Abstract: A curable resin and method is disclosed. In one example, the curable resin is for the manufacture of mineral fiber products such as mineral wool insulating products. The curable resin includes components a), b) and c), wherein a) is a saccharide, b) is a polycarboxylic crosslinking agent, and c) is a polyvalent metal oxide curing accelerator. In one example, the curable resin is formaldehyde free.

Abstract: A curable resin and method is disclosed. In one example, the curable resin is for the manufacture of mineral fiber products such as mineral wool insulating products. The curable resin includes components a), b) and c), wherein a) is a saccharide, b) is a polycarboxylic crosslinking agent, and c) is a polyvalent metal oxide curing accelerator. In one example, the curable resin is formaldehyde free.

Abstract: The invention relates to a bioactive medical product, or dressing, characterised in that it comprises at least an inner layer formed by a hydrogel and an outer layer formed by a biodegradable and bioabsorbable polyurethane, said inner layer being impregnated with an N-terminal peptide of 20 amino acids of pro-adrenomedullin and the outer layer being impregnated with nanoparticles of bemiparin encapsulated in a biodegradable copolymer or polymer. The active components can be dosed in a sequential and controlled manner with this composition. The invention also relates to a method for producing the two-layer dressing and to the use thereof in medicine, said dressing being specially designed to treat and promote the healing of wounds, such as compromised wounds and ulcers, particularly in patients with diabetes and reduced blood supply.

Abstract: New triflusal-containing polymeric compounds resulting from the polymerization of 2-(methacryloyloxy)ethyl 2-acetyloxy-4-(trifluoromethyl)benzoate with butyl acrylate are described. These new polymers exhibit good adhesion and crack-bridging properties and are particularly suitable for the coating of stents.

Abstract: New biocompatible polymeric systems carrying triflusal or HTB are described which result from the polymerization of a monomer A of the acrylic or vinylic type and carrying triflusal or HTB, wherein triflusal or HTB are linked to the remainder of the molecule of said monomer through an in vivo hydrolysable covalent bond, and optionally a second polymerisable monomer B. These new polymeric systems are useful as coating for synthetic biomaterials.

Abstract: New triflusal-containing polymeric compounds resulting from the polymerization of 2-(methacryloyloxy)ethyl 2-acetyloxy-4-(trifluoromethyl)benzoate with butyl acrylate are described. These new polymers exhibit good adhesion and crack-bridging properties and are particularly suitable for the coating of stents.

Abstract: New biocompatible polymeric systems carrying triflusal or HTB are described which result from the polymerization of a monomer A of the acrylic or vinylic type and carrying triflusal or HTB, wherein triflusal or HTB are linked to the remainder of the molecule of said monomer through an in vivo hydrolysable covalent bond, and optionally a second polymerisable monomer B. These new polymeric systems are useful as coating for synthetic biomaterials.

Abstract: New biocompatible polymeric systems carrying triflusal or HTB are described which result from the polymerization of a monomer A of the acrylic or vinylic type and carrying triflusal or HTB, wherein triflusal or HTB are linked to the remainder of the molecule of said monomer through an in vivo hydrolysable covalent bond, and optionally a second polymerisable monomer B. These new polymeric systems are useful as coating for synthetic biomaterials.

Abstract: H3C—(CH2)a—(CH(OH)CH2)b—(CH═CHCH2)c—(CH═CH(CH2)7)d—  (A)