Graphite spiral wound gaskets should be filled with a combination of graphite and metal windings. Today, we will focus on the high-temperature graphite strips used in spiral wound gaskets and the substances they are suitable for, such as boiling water, high temperatures, high pressures, steam, heat exchange media, ammonia, hydrogen, hydrocarbons, and cryogenic liquids, among others.

Characteristics of graphite spiral wound gaskets:

1. Excellent temperature and cold resistance.
2. Good solvent corrosion resistance.
3. Good self-lubricating properties.
4. High elasticity.
5. Easy to use and cost-effective.
6.  

Introduction to the classification and structure of graphite metal spiral wound gaskets:
Graphite strips are made from flexible graphite coils, which are then re-cut into strips through a special process. High-carbon flake graphite undergoes chemical treatment, followed by high-temperature expansion and cold rolling to form the basic material for manufacturing various graphite products. Its range of applications includes the production of various graphite strips, fillers, sealing gaskets, composite plates, cylindrical gaskets, and more. Graphite is a transitional crystal between atomic crystals, metal crystals, and molecular crystals.

Applications of flexible graphite metal spiral wound gaskets:

Flexible graphite spiral wound gaskets are widely used in the field of industrial acoustic sealing. Flexible graphite paper has advantages such as good sealing performance, flexibility, wear resistance, corrosion resistance, and resistance to high and low temperatures. Different types of graphite metal spiral wound gaskets utilize a new generation of thin flexible graphite paper with good thermal conductivity, making them suitable for electronic products such as mobile phones, where the effectiveness of flexible graphite paper is fully utilized.

Flexible graphite paper plays a certain role in heat dissipation and heat transfer in mobile phones. It is formed into a certain shape and connected to electronic components such as electronic chips, where it can serve as a heat dissipater. Most heat dissipation methods involve attaching graphite to the chip. However, the presence of air between the chip and the graphite hinders heat transfer due to air's poor thermal conductivity, which to some extent reduces the heat transfer capability of flexible graphite paper. By improving the application mode of flexible graphite paper, its heat dissipation application in mobile phones can be realized.