Breaking Through Traditional Limitations: Solving the "Water-Oil Conflict" in Silicone Fluid Applications
Traditional silicone fluids, due to their non-polar molecular structure, are difficult to dissolve in water, limiting their use in water-based systems such as textiles and daily chemicals. Water-soluble silicone fluids utilize polyether grafting technology to introduce hydrophilic segments into the silane backbone, creating an amphiphilic molecular structure. This allows them to maintain their inherent low surface tension and heat and weather resistance while remaining miscible with water in all proportions. This modification completely resolves the issues of easy separation and poor stability associated with conventional silicone fluids in emulsion formulations. For example, in shampoo formulations, water-soluble silicone fluids can improve viscosity stability by 30%, with no precipitation observed after six months of storage.

Performance Advantages: Enhanced Product Competitiveness in Multiple Dimensions
Enhanced Environmental Performance: Water-based systems reduce the use of organic solvents and lower VOC emissions. In the paper processing industry, replacing oil-based release agents with water-soluble silicone oil reduced VOC concentrations in workshops from 120 mg/m³ to 35 mg/m³, complying with EU REACH regulations.
Functional Enhancement: It combines lubrication and antistatic properties, reducing fabric friction coefficient by 0.2 in the textile industry and lowering static voltage from 5000V to below 800V.
Cost Optimization: The emulsion form improves silicone oil utilization. In coating leveling agents, the addition level can be reduced from 3% to 1.5% to achieve the same effect, saving 2,800 yuan per ton.
Industrial Adaptation: Meeting the Core Needs of Emerging Industries
New energy vehicle battery packaging requires a leveling material with a wide temperature range of -40°C to 150°C. Water-soluble silicone oils achieve temperature-sensitive response through molecular design, maintaining fluidity at low temperatures and rapidly curing at high temperatures. 5G base station heat dissipation coatings require low thermal resistance and high adhesion. Modified silicone oils increase the coating's thermal conductivity to 1.2 W/(m·K) and achieve a 98% pass rate in salt spray tests. These characteristics make it an irreplaceable key material in the field of high-end manufacturing, driving the industry to upgrade towards green and functional directions.