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We run extrusion, curing, leveling, mechanical, and durability testing to ensure reliable results in actual coating conditions.

Yes. Our technical team provides resin–curing–additive matching, curing-window tuning, and application guidance.

Through DCS/PLC-controlled production, precision dosing, and strict QC testing, ensuring consistent performance across every batch.

​Silicone resin is a functional polymer built from a siloxane network that delivers exceptional stability in environments where conventional organic resins quickly degrade. This article explores the key uses of silicone resin and explains why it plays such an essential role in modern material engineering.

​Silicone resin is a high-performance polymer composed of a siloxane (Si–O–Si) backbone, recognized for its exceptional thermal stability, weatherability, and chemical resistance. Its unique inorganic–organic hybrid structure gives it long-lasting performance where conventional resins would degrade, which is why silicone resins are widely adopted across industrial, architectural, and high-temperature applications.

Yes. Beyond our standard additive range, we offer extended functional additives and can tailor formulations to your specific process or performance needs. Our technical team provides in-depth consultation and professional support for customized requirements.

Moisture-containing fillers, improper drying, or incompatible surface treatments can release gases during curing, creating pinholes or porosity. Dry, surface-treated fillers help maintain a smooth film.

Yes. We suggest optimized filler types (barium sulfate, calcium carbonate, talc, etc.) and loading levels based on gloss target, mechanical performance, cost requirements, and compatibility with TGIC, HAA, hybrid, or special-effect formulations.

Fillers with poor UV stability or high reactivity may accelerate chalking or color fading. UV-stable, inert fillers—combined with optimized resin–pigment systems—help improve long-term outdoor performance.

Yes. Certain fillers may absorb curing heat or interfere with melt flow, slowing cure speed or causing incomplete crosslinking. Selecting thermally stable fillers and optimizing filler loading prevents these issues.

Poorly dispersed fillers can create weak points within the film, reducing impact resistance and flexibility. Uniform dispersion enhances mechanical balance and improves the overall film integrity.

Fillers affect surface smoothness and gloss by altering the resin’s melt viscosity and flow behavior. Fine-particle fillers can reduce gloss, while coarser fillers may create texture. Proper particle-size control and resin compatibility ensure consistent appearance.