General-purpose plastics have a wide range of applications, mainly polypropylene (PP), polyethylene (PE), polystyrene (PS) and polyvinyl chloride (PVC), etc., which are used in a large number of industries such as packaging, automotive, sundries, electronic devices and electrics, tubing, and wires and cables.   Read More>

Explore the cutting-edge world of high-temperature engineering plastics that are revolutionizing industries from aerospace to electronics with "Inventory of 8 Common High-temperature Resistant Engineering Plasticss" – a comprehensive guide to the materials that stand the test of heat and perform under pressure.   Read More>

Uncover how nano-flame-retardant materials can become the guardians of social security while stimulating new sources of economic benefits.   Read More>

Unveil the future of fire safety with our exploration of eco-friendly flame retardant solutions, where sustainability meets superior performance and environmental integrity.   Read More>

As technology continues to advance and new materials are developed, we expect that these materials will continue to drive innovation and growth in a variety of industries in an even more environmentally friendly and efficient manner. Ultimately, through continuous research and improvement, we will be able to create engineering plastics products that are safer, more reliable and in line with our sustainability goals to meet the challenges of the future.   Read More>

The flame retardants used in engineering plastics are mainly halogenated flame retardants and phosphorus flame retardants.   Read More>

This article explores the flame-retardant mechanisms of polymer composites, focusing on the roles of nitrogen, sulfur, silicon, and fluorine in improving fire resistance. It highlights how these elements contribute to flame retardancy through the formation of protective barriers, inert gas production, and inhibition of combustion processes. Despite advancements, challenges such as balancing performance with safety, minimizing environmental impact, regulatory compliance, and cost-effectiveness persist in achieving optimal flame retardancy in building materials. The ongoing research aims to address these challenges, promising safer, more sustainable flame-retardant solutions for the future. Keywords: polymer composites, flame retardant, nitrogen, sulfur, silicon, fluorine, building safety, environmental impact.   Read More>

This article explores the incorporation of flame retardants as additives in plastic technology, focusing on the mechanisms of polymer combustion, the main modes of action of flame retardant materials, and commonly used flammability tests. It highlights the importance of cooling, char formation, dilution of flammable gases, and interruption of free radical chain reactions in enhancing polymer fire resistance. With challenges in optimizing flame retardant performance while maintaining material properties and environmental safety, innovations in flame retardant technology are pivotal. Keywords: flame retardants, polymer combustion, cooling, protective char, dilution, free radical chain reaction, flammability tests, plastic technology, fire safety.   Read More>