ESS Battery Cell
An Energy Storage Battery Cell is the fundamental electrochemical unit of an energy storage system (ESS), responsible for storing and releasing electrical energy through lithium-ion reactions between cathode and anode materials.
Modern ESS applications mainly use lithium-based chemistries such as LiFePO₄ (LFP) and Nickel Manganese Cobalt (NMC) due to their balance of safety, cycle life, and performance.
Based on structural design, energy storage battery cells are primarily divided into two major types:
These two cell formats represent the mainstream technical routes in global energy storage systems.
LFP Pouch Cell for Energy Storage
The LFP Pouch Cell for Energy Storage is a high-performance lithium iron phosphate (LiFePO₄) battery designed for modern energy storage systems. Compared with traditional prismatic cells, pouch cells offer lighter weight, higher energy density, and flexible form factor, making them ideal for compact and modular ESS designs.
With excellent cycle life, fast charging capability, and wide temperature adaptability, this battery is suitable for a variety of applications including portable energy storage, intelligent devices, and light electric vehicles.
NMC Pouch Cell for Energy Storage
The NMC Pouch Cell for Energy Storage is a high-energy-density lithium-ion battery based on Nickel Manganese Cobalt (NMC) chemistry, designed for applications requiring strong power output and lightweight structure. Compared with traditional battery formats, pouch cells offer higher energy density, better space utilization, and flexible design, making them ideal for compact and high-performance energy systems.
With excellent high-rate discharge capability, fast charging performance, and stable cycle life, this battery is suitable for a wide range of applications including portable energy storage systems, UAVs/drones, electric tools, and other power-demanding devices.
100Ah Prismatic lithium Ion Battery
The 100Ah LiFePO4 battery offers reliable, efficient energy storage. With a nominal voltage of 3.2V, it supports a 1.0C discharge rate and features low internal resistance (<0.25mΩ). The battery charges at 1C (cut-off voltage 3.65V) and discharges at 1C (cut-off at 2.5V). It supports fast charging, reaching full capacity in 2 hours (0.5C) or 1 hour (1C). With a cycle life of over 6000 cycles at 70% SOH, it ensures long-term durability. The battery operates within a temperature range of -20°C to 55°C for discharge and 0°C to 55°C for charging.
280Ah Prismatic lithium Ion Battery
The 280Ah LiFePO4 battery offers reliable, efficient energy storage with a nominal voltage of 3.2V and a 1.0C discharge rate. Its low internal resistance (<0.25mΩ) ensures optimal performance. It charges at 1C (cut-off at 3.65V) and discharges at 1C (cut-off at 2.5V). Fast charging capabilities allow it to reach full capacity in 2 hours (0.5C) or 1 hour (1C). With over 6000 cycles at 70% SOH, it guarantees long-term reliability. It operates within a wide temperature range: -30°C to 60°C for discharge and 0°C to 60°C for charging.
314Ah Prismatic lithium Ion Battery
The 314Ah LiFePO4 battery offers reliable, efficient energy storage. With a nominal voltage of 3.2V, it supports a 1.0C discharge rate and features low internal resistance (<0.25mΩ). The battery charges at 1C (cut-off voltage 3.65V) and discharges at 1C (cut-off at 2.5V). It supports fast charging, reaching full capacity in 2 hours (0.5C) or 1 hour (1C). With a cycle life of over 6000 cycles at 80% SOH, it ensures long-term durability. The battery operates within a temperature range of -30°C to 55°C for discharge and 0°C to 55°C for charging.
Customized Energy Storage Battery Cell
Energy storage battery cells can be customized based on different project requirements to meet diverse application scenarios.
Customization options include:
Cell capacity (Ah)
Energy density (Wh/kg)
Chemistry system (LFP / NMC)
Discharge rate (C-rate)
Operating temperature range
Structural design (Prismatic or Pouch)
Cycle life optimization
Safety and certification requirements
Both Prismatic and Pouch cells support flexible customization for residential, commercial, and industrial ESS applications.
Popular Energy Storage Battery Cell
1. Prismatic Cell (Mainstream ESS Solution)
Prismatic cells are widely used in energy storage systems due to their standardized structure, strong mechanical stability, and long cycle life.
Common specifications:
Capacity: 50Ah – 314Ah+
Chemistry: LFP / NMC
Cycle Life: 6000–8000+ cycles
Application: Residential ESS, C&I ESS, Grid storage
2. Pouch Cell (High Energy Density Solution)
Pouch cells use a flexible aluminum-laminated film structure, enabling higher energy density and lighter weight design.
Common specifications:
Capacity: 10Ah – 100Ah+
Energy Density: 150–350 Wh/kg
Cycle Life: 1000–3000+ cycles (depending on chemistry)
Temperature Range: -40°C to 60°C
Pouch cells are widely used in high-performance and space-sensitive applications.
Features of Energy Storage Battery Cell
Energy storage battery cells offer different advantages depending on structure and chemistry:
High Energy Density (Pouch advantage)
Long Cycle Life (Prismatic LFP advantage)
Strong Structural Stability (Prismatic)
Flexible Design Capability (Pouch)
Wide Operating Temperature Range
High Safety Performance with BMS integration
Scalability for large ESS systems
Both Prismatic and Pouch cells are widely adopted in modern energy storage systems, depending on application requirements.
ESS Battery Cell Package
Dagong ESS typically uses two types of packaging: Cardboard Box Packaging and Wooden Box Packaging. However, we also offer alternative packaging options based on customer requirements, including:

Cardboard Box Packaging: Lightweight and cost-effective packaging for small ESS components, such as battery cells and controllers, often with protective materials like foam.
Wooden Box Packaging: Durable packaging for medium-sized or heavy ESS components, providing strong protection against impact and environmental factors.
Shockproof Packaging: Packaging with shock-absorbing materials, such as foam, to protect sensitive ESS components from vibrations and impacts during transport.
Containerized Packaging: Used for large, heavy ESS systems or components, placed in containers to prevent shifting and protect against environmental factors during transport.