Provided is a dip molding composition including, at least: an elastomer that contains a (meth)acrylonitrile-derived structural unit, an unsaturated carboxylic acid-derived structural unit, and a butadiene-derived structural unit in a polymer main chain; an epoxy crosslinking agent; water; and a pH modifier, in which dip molding composition the elastomer contains the (meth)acrylonitrile-derived structural unit in an amount of 20 to 40% by weight, the unsaturated carboxylic acid-derived structural unit in an amount of 1 to 10% by weight, and the butadiene-derived structural unit in an amount of 50 to 75% by weight, and the epoxy crosslinking agent includes an epoxy crosslinking agent containing an epoxy compound having three or more epoxy groups in one molecule and has a dissolution rate in water of 10 to 70% as determined by a specific measurement method.

Provided among other things are a fabric supported glove with a polymer coating with a palm dip, wherein (a) a grip inside surface of the glove having in-grip features at selective locations for promoting in-grip, or (b) a friction- or tack-providing polymer coating is provided on all or a portion of the grip inside surface to provide in-grip features, or (c) wherein the polymer coating is provided with a first lower viscosity polymer composition that provides limited strike-through in-grip features and a second higher viscosity polymer composition that provides an exterior gripping surface, or (d) non-parallel primary ridges in the fabric provide in-grip features, or (e) two or more of (a) through (d) applies, wherein the in-grip features comprise locations at the finger tips and on the palm of the hand configured to reduce inside slippage of the glove in gripping a representative cylinder.

A glove is provided that includes an outer layer and an inner layer. The outer layer includes a polyvinyl alcohol (PVA) composite including PVA chemically modified with nano cellulose and pre cross linked nitrile latex. The inner layer includes nitrile latex.

The present disclosure provides a rubber glove having a multilayer structure, which has high adhesion between layers, excellent resistance to ketones, and excellent dexterity. The rubber glove of the present disclosure includes an inner layer composed of a crosslinked product of a rubber composition (1) containing acrylonitrile-butadiene rubber; and an outer layer composed of a crosslinked product of a rubber composition (2) containing acrylonitrile-butadiene rubber and chloroprene rubber, wherein the inner layer and the outer layer are adjacent to each other, and two or more types of chloroprene rubber having different crystallization rates are used as the chloroprene rubber.

A method of making a garment material and garment material and garments obtainable by the method.

The method comprises providing a first layer, which is a shaped polymer and applying a liner to the first layer, the liner being formed of yarn and having interstices through it. A fluid polymeric material is then applied to the liner so that it permeates the interstices and is allowed to solidify to thereby form a second layer in which the liner is embedded in the solid polymeric material. Fibres are then applied to form a textile layer, which serves as a skin-contacting layer.

The garment material comprises a first layer (70, 76, 78), which is a shaped polymer; a second layer (80), which is a shaped polymer that is provided at one or more locations on the first layer, the second layer taking the shape of the first layer at said one or more locations; and a textile layer (82). The second layer is located between the first layer and the textile layer and a liner (22) is embedded in the second layer, the liner being formed of yarn and having interstices through it.

A safety glove includes a knitted inner shell, a first coating covering an exterior surface of the knitted inner shell, a plurality of guard members disposed on the first coating, a second coating covering the first coating and the plurality of guard members, and a third coating covering only a portion of the second coating. A method of manufacturing a safety glove includes kitting fibers to form an inner shell, dipping the inner shell into a first material to form a first coating; securing a plurality of guard members on the first coating, dipping the result into a second material to form a second coating, inspecting the second coating, and, if the second coating passes inspection, dipping only a portion of the result into a third material to form a third coating.

The technology described herein relates to a pair of long pants garment panel comprising a pattern of a durable water-repellant (DWR) coating that is selectively applied on to the pant legs of the pair of long pants. The pattern is comprised of a plurality of discrete shapes that are isolated from one another. In other words, the textile material surrounding each discrete shape in the plurality of discrete shapes is not coated by the DWR coating. A size of the plurality of discrete shapes in the pattern is gradually decreased moving up the pant legs starting from a hemmed edge up to a knee area. The pattern is visible during wet conditions and not visible during dry conditions.

A glove including a cured film of an elastomer containing a (meth)acrylonitrile-derived structural unit, an unsaturated carboxylic acid-derived structural unit and a butadiene-derived structural unit in a polymer main chain, wherein the elastomer contains 20 to 40% by weight of a (meth)acrylonitrile-derived structural unit, 1 to 10% by weight of an unsaturated carboxylic acid-derived structural unit and 50 to 75% by weight of a butadiene-derived structural unit, and has a crosslinked structure of a carboxyl group in the unsaturated carboxylic acid-derived structural unit with an epoxy crosslinker containing an epoxy compound having three or more epoxy groups in one molecule.

A garment is configured to be worn on a part of the body. The garment includes a fabric panel, a first material, and a second material. The garment includes an inwardly facing side, which faces toward the part of the body when the garment is worn, and an outwardly facing side, which faces away from the part of the body when the garment is worn. The first material is applied to the outwardly facing side to form a first unit of a first pattern, and the second material is applied to the inwardly facing side to form a second unit of a second pattern. At least one portion of the first unit is repeated to cover at least one first region of the fabric panel, and at least one portion of the second unit is repeated to cover at least one second region of the fabric panel.

A glove coating device capable of supplying a coating layer in which pores are uniformly mixed is provided. The glove coating device includes: i) a dipping bath that is adapted to receive a coating liquid; ii) a coating liquid circulation tank installed in the dipping bath and that is spaced apart from a bottom surface of the dipping bath; iii) an impeller located in the dipping bath and that is adapted to transfer the coating liquid to the coating liquid circulation tank; iv) a motor positioned above the impeller to drive the impeller; and v) a drive shaft extending in the vertical direction to interconnect the motor and the impeller. The coating liquid circulation tank includes i) a first side opened to allow the coating liquid to be introduced; a second side formed on the opposite side of the first side and opened in a direction away from the bottom side to apply the coating liquid to overflow; and a flow passage communicating with the first side and the second side. The flow passage includes i) a first flow passage portion that is adapted to communicate with the first side and having a predetermined width that is smaller than the width of the coating liquid circulation tank, and ii) a second flow passage portion communicating with the first flow passage portion and the second side and gradually widening a width of the second flow passage portion from the first flow passage portion to the second side.