Abstract: A marking element (1) for the labelling of a textile, wherein said marking element (1) comprises an adhesive layer (2), a reinforcement fabric (3) and a printable layer (4) which forms an outer surface (5) of the marking element (1), wherein the said outer surface (5) is thermal transfer printable and/or digital printable and wherein the fabric (3) is embedded between the printable layer (4) and the adhesive layer (2), wherein the fabric (3) is a porous fabric (3) having a thickness of at most 1000 ?m and in that one or both of the abovementioned layers (2, 4) extend at least partly through the fabric (3) in such a way that the said layers (2, 4) are in direct contact with each other and method for producing such a marking element (1).

Abstract: A removable marking element for the labelling of a textile comprises a fabric layer, having an upper surface and a lower surface opposite to the upper surface, and an adhesive layer for securing the marking element to a textile by heat and pressure, wherein said adhesive layer is bonded to the lower surface of the fabric layer, wherein the adhesive layer is composed of at least two sublayers, including a first sublayer forming an outer layer of the marking element and comprising a thermoplastic urethane for securing the marking element to the textile by heat and pressure, and a second sublayer bonded to the first sublayer and located between the first sublayer and the fabric layer, wherein the second sublayer comprises a thermoset.

Abstract: The invention relates to a method for producing a multilayered part which comprises a moulded core (5) and a flexible polyurethane skin layer (4). The core itself comprises a moulded substrate layer (1) which is made of a substrate material, in particular a thermoplastic material, having a Shore A hardness higher than 60. The flexible polyurethane skin (4) is produced by a reaction overmoulding (ROM) process wherein a polyurethane reaction mixture is moulded in a closed mould (11, 12) over at least a first area of the core surface. The moulded core (5) comprises in addition to said substrate layer (1) a softer material which is moulded onto the substrate layer (1) and/or onto which the substrate layer (1) is moulded. This moulded softer material has a Shore A hardness lower than 60 and forms a softer layer (2) between the flexible polyurethane layer (4) and the substrate layer (1) and/or a seal (3) engaging the internal wall of the mould (11, 12) during the ROM process.

Abstract: The invention relates to a method for producing a multilayered part which comprises a moulded core (5) and a flexible polyurethane skin layer (4). The core itself comprises a moulded substrate layer (1) which is made of a substrate material, in particular a thermoplastic material, having a Shore A hardness higher than 60. The flexible polyurethane skin (4) is produced by a reaction overmoulding (ROM) process wherein a polyurethane reaction mixture is moulded in a closed mould (11, 12) over at least a first area of the core surface. The moulded core (5) comprises in addition to said substrate layer (1) a softer material which is moulded onto the substrate layer (1) and/or onto which the substrate layer (1) is moulded. This moulded softer material has a Shore A hardness lower than 60 and forms a softer layer (2) between the flexible polyurethane layer (4) and the substrate layer (1) and/or a seal (3) engaging the internal wall of the mould (11, 12) during the ROM process.

Abstract: A method for producing a panel assembly is provided. The panel assembly includes a panel and a gasket adhered to the panel and extending along at least a portion of the periphery. A curable composition is applied either directly or indirectly onto the panel and onto a mold surface onto which the panel has been positioned. When being applied on the mold surface, the curable composition has a dynamic viscosity which is lower than the dynamic viscosity of extrusion materials. In this way, a better surface quality can be achieved without having to exert a high pressure onto the curable composition. In contrast to the known RIM processes, the curable composition is not injected in a closed mold but is applied onto an open mold surface by means of an applicator device moving along at least the portion of the periphery of the panel.

Abstract: The panel assembly comprises a panel (2) and a gasket (1) adhered to the panel and extending along at least a portion of the periphery. For producing the panel assembly a curable composition is applied either directly or indirectly onto the panel and onto a mould surface (6) onto which the panel has been positioned. When being applied on the mould surface, the curable composition has a dynamic viscosity which is lower than the dynamic viscosity of extrusion materials. In this way, a better surface quality can be achieved without having to exert a high pressure onto the curable composition. In contrast to the known RIM processes, the curable composition is not injected in a closed mould but is applied onto an open mould surface by means of an applicator device (9) moving along at least said portion of the periphery of the panel (2). In this way, cheaper moulds can be used and in particular moulds made of a soft, resilient material (8).