The new energy lithium battery, optical display, and precision electronics industries are undergoing rapid iterations, driving the continuous expansion of the demand for high-end electronic release paper. High-end products such as lithium battery electrodes, optical protection films, FPC flexible circuit boards, precision tapes, and microelectronics die-cutting auxiliary materials have extremely strict requirements for release paper in terms of anti-static, low residue, high cleanliness, and high stability during the processes of die-cutting, coating, winding, and transportation. Traditional ordinary release paper cannot meet the production needs. The large-scale application of anti-static modified silicone oil effectively addresses the industry pain points of static accumulation, dust adsorption, and component contamination, and fills the domestic gap in high-end electronic paper additives.
The silicone film formed after the traditional release silicone oil is cured has high insulation properties. Under high-speed die-cutting, rapid peeling, and continuous winding conditions, the paper and the adhesive layer, as well as the surface of the equipment, undergo intense friction, easily generating a large amount of static electricity that cannot be dissipated. The continuous accumulation of static electricity will adsorb fine dust, fiber impurities in the air, causing contamination of precision film materials, electrodes, and adhesive surfaces, resulting in an increase in product defect rates; in severe cases, it may even cause static discharge, breaking the precision circuits and optical coatings, presenting significant production hazards, and not being suitable for clean electronic manufacturing workshops.
The new anti-static modified silicone oil through molecular grafting modification technology retains the excellent release, anti-adhesion, hydrophobicity, and weather resistance properties of silicone oil while constructing stable and controllable micro-conductive channels to quickly drain the static electricity generated by friction, fundamentally avoiding problems such as static accumulation, dust adsorption, and discharge damage. The product has uniform control of peel force, no powder shedding, no silicone transfer, and no residue during die-cutting, and will not contaminate lithium battery electrodes, optical films, and precision adhesives, fully meeting the ultra-high cleanliness production requirements of the electronics industry. 
At the same time, the product has high resistance to high and low temperatures and aging, can adapt to processes such as electrode hot pressing and film material high-temperature coating, and has strong stability in working conditions. It has low ions, low volatility, high purity, no corrosion, and no precipitation, and is suitable for high-end manufacturing fields such as new energy lithium batteries, 3C electronics, precision optics, and smart wearables. It is the core functional additive for high-end electronic release paper.
Industry data shows that the growth rate of lithium battery-related electronic release paper demand will exceed 30% in 2026, and the long-standing monopoly of overseas on high-end anti-static silicone oil has been continuously broken. Domestic IOTA electronic-grade anti-static silicone oil has been certified by several leading new energy enterprises and has been put into mass production. With high stability and high cost-effectiveness, it accelerates import substitution and continuously supports the upgrading and development of high-end electronic paper products.