Amino fluorosilicone oil has recently made significant progress in the fields of high-performance adhesives and composite interface treatment. Through innovative molecular structure design, this material successfully integrates the chemical inertness of fluorine, the flexibility of siloxane chains, and the reactivity of amino functional groups, providing a new generation of high-reliability interface treatment solutions for aerospace, new energy, and precision electronics manufacturing. It addresses the technical bottleneck where traditional materials struggle to balance bonding strength and durability under extreme environmental conditions.

Research shows that the surface energy of amino fluorosilicone oil can be precisely regulated to 20-25 mN/m, exhibiting excellent wettability and chemical bonding capability with difficult-to-adhere substrates such as aluminum alloy, titanium alloy, carbon fiber composites, and specialty engineering plastics. Bonding interfaces treated with it achieve 90° peel strength of 8-15 kN/m, representing an improvement of over 300% compared to traditional silane coupling agents. In harsh environmental testing, bonded components retain over 90% of their strength after 1,000 hours of dual 85 aging (85°C/85% RH) and demonstrate stable performance during thermal shock cycling from -55°C to 200°C, showcasing exceptional resistance to environmental aging.

In the field of new energy power batteries, amino fluorosilicone oil, as a pre-treatment agent for battery pack structural adhesives, significantly enhances the interfacial bonding strength and electrolyte corrosion resistance between aluminum alloy housings and composite fire barriers. Actual test data indicates that treated battery packs show no failure at structural bonding points during simulated collision and vibration combined tests, providing critical assurance for the overall safety and long lifespan of the battery system. In the aerospace sector, the material has been successfully applied in the co-curing bonding of next-generation aircraft carbon fiber composite skins and titanium alloy frameworks, substantially reducing structural weight while ensuring the fatigue performance of joint areas.

With the growing demand for equipment lightweighting and integration, the functional expansion of amino fluorosilicone oil has become a new trend. Its derivative materials can be endowed with multiple functions such as thermal conductivity, electrical conductivity, or electromagnetic shielding while achieving high-strength, aging-resistant bonding, meeting the complex interface performance requirements of high-end electronic packaging, 5G communication equipment, and satellite payloads. Industry analysis suggests that this breakthrough in the material platform will accelerate the large-scale application of high-performance composite materials in cutting-edge fields such as electric vehicles, low-earth-orbit satellites, and humanoid robots, and is expected to foster a high-value-added niche materials market.