 |
9XE-3.2V304Ah LFP Battery Cell
9XE
011
LiFePO4 Battery Cell
3.2V
304Ah
Over 4000 cycles
≤0.16mΩ
5450±164
207.2±0.5
1737±0.5
71.7±0.8
Our engineers have employed optimized electrode design and electrolyte formulation for the 3.2V 304Ah lithium iron phosphate (LiFePO4) battery cells, achieving an internal resistance of less than or equal to 0.16 ohms.
The objectives of these optimizations encompass five key aspects:
Enhancing Battery Discharge Performance: A lower internal resistance facilitates easier flow of electric current through the battery, thereby improving its discharge performance. This is particularly crucial for high-power applications such as electric vehicles (EVs) and large-capacity energy storage systems.
Optimizing Low-Temperature Performance: In cold environments, the low internal resistance helps mitigate temperature rise within the battery, enhancing the availability of stored energy even in chilly conditions.
Increasing Cycle Life: With reduced internal resistance during charge and discharge cycles, energy loss and heat generation are minimized, contributing to an extended cycle life of the battery.
Improving Thermal Stability: The lower internal resistance aids in reducing heat generation during high-power discharge, thereby enhancing the thermal stability of the battery.
Enhancing Charging Efficiency: During the charging process, the lower internal resistance allows for more efficient passage of electric current through the battery, reducing energy losses during charging.
The benefits of having an internal resistance below 0.16 ohms for the 3.2V 304Ah LiFePO4 battery cells make them exceptionally well-suited for specific niche scenarios. Here are some application scenarios:
Electric Vehicle Sector:
The LiFePO4 battery cells, with an internal resistance below 0.16 ohms, excel in the electric vehicle domain. The low internal resistance contributes to improved discharge performance, allowing electric vehicles to release energy more rapidly and efficiently, providing a more powerful output. Simultaneously, the low internal resistance during charging enhances charging efficiency, reducing charging time and elevating the overall performance and user experience of electric vehicles.
Energy Storage Systems:
In large-scale energy storage systems, such as solar or wind energy storage stations, the low internal resistance of the 3.2V 304Ah LiFePO4 battery cells is crucial. It aids in minimizing energy losses, thereby improving the efficiency of energy conversion within the system. This is particularly critical for extended charge-discharge cycles, reducing operational costs, and prolonging the lifespan of energy storage systems.
Emergency Power and Backup Sources:
In critical locations like medical equipment facilities and communication base stations, reliable emergency power and backup sources are essential. The LiFePO4 battery cells, with their low internal resistance, provide stable and reliable power support. Their superior cycle life and low-temperature performance make them a dependable choice for backup power sources, ensuring the smooth operation of equipment during emergencies.
Unmanned Aerial Vehicles (UAVs) and Aircraft:
In the aviation sector, where lightweight and high performance are crucial, the LiFePO4 battery cells with a low internal resistance contribute to enhanced discharge performance. This provides UAVs and aircraft with longer flight times and superior performance.
New Energy Vehicle Charging Stations:
In charging stations for new energy vehicles, the efficiency of battery charging directly impacts charging speed and energy utilization. The low internal resistance of the 3.2V 304Ah LiFePO4 battery cells enables more efficient charging processes, speeding up the charging time, reducing user waiting time, and promoting the widespread adoption and development of new energy vehicles.
Power Tools:
In high-power output and long-duration applications like electric drills and saws, the low internal resistance of the 3.2V 304Ah LiFePO4 battery cells provides stable power support, extending the tool's usage time and improving work efficiency.
Portable Electronic Devices:
For lightweight, high-energy-density portable electronic devices such as laptops, tablets, wireless headphones, etc., the high performance and low internal resistance of these battery cells offer longer battery life and reliable power support.
Electric Toys:
In the electric toy industry, such as remote-controlled cars and airplanes, the LiFePO4 battery cells can provide high-performance power sources, enhancing the toys' performance during play.
Smart Home Devices:
For smart home devices like smart locks, surveillance cameras, smart lighting, etc., the low internal resistance contributes to improved device stability and reliability, ensuring prolonged operation without being affected by battery performance.
Mobile Medical Devices:
In mobile medical equipment, such as portable medical instruments and wireless medical devices, the 3.2V 304Ah LiFePO4 battery cells provide reliable power support, ensuring the proper functioning of medical equipment in any location.
These diverse applications demonstrate the versatility and high performance of the 3.2V 304Ah LiFePO4 battery cells, making them suitable for a wide range of demanding scenarios.
Our engineers have employed optimized electrode design and electrolyte formulation for the 3.2V 304Ah lithium iron phosphate (LiFePO4) battery cells, achieving an internal resistance of less than or equal to 0.16 ohms.
The objectives of these optimizations encompass five key aspects:
Enhancing Battery Discharge Performance: A lower internal resistance facilitates easier flow of electric current through the battery, thereby improving its discharge performance. This is particularly crucial for high-power applications such as electric vehicles (EVs) and large-capacity energy storage systems.
Optimizing Low-Temperature Performance: In cold environments, the low internal resistance helps mitigate temperature rise within the battery, enhancing the availability of stored energy even in chilly conditions.
Increasing Cycle Life: With reduced internal resistance during charge and discharge cycles, energy loss and heat generation are minimized, contributing to an extended cycle life of the battery.
Improving Thermal Stability: The lower internal resistance aids in reducing heat generation during high-power discharge, thereby enhancing the thermal stability of the battery.
Enhancing Charging Efficiency: During the charging process, the lower internal resistance allows for more efficient passage of electric current through the battery, reducing energy losses during charging.
The benefits of having an internal resistance below 0.16 ohms for the 3.2V 304Ah LiFePO4 battery cells make them exceptionally well-suited for specific niche scenarios. Here are some application scenarios:
Electric Vehicle Sector:
The LiFePO4 battery cells, with an internal resistance below 0.16 ohms, excel in the electric vehicle domain. The low internal resistance contributes to improved discharge performance, allowing electric vehicles to release energy more rapidly and efficiently, providing a more powerful output. Simultaneously, the low internal resistance during charging enhances charging efficiency, reducing charging time and elevating the overall performance and user experience of electric vehicles.
Energy Storage Systems:
In large-scale energy storage systems, such as solar or wind energy storage stations, the low internal resistance of the 3.2V 304Ah LiFePO4 battery cells is crucial. It aids in minimizing energy losses, thereby improving the efficiency of energy conversion within the system. This is particularly critical for extended charge-discharge cycles, reducing operational costs, and prolonging the lifespan of energy storage systems.
Emergency Power and Backup Sources:
In critical locations like medical equipment facilities and communication base stations, reliable emergency power and backup sources are essential. The LiFePO4 battery cells, with their low internal resistance, provide stable and reliable power support. Their superior cycle life and low-temperature performance make them a dependable choice for backup power sources, ensuring the smooth operation of equipment during emergencies.
Unmanned Aerial Vehicles (UAVs) and Aircraft:
In the aviation sector, where lightweight and high performance are crucial, the LiFePO4 battery cells with a low internal resistance contribute to enhanced discharge performance. This provides UAVs and aircraft with longer flight times and superior performance.
New Energy Vehicle Charging Stations:
In charging stations for new energy vehicles, the efficiency of battery charging directly impacts charging speed and energy utilization. The low internal resistance of the 3.2V 304Ah LiFePO4 battery cells enables more efficient charging processes, speeding up the charging time, reducing user waiting time, and promoting the widespread adoption and development of new energy vehicles.
Power Tools:
In high-power output and long-duration applications like electric drills and saws, the low internal resistance of the 3.2V 304Ah LiFePO4 battery cells provides stable power support, extending the tool's usage time and improving work efficiency.
Portable Electronic Devices:
For lightweight, high-energy-density portable electronic devices such as laptops, tablets, wireless headphones, etc., the high performance and low internal resistance of these battery cells offer longer battery life and reliable power support.
Electric Toys:
In the electric toy industry, such as remote-controlled cars and airplanes, the LiFePO4 battery cells can provide high-performance power sources, enhancing the toys' performance during play.
Smart Home Devices:
For smart home devices like smart locks, surveillance cameras, smart lighting, etc., the low internal resistance contributes to improved device stability and reliability, ensuring prolonged operation without being affected by battery performance.
Mobile Medical Devices:
In mobile medical equipment, such as portable medical instruments and wireless medical devices, the 3.2V 304Ah LiFePO4 battery cells provide reliable power support, ensuring the proper functioning of medical equipment in any location.
These diverse applications demonstrate the versatility and high performance of the 3.2V 304Ah LiFePO4 battery cells, making them suitable for a wide range of demanding scenarios.
