Industry News

Aluminum hydroxide (ATH), as the core flame retardant filler and reinforcing component of artificial stones (especially quartz and solid surface materials), has a decisive impact on material properties due to its particle size distribution.

In the field of polymer composite materials, the application of aluminum hydroxide (ATH) as an efficient halogen-free flame retardant filler is crucial. However, the poor compatibility and tendency to aggregate between ATH and resin matrix have long constrained their full performance.

In the field of flame retardant and functional fillers, aluminum hydroxide (ATH) holds a pivotal position. However, the differences in its preparation processes—namely the "bottom-up" precipitation method and the "top-down" grinding method—fundamentally determine the physicochemical nature and application performance boundaries of the products.

In high-end electronic fields such as semiconductor packaging, high-frequency substrates, thermal interface materials, and advanced ceramic substrates, every microscopic characteristic of the material directly determines the performance boundary and reliability limit of the end product.

Polycarbonate (PC) is widely used in high-end transparent flame-retardant components (such as electronic windows, lighting equipment, and high-speed rail interiors) due to its excellent light transmittance, impact resistance, and dimensional stability.

In the field of lithium battery technology that pursues high energy density and high safety, aluminum hydroxide (Al(OH)₃) is widely used in positive electrode material coatings, separator ceramic coatings, and solid electrolyte composite systems due to its excellent thermal stability and flame retardant properties.