Industry News

When introducing ammonium polyphosphate (APP) into epoxy resin (EP) to achieve flame retardant function in high-end electronic packaging, optical devices, and transparent fire-resistant coatings, "transparency loss" becomes a key bottleneck restricting its application.

The water resistance of ammonium polyphosphate (APP) is the key bottleneck determining its long-term protective performance in the field of expandable fireproof coatings and high-end polymer flame retardants.

In the flame retardant modification of polypropylene (PP), the "precipitation" problem is a typical interface failure phenomenon dominated by thermodynamic driving forces and manifested in dynamic processes. It not only affects the appearance of the product (frosting, whitening, uneven gloss), but also indicates unreliable degradation of flame retardant performance and long-term service risks.

​Low‑viscosity Aluminum Hydroxide is a specialized grade of aluminum hydroxide (Al(OH)3) engineered for improved flow characteristics and narrower particle size distribution compared to regular grades. It finds critical use in flame retardant systems, sealants, composites, and high‑performance polymer formulations due to its unique balance of physical and chemical properties.

The thermal decomposition temperature of decabromodiphenyl ethane (DBDPE) is one of the core process and performance parameters for its efficient flame retardant, which directly determines its processing window, flame retardant efficiency, and behavior mode in polymers during fire.

Decabromodiphenyl ethane (DBDPE), as the main high molecular weight brominated flame retardant worldwide, is not freely available for global application, but is constrained by a complex and dynamically evolving regional chemical regulatory framework.