An overview of recent developments of the chemistry of halogen-free flame retardant polymers is presented in this paper. The polymers or reactive monomers that are inherently flamed retarding contain P, Si, B, N and other miscellaneous elements. They can be used on their own or added to current bulk commercial polymers to enhance flame retardancy. The synthetic chemistry of these molecules is discussed along with their thermal stabilities and flame-retardant properties.</p
A wide variety of molecules containing S–N or S–N–S cores were synthesized, and their flame retardan...
Polymers have infiltrated almost every aspect of modern technology, as they have wide applications r...
It would be difficult to imagine how modern life across the globe would operate in the absence of sy...
The first chapter examines the non-halogenated flame retardant additives. The synthesis and blending...
The use of organic polymeric materials is limited in many applications because of fire hazard. Fire ...
Plastic additives are among the most relevant assets in the polymer industry for improving the prope...
The development of science and technology provides the availability of sophisticated products but co...
This work is concerned with the synthesis and application of novel polymeric flame retardants for po...
Owing to advances in polymer science over the past 50 years, a large number of polymers with differi...
Aryl polyphosphonates (ArPPN) have been demonstrated to function in wide applications as flame retar...
Engineering plastics (PA, PBT) have their own high processing temperatures (250-350°C and even highe...
The present invention is directed to novel flame retardant monomers and polymers, wherein the flame ...
Different kinds of additive and reactive flame retardants containing phosphorus are increasingly suc...
Radical generators as synergists in flame retarded polymers have been used in combination with bromi...
PLA has become a commodity polymer with wide applications in a number of fields. However, its high f...
A wide variety of molecules containing S–N or S–N–S cores were synthesized, and their flame retardan...
Polymers have infiltrated almost every aspect of modern technology, as they have wide applications r...
It would be difficult to imagine how modern life across the globe would operate in the absence of sy...
The first chapter examines the non-halogenated flame retardant additives. The synthesis and blending...
The use of organic polymeric materials is limited in many applications because of fire hazard. Fire ...
Plastic additives are among the most relevant assets in the polymer industry for improving the prope...
The development of science and technology provides the availability of sophisticated products but co...
This work is concerned with the synthesis and application of novel polymeric flame retardants for po...
Owing to advances in polymer science over the past 50 years, a large number of polymers with differi...
Aryl polyphosphonates (ArPPN) have been demonstrated to function in wide applications as flame retar...
Engineering plastics (PA, PBT) have their own high processing temperatures (250-350°C and even highe...
The present invention is directed to novel flame retardant monomers and polymers, wherein the flame ...
Different kinds of additive and reactive flame retardants containing phosphorus are increasingly suc...
Radical generators as synergists in flame retarded polymers have been used in combination with bromi...
PLA has become a commodity polymer with wide applications in a number of fields. However, its high f...
A wide variety of molecules containing S–N or S–N–S cores were synthesized, and their flame retardan...
Polymers have infiltrated almost every aspect of modern technology, as they have wide applications r...
It would be difficult to imagine how modern life across the globe would operate in the absence of sy...