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9XE-3.2V280Ah LFP Battery Cell
9XE
010
LiFePO4 Battery Cell
3.2V
280Ah
Over 6000 cycles
≤0.25mΩ
5490±300
207.2±0.5
173.9±0.5
71.7±0.8
Although the 230Ah and 304Ah battery cells already offer some choices, the 3.2V 280Ah lithium iron phosphate battery cell can address additional requirements, including the following five aspects:
Balancing Capacity and Performance:
The 3.2V 280Ah battery cell is likely designed to strike a balance between the 230Ah and 304Ah options. It provides higher capacity while maintaining high levels of performance and cycle life.
Meeting Specific Application Demands:
Certain application scenarios may require a battery capacity between 230Ah and 304Ah. The 3.2V 280Ah battery cell is better suited to meet the specific demands of these applications, offering a more precise energy match.
Enhancing System Design Flexibility:
System designers can choose different capacity battery cells based on the specific energy requirements and space constraints of their projects, optimizing overall system performance.
Improving Energy Efficiency:
The 3.2V 280Ah battery cell incorporates new technologies and materials to enhance energy efficiency, reduce self-discharge rates, and increase the cycle life to 6000 cycles.
Addressing a Broader Range of Challenges:
By adopting new technologies and materials, the 3.2V 280Ah battery cell is better equipped to handle challenges in complex application scenarios, such as high power demands and rapid charge-discharge cycles.
Overall, the 3.2V 280Ah lithium iron phosphate battery cell offers a more comprehensive solution by providing higher capacity, balanced performance, flexibility, and the application of advanced technologies.
Electric Vehicles and Hybrid Vehicles:
Case Description:
A certain electric vehicle manufacturer has opted to use 3.2V 280Ah lithium iron phosphate (LiFePO4) battery cells in their electric vehicles. Due to the high voltage and high capacity characteristics of LiFePO4 batteries, they provide sufficient power and range to meet the requirements of electric vehicles. Furthermore, the long cycle life of LiFePO4 batteries makes them a reliable choice for electric transportation, extending the overall lifespan of the vehicles.
Large-Scale Energy Storage Systems:
Case Description:
An energy company is in the process of constructing a large-scale energy storage system for balancing grid loads and providing backup power. Considering the system's need for high voltage and high capacity, they have chosen 3.2V 280Ah LiFePO4 battery cells. These batteries meet the system's requirements for energy density and cycle life, ensuring the system maintains efficient stability over the long term.
Renewable Energy Projects:
Case Description:
A solar power station project requires a reliable battery solution capable of storing large amounts of solar energy. To balance solar energy fluctuations and provide continuous power output, the project has selected 3.2V 280Ah LiFePO4 battery cells. The high capacity of these batteries ensures sufficient energy storage, and their long cycle life allows the batteries to deliver reliable performance throughout the project's entire lifecycle.
Remote Communication Base Stations:
Case Description:
A communication company operating in remote areas needs to provide reliable power for its communication base stations. Considering the remote locations of the base stations and the requirement for long battery life cycles, they have chosen 3.2V 280Ah LiFePO4 battery cells. These batteries offer stable power, and their high cycle life ensures the reliability of the communication base stations, reducing dependence on frequent maintenance.
Special Military Applications:
Case Description:
In a specific military mission requiring a battery to support equipment for extended periods and demanding high safety and reliability in harsh environmental conditions, the military has selected 3.2V 280Ah LiFePO4 battery cells. These batteries maintain efficient performance even under high-intensity usage, and their long cycle life ensures reliable power supply during military operations.
In the context of clean energy and sustainable development, the 3.2V 280Ah lithium iron phosphate battery cell is poised to emerge as a key driving force in the fields of energy storage and power applications
Although the 230Ah and 304Ah battery cells already offer some choices, the 3.2V 280Ah lithium iron phosphate battery cell can address additional requirements, including the following five aspects:
Balancing Capacity and Performance:
The 3.2V 280Ah battery cell is likely designed to strike a balance between the 230Ah and 304Ah options. It provides higher capacity while maintaining high levels of performance and cycle life.
Meeting Specific Application Demands:
Certain application scenarios may require a battery capacity between 230Ah and 304Ah. The 3.2V 280Ah battery cell is better suited to meet the specific demands of these applications, offering a more precise energy match.
Enhancing System Design Flexibility:
System designers can choose different capacity battery cells based on the specific energy requirements and space constraints of their projects, optimizing overall system performance.
Improving Energy Efficiency:
The 3.2V 280Ah battery cell incorporates new technologies and materials to enhance energy efficiency, reduce self-discharge rates, and increase the cycle life to 6000 cycles.
Addressing a Broader Range of Challenges:
By adopting new technologies and materials, the 3.2V 280Ah battery cell is better equipped to handle challenges in complex application scenarios, such as high power demands and rapid charge-discharge cycles.
Overall, the 3.2V 280Ah lithium iron phosphate battery cell offers a more comprehensive solution by providing higher capacity, balanced performance, flexibility, and the application of advanced technologies.
Electric Vehicles and Hybrid Vehicles:
Case Description:
A certain electric vehicle manufacturer has opted to use 3.2V 280Ah lithium iron phosphate (LiFePO4) battery cells in their electric vehicles. Due to the high voltage and high capacity characteristics of LiFePO4 batteries, they provide sufficient power and range to meet the requirements of electric vehicles. Furthermore, the long cycle life of LiFePO4 batteries makes them a reliable choice for electric transportation, extending the overall lifespan of the vehicles.
Large-Scale Energy Storage Systems:
Case Description:
An energy company is in the process of constructing a large-scale energy storage system for balancing grid loads and providing backup power. Considering the system's need for high voltage and high capacity, they have chosen 3.2V 280Ah LiFePO4 battery cells. These batteries meet the system's requirements for energy density and cycle life, ensuring the system maintains efficient stability over the long term.
Renewable Energy Projects:
Case Description:
A solar power station project requires a reliable battery solution capable of storing large amounts of solar energy. To balance solar energy fluctuations and provide continuous power output, the project has selected 3.2V 280Ah LiFePO4 battery cells. The high capacity of these batteries ensures sufficient energy storage, and their long cycle life allows the batteries to deliver reliable performance throughout the project's entire lifecycle.
Remote Communication Base Stations:
Case Description:
A communication company operating in remote areas needs to provide reliable power for its communication base stations. Considering the remote locations of the base stations and the requirement for long battery life cycles, they have chosen 3.2V 280Ah LiFePO4 battery cells. These batteries offer stable power, and their high cycle life ensures the reliability of the communication base stations, reducing dependence on frequent maintenance.
Special Military Applications:
Case Description:
In a specific military mission requiring a battery to support equipment for extended periods and demanding high safety and reliability in harsh environmental conditions, the military has selected 3.2V 280Ah LiFePO4 battery cells. These batteries maintain efficient performance even under high-intensity usage, and their long cycle life ensures reliable power supply during military operations.
In the context of clean energy and sustainable development, the 3.2V 280Ah lithium iron phosphate battery cell is poised to emerge as a key driving force in the fields of energy storage and power applications
