The present invention relates to athletic protective shields, and in particular athletic shields that protect the user against cuts.
Athletes often wear protective gear in sports where there is a potential for injurious contact. In ice hockey, the skate blade poses a cutting danger. This danger is significant given the sharpness of the skate blade and the high speeds at which hockey players skate on the rink and frequently collide with one another. Laceration by the skate blade, particularly of the lower leg including the calf and the Achilles tendon, has been known to sideline recreational and professional hockey players. With player size, speed, and skill increasing every year, the frequency of this type of injury is on the rise. For example, in the past, Erik Karlsson of the Ottawa Senators, Andre Markov of the Montreal Canadians, Kevin Bieksa of the Vancouver Canucks, and Dave Bolland of the Toronto Maple Leafs have all suffered severe skate cuts to the Achilles and/or calf area. Such injuries may have long-term consequences for a player's career and general health. The above mentioned players missed over 200 NHL games as a direct result of their skate lacerations.
Ice hockey skates provide some protection for the lower-most portion of the Achilles tendon. However, the calf and the remaining portions of the Achilles tendon remain susceptible to laceration by the skate blade. Existing protective gear for the Achilles tendon and the calf often uses aramids or high molecular weight polyethylene to provide resistance to cuts by the skate blade. These materials are typically spun into a fiber and incorporated in a fabric that forms part of the hockey player's uniform.
While these materials may be somewhat harder to cut than cotton and other synthetic fabrics used for hockey uniforms, it is highly uncertain whether they would be able to protect the calf and the Achilles tendon from deep cuts by a sharpened skate blade in a collision between two hockey players moving at full-speed. For example, Claude Giroux, the Captain of the Philadelphia Flyers received a skate cut to his calf while wearing a Kevlar sock advertised to be “cut resistant”. Given the serious consequences of deep cuts by the skate blade which can severely damage the calf and the Achilles tendon, aramid or polyethylene-based protective fabrics are not able to provide the level of skate cut-protection required for optimum player safety.
According to an aspect of the present specification there is provided a protective shield for a lower leg of an ice skater, the protective shield comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a web of interlocking metal loops. The protective segment is shaped and sized to fit over at least a rear portion of the lower leg including at least a portion of an Achilles tendon and at least a portion of a calf. The support segment is shaped and sized to fit around the lower leg, and is resilient to hold the protective shield in place around the lower leg during skating and to tension the protective segment against the rear portion of the lower leg.
According to another aspect of the present specification there is provided a protective shield for a lower leg of an ice skater, the protective shield comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a metal mesh. The protective segment is shaped and sized to fit over at least a rear portion of the lower leg including at least a portion of an Achilles tendon and at least a portion of a calf. The support segment is shaped and sized to fit around the lower leg, and is resilient to hold the protective shield in place around the lower leg during skating and to tension the protective segment against the rear portion of the lower leg.
According to another aspect of the present specification there is provided an athletic protective shield, comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a web of interlocking metal loops, and is shaped and sized to fit over a body part of a user. The support segment is shaped and sized to fit around the body part, and is resilient to hold the athletic protective shield in place around the body part during athletic movement and to tension the protective segment against the body part.
According to another aspect of the present specification there is provided a protective shield for a lower leg of an ice skater, the protective shield comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a web of interlocking metal loops made of steel or titanium. The protective segment is shaped and sized to fit over at least a rear portion of the lower leg including at least a portion of a calf and at least a portion of an Achilles tendon. The support segment comprises elastane and is permanently secured to the protective segment to form a unitary hockey sock shaped and sized to fit around the lower leg. The support segment is resilient to hold the protective shield in place around the lower leg during skating and to tension the protective segment against the rear portion of the lower leg.
According to another aspect of the present specification there is provided a protective shield for a lower leg of an ice skater, the protective shield comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a web of interlocking metal loops. The protective segment is shaped and sized to fit over at least a rear portion of the lower leg including at least a portion of an Achilles tendon and at least a portion of a calf. The support segment comprises at least one impact absorbing section. The support segment is shaped and sized to fit around the lower leg, and at least a portion of the support segment is resilient to hold the protective shield in place around the lower leg during skating and to tension the protective segment against the rear portion of the lower leg.
According to another aspect of the present specification there is provided an athletic protective shield, comprising a protective segment and a support segment to which the protective segment is secured. The protective segment comprises a web of interlocking metal loops. The protective segment is shaped and sized to fit over at least a portion of a body part of a user. The support segment comprises at least one impact absorbing section. The support segment is shaped and sized to fit around the body part, and the support segment is configured to hold the athletic protective shield in place around the body part during athletic movement and to tension the protective segment against the body part.
For a better understanding of the various embodiments described herein and to show more clearly how they may be carried into effect, reference will now be made, by way of example only, to the accompanying drawings.
The protective shield of the present invention uses a web of interlocking loops as a protective element for the calf and the Achilles tendon. Such webs can be highly resistant to being cut by the skate blade during normal hockey conditions, and can be sufficiently flexible to conform to the contours of a body part such as the lower leg. In addition, webs of interlocking loops can be relatively light and breathable. The web of interlocking loops can be secured to a resilient support segment, which can fit over a body part of the user and hold the protective shield in place during athletic movement.
As shown in
Protective segment 105 can protect the user from cuts and other physical dangers. For example, in the case of ice hockey the protective segment can protect the player from being cut by the blade of the hockey skate. The protective segment can also help to distribute and attenuate blunt force impact. Protective segment 105 can be made up of a web of interlocking loops.
The loops can include metal including but not limited to titanium, carbon steel, stainless steel, and other steel alloys. The loops can be made wholly of metal. The loops can, alternatively or additionally, be formed using polymeric materials including but not limited to high molecular weight polyethylene, polypropylene, polyester or aramids. Not all loops need be identical. The web can be a mix of interlocking loops of metallic and non-metallic materials. When the loops are metallic, one or more of them can be welded to form unbroken loop(s). These loops can be stronger than open loops that are formed by simply bending a metal wire into a loop shape.
Protective segment 105 can alternatively or additionally be made of a metal mesh, which can be made of interlaced metal wires or stamped out from a metal sheet. Protective segment 105 can alternatively or additionally be made of a fabric made of threads of aramids, Kevlar™, Vectran™, polyesters, polyethelene, polypropylene, and high-density microfiber.
Support segment 110 can be made of fabric. The fabric can be resilient, including but not limited to fabrics including elastane, high grade Lycra™, and Spandex™ fibers. Support segment 110 can additionally or alternatively include other resilient materials such as rubber or silicone. Support segment 110 can include straps or laces. Support segment 110 can be shaped and sized to fit around a body part of the user, which can be, but is not limited to, the lower leg as shown in
Protective segment 105 can be permanently secured to support segment 110 to form a unitary piece, such as protective shield 100. Any suitable means can be used to secure protective segment 105 to support segment 110; such means can include but are not limited to fusing, bonding, gluing, sewing, taping, or any combination of such. Protective segment 105 can also be releasably securable to support segment 110, using suitable means including but not limited to one or more hook-and-loop fasteners, one or more zipper, buttons, one or more laces, or any combination of such.
Although support segment 110 can tension the web of interlocking loops 120 of protective segment 105 when protective shield 100 is worn, the interlocking design can allow interlocking loops to retain the ability to move relative to one another when protective segment 105 is struck by an object such as the blade of another's skate. This relative movement can dissipate some of the striking blade's energy and can make it more difficult for the blade to cut through the web of interlocking loops. In this sense, interlocking loops 120 can be considered to be able to float relative to one another. This ability to float can apply to all embodiments of the present invention which comprise a web of interlocking loops.
When support segment 110 is made of a resilient material, while protective shield 100 is worn protective segment 105 can move relative to support segment 110 when protective segment 105 is struck by an object such as another's skate blade. Alternatively and/or in addition, when worn, protective shield 100 as a whole may be able to move relative to the body of the wearer when protective shield 100 is struck by an object such as another's skate blade. These relative movements can dissipate some of the striking blade's energy and can make it more difficult for the blade to cut through protective segment 105 and/or protective shield 100. In this sense, protective segment 105 and/or protective shield 100 can be considered to be floating or suspended relative to the body of the wearer. This property of being suspended or floating can apply to all embodiments of the present invention.
Several factors can contribute to making the protective shield comfortable to ware. These factors include, but are not limited to: relatively light weight of the protective shield; breathability of the protective segment and support segment materials; flexibility of the protective segment and/or the support segment allowing the protective shield to conform to the contours of the wearer's body and to fit snugly; relatively comfortable feel of the protective shield against the skin; and the ability of the protective shield to remain in place during vigorous athletic movement including, but not limited to, skating. These factors, to varying extents, can apply to all embodiments of the present invention.
Hem 220 can have a structure and function similar to cuff 215. Protective segment 105 can be secured to support segment 210 along seam 225. The securing can be achieved using a suitable means including but not limited to fusing, bonding, gluing, sewing, taping or any combination of such.
When worn as part of an ice hockey uniform, protective shield 500 can be worn around lower leg 520, with protective segment 505 covering at least a portion of the calf 525 and/or a portion of the Achilles tendon. A regular hockey sock 530 can be worn over protective shield 500. In
Protective segment 105 can be secured to support segment 1010 using a suitable means including but not limited to fusing, bonding, gluing, sewing, taping or any combination of such, as discussed above. Support segment 1010 can comprise a resilient portion 1020 and an impact absorbing section 1015. Support segment 1010 can be shaped and sized to fit round the lower leg of a user. Resilient portion 1020 can be resiliently stretched when protective shield 1000 is worn around the lower leg, and the resilient force of resilient portion 1020 can hold the protective shield 1000 in place around the lower leg during vigorous and/or athletic activity such as skating. The resilient force of resilient portion 1020 holding protective shield 1000 in place can allow protective shield 1000 to be designed without straps or other means of securing protective shield 1000 to the lower leg. This in turn can reduce the cost and complexity of manufacturing protective shield 1000. Resilient force of resilient portion 1020 can also tension protective segment 105 against the rear portion of the lower leg.
Impact absorbing section 1015 can comprise a padded section to absorb external impacts. The padding material compresses and/or deforms in response to the impact, and in so doing absorbs at least some of the impact energy, thereby protecting the leg from the full force of the impact. The padding can be made of a suitable material including, but not limited to, foams and elastomers. Alternatively and/or in addition, impact absorbing section 1015 can comprise a hard shield (not shown) to absorb an impact force and distribute it over a larger area of the leg, thereby reducing any localized damage caused by the impact force. In some embodiments, impact absorbing section 1015 can be secured to the inside and/or outside surface of support segment 1010. In other embodiments, impact absorbing section 1015 can be integrally formed with support segment 1010. In yet other embodiments support segment 1010 can comprise a plurality of layers, and impact absorbing section 1015 can be encased between layers of support segment 1010.
Impact absorbing section 1015 can be designed to cover one or multiple regions of the lower leg, including but not limited to, the shin, the knee cap, and the areas around the knee cap. As shown in
Protective shield 1100 can have straps 1125, 1135 extending across the calf of the skater to tighten and secure protective shield 1100 on the lower leg of the skater. Straps 1125, 1135 can be secured using a suitable means including, but not limited to, hook-and-loop fastener, buckles, laces, and clasps. In some embodiments, not shown, protective shield 1100 can have one strap or more than two straps. Straps 1125, 1135 can be placed in configurations different than that shown in
As shown in
Support segment 1210 can comprise one or more impact absorbing sections 1215, 1220. In other embodiments, not shown, one or more impact absorbing sections can be placed in other areas of support segment 1210 to protect different body parts of the user. In addition to and/or instead of pads, impact absorbing sections can comprise a hard material for absorbing the impact force and distributing it over a larger area to minimize the damage done by the force to the body of the user. Support segment 1210 can be shaped and sized to fit around the body part that the protective segment 105 is covering. Support segment 1210 can hold protective shield 1200 in place around the body part of the user during athletic movement and can tension protective segment 105 against the body part being covered by protective segment 105.
As shown in
The above-described embodiments of the invention are intended to be examples of the present invention and alterations and modifications may be effected thereto, by those of skill in the art, without departing from the scope of the invention which is defined solely by the claims appended hereto.
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Entry |
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Parent U.S. Appl. No. 14/338,875, filed Jul. 23, 2014; Title: Athletic Protective Shield; Applicant: Gregory Joseph MacNeil. |
Requirement for Restriction/Election dated Dec. 4, 2015 for Design U.S. Appl. No. 29/502,963. |
Non-Final Rejection dated Apr. 22, 2016 for U.S. Appl. No. 14/338,875. |
Number | Date | Country | |
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20160021954 A1 | Jan 2016 | US |
Number | Date | Country | |
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Parent | 14338875 | Jul 2014 | US |
Child | 14656883 | US |