Improving flame retardancy of in-situ silica-epoxy nanocomposites cured with aliphatic hardener: Combined effect of DOPO-based flame-retardant and melamine

Preparation and thermal cross-linking mechanism of co-polyester fiber with flame retardancy and anti-dripping by in situ polymerization

“…[1][2][3][4] The polyesters are inherently ammable and exhibit severe dripping behaviour during combustion, making them unsuitable for household textile decoration. [5][6][7] Various approaches have been proposed in previous studies, including the addition of ame retardants into polyesters by blending, and incorporating ame-retardant monomers into the PET chains via polymerisation, and nishing the fabrics/textile in a solution containing ame retardants to improve the properties of retardancy. [8][9][10] However, few solutions have been developed for these problems, owing to the large number of additives required, as well as the poor durability and compatibility of the materials.…”

Consistent modelling of material weight loss and gas release due to pyrolysis and conducting benchmark tests of the model—A case for glovebox panel materials such as polymethyl methacrylate

“…Bisphenol-A is a substance equivalent to the monomer material for PC. The bisphenol-A have been typically measured and detected with similar Py-GC-MS analysis [ 37 – 39 ]. Moreover, the other species of detectives were like those reported in the literature [ 40 – 42 ].…”

Template-free synthesis of hybrid silica nanoparticle with functionalized mesostructure for efficient methylene blue removal

“…Apart from pollution control, phosphonic acid functionalized MSNs are used as proton exchange membranes [31,32], active bio-molecule carrier systems [33]. Additionally, materials containing silica and phosphorous hybrid are kown for their impoved flame ratardancy [34][35][36].…”