96results about "Fabrics trimming" patented technology

Certain embodiments according to the invention provide compression articles suitable for a wide variety of uses (e.g., compression socks, athletic garments, etc.). In accordance with certain embodiments, the compression article includes at least two uniform compression regions, including a first uniform compression region having a first compression pressure and a second uniform compression region having a second compression pressure, and at least one transitioning compression region, including a first transitioning compression region positioned between the first and second uniform compression regions. The first transitioning compression region comprises a first end adjacent or proximate to the first uniform compression region and a second end adjacent or proximate to the second uniform compression region. The first transitioning compression region comprises a compression pressure gradient extending from the first end to the second end of the first transitioning compression region.

Described is a method of forming a textile perform for a mold having a complex curvature.

The invention discloses a towel machine with high product quality. The towel machine comprises a feeding device, a serging device, a manufacturing device and a hot melting device. The feeding device is fixedly connected with the serging device. The manufacturing device and the serging device are arranged in a relatively fixed mode. The hot melting device is arranged on the side face of the manufacturing device. Cloth is fed into the serging device by the feeding device. Primary double-side serging is carried out on the cloth fed by the feeding device by the serging device. Secondary double-side serging is carried out on the cloth by the manufacturing device after the cloth discharged out of the serging device is cut off. The hot melting device carries out hot melting on the cloth discharged out of the manufacturing device. According to the towel machine with the high product quality, mechanical automation replaces the original manual operation to produce towels, the labor intensity of workers is lowered, product production efficiency is stably improved, production cost is lowered, production can be effectively managed, and practical high production requirements are met.

A method for forming a composite absorbent member is provided that includes:

• • a) extruding a first fibrous component through a first meltblowing die and intermingling pulp fibers with the first fibrous component to form a first admixture;
  • b) extruding a second fibrous component through a second meltblowing die and intermingling pulp fibers with the second fibrous component to form a second admixture; and
  • c) codepositing the first and second admixtures on a collecting surface so as to form a composite structure having at least a first layer and a second layer. The second layer has a higher weight percentage of pulp fibers than the first layer, and the average diameter of the pores within the second layer is smaller than the average diameter of the pores within the first layer.

An open mesh insect control material is described which includes an insect contact surface, an internal surface, apertures communicating both surfaces and a plurality of filamentous projections protruding from the insect contact surface the projections at least partly occlude the apertures. The structure is suitable for use in pest control especially as a mosquito net.

A composite yarn comprising one or more ultra-high molecular weight polyethylene fibres wrapped around one or more polyurethane-polyurea copolymer fibres.

A weaving method for producing a plurality of moisture sensors for a device for monitoring an access to a patient, in particular for monitoring the vascular access in an extracorporeal blood treatment, wherein the moisture sensors are woven. During the weaving of the moisture sensors, non-conductive warp threads, non-conductive weft threads, conductive warp threads and conductive weft threads are disposed in the textile two-dimensionally extending structure, such that spatially demarcatable structures of electrical strip conductors are created. The strip conductor structures can be produced by spatial separation or contacting of the conductive warp or weft threads. In order to be able to produce the moisture sensors cost effectively in large numbers, a plurality of individual moisture sensors are repeatedly woven each time beside one another normal to the production direction on a common woven fabric web as the web progressively advances, so that the width of the woven fabric web is occupied in the best possible way by as many moisture sensors as possible. The individual moisture sensors are separated from one another after weaving.

A method of forming a nanocomposite material that includes nanoparticles includes disposing in a forming apparatus a fiber material, a carrier material with nanoparticles dispersed therein, the carrier material having a releasing trigger to release the nanoparticles, the releasing trigger being at least one of a releasing temperature and a releasing pressure, and a resin having an infusion temperature, increasing the temperature within the forming apparatus to a temperature at least equal to the infusion temperature of the resin to allow the resin to impregnate the fiber material without triggering the releasing trigger of the carrier material, and triggering the releasing trigger of the carrier material in the forming apparatus by increasing at least one of the temperature and the pressure within the forming apparatus to cause dispersion of the nanoparticles.

A joint support device is provided. The joint support device may include a first tubular layer and a second tubular layer both made of crisscrossing fibers. The crisscrossing fibers of the first tubular layer may be oriented in a spiral in a first direction and the crisscrossing fibers of the second tubular layer may be oriented in a spiral in an opposite direction of the first direction. The first and second tubular layers may be layered together and may be attached to an existing elastic knee brace.

A lacrosse head pocket and a related method of manufacture are provided to facilitate consistent, repeatable and/or custom manufacture of lacrosse equipment. The pocket can be constructed from multiple different sections joined with one another, or can be knitted, weaved or otherwise assembled on an automated assembly machine from strands, and/or can be formed as a unitary textile material having regions/sections with different physical and/or mechanical properties. The pocket can be integrally molded within portions of a lacrosse head to eliminate manually constructed connections between the pocket and lacrosse head. The lacrosse head can be integrally molded with a lacrosse handle to provide a one-piece unitary lacrosse stick. Related methods of manufacturing also are provided.

An insulating product and method for its creation involving inner valves designed to impede the flow of insulating materials between compartments formed by the inner valves. This allows for creating vertical baffles in addition to the typical horizontal baffles.

A method for making a continuous non-slip layered garment includes creating a fabric structure having inner and outer surfaces, which conforms to a body part, and creating continuous non-slip layers on the inner and outer surfaces of the fabric structure. The inner surface is proximal to a user contact surface and distal to an external contact surface. The outer surface is proximal to the external contact surface and distal to the user contact surface. The continuous non-slip layers are created by applying a non-slip material on selective continuous portions, selective non-continuous portions, whole portions, or an entirety of the inner surface and the outer surface of the fabric structure. The continuous non-slip layers provide simultaneous gripping contact between the inner surface of the fabric structure and the user contact surface, and between the outer surface of the fabric structure and the external contact surface.

A medical device (1) comprising a flexible light source wherein said flexible light source comprises two or more individually manageable areas (2, 3, 4) of light emission and wherein each area (2, 3, 4) comprises a light diffuser textile comprising optical fibres (10) providing side diffusion of a light, method for its manufacture and medical uses.

The invention discloses a novel towel machine. The machine comprises a control center, a feeding device, a first processing device and a second processing device, wherein the control center is used for intensively controlling the feeding device, the first processing device and the second processing device; the feeding device comprises a feeding frame, a sensor, a servo motor and an automatic adjusting frame; the feeding frame is provided with a guide rail vertical to a feeding direction; the servo motor is connected with an automatic adjusting frame and drives the automatic adjusting frame to slide on the guide rail; the sensor senses the size of a cloth and transmit the size data into the control center; the second processing device comprises a second cabinet, a belt transmission mechanism, a second synchronous roller, a cutting mechanism, a clamping mechanism, a sign folding and transmitting mechanism and a second twin-needles machine, wherein the belt transmission mechanism, the second synchronous roller, the cutting mechanism, the clamping mechanism, the sign folding and transmitting mechanism and the second twin-needles machine are arranged on the cabinet; the cutting mechanism is fixedly arranged between the second synchronous roller and the belt transmission mechanism; the clamping mechanism is used for clamping the cloth to the belt transmission mechanism; and a feeding outlet of the belt transmission mechanism is fixedly provided with the twin-needles machine.

The invention relates to a manufacture process for a composite heat insulation material, which has the steps that: 1, feather is firstly washed by water, sterilized, dried and loosened, and then, feather stems and feather silks are separated; 2, meldable fibers and polyester staple fibers are loosened and are mixed according to a weight ratio of 16 to 19/10 to 15; 3, the processed feather silks and the fibers mixed in the second step are mixed and are uniformly mixed through a stirring machine, and in addition, some impurities are removed; 4, the feather silk mixed fibers are sewed into blocky materials by duck down threads via a patterning machine; 5, then, the sewed feather silk mixed fibers are processed into thin sheets with the thickness being 0.3mm to 0.5mm through a carding machine, and the impurities are removed for a second time; 6, the feather silk mixed fibers are overlapped and paved layer by layer by a net paving machine; and 7, the feather silk mixed fibers are baked by an infrared baking oven, the baking temperature is set to 100 DEG C to 140 DEG C, and in addition, the cutting treatment is carried out, so the initial product breadth maintains the constant value. The composite heat insulation material has good heat insulation performance, the environment is protected, the spinnability and the shearing performance are realized, the price is relatively low, the raw material resources are rich, and the market demand potential is huge.

A woven fabric pool cover has an antimicrobial agent that reduces/prevents the growth of microbes on the pool cover and in the water of a swimming pool covered by the cover. The fabric cover may be woven from polyolefin extruded monofilaments, and/or fibrillated tape yarns where the yarns have an antimicrobial agent added during the yarn extrusion process or added to fabric formed by the yarns. The fabric may be woven from traditional polyolefin extruded monofilaments, and/or fibrillated tape yarns before the resulting fabric is treated with a antimicrobial agent. Such treatment may involve spraying a solution onto the fabric or also dipping, soaking, or padding the fabric into the treating solution. The antimicrobial agent may form a zone of inhibition around the yarns and may seep out of the fabric to form zones of inhibition in the surrounding environment, like on the cover and/or in swimming pool water.

A textile is provided that includes a plurality of warp yarns and a plurality of weft yarns woven together, the plurality of warp yarns each including an elastic warp filament and a non-elastic warp filament, and the plurality of weft yarns each including an elastic weft filament and a non-elastic weft filament. At least one of the elastic warp filament, the non-elastic warp filament, the elastic weft filament, and the non-elastic weft filament includes a hydrophobic material. The materials of the elastic warp filament, the non-elastic warp filament, the elastic weft filament, and the non-elastic weft filament are selected such that the textile has a high elastic stretchability in at least one of a weft direction and a warp direction. A garment including the textile, and methods for manufacturing the textile and the garment, are also disclosed.

A color-fast and high-crocking combination fabric and methods for making the same. The color-fast and high-crocking fabric consists of dyed natural fibers and dyed polyester fibers. The natural and polyester fibers are dyed and/or colored before being combined into yarns and fabrics. The color-fast and high-crocking combination fabric has very high color-fastness as measured by crocking standard, while maintaining a quality hand feel. The color fastness can withstand at least thirty regular cold-temperature home-wash laundries.

A method of converting an elongated web of filamentary textile material into lengths; of coherent labels for application to garments includes placing a first row of selvage on the web at a first predefined distance from a first outer edge thereof, the first predefined distance being greater than zero, placing a second row of selvage on the web at a second predefined distance from a second outer edge thereof, the second predefined distance being greater than zero, and placing at least a third row and a fourth row of selvage on the web between the first and second rows, a portion of the filamentary material separating each of the rows from the other. A following step includes cutting the web along a line lying between the third and fourth rows of selvage and at a predefined distance away from each of the third and fourth rows of selvage, the predefined distance being greater than zero.

A reinforced composite structure (29) is disclosed. The structure is formed by opposed layers of material extending over a core and continuous bundles stitched in a repeating pattern through the opposed layers (30, 32) and the intermediate core (29) to form the reinforced composite structural member (29).