Stable operation under extreme conditions of 400℃! High-temperature resistant silicone oil unlocks multi-scenario applications in high-end manufacturing

1. Performance leap: Breaking through the stability limit at ultra-high temperatures
A new type of long-chain alkyl-modified high-temperature resistant silicone oil has recently achieved a technological breakthrough. After testing, its temperature resistance range can reach 400-500℃. At high temperatures, its molecular structure is stable, it is not easy to carbonize and has no volatile residue, completely breaking the limitation of traditional silicone oil that its service life is less than 2000 hours at 150℃. This product, through the synergistic effect of long-chain alkyl groups and siloxane molecules, can maintain the integrity of the film layer even in environments with sudden temperature changes, and its thermal stability is more than three times higher than that of conventional products.

2. Energy-saving effectiveness: High-temperature process reduces costs by millions
In high-temperature production fields such as chemical engineering and new energy, the energy-saving value of this silicone oil has been verified. After a certain new materials enterprise applied it to the hot bath system of the reaction vessel, the heat transfer efficiency was increased by 25% compared with the traditional mineral heat transfer oil, the energy consumption of the heating system was reduced by 35%, and the annual electricity bill savings exceeded one million yuan. Meanwhile, its replacement cycle has been extended from one year to four years, maintenance costs have been reduced by 70%, and the product defect rate has dropped from 3.2% to 0.8%, achieving a dual improvement in energy efficiency and benefits.

3. Scene Adaptation: Covering the entire chain of high-end manufacturing
From metal die-casting to aerospace, this silicone oil demonstrates extremely strong scene adaptability. In the die-casting of aluminum alloy wheels, a uniform lubricating film can still be formed at a mold temperature of 450℃. After demolding, it can directly enter the electroplating process, eliminating the need for a cleaning step. In the battery pack of new energy vehicles, it can withstand local overheating above 200℃ of the battery cells and maintain stable viscosity for a long time. In the satellite electrical system, it has both insulation and radiation resistance, ensuring stable power supply for space missions. In addition, when used as a coating additive, it can also improve leveling, eliminate bubbles, and enhance the texture of high-end furniture paint.

4. Advantages of use: Simplified process and enhanced adaptability
The chemical inertness of this product endows it with full environmental adaptability. When used in high-humidity workshops, it can resist hydrolysis and prevent the surface of rubber products from turning white and sticking together. It is well compatible with multiple substrates such as plastics, metals, and polymers. When used as an internal additive, it does not affect the original properties of the substrate. In practical applications, re-coating every 5 to 8 molds can maintain the high-temperature protective effect, with no residue or migration of the film layer, significantly simplifying the production process. It has become the preferred material for high-end manufacturing enterprises.