Abstract:
Disclosed are a mesh cotton with a separating net on a surface thereof and a method of manufacturing the same. The mesh cotton (10) is manufactured by layering a plurality of cotton sheets (13) and adhering the layered cotton sheets to each other with an acryl binder, embossing a surface of the layered cotton sheets, and forming a transparent mesh-type separating net (11) using a dilution of a mixture of ethylene copolymers on an outer surface of the layered cotton sheets. The separating net is also formed by applying in a mesh form a dilution of a mixture of a wax or a paraffin and the mixture of ethylene copolymers to an outer surface of the layered mesh cotton, and solidifying the dilution. The separating net may further include an antioxidant and other additives. The mesh cotton is completely removed from applied wound sites by the separating net, and maintains elasticity while the layered cotton sheets are not easily separated from each other.
Abstract:
To provide a relatively lightweight wall adhering material comprising a non-woven fabric or a water-resistant paper, having a specific coating weight as a substrate and provided thereon a specific amount of a porous layer, a water-discoloring wall adhering material which has excellent convenience at the time of production and use, promptly forms clear image to perceive, is difficult to fall down when adhered to a wall, and has high commercial value, and a water-discoloring wall adhering material set using the same.A water-discoloring wall adhering material 1 comprising a non-woven fabric 2 or a water-resistant paper, having a coating weight of from 40 to 150 g/m2 and provided on the surface thereof a porous layer 3 in an amount of from 5 to 50 g/m2, the porous layer comprising a binder resin and a low-refractive-index pigment dispersed in the binder resin and firmly fixed thereto, and the water-discoloring wall adhering material 1 having a gross weight of from 50 to 200 g/m2, and a water-discoloring wall adhering material set comprising the water-discoloring wall adhering material and a wall fixture or a tool for water adhesion, or a water-discoloring wall adhering material set comprising the water-discoloring wall adhering material, a wall fixture and a tool for water adhesion.
Abstract translation:为了提供一种相对轻质的壁粘合材料,其包含具有特定涂层重量作为基底并在其上设置特定量的多孔层的无纺织物或防水纸,其具有优异的水变褪色壁附着材料 在生产和使用时方便,及时形成清晰的图像,粘附在墙上时难以落下,具有很高的商业价值,以及使用该墙壁的水变色墙壁附着材料。 一种包含无纺织物2或防水纸的脱水壁粘合材料1,其涂层重量为40-150g / m 2,并在其表面上提供多孔 层3的含量为5至50g / m 2,多孔层包含分散在粘合剂树脂中的粘合剂树脂和低折射率颜料并牢固地固定在其上,并且水 - 具有50至200g / m 2的总重量的脱色壁粘合材料1和包含水变色墙附着材料的水变色墙附着材料和壁装置或 或用于水粘附的工具,或包含水变色墙附着材料的水变色墙附着材料组,壁装置和用于水粘附的工具。
Abstract:
The floor covering includes multiple layers including a non-woven base layer, a VAE precoat applied to the non-woven woven base layer and overlaid by a first PVC layer. A fiberglass mat is applied over the first PVC layer and a second PVC layer is applied over the mat. A woven PVC layer is laminated by heat and pressure to the underlying second PVC layer. The woven PVC layer comprises monofilament or multifilament cores, preferably but not limited to, polyester filaments overlaid by a PVC coating.
Abstract:
An upper surface layer 2 and a nonwoven fabric sound absorption layer 3 are integrally secured via an air permeable adhesive resin layer 4 formed by melting thermoplastic resin powder, and the air permeability of the thickness direction of the entire carpet 1 falls within the range of 1 to 50 cm3/cm2·second. This effectively absorbs noise from the upper side entering via a roof, doors and windows as well as noise from the lower side. The carpet can be manufactured by scattering thermoplastic resin powder on an upper surface member, heating the thermoplastic resin powder into melted thermoplastic resin, placing a nonwoven fabric on the upper surface member via the melted thermoplastic resin, and pressing the nonwoven fabric and the upper surface member in a laminated state. It is preferable that powder of particle size of 90 to 10,000 μm is scattered in the amount of 5 to 500 g/m2.
Abstract:
A washable floor mat has a tufted pile textile layer (1) and an elastomer backing layer (2). The textile layer (1) includes tufts containing cotton fibres, and the backing layer (2) is made of a foamed elastomer material and includes a plurality of cleats (4) on a lower surface if the backing layer.
Abstract:
An upper surface layer 2 and a nonwoven fabric sound absorption layer 3 are integrally secured via an air permeable adhesive resin layer 4 formed by melting thermoplastic resin powder, and the air permeability of the thickness direction of the entire carpet 1 falls within the range of 1 to 50 cm3/cm2nullsecond. This effectively absorbs noise from the upper side entering via a roof, doors and windows as well as noise from the lower side. The carpet can be manufactured by scattering thermoplastic resin powder on an upper surface member, heating the thermoplastic resin powder into melted thermoplastic resin, placing a nonwoven fabric on the upper surface member via the melted thermoplastic resin, and pressing the nonwoven fabric and the upper surface member in a laminated state. It is preferable that powder of particle size of 90 to 10,000 nullm is scattered in the amount of 5 to 500 g/m2.
Abstract translation:上表面层2和无纺布吸音层3通过熔融热塑性树脂粉末形成的透气性粘合树脂层4一体地固定,整个毯子1的厚度方向的透气度落在1 至50cm 3 / cm 2。 这有效地吸收从上侧通过屋顶,门窗进入的噪音以及来自下侧的噪音。 地毯可以通过将热塑性树脂粉末散布在上表面构件上,将热塑性树脂粉末加热成熔融的热塑性树脂,并通过熔化的热塑性树脂将无纺织物放置在上表面构件上,并将无纺布和上表面 成员处于层压状态。 优选粒径为90〜10000μm的粉末以5〜500g / m 2的量散布。
Abstract:
A tufted carpet is made by tufting yarn through a primary backing including a first backing layer and a second backing layer. The first backing layer is formed of a woven, non-woven or plastic sheet material, or a composite of a woven or non-woven material and a plastic sheet material. The second backing layer comprises a leno weave, open weave, plastic net or plastic sheet material. The first backing layer and the second backing layer are arranged so that the first backing layer forms a first side of the primary backing and the second backing layer forms an opposite side of the primary backing. The tufts of yarn that are sewn through the primary backing are exposed on the first side of the primary backing for forming face yams, and also form a plurality of back stitches on the opposite side of the primary backing. At least a major portion of the back stitches secure the first backing layer to the second backing layer.
Abstract:
A tufted carpet is made by tufting yarn through a primary backing of at least two layers, including a first backing layer and a second backing layer. The first backing layer is formed of a woven material, a non-woven material, or a composite of a woven or non-woven material and a plastic sheet material. The second backing layer is formed of a woven material of ribbons of polypropylene, polyethylene or combinations of polypropylene and polyethylene, a woven fiber glass material, a leno weave material, an open weave material, a plastic net or a plastic sheet material. A plurality of tufts of yarn that are sewn through the primary backing are exposed on one side of the primary backing for forming face yarns, and also form a plurality of back stitches on the opposite side of the primary backing. At least a major portion of the back stitches secure each layer of the primary backing to each other layer.
Abstract:
A variety of embodiments of layered and laminated fabric systems, each, preferably, including a puncture-resistant layer are disclosed. The puncture-resistant layer(s) of the layered systems can, in some embodiments, comprise or consist essentially of high tenacity fibers having a tensile breaking strength of at least about 10 g/Denier. The puncture-resistant layer(s) can be combined with one or more additional layers providing one or more desirable attributes of an article of apparel for use in, for example, rugged outerwear (e.g., dyeability, printability, soft hand, breatheability, abrasion resistance, etc.). The puncture-resistant layers can comprise fabrics or non fabrics and, when comprising a fabric, can comprise a woven or non-woven fabric (e.g., felts and knitted fabrics). In some embodiments, puncture-resistant layers of the multi-layer constructions and systems can comprise intimate blend fabrics comprising two or more different fiber types and/or high cover factor, small fill yarn fabrics or, in other embodiments, can comprise one or more conventionally constructed puncture-resistant layer(s).
Abstract:
A discrete superabsorbent layer is adhered to the lower surface of a fibrous absorbent structure using a water-based polymeric binder is disclosed. The advantages are that a superabsorbent roll good can be prepared for later conversion into disposable absorbent products. The use of the water-based polymeric binder prevents particles of superabsorbent from becoming dislodged from the structure during handling and processing.