Article of footwear structures allowing easier access to a foot-receiving cavity.
Shoes generally provide access to a foot-receiving cavity through an ankle opening and a forefoot opening. The forefoot opening may be adjusted with a lacing mechanism in a traditional shoe. In order to gain access to the foot-receiving cavity, the laces may be loosened and a wearer then attempts to insert his/her foot through the ankle opening and then adjust an insertion angle of the foot to move the foot forward into the foot-receiving cavity. However, some wearer's may have limited mobility, dexterity, flexibility, and/or access that makes donning and/or doffing a traditionally-structured shoe difficult.
An article of footwear providing easy donning and doffing through a heel region is provided. A heel cup at a heel end of the footwear is pivotably coupled with the footwear to articulate between an open configuration allowing easier access to a foot-receiving cavity and a closed configuration enclosing a heel region of the footwear. A tensioning strap extends from a first side of the footwear around the heel cup to an opposite, second side of the footwear when the heel cup is in the closed configuration. The tensioning strap is effective to structurally secure the heel cup in the closed configuration. One or more tensioning strands may extend from the tensioning strap. The tensioning strands may be effective to convert force provided through the tensioning strap across a forefoot portion to generate a forefoot securing force through a lacing mechanism. This summary is provided to enlighten and not limit the scope of methods and systems provided hereafter in complete detail.
The present invention is described in detail herein with reference to the attached drawing figures, wherein:
An article of footwear (hereinafter “shoe”), such as an athletic shoe, is generally secured to a wearer's foot to allow for a functional connection between the shoe and the wearer. To assist in the donning and doffing of the shoe, lacing or other adjustable securing mechanisms may be implemented to allow easier access to an internal foot-receiving cavity of the shoe. In a traditional athletic shoe, a lacing structure is loosened to increase a forefoot opening to allow a foot to slide through an ankle opening and into the internal foot-receiving cavity. Once the foot has been positioned within the foot-receiving cavity, the lacing structure is tightened to secure the shoe about the foot.
Some wearers of a shoe may have limited mobility, dexterity, motion, or other non-traditional characteristics that may hinder or hamper the ability of the wearer to don or doff the shoe using a traditional configuration. For example, wearers with prosthetics, non-traditional anatomy, or other limitations may have a difficult time putting on, securing, and/or taking off a traditional shoe. However, these same wearers of shoes may desire to have a traditional appearance or functionality of their shoe while also having enhanced donning and doffing characteristics. As such, aspects hereof contemplate a shoe having an articulated heel cup allowing for easy donning and doffing while also having a tensioning strap to secure the articulated heel cup in an intended location during activity when worn by the wearer.
An articulated heel cup, as will be discussed in greater detail herein, provides an enhanced access to the internal foot receiving cavity of the shoe. In a traditional shoe, a heel counter or heel portion prevents a toeward entry through a heel end of a traditional athletic-style shoe. Instead, a wearer enters the internal foot-receiving cavity from an ankle collar opening with a downward and forward motion of the foot. This traditional motion may be difficult or impossible for some wearers. Therefore, a linear entry from a heel end as the heel cup is articulated downward into an open configuration provides for a simplified access to the internal foot-receiving cavity, as will be discussed hereinafter.
Aspects generally contemplate an article of footwear that provides easy donning and doffing through a heel region. A heel cup is pivotably coupled with the footwear to articulate between an open configuration allowing easier access to a foot-receiving cavity and a closed configuration enclosing a heel region of the footwear. A tensioning strap extends from a first side of the footwear around the heel cup to an opposite second side of the footwear when the heel cup is in the closed configuration. The tensioning strap is effective to structurally secure the heel cup in the closed configuration. One or more tensioning strands may extend from the tensioning strap. The tensioning strands may be effective to convert force provided through the tensioning strap across a forefoot portion to generate a forefoot securing force through a lacing mechanism.
Aspects hereof depicted in the figures contemplate an article of footwear 100 having a medial side 102 (shown in
Additional aspects contemplate a first plurality of tensioning strands 600 joined with the tensioning strap 500. In this example, the tensioning strands 600 effectively transfer a tension force from the tensioning strap 500 in a manner that further secures the article of footwear 100 to the foot of a wearer. For example, the tensioning straps may translate a tension force across a forefoot portion of the article of footwear 100 (e.g., across a traditional tongue region) in a manner to replicate a traditional shoe lace tightening operation. Other aspects contemplate inclusion of one or more magnetic elements (i.e., materials having a magnetic energy and/or attracted to magnetic energy, such as a ferrous material) in the article of footwear 100. The magnetic elements may be included in the heel cup 400 and/or the upper 200 to aid in the alignment and/or closure of the foot-receiving cavity through articulation of the heel cup 400 to a closed position, as will be discussed in greater detail hereinafter.
A listing of elements identified in
The upper 200 may be formed from any material suitable for an article of footwear. For example the upper 200 may be a knit, woven, non-woven, or braided material. The upper 200 may be formed from a leather, polymer-based, or other material. Different portions of the upper 200 may be formed from different materials and/or from different techniques.
The sole 300 forms a ground-contacting surface for the article of footwear 100. A sole, such as the sole 300, may be comprised of a midsole and an outsole. Alternatively, a sole may be a unitary material without discrete midsole and outsole portions. The sole 300 may be formed from any material traditionally used in articles of footwear, such as ethylene-vinyl acetate (EVA), rubber, polypropylene, leather, and the like. In traditional footwear, the upper and the sole are joined to enclose a foot-receiving cavity while providing a ground-contacting surface.
The heel cup 400 articulates (e.g., bends, pivots, flexes, hinges, swings) to allow greater access to the foot-receiving cavity. While the figures provided herein contemplate a longitudinal articulation, aspects herein also contemplate a lateral motion path (e.g., medial-to-lateral or lateral-to-medial articulation). As such, the heel cup is moveably secured (e.g., resilient material forming a living hinge, a mechanical hinge, or the like) to the article of footwear 100. The heel cup 400 may be moveably secured to the upper 200 and/or the sole 300. The heel cup 400 may be formed from any materials, such as those materials contemplated for the upper 200 and/or the sole 300. In an exemplary aspect, the upper 200 and the heel cup 400 are formed from a common material. In an alternative aspect the upper 200 and the heel cup 400 are formed from different materials in whole or in part. The heel cup 400 may comprise one or more elements traditionally incorporated in a shoe upper heel end, such as a heel counter.
The plurality of tensioning strands 600 disperse tension force applied through the tensioning strap 500. The tensioning strands 600 may also translate tensioning force from the tensioning strap 500 into a forefoot securing force, as will be discussed in greater detail hereinafter. Further yet, it is contemplated that the plurality of tensioning strands 600 may be secured on a first end 614 to the article of footwear 100, such as at the sole 300, the upper 200, and/or at an intersection between the sole 300 and the upper 200. As secured, the first end 614 may serve as an anchor from which the tensioning strap 500 can generate a securing force on the heel cup 400 in a closed position.
The plurality of tensioning strands 600 may be formed from a non-elastic material in a first example or from an elastic material in a second example. For example, when the article of footwear is intended to be used in an activity that will generate lateral and/or longitudinal forces, a non-elastic (e.g., a relatively high modulus of elasticity) material may form the plurality of tensioning strands 600 to secure the article of footwear to the wearer's foot. Where comfort or low generated forces are expected, the plurality of tensioning strands 600 may be formed from an elastic material (e.g., a relatively low modulus of elasticity). The elastic modulus may be relative to other materials of the article of footwear, such as the tensioning strap 500, the forefoot lacing mechanism 130, or even the upper 200. The plurality of tensioning strands 600 may be formed from any materials, such as a polymer based material (e.g., polyester, nylon), and organic material (e.g., cotton, wool, leather), aramid, and the like. The tensioning strands may be twisted, braided, or otherwise mechanically manipulated.
While the plurality of tensioning strands 600 are depicted in a specific configuration (e.g., a vertical portion converting into a non-linear segment proximate at the forefoot to a linear segment extending to the tensioning strap 500), it is understood that any arrangement may be implemented. Further, it is contemplated that in some aspects the plurality of tensioning strands 600 may be omitted altogether and the tensioning strap 500 is directly coupled to the article of footwear 100. Further, while discussed in the context of a “plurality” of tensioning strands, it is also contemplated that a single tensioning strand may extend from the tensioning strap 500, in an exemplary aspect. Further yet, it is contemplated that one or more elastic elements (e.g., relatively low modulus of elasticity compared to the tensioning strap 500 and/or the tensioning strand) may be integrated into the tensioning strap 500 and/or the plurality of tensioning strands 600. The integrated elastic elements may provide an initial tensioning force prior to when the in-elastic strap and/or tensioning strands are engaged. This concept may provide for control and comfort of tension forces in an exemplary aspect.
It is contemplated that the tensioning strap 500 is a ribbon-like structure having a width that is at least ten times a thickness. Thus, in some aspects the ribbon-like structure comprises a thin panel of material where the length of the panel is substantially longer than the width of the panel and the width of the panel is substantially wider than the thickness of the panel. The ribbon configuration is effective to distribute tension force across a sufficient portion of the heel cup 400 while in a closed configuration. Each strand of the plurality of tensioning strands 600 are contemplated to have a cross sectional area less than 2 millimeters (mm), such as a circular cross-section with a diameter less than 1.59 mm. In this example, the plurality of tensioning strands 600 are effective to slidably engage one or more lacing mechanisms (such as an element of forefoot lacing mechanism 130) while effectively transferring a tension load across a side of a shoe. Therefore, in combination, the tensioning strap 500 effectively engages the heel cup 400 and the plurality of tensioning strands 600 effectively transfer tension across a side of the shoe (e.g., the article of footwear 100), in an exemplary aspect. Alternative sizes and configurations for the tensioning strap 500 and the plurality of tensioning strands 600 are contemplated.
The heel cup 400 is depicted as articulating along the sole 300 at the hinge edge 408 as best seen in
Referring to
Returning to
As seen in
Referring now to
Once the wearer's foot 700 is fully received in the interior foot-receiving cavity 110 (as best seen in
Also depicted is the non-linear segment of the intermediate portion 606 is directed through an element of the forefoot lacing mechanism 130. As tension is applied by the tensioning strap 500, each strand of the plurality of tensioning strands 600 slides through the forefoot lacing mechanism 130 such that the non-linear segment changes relative position along the length of such strand. In other words, the first portion 602 may be longer when the article of footwear 101 is in the open configuration and may be shorter when the article of footwear 101 is in the closed configuration and tension is applied to the tensioning strap 500. Likewise, the reverse may be true for the second portion 604. This results from the strand sliding through the opening, loop, hook, or other element of the forefoot lacing mechanism 130. The forefoot lacing mechanism 130, which may be elastic or non-elastic, applies a securing force across the forefoot portion as a second end of the forefoot lacing mechanism 130 is anchored to a tensioning strand of a second plurality of tensioning strands 620. The second plurality of tensioning strands 620 may be statically secured to the article of footwear 101 to serve as a constant anchor. In an alternative aspect, a tensioning strap, similar to the tensioning strap 500, is joined with an end of each of the second plurality of tensioning strands 620 to translate tension to the forefoot lacing mechanism 130 from the second plurality of tensioning strands 620 additionally or alternatively.
As can be appreciated from the foregoing, aspects contemplate an easy access shoe. While specific embodiments are provided for illustration purposes, alternative configurations are contemplated while still achieving an easy access shoe. For example, while a separate tensioning strap and tensioning strand are discussed, it is contemplated that the tensioning straps and strands may be a common element or formed from a common material. Further, as previously provided, it is contemplated that the tensioning strands may be omitted in whole or in part. Also, it is contemplated that one or more magnetic elements may be incorporated in the shoe at any location to aid in achieving a closed configuration and/or to aid in aligning the heel cup. Even further, it is contemplated that one or more clips, buckles, straps, strands, zippers, hook-and-loop, and the like may be integrated into the footwear to further aid in achieving an easy access shoe.
Donning or doffing an easier access shoe is contemplated as including articulating a heel cup from an open configuration to a closed configuration. The articulation may be a pivoting, flexing, bending, rotating, or the like motion to move the heel cup from the closed position to an open configuration. An open configuration allows for easier longitudinal access to the foot-receiving cavity than the closed configuration. The method continues with releasably securing the heel cup to an upper with magnetic attraction. For example, one or magnetic elements (e.g., rare-earth magnets (neodymium magnets, samarium-cobalt magnets), ferrite, alnico) may be positioned on or within the upper and or sole and one or more magnetic elements may be positioned on or within the heel cup. The orientation, polarity, or configuration of the magnetic elements allows for magnetic fields to attract the heel cup to the upper in a way that mates the heel cup with the upper to enclose the heel end of the article of footwear in a closed configuration. The use of magnets helps align the position of the heel cup relative to the upper. Also, the magnetic elements aid in bringing the heel cup to a closed configuration.
The method may also include securing a tensioning strap around the heel cup. A first end of the tensioning strap is joined, in an exemplary aspect, with a plurality of tensioning strands on a first side of the article of footwear and a second end of the tensioning strap releasably secures to the article of footwear on an opposite second side of the article of footwear. For example, the second end may have a hook-and-loop, magnetic, hook, clasp, or other securing mechanism to releasably secure the second end of the tensioning strap to the article of footwear, such as at the upper, the sole, or a component in connection therewith. The secured tensioning strap may also transfer force to the tensioning strands that in turn provide a securing force across a forefoot portion of the article of footwear.
Some aspects of this disclosure have been described with respect to the illustrative examples provided by
One aspect disclosed herein is directed to an article of footwear having a medial side, a lateral side, a toe end, and a heel end. The article of footwear may include an upper, a sole, a heel cup, and a strap. The upper may have a medial side, a lateral side, and a toe end extending between the medial side and the lateral side. The upper also have a medial heel edge and a lateral heel edge. The medial heel edge and the lateral heel edge may be opposite from the toe end in a longitudinal direction of the article of footwear. The sole may have a medial side, a lateral side, a toe end, and a heel end. The heel cup may be articulated at the heel end of the article of footwear. The heel cup may have a medial edge, a lateral edge, a collar edge, and a hinge edge. The heel cup may articulate between an open configuration that exposes an interior foot-receiving cavity of the article of footwear and a closed configuration that encloses a heel-end portion of the interior foot-receiving cavity. The strap may extend from the article of footwear medial side to the article of footwear lateral side around the heel cup when the heel cup is in the closed configuration. The strap may be releasably secured at one of the article of footwear medial side or the article of footwear lateral side.
In some aspects, the article of footwear may also include one or more magnetic elements in one of the upper, the heel cup, or the upper and the heel cup. The one or more magnetic elements may be positioned in the medial heel edge and the lateral heel edge. The one or more magnetic elements may also be positioned in the heel cup medial edge and the heel cup lateral edge.
In other aspects, the upper may be coupled with the sole at least at the sole medial side, the sole lateral side, and the sole toe end. The heel cup may be moveably coupled with the sole at the sole heel end. The heel cup may be moveably coupled with the upper between the medial heel edge and the lateral heel edge.
In still other aspects, the article of footwear may also include a first tensioning strand. The first tensioning strand may have a first end opposite a second end. The first tensioning strand may be coupled to the article of footwear at a transition between the upper and the sole. The second end may be coupled to the strap. The first tensioning strand may moveably engage a forefoot lacing element between the first end and the second end. The forefoot lacing element may include an opening and the first tensioning strand may pass through the opening. The forefoot lacing element may have a greater modulus of elasticity than the first tensioning strand. The forefoot lacing element may extend between the medial side of the upper and the lateral side of the upper. The strap may be coupled with a plurality of tensioning strands on either the lateral side of the article of footwear or the medial side of the article of footwear. Each of the plurality of tensioning strands may be fixedly joined with the article of footwear at a respective first end and coupled with the strap at a second end of each of the plurality of tensioning strands.
Another aspect disclosed herein is directed to a securing mechanism for an article of footwear. The securing mechanism may include a plurality of tensioning strands, a tensioning strap, and a plurality of forefoot lacing elements. The plurality of tensioning strands may include a first tensioning strand and a second tensioning strand. Each of the plurality of tensioning strands may have respective first ends opposite respective second ends. The tensioning strap may have a first strap end. The first end of each of the first tensioning strand and the second tensioning strand may be coupled to the first strap end. The plurality of forefoot lacing elements may include a first element and a second element. Each of the plurality of forefoot lacing elements may have an opening. The first tensioning strand may extend from the tensioning strap in a first direction and pass through the first element opening whereafter the first tensioning strand may extend in a second direction. The second tensioning strand may extend from the tensioning strap in a third direction and pass through the second element opening whereafter the second tensioning strand may extend in a fourth direction.
In other aspects, the securing mechanism may also include a releasable fastener coupled to the tensioning strap at a second strap end. The releasable fastener may be at least a portion of a hook and loop fastener. The plurality of tensioning strands be a first plurality of tensioning strands. The securing mechanism may also have a second plurality of tensioning strands including a third tensioning strand and a fourth tensioning strand. Each of the second plurality of tensioning strands may have a first end. Each of the plurality of forefoot lacing elements may have a first end opposite a second end. The third tensioning strand may be coupled to the first element on an opposite end from the first tensioning strand. The fourth tensioning strand may be coupled to the second element on an opposite end from the second tensioning strand.
Another aspect disclosed herein is directed to a method of securing an article of footwear. The method may include articulating a heel cup from an open configuration to a closed configuration, releasably securing the heel cup to an upper with magnetic attraction, and securing a tensioning strap around the heel cup. A first end of the tensioning strap may be joined with a plurality of tensioning strands on a first side of the article of footwear. A second end of the tensioning strap may be releasably secureable to the article of footwear on a second side of the article of footwear. The first side may be opposite the second side.
In other aspects, the method of securing an article of footwear may also include pulling a first tensioning strand of the plurality of tensioning strands through a forefoot lacing element in response to securing the tensioning strap. A first end of the first tensioning strand may be secured to the article of footwear and a second end of the first tensioning strand may be joined with the tensioning strap.
From the foregoing, it will be seen that this invention is one well adapted to attain all the ends and objects hereinabove set forth together with other advantages which are obvious and which are inherent to the structure.
It will be understood that certain features and subcombinations are of utility and may be employed without reference to other features and subcombinations. This is contemplated by and is within the scope of the claims.
While specific elements and steps are discussed in connection to one another, it is understood that any element and/or steps provided herein is contemplated as being combinable with any other elements and/or steps regardless of explicit provision of the same while still being within the scope provided herein. Since many possible embodiments may be made of the disclosure without departing from the scope thereof, it is to be understood that all matter herein set forth or shown in the accompanying drawings is to be interpreted as illustrative and not in a limiting sense.
This application is a continuation of U.S. application Ser. No. 16/940,013 (filed Jul. 27, 2020), which is a continuation of U.S. application Ser. No. 15/955,386 (filed Apr. 17, 2018), which claims priority to U.S. Provisional Application 62/486,311 (filed Apr. 17, 2017). The entirety of each of the aforementioned applications is incorporated by reference herein.
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