The present invention relates to a ballistic cloth using a unidirectional aramid sheet and a polyethylene film and a method for manufacturing the same and, more particularly, is characterized in that aramid multifilament layers, which have monofilaments stacked and arranged in one direction, are arranged perpendicularly, a polyethylene film, which plays both the role of a binder and the role of protecting the sheet surface, is arranged between the aramid multifilament layers to manufacture a ply, and the ply is inserted into a mold and undergoes a pressing process and a cooling process, thereby manufacturing a ballistic cloth. A ballistic cloth manufactured by the method according to the present invention is advantageous in that use of a polyethylene film having a low softening point between unidirectional aramid sheets improves adhesiveness between the sheets and also improves the slip factor when the same ply is stacked, thereby exhibiting excellent ballistics performance. In addition, since the binder is solely made of a film, odor-free, environment-friendly manufacturing processes can be employed, no freezing is needed during storage; improved flexibility of the sheet facilitates delivery and distribution of impacts of bullets when the ballistic cloth is worn, thereby improving the ballistics performance and making the ballistic cloth further lightweight; and the polyethylene film, which is the protective layer of the unidirectional aramid sheets, has an adhesive strength of at least 2 kgf, thereby improving the ballistics performance.

The present invention is a method for adhering a removable object to fabric and includes selecting a fabric, attaching an inter-lining fabric to the back side of the fabric, attaching a magnetic element to the inter-lining fabric, wherein an edge of the magnetic element is parallel to the leading edge of the fabric, attaching a lining fabric to the back side of the fabric, where the lining fabric is adjacent to the inter-lining, folding the leading edge of the fabric over the magnetic element, such that the fabric and the inter-lining overlap the magnetic element and attaching the leading edge to the lining fabric adjacent to the inter-lining, and placing a metallic element on the front side of the fabric, such that the metallic element is positioned flush to the front side of the fabric and adheres to the fabric utilizing the force of the magnetic element.

The present invention is a method for adhering a removable object to fabric and includes selecting a fabric, attaching an inter-lining fabric to the back side of the fabric, attaching a magnetic element to the inter-lining fabric, wherein an edge of the magnetic element is parallel to the leading edge of the fabric, attaching a lining fabric to the back side of the fabric, where the lining fabric is adjacent to the inter-lining, folding the leading edge of the fabric over the magnetic element, such that the fabric and the inter-lining overlap the magnetic element and attaching the leading edge to the lining fabric adjacent to the inter-lining, and placing a metallic element on the front side of the fabric, such that the metallic element is positioned flush to the front side of the fabric and adheres to the fabric utilizing the force of the magnetic element.

A fabric containing carbon fibers impregnated with a silicone, polyurethane or acrylic emulsion which is then dried together with the fabric is disclosed. A protective layer containing a film, a woven or non-woven fabric is applied onto one side of the fabric.

A fabric containing carbon fibers impregnated with a silicone, polyurethane or acrylic emulsion which is then dried together with the fabric is disclosed. A protective layer containing a film, a woven or non-woven fabric is applied onto one side of the fabric.

Porous, binderless ceramic surface modification materials are described, and applications of use thereof. The ceramic surface material is in the form of an interconnected network of porous ceramic material on a substrate. The ceramic material may include a metal oxide, a metal hydroxide, and/or hydrates thereof, or a metal carbonate or metal phosphate, on a substrate surface. The substrate may be in the form of a metal or polymer particulate, powder, extrudate, or flakes.

The partial slipcover is a protective barrier adapted for use with a pillow. The partial slipcover is a composite textile that protects the pillow from staining. The partial slipcover is removably attached to the pillow thereby allowing the partial slipcover to be removed and replaced for cleaning. The partial slipcover comprises a composite textile and a fastener.

Disclosed is a malodor control system that can include use of a malodor scavenger configured to sequester a malodor molecule to reduce and/or eliminate the noxious odor the malodor molecule generates. Some embodiments can include use of a substrate configured as a non-woven fabric sheet as a delivery system for the malodor scavenger. In some embodiments, the substrate includes a polymer complexed with active ingredient to lock the active ingredient in place at a surface of the substrate via a binder so that the active ingredient is present at a predetermined activity level. After interacting with malodor molecules, at least some of the active ingredient can migrate via passive diffusion to the substrate surface to maintain the predetermined activity level.

A moisture control garment formed of a material that has moisture wicking (hydrophobic) properties joined to another material that has moisture absorbing (hydrophilic) properties. In certain embodiments, the moisture wicking and moisture absorbing materials are of similar thickness, have the same estimated shrinkage percentage, and the fibers of such materials are positioned in the same direction.

A moisture control garment formed of a material that has moisture wicking (hydrophobic) properties joined to another material that has moisture absorbing (hydrophilic) properties. In certain embodiments, the moisture wicking and moisture absorbing materials are of similar thickness, have the same estimated shrinkage percentage, and the fibers of such materials are positioned in the same direction.