Next Generation ESS solutions delivering carbon-neutral backup power and grid interaction for modern data centers.
As the global push toward carbon peaking and carbon neutrality intensifies, low-carbon data centers are becoming a key development direction. Compared to traditional lead-acid battery systems, CLN Energy’s Energy Storage Systems (ESS) offer enhanced safety, greater system integration, and more efficient charge/discharge management.
Deploying ESS in data centers offers several important benefits:
1. Stabilizing Renewable Energy – ESS can mitigate fluctuations from renewable energy sources, ensuring a stable and continuous power supply for data center operations.
2. Market Participation and Backup Power – ESS can not only serve as a backup energy source but also take part in energy market transactions, generating revenue while supporting reliable operations.
3. UPS Replacement and Grid Interaction – ESS can replace conventional Uninterruptible Power Supplies (UPS), maintaining uninterrupted power flow. Additionally, by interacting with the power grid, it boosts asset efficiency and enhances operational income.
CLN Energy’s ESS solutions are well-suited for deployment in data center projects, providing power stability, reliable backup, and scalable capacity to support future growth.
Higher safety and stability lithium iron phosphate battery, no fire caused by thermal runaway
Pre-installed battery system, modular standard design, rapid deployment on site, easy operation and maintenance.
Long cycle life, l000 times @0.5C/0.5C@80%DOD@25℃.
Supporting HVDC, UPS system, and compatible with UPS system N line
Touch LCD to display various parameters, records and status visually
Support multiple groups in parallel, and support uninterrupted power maintenance when multiple clusters are used in parallel
Three-level BMS management, multi-level protection, automatic isolation in the event of anomalies, to ensure normal power supply to the system
High energy density, saving 70%compared to lead-acid battery
Optional non-electric self-starting cabinet-level fire protection system, accurate and rapid-fire extinguishing
Natural heat dissipation design, saving energy
As the global push toward carbon peaking and carbon neutrality intensifies, low-carbon data centers are becoming a key development direction. Compared to traditional lead-acid battery systems, CLN Energy’s Energy Storage Systems (ESS) offer enhanced safety, greater system integration, and more efficient charge/discharge management.
Deploying ESS in data centers offers several important benefits:
1. Stabilizing Renewable Energy – ESS can mitigate fluctuations from renewable energy sources, ensuring a stable and continuous power supply for data center operations.
2. Market Participation and Backup Power – ESS can not only serve as a backup energy source but also take part in energy market transactions, generating revenue while supporting reliable operations.
3. UPS Replacement and Grid Interaction – ESS can replace conventional Uninterruptible Power Supplies (UPS), maintaining uninterrupted power flow. Additionally, by interacting with the power grid, it boosts asset efficiency and enhances operational income.
CLN Energy’s ESS solutions are well-suited for deployment in data center projects, providing power stability, reliable backup, and scalable capacity to support future growth.
Higher safety and stability lithium iron phosphate battery, no fire caused by thermal runaway
Pre-installed battery system, modular standard design, rapid deployment on site, easy operation and maintenance.
Long cycle life, l000 times @0.5C/0.5C@80%DOD@25℃.
Supporting HVDC, UPS system, and compatible with UPS system N line
Touch LCD to display various parameters, records and status visually
Support multiple groups in parallel, and support uninterrupted power maintenance when multiple clusters are used in parallel
Three-level BMS management, multi-level protection, automatic isolation in the event of anomalies, to ensure normal power supply to the system
High energy density, saving 70%compared to lead-acid battery
Optional non-electric self-starting cabinet-level fire protection system, accurate and rapid-fire extinguishing
Natural heat dissipation design, saving energy
As the global push toward carbon peaking and carbon neutrality intensifies, low-carbon data centers are becoming a key development direction. Compared to traditional lead-acid battery systems, CLN Energy’s Energy Storage Systems (ESS) offer enhanced safety, greater system integration, and more efficient charge/discharge management.
Deploying ESS in data centers offers several important benefits:
1. Stabilizing Renewable Energy – ESS can mitigate fluctuations from renewable energy sources, ensuring a stable and continuous power supply for data center operations.
2. Market Participation and Backup Power – ESS can not only serve as a backup energy source but also take part in energy market transactions, generating revenue while supporting reliable operations.
3. UPS Replacement and Grid Interaction – ESS can replace conventional Uninterruptible Power Supplies (UPS), maintaining uninterrupted power flow. Additionally, by interacting with the power grid, it boosts asset efficiency and enhances operational income.
CLN Energy’s ESS solutions are well-suited for deployment in data center projects, providing power stability, reliable backup, and scalable capacity to support future growth.
Higher safety and stability lithium iron phosphate battery, no fire caused by thermal runaway
Pre-installed battery system, modular standard design, rapid deployment on site, easy operation and maintenance.
Long cycle life, l000 times @0.5C/0.5C@80%DOD@25℃.
Supporting HVDC, UPS system, and compatible with UPS system N line
Touch LCD to display various parameters, records and status visually
Support multiple groups in parallel, and support uninterrupted power maintenance when multiple clusters are used in parallel
Three-level BMS management, multi-level protection, automatic isolation in the event of anomalies, to ensure normal power supply to the system
High energy density, saving 70%compared to lead-acid battery
Optional non-electric self-starting cabinet-level fire protection system, accurate and rapid-fire extinguishing
Natural heat dissipation design, saving energy
As the global push toward carbon peaking and carbon neutrality intensifies, low-carbon data centers are becoming a key development direction. Compared to traditional lead-acid battery systems, CLN Energy’s Energy Storage Systems (ESS) offer enhanced safety, greater system integration, and more efficient charge/discharge management.
Deploying ESS in data centers offers several important benefits:
1. Stabilizing Renewable Energy – ESS can mitigate fluctuations from renewable energy sources, ensuring a stable and continuous power supply for data center operations.
2. Market Participation and Backup Power – ESS can not only serve as a backup energy source but also take part in energy market transactions, generating revenue while supporting reliable operations.
3. UPS Replacement and Grid Interaction – ESS can replace conventional Uninterruptible Power Supplies (UPS), maintaining uninterrupted power flow. Additionally, by interacting with the power grid, it boosts asset efficiency and enhances operational income.
CLN Energy’s ESS solutions are well-suited for deployment in data center projects, providing power stability, reliable backup, and scalable capacity to support future growth.
Higher safety and stability lithium iron phosphate battery, no fire caused by thermal runaway
Pre-installed battery system, modular standard design, rapid deployment on site, easy operation and maintenance.
Long cycle life, l000 times @0.5C/0.5C@80%DOD@25℃.
Supporting HVDC, UPS system, and compatible with UPS system N line
Touch LCD to display various parameters, records and status visually
Support multiple groups in parallel, and support uninterrupted power maintenance when multiple clusters are used in parallel
Three-level BMS management, multi-level protection, automatic isolation in the event of anomalies, to ensure normal power supply to the system
High energy density, saving 70%compared to lead-acid battery
Optional non-electric self-starting cabinet-level fire protection system, accurate and rapid-fire extinguishing
Natural heat dissipation design, saving energy
As the global push toward carbon peaking and carbon neutrality intensifies, low-carbon data centers are becoming a key development direction. Compared to traditional lead-acid battery systems, CLN Energy’s Energy Storage Systems (ESS) offer enhanced safety, greater system integration, and more efficient charge/discharge management.
Deploying ESS in data centers offers several important benefits:
1. Stabilizing Renewable Energy – ESS can mitigate fluctuations from renewable energy sources, ensuring a stable and continuous power supply for data center operations.
2. Market Participation and Backup Power – ESS can not only serve as a backup energy source but also take part in energy market transactions, generating revenue while supporting reliable operations.
3. UPS Replacement and Grid Interaction – ESS can replace conventional Uninterruptible Power Supplies (UPS), maintaining uninterrupted power flow. Additionally, by interacting with the power grid, it boosts asset efficiency and enhances operational income.
CLN Energy’s ESS solutions are well-suited for deployment in data center projects, providing power stability, reliable backup, and scalable capacity to support future growth.
Higher safety and stability lithium iron phosphate battery, no fire caused by thermal runaway
Pre-installed battery system, modular standard design, rapid deployment on site, easy operation and maintenance.
Long cycle life, l000 times @0.5C/0.5C@80%DOD@25℃.
Supporting HVDC, UPS system, and compatible with UPS system N line
Touch LCD to display various parameters, records and status visually
Support multiple groups in parallel, and support uninterrupted power maintenance when multiple clusters are used in parallel
Three-level BMS management, multi-level protection, automatic isolation in the event of anomalies, to ensure normal power supply to the system
High energy density, saving 70%compared to lead-acid battery
Optional non-electric self-starting cabinet-level fire protection system, accurate and rapid-fire extinguishing
Natural heat dissipation design, saving energy
Product Model | CLN24050U | CLN48050U |
---|---|---|
Cell Chemistry | LiFePO4 | |
Cell Form Factor | Prismatic | |
Nominal Voltage (Vdc) | 240 | 480 |
Nominal Capacity (Ah) | 50 | 50 |
Rated Energy (kWh) | 12 | 24 |
Rated Charging Voltage (Vdc) | 262.5 | 525 |
Self-Discharge Rate | ≤3% (0–30 °C / 3 months) | |
Standard Discharge Current (A) | 50 (1C) | 50 (1C) |
Maximum Discharge Current (A) | 300 (6C) | 300 (6C) |
Standard Charging Current (A) | 25 (0.5C) | 25 (0.5C) |
Maximum Charging Current (A) | 50 (1C) | 50 (1C) |
Cycle Life | 3000 times @80% DOD, 0.5C/0.5C | |
Communication Interface | CAN; RS485; Dry contact | |
Protection Functions | Over-temperature, over-current, short circuit, over-charging, over-discharging, etc. | |
Dimensions (W × D × H) mm | 600×800×1400 | 600×800×2000 |
Storage Temperature | 0~40 °C | |
Operating Temperature (°C) | 15~45 (Recommended 20–25) | |
Relative Humidity | 5~95% | |
Altitude | ≤2000 m | |
Cell Specifications | ||
Nominal Capacity (Ah) | 50 | 50 |
Nominal Voltage (Vdc) | 3.2 | 3.2 |
Working Voltage Range (Vdc) | 2.5~3.6 | 2.5~3.6 |
Battery Module Specifications | ||
Configuration | 1P15S | 1P15S |
Nominal Voltage (Vdc) | 48 | 48 |
Working Voltage Range (Vdc) | 42~52.5 | 42~52.5 |
Battery Pack Specifications | ||
Configuration | 1P75S | 1P150S |
Nominal Capacity (Ah) | 50 | 50 |
Nominal Voltage (Vdc) | 240 | 480 |
Working Voltage Range (Vdc) | 210~262.5 | 420~525 |
Weight approx. (kg) | 290 | 430 |
Certifications | UL1642, UN38.3, IEC62619, IEC62133 |
Product Model | CLN24050U | CLN48050U |
---|---|---|
Cell Chemistry | LiFePO4 | |
Cell Form Factor | Prismatic | |
Nominal Voltage (Vdc) | 240 | 480 |
Nominal Capacity (Ah) | 50 | 50 |
Rated Energy (kWh) | 12 | 24 |
Rated Charging Voltage (Vdc) | 262.5 | 525 |
Self-Discharge Rate | ≤3% (0–30 °C / 3 months) | |
Standard Discharge Current (A) | 50 (1C) | 50 (1C) |
Maximum Discharge Current (A) | 300 (6C) | 300 (6C) |
Standard Charging Current (A) | 25 (0.5C) | 25 (0.5C) |
Maximum Charging Current (A) | 50 (1C) | 50 (1C) |
Cycle Life | 3000 times @80% DOD, 0.5C/0.5C | |
Communication Interface | CAN; RS485; Dry contact | |
Protection Functions | Over-temperature, over-current, short circuit, over-charging, over-discharging, etc. | |
Dimensions (W × D × H) mm | 600×800×1400 | 600×800×2000 |
Storage Temperature | 0~40 °C | |
Operating Temperature (°C) | 15~45 (Recommended 20–25) | |
Relative Humidity | 5~95% | |
Altitude | ≤2000 m | |
Cell Specifications | ||
Nominal Capacity (Ah) | 50 | 50 |
Nominal Voltage (Vdc) | 3.2 | 3.2 |
Working Voltage Range (Vdc) | 2.5~3.6 | 2.5~3.6 |
Battery Module Specifications | ||
Configuration | 1P15S | 1P15S |
Nominal Voltage (Vdc) | 48 | 48 |
Working Voltage Range (Vdc) | 42~52.5 | 42~52.5 |
Battery Pack Specifications | ||
Configuration | 1P75S | 1P150S |
Nominal Capacity (Ah) | 50 | 50 |
Nominal Voltage (Vdc) | 240 | 480 |
Working Voltage Range (Vdc) | 210~262.5 | 420~525 |
Weight approx. (kg) | 290 | 430 |
Certifications | UL1642, UN38.3, IEC62619, IEC62133 |
Product Model | CLN240100U | CLN384100U | CLN480100U |
---|---|---|---|
Cell Chemistry | LiFePO4 | ||
Cell Form Factor | Prismatic | ||
Nominal Voltage (Vdc) | 240 | 384 | 480 |
Rated Charging Voltage (Vdc) | 262 | 420 | 525 |
Nominal Capacity (Ah/kWh) | 100/24 | 100/38.4 | 100/48 |
Self-Discharge Rate | <3% (0–30 °C / 3 months) | ||
Standard Discharge Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Maximum Discharge Current (A) | 200 (2C) | 200 (2C) | 200 (2C) |
Standard Charging Current (A) | 25 (0.25C) | 25 (0.25C) | 25 (0.25C) |
Maximum Charging Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Cycle Life | 3000 times @80% DOD, 0.5C/0.5C | ||
Communication Interface | CAN; RS485; Dry contact | ||
Protection Functions | Over-temperature, over-current, short circuit, over-charging, over-discharging, etc. | ||
Dimensions (W×D×H) mm | 600×800×1400 | 600×800×2000 | 600×800×2000 |
Storage Temperature (°C) | 0–40 | ||
Operating Temperature (°C) | 15–45 (recommended 20–25) | ||
Relative Humidity | 5–95% | ||
Altitude (m) | ≤2000 | ||
Cell Specification | |||
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 3.2 | 3.2 | 3.2 |
Working Voltage Range (Vdc) | 2.5–3.6 | 2.5–3.6 | 2.5–3.6 |
Battery Module Specification | |||
Configuration | 1P14S | 1P15S | 1P15S |
Nominal Voltage (Vdc) | 44.8 | 48 | 48 |
Working Voltage Range (Vdc) | 39.2–49 | 42–53.5 | 42–52.5 |
Battery Pack Specification | |||
Configuration | 1P75S | 1P125S | 1P150S |
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 224 | 384 | 480 |
Working Voltage Range (Vdc) | 196–245 | 336–420 | 420–525 |
Weight (kg) | 310 | 490 | 590 |
Certifications | UL1642, UN38.3, IEC62619, IEC62133 |
Product Model | CLN240100U | CLN384100U | CLN480100U |
---|---|---|---|
Cell Chemistry | LiFePO4 | ||
Cell Form Factor | Prismatic | ||
Nominal Voltage (Vdc) | 240 | 384 | 480 |
Rated Charging Voltage (Vdc) | 262 | 420 | 525 |
Nominal Capacity (Ah/kWh) | 100/24 | 100/38.4 | 100/48 |
Self-Discharge Rate | <3% (0–30 °C / 3 months) | ||
Standard Discharge Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Maximum Discharge Current (A) | 200 (2C) | 200 (2C) | 200 (2C) |
Standard Charging Current (A) | 25 (0.25C) | 25 (0.25C) | 25 (0.25C) |
Maximum Charging Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Cycle Life | 3000 times @80% DOD, 0.5C/0.5C | ||
Communication Interface | CAN; RS485; Dry contact | ||
Protection Functions | Over-temperature, over-current, short circuit, over-charging, over-discharging, etc. | ||
Dimensions (W×D×H) mm | 600×800×1400 | 600×800×2000 | 600×800×2000 |
Storage Temperature (°C) | 0–40 | ||
Operating Temperature (°C) | 15–45 (recommended 20–25) | ||
Relative Humidity | 5–95% | ||
Altitude (m) | ≤2000 | ||
Cell Specification | |||
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 3.2 | 3.2 | 3.2 |
Working Voltage Range (Vdc) | 2.5–3.6 | 2.5–3.6 | 2.5–3.6 |
Battery Module Specification | |||
Configuration | 1P14S | 1P15S | 1P15S |
Nominal Voltage (Vdc) | 44.8 | 48 | 48 |
Working Voltage Range (Vdc) | 39.2–49 | 42–53.5 | 42–52.5 |
Battery Pack Specification | |||
Configuration | 1P75S | 1P125S | 1P150S |
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 224 | 384 | 480 |
Working Voltage Range (Vdc) | 196–245 | 336–420 | 420–525 |
Weight (kg) | 310 | 490 | 590 |
Certifications | UL1642, UN38.3, IEC62619, IEC62133 |
Product Model | CLN240100U | CLN384100U | CLN480100U |
---|---|---|---|
Cell Chemistry | LiFePO4 | ||
Cell Form Factor | Prismatic | ||
Nominal Voltage (Vdc) | 240 | 384 | 480 |
Rated Charging Voltage (Vdc) | 262 | 420 | 525 |
Nominal Capacity (Ah/kWh) | 100/24 | 100/38.4 | 100/48 |
Self-Discharge Rate | <3% (0–30 °C / 3 months) | ||
Standard Discharge Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Maximum Discharge Current (A) | 200 (2C) | 200 (2C) | 200 (2C) |
Standard Charging Current (A) | 25 (0.25C) | 25 (0.25C) | 25 (0.25C) |
Maximum Charging Current (A) | 50 (0.5C) | 50 (0.5C) | 50 (0.5C) |
Cycle Life | 3000 times @80% DOD, 0.5C/0.5C | ||
Communication Interface | CAN; RS485; Dry contact | ||
Protection Functions | Over-temperature, over-current, short circuit, over-charging, over-discharging, etc. | ||
Dimensions (W×D×H) mm | 600×800×1400 | 600×800×2000 | 600×800×2000 |
Storage Temperature (°C) | 0–40 | ||
Operating Temperature (°C) | 15–45 (recommended 20–25) | ||
Relative Humidity | 5–95% | ||
Altitude (m) | ≤2000 | ||
Cell Specification | |||
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 3.2 | 3.2 | 3.2 |
Working Voltage Range (Vdc) | 2.5–3.6 | 2.5–3.6 | 2.5–3.6 |
Battery Module Specification | |||
Configuration | 1P14S | 1P15S | 1P15S |
Nominal Voltage (Vdc) | 44.8 | 48 | 48 |
Working Voltage Range (Vdc) | 39.2–49 | 42–53.5 | 42–52.5 |
Battery Pack Specification | |||
Configuration | 1P75S | 1P125S | 1P150S |
Nominal Capacity (Ah) | 100 | 100 | 100 |
Nominal Voltage (Vdc) | 224 | 384 | 480 |
Working Voltage Range (Vdc) | 196–245 | 336–420 | 420–525 |
Weight (kg) | 310 | 490 | 590 |
Certifications | UL1642, UN38.3, IEC62619, IEC62133 |
BESS provides uninterruptible power, peak load management, and ensures power quality and uptime, especially during outages or brownouts.
Yes, our lithium BESS can integrate with or replace VRLA-based UPS setups with better performance and lifespan.
We offer modular and redundant (N+1) configurations with advanced BMS and thermal management.
Absolutely. We use LiFePO4 chemistry, known for high safety, thermal stability, and zero risk of thermal runaway.
Yes, our systems are designed to meet the uptime, redundancy, and compliance needs of all Tier levels.