Lithium iron phosphate batteries have gained extremely wide applications in many important fields nowadays due to their remarkable advantages such as high safety, long cycle life, stable performance and relatively low cost. Our company has been deeply involved in the customization of lithium iron phosphate batteries for many years. Relying on the industry-leading production technology and an almost stringent quality control system, we have won the sincere support and deep trust of a vast number of customers.
The powerful customization ability is a major highlight of our company. Whether it's the requirement of energy storage systems for batteries with large capacity and high stability, or the special needs of electric ships for battery waterproofing, corrosion resistance and continuous power output, or the expectations of communication base stations for high reliability and long battery life, as well as the reliance of industrial forklifts on the battery's high-current discharge performance, and so on, we can accurately perceive the diverse demands of customers, customize solutions for various application scenarios, and effectively promote the green, low-carbon transformation and sustainable development of all industries.
Lithium iron phosphate batteries have higher safety and good thermal stability, and are less likely to encounter dangerous situations such as fire and explosion. They have a long cycle life, relatively low cost, and are environmentally friendly. In addition, their performance is relatively stable in high-temperature environments and they can better adapt to some relatively harsh working conditions.
Compared to normal temperature environments, the performance of lithium iron phosphate batteries will decline in low-temperature environments. For example, their electrical capacity will decrease and their discharge ability will become weaker, resulting in a shortened endurance of the equipment. However, through some battery heating systems or thermal insulation measures, the impact of low temperature on battery performance can be alleviated to a certain extent, enabling them to work relatively stably in low-temperature environments.
First, collect and classify waste batteries, and then separate the shells and electrode materials through physical disassembly. Next, use chemical methods to extract elements such as lithium, iron, and phosphorus for use in battery production or other industrial fields. Recycling enterprises will strictly control pollution, and recycling technologies are constantly being optimized and improved.
During production, they do not involve heavy metals such as lead, mercury, and cadmium, so the pollution risk is low. During recycling, elements such as lithium, iron, and phosphorus are easy to extract and reuse, with a high recovery rate, reducing resource dependence and waste emissions. They are more environmentally friendly and sustainable than lead-acid batteries and some other lithium batteries.
In high-altitude areas, the air is thin and the air pressure is low. The heat dissipation of the battery becomes better, but there are changes in the internal pressure, which will cause a slight decrease in capacity and a slightly lower discharge voltage platform. However, when the altitude is below 5,000 meters, through the adjustment of the battery management system, the battery can work normally. It is necessary to pay attention to the status of the battery and the equipment to ensure safety.
Lithium iron phosphate batteries have better starting performance. They can provide a large current in a short time for quick starting, and their advantage is more obvious in low-temperature environments. In low-temperature environments, the chemical reaction rate of lead-acid batteries is slow, the internal resistance is large, and it is difficult to start. Lithium iron phosphate batteries have stable starting performance in a wide temperature range and are suitable for scenarios with high requirements for starting, such as emergency power supplies and vehicle starting systems.