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无线充传感器ichaiyang 2024-05-08 23:45 29
The most important material for liquid cooled supercharge is graphene. Graphene is a single sheet of carbon atoms that has excellent thermal conductivity and high mechanical streng...

What is the main material of liquid-cooled supercharge?

The most important material for liquid cooled supercharge is graphene. Graphene is a single sheet of carbon atoms that has excellent thermal conductivity and high mechanical strength.
It has a very high thermal conductivity, which can quickly conduct heat away from the battery and effectively reduce the temperature of the battery.
In addition, graphene also has high electrical conductivity and chemical stability, which can provide good battery performance and long life. As the main material of liquid-cooled supercharge, graphene can not only be used for heat dissipation of batteries, but also can be applied in other fields.
For example, in electronic devices, graphene can be used to make high-performance heat dissipation materials, improving the efficiency and stability of equipment.
In addition, graphene can also be used in the preparation of supercapacitors, sensors, flexible displays and other fields, with broad application prospects. In short, graphene, as the main material of liquid-cooled supercharge, has excellent thermal conductivity and high mechanical strength, which can effectively reduce the temperature of the battery and improve the performance and life of the battery. At the same time, graphene has a wide range of applications in other fields.


The main material of liquid-cooled supercharge is composite liquid.

The main component of liquid-cooled supercharge is composite liquid, which contains a variety of organic and inorganic substances. Among them, the most important component is a liquid material with high thermal conductivity, which can quickly absorb and conduct heat, effectively reducing the temperature inside the phone.

The liquid also has good stability and high temperature resistance, and can maintain a stable heat dissipation effect in a long time high temperature environment.