actual installation area must be larger because access and maintenance clearance are also required.

Q2. What is the difference between the 215kWh and 233kWh 100kW systems?

Both use a 100kW rated PCS. The 233kWh version provides additional nominal battery energy and uses an 832V battery platform, while the 215kWh version uses 768V.

Q3. How long can 233kWh support a 100kW load?

The theoretical nominal calculation is approximately 2.33 hours. Actual operating duration depends on usable battery energy, PCS losses, reserve settings and changing site load.

Q4. Is the 233kWh system suitable for a retrofit project?

It can be evaluated for existing commercial or industrial sites, but suitability depends on available equipment space, electrical connection, load profile, supporting structure and access conditions.

Q5. What battery voltage does the system use?

The nominal battery voltage is 832V and the specified operating voltage range is 702V to 936V.

Q6. What are the maximum charging and discharging currents?

The supplied specification lists 140A maximum charging current and 140A maximum discharging current.

Q7. Does the battery system use liquid cooling?

Yes. Liquid cooling is specified as the battery thermal management method.

Q8. What communication interfaces are available?

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

Q9. Does IP54 mean the cabinet can be installed anywhere outdoors?

IP54 is the specified enclosure protection rating. The final installation environment should still comply with the complete equipment instructions, ambient conditions and project engineering requirements.

Q10. What information should be provided before selecting this 233kWh BESS?

Provide the site load curve, target PCS power, required discharge duration, available installation area, access route, grid information and any space or foundation restrictions. These details help evaluate both electrical sizing and physical deployment.

Need 233kWh Storage but Have Limited Equipment Space?

Send us your load profile, required operating duration, available installation area and site access information. We can help evaluate whether the 233kWh / 100kW configuration fits both the electrical and physical requirements of the project.

Check Your 233kWh Project Layout
Product Details
Highlight:

233kWh Commercial Battery Storage

,

100kW C&I Battery Storage

,

Liquid Cooling Energy Storage System

Deployment Constraint: Space-Conscious Commercial & Industrial Sites
Capacity Upgrade Logic: More Stored Energy Within The 100kW PCS Class
Retrofit Context: Existing C&I Facilities & Energy Upgrade Projects
Layout Planning Goal: Compact Cabinet Footprint Utilization
Site Engineering Focus: Access, Lifting & Maintenance Clearance
Load Profile Match: Moderate-Power Loads Requiring Longer Energy Duration
Selection Benchmark: Compare 215kWh Vs 233kWh At The Same Power Level
Project Stakeholder: EPC / Facility Manager / ESS System Integrator

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