Through the replacement of silicon source precursors, optimization of drying process (saving equipment investment by more than 80% per set), and continuous automated production line design, the comprehensive cost of aerogel has been reduced by more than 30%, and the product performance (such as thermal conductivity ≤0.022 W/(m·K)) is comparable to international high-end products.
Breaking through the technical bottleneck that aerogels are easy to sinter and collapse of their skeleton above 300℃, through in-situ enhanced network, surface ceramic protection and microscopic pore structure stabilization design, the aerobic temperature resistance of the material has been greatly improved to 1200℃, filling the high-end temperature resistance Aerogels market gap.
Through particle size control, pore network design and interface refractive index matching, transparent aerogel glass with visible light transmittance>97% and controllable haze has been developed, which can replace traditional architectural glass, has heat insulation (energy saving 30%+) and lighting functions, and is suitable for high-end scenes such as new energy automobile skyline and spacecraft observation window.
