A self-fastening fabric at least includes a micro-fibriform loop fabric structure and a fibriform pile fabric structure; a surface of the micro-fibriform loop fabric structure has a plurality of micro-fibriform loops formed through a heat shrinking treatment; and a surface of the fibriform pile fabric structure has hairiness and a plurality of restraining fibers respectively having a curved status and/or a bead distal end formed through a singeing treatment; when the micro-fibriform loop fabric structure on the first surface and the fibriform pile fabric structure on the second surface are in contact, the micro-fibriform loops and the restraining fibers are mutually hooked or tangled, so that a fastening effect is formed between the first surface and the second surface.

The present invention is directed to infrared-transparent visible-opaque fabrics for wearable personal thermal management.

Ticking having excellent flexibility is described. A woven fabric is obtained by using a multifilament having a monofilament fineness of not more than 0.5 dtex, the number of filaments of 100 or more and a total fineness of not more than 50 dtex and used as ticking. The woven fabric can be made of a polyester.

A portable and manual clothes wringing system utilizes a wringer roll apparatus configured to retain wet clothes in a rolled up wringer fabric and has loops extending from the ends to receive rods for twisting and wringing water from wet clothes. The wringer roll apparatus enables a manual method of wringing water from clothes by twisting a first end rod extended through the first end loops with respect to the second end rod configured through the second end loops. The wringer fabric may be a microcloth made of microfibers. The wet clothes may contact the inside and outside surface of the wringer fabric when rolled in the wringer roll to more effectively wring water from the wet clothes.

A portable and manual clothes wringing system utilizes a wringer roll apparatus configured to retain wet clothes in a rolled up wringer fabric and has loops extending from the ends to receive rods for twisting and wringing water from wet clothes. The wringer roll apparatus enables a manual method of wringing water from clothes by twisting a first end rod extended through the first end loops with respect to the second end rod configured through the second end loops. The wringer fabric may be a microcloth made of microfibers. The wet clothes may contact the inside and outside surface of the wringer fabric when rolled in the wringer roll to more effectively wring water from the wet clothes.

A portable and manual clothes wringing system utilizes a wringer roll apparatus configured to retain wet clothes in a rolled up wringer fabric and has loops extending from the ends to receive rods for twisting and wringing water from wet clothes. The wringer roll apparatus enables a manual method of wringing water from clothes by twisting a first end rod extended through the first end loops with respect to the second end rod configured through the second end loops. The wringer fabric may be a microcloth made of microfibers. The wet clothes may contact the inside and outside surface of the wringer fabric when rolled in the wringer roll to more effectively wring water from the wet clothes.

A portable and manual clothes wringing system utilizes a wringer roll apparatus configured to retain wet clothes in a rolled up wringer fabric and has loops extending from the ends to receive rods for twisting and wringing water from wet clothes. The wringer roll apparatus enables a manual method of wringing water from clothes by twisting a first end rod extended through the first end loops with respect to the second end rod configured through the second end loops. The wringer fabric may be a microcloth made of microfibers. The wet clothes may contact the inside and outside surface of the wringer fabric when rolled in the wringer roll to more effectively wring water from the wet clothes.

A non-coated air bag fabric according to the present invention includes a plurality of weft yarns and a plurality of warp yarns, in which the weft yarns and the warp yarns are constituted by multifilament yarns in which polyethylene terephthalate fibers are used, the number of filaments in each of the multifilament yarns ranges from 122 to 242, and a coefficient of kinetic friction of a surface of the fabric ranges from 1.15 to 1.25 or less, the coefficient of kinetic friction being calculated when a friction block in which polyvinyl chloride is used is brought into contact with the fabric placed on a stage that is rotating at a rotation speed of 663 rpm, at a load of 5 N, using a torque type friction and wear tester.

A non-coated air bag fabric according to the present invention includes a plurality of weft yarns and a plurality of warp yarns, in which the weft yarns and the warp yarns are constituted by multifilament yarns in which polyethylene terephthalate fibers are used, the number of filaments in each of the multifilament yarns ranges from 122 to 242, and a coefficient of kinetic friction of a surface of the fabric ranges from 1.15 to 1.25 or less, the coefficient of kinetic friction being calculated when a friction block in which polyvinyl chloride is used is brought into contact with the fabric placed on a stage that is rotating at a rotation speed of 663 rpm, at a load of 5 N, using a torque type friction and wear tester.

A highly absorbent, super-soft composite yarn includes a core formed of microfibers and a covering layer formed of natural fibers which are twisted and surround the microfibers. The microfiber is a composite fiber having two or more components. In one structure, the two components are held together in an interleaved structure resembling an orange in cross-section. In another structure, the microfibers have undergone a splitting process and the two components are separated from each other, where the single filaments of the two components have a linear mass density below 0.55 dtex. The natural fibers of the covering layer cotton fibers, hemp fibers, wool fibers, bamboo fibers, silk fibers, or soybean fibers. The microfibers are functionalized with one or more additives, such as antibacterial, aromatic, and UV-blocking additives. A method for manufacturing the composite yarn and related textile is also described.