This application claims the benefit of U.S. patent application Ser. No. 29/619,633, filed Sep. 29, 2017, for an “INDUSTRIAL IMPACT SAFETY GLOVE”, currently pending, and U.S. patent application Ser. No. 29/619,648, filed Sep. 29, 2017 for an “INDUSTRIAL IMPACT SAFETY GLOVE”, currently pending, the contents of which are incorporated by reference herein and the priority of which are hereby claimed.
The present disclosure relates to safety gloves, and more particularly to industrial impact safety gloves configured to protect areas of the wearer's hand from injuries sustained from contact with industrial or other work equipment, while at the same time providing flexibility and dexterity for the user. The glove includes a first protective structure or set of structures secured to a first base layer to protect the distal phalanx bone and surrounding tissue, and a second protective structure or set of structures secured to a second base layer to protect the intermediate and proximal phalanx bones and surrounding tissue of the worker. The separation between the base layers provides for enhanced flexibility of the distal phalanx, and allows for flexibility when performing tasks that require agility and dexterity.
Various aspects and features of the present disclosure are described herein with reference to the drawings, wherein like numerals refer to similar or identical elements and:
In an example embodiment of the present invention, an industrial impact safety glove for protecting the hand of a worker is provided. The impact protection glove is configured to protect the hand of the worker while still providing flexibility and dexterity to the user. The glove features a plurality of protective structures on the dorsal, or top, side of the glove. For example, on the dorsal side of the finger portions of the glove, a set of protective structures extends in a line, providing protection to the finger of the worker, including the bones, tendons, ligaments, fingernails, and other soft tissue of the finger. In particular, a protective structure or set of protective structures are arranged to protect the intermediate phalanx and proximal phalanx bones of the worker, as well as the surrounding soft tissue, and a separate protective structure is arranged to protect the distal phalanx bone, and its surrounding soft tissue, of the worker. The separation of the protective structures at the area between the distal and intermediate phalanges provides for enhanced flexibility of the distal phalanx, and allows for dexterity when performing small-scale tasks that require agility and dexterity, such as detail work or tasks that require the handling of small tools.
In aspects of the present disclosure, the base layers support multiple protective structures on each base layer.
In further aspects of the present disclosure, the protective structures may be divided approximately in half in a longitudinal direction, creating pairs of first and second substructures, providing enhanced flexibility for the user.
In further aspects of the present disclosure, a lateral protective structure may be provided to protect the knuckle area of the user. In certain embodiments, the lateral protective structure may be connected via a common base layer to the protective structures protecting the intermediate and proximal phalanges on each finger pocket. In certain embodiments, the lateral protective structure may instead be secured to its own base layer, separate and apart from the other base layers of the glove.
In further aspects of the present disclosure, an additional set of protective structures may be provided on the dorsal side of the glove, configured to extend across and protect the metacarpal bones of the user. In certain embodiments, these protective structures may be secured to a single base layer extending across and protecting the metacarpal bones of the user. In other embodiments, these protective structures may each be secured to individual base layers, with the set of base layers extending across and protecting the metacarpal bones of the user.
Provision of a glove with such protective structures may be desired to guard the wearer from impact trauma, cuts, punctures, hazardous chemicals and fluids, wounds, abrasions, and the like. Certain industries require gloves having specific levels of protection suitable for use in the environments typical to that particular industry, and various standard rating systems have been implemented to enable a user to identify whether a particular safety glove would be suitable for use in the intended industry. For example, the European Norm (EN) designates whether a particular article is compliant with essential requirements. EN 388 designates whether a glove provides adequate protection from mechanical risks; EN 374-1 designates whether a glove provides chemical resistance and micro-organism resistance; and EN 420 designates whether a glove meets the general construction, fitness, and safety requirements for protective gloves. Additionally, markings such as the European Conformity (“CE Marking”) are utilized by glove manufacturers to indicate that a particular article complies with the relevant directives for that particular class of articles. For example, the Personal Protection Equipment (PPE) Directive 89/686/EEC is the relevant directive for achieving CE Marking status.
Referring generally to
In exemplary embodiments, the set of phalangeal pockets 1105 includes a thumb pocket 1110, configured to contain the thumb of the user; a first phalangeal pocket 1120, configured to contain the “index finger” of a user; a second phalangeal pocket 1130, configured to contain the “middle finger” of a user; a third phalangeal pocket 1140, configured to contain the “ring finger” of a user; and a fourth phalangeal pocket 1150, configured to contain the “pinky” or last finger of a user. The shell 1010 of glove 1000 may also include a wrist portion 1050 configured to cover, at least partially, the wrist and a portion of forearm of the user.
Various sizes of the protective glove 1000 may be provided, such as “small” (measuring approximately 35 cm from the tip end of the “middle finger” pocket to the open end of the wrist portion), “medium” (measuring approximately 40 cm), and “large” (measuring approximately 50 cm), such that an appropriate fit may be provided for a variety of workers. Although the glove 1000 depicted in
As discussed in more detail below and as shown in
With reference to the embodiment pictured in
For example, with reference to first phalangeal pocket 1120, as shown in
Protective structures 1160, such as distal phalangeal protective structure 1161, may be subdivided into protective substructures 1160A, 1160B, and so forth. Generally, protective substructures are created by a longitudinal division of the surface of a protective structure 1160, such that each protective substructure, such as 1160A, 1160B, forms half of the larger protective structure 1160. However, any number of protective substructures may be produced by appropriate division of protective structure 1160 into the desired number of substructures.
As may be appreciated, the use of protective substructures allows for enhanced flexibility of the user. Due to the enhanced flexibility provided by the use of protective substructures, it may be preferable that the protective structures 1160 arranged on the phalangeal pockets 1105 are each divided into protective substructures 1160A, 1160B to afford greater flexibility to the user's fingers. Because protective substructures form smaller, subdivided portions of the larger protective structure 1160, it is to be understood that each pair or set of protective substructures 1160A, 1160B are each secured to the common base layer 1170 meant to support its respective protective structure 1160. For example and without limitation, as shown in
Similarly, distal phalangeal base layer 1171 may support more than one distal phalangeal protective structure 1161. For example and without limitation, in “large” gloves 1000 as referenced above, there may be multiple distal phalangeal protective structures 1161 on one phalangeal pocket 1105 configured to cover the distal phalange of a particular finger. To provide enhanced flexibility and comfort, the multiple distal phalangeal protective structures 1161 may also be subdivided into protective substructures 1161A, 1161B.
Phalangeal pockets 1105 may feature additional protective structures 1160 arranged to protect the remaining portion of the user's finger. For example, with continuing reference to first phalangeal pocket 1120, as shown in
In certain embodiments, proximal phalangeal protective structures 1162, 1163, and so forth may be subdivided into protective substructures (such as proximal phalangeal protective substructures 1162A, 1162B, 1163A, 1163B, and so forth), similar to the substructures 1161A, 1161B of distal phalangeal protective structure 1161. The use of protective substructures along the intermediate and proximal phalangeal section of the glove provides enhanced flexibility, and therefore may be preferred in certain work situations. However, like the distal phalangeal protective structures 1161, the proximal phalangeal protective structures 1162, 1163, 1164, 1165 may remain unitary, as may be preferred for a glove providing a more rigid structure.
As shown in the example embodiment of
It may be appreciated that this flexibility at the fingertip, created by the separation of the base layers on the finger pocket of the glove, is an improvement over prior art that simply provides for separated protrusions or ongoing padding along a finger pocket. By using two distinct base layers on the finger pocket, and providing a portion of fabric to separate these two base layers, the tip of the finger is allowed greater dexterity, which is preferred when performing detailed tasks using small tools or apparatuses that require such dexterity. The dexterity is, in turn, provided without sacrificing protection of the fingers from impacts and potential harm.
As shown in more detail in
Turning now to the body portion 1100 of the glove 1000, further protective structures 1160 may be provided. For example, as shown in
Body portion 1100 may also feature a plurality of additional protective structures 1160 on the dorsal side of the glove, referred to herein as body protective structures 1300. Generally, this body protective structure or structures 1300 are configured to protect at least a portion of the metacarpal bones of the user. The body protective structure or structures 1300 are secured to a base layer or set of base layers 1170, which may be referred to herein as the body base layer 1310. As shown in the embodiment depicted in
Glove 1000 may be further provided with a wrist portion 1050, substantially cylindrical in form and configured to surround the wrist of the user. In certain embodiments, the wrist portion 1050 may be sized to extend up to a portion of the forearm of the user. For example and without limitation, wrist portion 1050 may be composed of the same materials used for other portions of the glove. As shown in
As further shown in
Turning now to
For example, with reference to first phalangeal pocket 1120 of
Similarly, distal phalangeal base layer 1171 may support more than one distal phalangeal protective structure 1161. For example and without limitation, in “large” sized gloves 1000 as referenced above, there may be multiple distal phalangeal protective structures 1161 secured to one distal phalangeal base layer 1171. To provide enhanced flexibility, the multiple distal phalangeal protective structures may, in turn, also be subdivided into protective substructures.
As shown in
In certain embodiments, as shown in
As shown in the example embodiment of
As shown in
As shown in the example embodiment of
In certain embodiments, as is shown in
Body portion 1100 of the glove 1000 depicted in
Glove 1000 may be further provided with a wrist portion 1050, as shown in
As shown in more detail in
As further shown in
While the embodiments of the present invention are described with reference to various implementations and exploitations, it will be understood that these embodiments are illustrative and that the scope of the inventions is not limited to them. Many variations, modifications, additions, and improvements are possible. The above description should therefore not be construed as limiting, but merely as exemplifications of particular embodiments.
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Number | Date | Country | |
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Parent | 29619633 | Sep 2017 | US |
Child | 15938721 | US | |
Parent | 29619648 | Sep 2017 | US |
Child | 29619633 | US |