A protective glove can include a unitary dorsal panel formed from an inner scrim material and a plurality of protective elements molded directly to an exterior surface of the inner scrim. Two or more protective elements can be formed as an array of discrete islands each separated by substantially zero-elevation interstitial spaces. The unitary dorsal panel can be sewn or otherwise attached circumferentially to the palmer sections of the glove. This array of protective elements can provide increased protection to the user's fingers, hands, wrists, and lower forearms while maintaining flexibility and tactile feel on both palmar and dorsal sides of the glove, increasing flexibility where needed without compromising protection.

A glove may include a hand body, the hand body being at least partially elastic, where the hand body defines a hand pocket configured to receive a user's hand, and a wrist body. The glove may also include a hand pad pocket formed in the hand body and configured to removably receive at least one hand pad, where the hand pad pocket is separated from the hand pocket by a separator, as well as a wrist padding pocket formed in the wrist body configured to removably receive a wrist pad. The hand pad pocket may be positioned in an interior of the glove.

A glove is provided that is superior in impact resistance and allows prevention of dislocation and detachment of an impact-resistant pad. The glove includes: a stretchable glove main body made of fiber; a coating layer comprising a synthetic resin or rubber as a principal component, being laminated to an external face of the glove main body at least in a finger portion and a palm portion; and impact-resistant pads comprising a synthetic resin as a principal component, being provided to at least a part of an external face side of the coating layer on a back hand side of the glove main body, in which the impact-resistant pad is sewn onto the glove main body. The glove main body is preferably seamless. The impact-resistant pad is preferably provided to the finger portion. An internal face of the impact-resistant pad and an external face of the coating layer are preferably smooth.

An athletic glove strengthened by applying a coating layer includes: a glove body formed with a palm portion and a plurality of finger sleeve portions, wherein the glove body is interwoven by a plurality of yarns; at least one coating layer applied on each of the finger sleeve portions, wherein the yarns and the coating layer are integrated and at least one first elastic support portion is formed on the finger sleeve portions; and at least one first protective layer, wherein one side thereof is disposed at the front side of the glove body and the other side thereof has an anti-slip buffer layer. Therefore, the glove body of the present invention provides excellent structural strength on the finger sleeve portions or the palm portion, preventing finger knuckles of a user from being injured when the user engages in ball activities, by offsetting impact force and rotational force.

Gloves having an impact attenuation region are provided. The impact attenuation region includes a soft or medium soft durometer knuckle guard that overlies a foam layer. Together, the foam layer and the knuckle guard attenuating an impact such that a layered glove construction is define that meets and/or exceeds standards employed in the field, e.g., EN 13594: 2015 and/or ANSI/ISEA 138-2019.

A protective guard for reducing injury to a shin of a person includes a conformable substrate and a plurality of core members disposed adjacent to a surface of the conformable substrate. The plurality of core members are arranged such that a first of the core members is rotationally movable about at least one axis relative to a second of the core members. A flexible fabric membrane comprised of natural or synthetic fibers is positioned adjacent to at least one of the conformable substrate and the plurality of core members.

The present application discloses anti-impact gloves, which include a glove body and an anti-impact protective layer arranged on the back of the glove body. The anti-impact protective layer includes a finger protection layer, which includes a thumb protective layer and a plurality of universal finger protective layers; an anisotropic flex slit is arranged on the first dactylus of the thumb protective layer near the first knuckle, and a flex cut structure is provided at the metacarpophalangeal joint. A plurality of full flex cuts are positioned at the fingertip part of each universal finger protective layer; the hand back protective layer includes a plurality of vertical protection blocks and a plurality of long strip-shaped flex slits arranged alternately; the bottom layer is fixed on the back of the glove body. The anti-impact gloves of the present application can buffer an external impact force, and a finger protection layer adapted to the corresponding finger is set according to the shape and movement law of each finger, which not only protects the finger in all directions but also ensures the free movement of the finger.

A sports glove for being worn by a hand may include a backhand panel and a palm panel joined to the backhand panel to form a palm cavity therebetween. The palm cavity extends from a base portion to a knuckle portion. The sports glove may further include finger stalls extending from the palm cavity, the finger stalls comprising an index finger stall and a thumb stall extending from the palm cavity. The sports glove may further include a slit within the backhand panel. The slit may extend along an axis that crosses the base portion and that intersects the index finger stall, or that extends between the index finger stall and the thumb stall. A securement panel may extend across the slit distal and non-overlapping with respect to a wrist sleeve and a wrist strap.

A method for the production of a sports glove, especially of a goal keeper's glove. To improve the wearing comfort of the sports glove the method provides the steps: a) Providing of a laminar carrier substrate; b) Deposition of a plurality of discreet material sections of a foamed plastic material onto at least one side of the carrier substrate; c) Production of at least a section of the sports glove by use of the carrier substrate with the material sections produced according to step b).

The present invention presents a wheelchair racing glove. The glove includes a main body having a top surface with a gripping structure, padded segments, fastener, and nesting cavity; and a bottom surface having a force transfer member and frictional support member. The gripping structure is formed with ergonomic features that fit a user's hand, which is held in the glove by the fastener. The padded segments reduce vibrational forces acting on the user's hand, and the nesting cavity provides a protective cover and additional grip for a user's thumb. The nesting cavity may also have ventilation holes to promote airflow to a user's thumb. The force transfer member and frictional support member both function to reduce impact forces as well as promote force transfer efficiency between a user's hand and a wheelchair wheel. A patterned internal support system further provides structural integrity, weight reduction, force absorption, and efficient force transfer.