A disposable glove has a thickness of 0.03-0.12 mm, tensile strength of at least 14 Mpa, and elongation of at least 350%. The disposable glove is made by dip-coagulating a glove former with a water-based latex compound consisting of or comprising a base latex which is a vinyl acetate ethylene latex or a blend of vinyl acetate ethylene latex and carboxylated acrylonitrile butadiene latex, a pH adjuster, an external crosslinker, and a process additive.

The present invention provides an latex auxiliary composition for producing a latex solution, comprising: a sulfur-free crosslinking agent, which has aluminum oxide, calcium chloride, magnesium oxide, and zirconium dioxide; and a biomass filler, which has sorbitol, polyacrylate, laurate, 1,2-glycerol diacetate, and 1,3-glycerol diacetate; wherein when the sulfur-free crosslinking agent and biomass filler are added to the latex solution, based on 100 parts of the latex, the amount of the sulfur-free crosslinking agent is 0.1˜5.0 parts, and the amount of the biomass filler is 0.1˜20.0 parts.

The invention relates to a method for manufacturing a protective glove. The method includes the production of a textile support member having a zone for joining a portion of the support member to the remainder of the support member. A polymer coating solution is applied to a portion of the textile support member including the joint zone. The textile support member is processed so that the solution forms a polymer coating on the external surface the joint zone. The coated joint zone is designed to totally destroy the textile support member in the zone in order to form a joint between the portion and the remainder of the support member and the joint is formed by the polymer coating. The joint is able to tear under the effect of a threshold force for tearing off the portion.

A heatable glove liner, including a glove shaped garment having a conductive composite yarn sewn along a portion thereof, wherein the ends of the at least one strand of electrically conductive metal forming the core of the conductive composite yarn have electrical leads configured for connection to a power source to form an electrical circuit, such that upon completion of the electrical circuit, the conductive composite yarn heats up due to electrical resistance; and a glove containing the same.

A protective guard for a hand, finger or thumb includes a first thermoplastic layer heat welded to second thermoplastic layer. The second thermoplastic layer has a thickness that is greater than the thickness of the first thermoplastic layer.

Embodiments disclosed herein include devices and methods pertaining to gloves for protection of a wearer's hand. According to various embodiments of the disclosed technology, disclosed is a glove. The glove may include a glove body comprising a cuff portion, a palm portion, a thumb portion, and finger portions. The plurality of finger portions comprises at least one of an index finger portion, a middle finger portion, a ring finger portion, and a pinky finger portion. The glove may include a plurality of impact disbursement pads. The impact disbursement pads comprise finger pads, knuckle pads, metacarpal pads, and a thumb pad. The glove may include a webbing portion and knuckle pads. The glove body is formed from a first material, the webbing portion is formed from a second material, and the impact disbursement pads are formed from a third material.

A smart glove includes a glove for housing and triggering electronic modules having a sensor; a triggering member for triggering the electronic modules; and a slide provided on the glove for partially or completely enclosing the electronic modules. The slide is made of a flexible material and comprises a base; two side walls extending from two side portions of the base; two channels extending starting from a first end of the base towards a second end of the base; a protrusion connected to the base from a connection end of the protrusion and extending between a channel; a lock end located at an end of the protrusion not connected to the base and extending from the protrusion perpendicularly or in an angled manner; a slot provided on an opposite end of the base without the lock end, comprising a hollow and extending from the base towards a roof.

The present invention is directed to upper-body apparel having integrated gloves, wherein the gloves can easily switch between a stowed position and a donned position. The apparel comprises a pair of sleeves, each sleeve having an opening configured for extending a hand, the sleeve having an upper portion and a lower portion, the sleeve opening having an upper segment and a lower segment each extending along circumference of the sleeve opening, the upper segment extends along the upper portion of the sleeve and the lower segment extends along the lower portion of the sleeve. A glove having a palm side, a rear side, and a glove opening, a palm segment of the periphery of the glove opening extends along the palm side of the glove, and a rear segment of the periphery of the glove opening extends along the rear side of the glove. A flap having a front edge and an opposite rear edge, the rear edge having two opposite corners, the flap is made of stretchable material. The upper segment of the sleeve opening is coupled to the rear segment of the glove opening. The palm segment of the glove opening is coupled to the front edge of the flap, the two opposite corners of the rear edge of the flap coupled to the upper portion of the sleeve. The glove is sandwiched between the upper portion of the sleeve and the flap.

The invention relates to a web-shaped material with perforated lines, whereby, when tearing the material along the perforated lines, for example at the place of use that could be in a supermarket, units can be formed for use as a kind of glove or mitten.

Provided is a method for preparing a latex composition for dip forming, the method including: (a) preparing a monomer mixture including a conjugated diene-based monomer, an ethylenically unsaturated nitrile monomer and an ethylenically unsaturated acid monomer; (b) introducing starch, an emulsifier and an inorganic solvent into the monomer mixture; and (c) preparing a copolymer latex by introducing a polymerization initiator, wherein the copolymer includes the starch in a main chain thereof.