A tire reinforcement fabric is woven with predipped and heat-set single cords as warp bound together with weft materials, and a pneumatic tire includes a tire reinforcement fabric. The tire reinforcement fabric is obtained by weaving individually dipped cords as warp material and a plurality of any kind of weft materials.

The present disclosure relates to a new and improved textile fabric fabricated of twill weave sheeting that has excellent wrinkle resisting characteristics, improved softness and durability over the sheeting fabrics currently being manufactured, enhanced aesthetic appeal, economy in cost of manufacture and other desirable characteristics. The textile fabric of the present disclosure can be formed of warp and weft yarns of twill weave construction wherein each of the warp yarns can be made of a natural material and each of the weft yarns can be made of a synthetic material. In an embodiment, the twill weave sheeting can have warp yarn and weft yarn, wherein the warp yarn and the weft yarn being a cross weave of cotton and polyester.

Methods for processing denim are provided. An initial fabric is abraded by passing the initial fabric through an abrader at a first predetermined speed, thereby obtaining a pre-washed fabric with an abraded texture. The abrader comprises one or more sanding boards, where each respective sanding board has a respective diamond surface that contacts the initial fabric while spinning about a respective axis at the respective center of the respective sanding board during the abrading. The pre-washed fabric is then washed with an ozone composition, thereby obtaining an ozone washed fabric.

Temperature-regulating fabrics composed of natural fibers that are wearable in all seasons and provide high-performance thermal regulation and excellent wicking and absorbency properties. The temperature-regulating natural fabrics disclosed herein are composed of a blend of cotton, hemp, and linen present in an amount of between 84% and 100% of the total composition. In some embodiments, the temperature-regulating natural fabric displays a high amount of stretch and a low amount of growth.

Temperature-regulating fabrics composed of natural fibers that are wearable in all seasons and provide high-performance thermal regulation and excellent wicking and absorbency properties. The temperature-regulating natural fabrics disclosed herein are composed of a blend of cotton, hemp, and linen present in an amount of between 84% and 100% of the total composition. In some embodiments, the temperature-regulating natural fabric displays a high amount of stretch and a low amount of growth.

A fabric comprising a warp component and a weft component. The warp component is made of a spun yarn that is 100% polyester fiber. The 100% polyester fiber spun yarn may be combined with one or more other yarns to form the warp component, such as a texturized polyester yarn but not limited thereto. Alternatively, the warp component is made of a spun yarn that is 100% acrylic fiber. The 100% acrylic fiber spun yarn may be combined with one or more other yarns to form the warp component, such as a texturized polyester yarn but not limited thereto. The weft component of the fabric may be formed of using one or more of manmade fibers and/or natural fibers. The fabric may be used to make bedding products.

A fabric comprising a warp component and a weft component. The warp component is made of a spun yarn that is 100% polyester fiber. The 100% polyester fiber spun yarn may be combined with one or more other yarns to form the warp component, such as a texturized polyester yarn but not limited thereto. Alternatively, the warp component is made of a spun yarn that is 100% acrylic fiber. The 100% acrylic fiber spun yarn may be combined with one or more other yarns to form the warp component, such as a texturized polyester yarn but not limited thereto. The weft component of the fabric may be formed of using one or more of manmade fibers and/or natural fibers. The fabric may be used to make bedding products.

A method and a system disclosed include drawing each of multiple synthetic yarns from a corresponding supply package to form an oriented yarn. Filaments within the oriented yarn are twisted and detwisted to provide texture thereto, to provide a low stability interlacing during weaving, and to intermingle the filaments, and a uniform air pressure is applied to the oriented yarn to provide a counter-twist. Also, a multi-pick yarn package is formed based on winding all formed oriented yarns, which serve as weft yarns forming adjacent substantially parallel yarns wound together, onto a spool. These weft yarns are simultaneously inserted in a single pick insertion event of a loom apparatus, and conveyed across a warp shed of the loom apparatus through a set of warp yarns. The set of warp yarns and the conveyed weft yarns are interlaced to produce an incremental length of a woven textile fabric.

The present invention relates to a composite yarn, a preparation method thereof and an elastic fabric, wherein the composite yarn comprises a core yarn and an outer wrapping yarn, wherein the core yarn further comprising at least one piece of elastic filament, and wherein the outer wrapping yarn is made of short fiber, wherein the outer wrapping yarn is spirally wrapped on the core yarn, wherein drafting ratio of the core yarn is 1-1.5 times.

The present invention relates to a composite yarn, a preparation method thereof and an elastic fabric, wherein the composite yarn comprises a core yarn and an outer wrapping yarn, wherein the core yarn further comprising at least one piece of elastic filament, and wherein the outer wrapping yarn is made of short fiber, wherein the outer wrapping yarn is spirally wrapped on the core yarn, wherein drafting ratio of the core yarn is 1-1.5 times.