KR20190045280A - Double Full Square Rope Shoe Cloaking System - Google Patents

Abstract

[0003] The present invention provides a number of preferred embodiments within a general system for attaching shoes to a foot using a one pulling shoe cubicle arrangement. As each of the various alternative embodiments of the present invention is broadly referred to as a "square" string arrangement that extends between the legs or the top of the shoe and between the sides and inside of the shoe. The " square rope " arrangement refers to a generally rectangular arrangement of open or closed loops of cord extending around an array of edge or side-point cord capturing devices. Although generally rectangular, the square rope arrangement described herein will not define a right angle at the edges and will have opposite sides of the same length. The arrangement may be a tetragonal quadrilateral, or a generally rectangular shape may have sides that are curved inward or outward without deviating from the ¼ or ¼ square strap. A variety of alternative alternatives are drawn in and thus arrange a single drawstrap connected to the side of one or more square strap structures for shortening and tightening, the square strap arrangement from its initially loose configuration. Drawings are described in various structures for use or in one or more square straps s and to allow the straps to slide or move in their original configuration. [0004] Many of the described embodiments utilize side straps that utilize one side of a square string configuration to affect shoe closures. In the embodiment (along the shoe) where it is crawled back and forth in the left and right motion and fixed to the side and / or heel portion of the shoe, the single pull strap in the first embodiment has left and right orientation (across the shoe) . The alternative is to put a short drawstrap on the shoe sideways beneath the tongue-shaped area without the need for left and right pulling action. An additional alternative is to draw the drawstrap through the square strap arrangement at the top of the shoe, left and right along the centerline. Again, various mechanical mechanisms for influencing the unity of the square string configuration are anticipated and described.

Description

Double Full Square Rope Shoe Cloaking System

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention generally relates to a shoe and a system for fixing a shoe to a foot, and more particularly, to a shoe for shoe closure around the foot by pulling components of the upper part of the shoe through use of a single or double full mechanism, ≪ / RTI >

The present invention is described in U.S. Patent No. 9,364,046, filed June 14, 2016, by Adams et al., And notes the same problems as the single full-footed adjustment system for footwear. The entire disclosure of U.S. Patent No. 9,364,046 is incorporated herein by reference.

[0003] The present invention provides various preferred embodiments within a general system for securing shoes to the foot using a single full shoe claw foot placement. Each of the various alternative embodiments of the present invention utilizes what is referred to broadly herein as being referred to as a " square cord " arrangement extending between the lateral and medial sides of the shoe across the tongue or top portion of the shoe. A " square cord " arrangement is an open or closed loop cord that extends around the perimeter of several corners or side-point capture devices, generally referred to as a rectangular arrangement. Although the rectangular string arrangement described herein is generally rectangular, it is not limited to having a right angle at the corner or an opposite side having the same length, and the arrangement described in this specification may be a semicircular square, or " generally rectangular & It may have a side that is curved inward or outward without loosening the strap. As various alternative embodiments, a single drawstrap is provided which is connected to one or more square string structures for pulling and shortening the sides of the square string arrangement in an initially loose state. Various structures or various structures are described to enable pulling or pulling one or more square ropes and to slide or move the rope in its initial state.

[0004] The various embodiments described below use a side strap that pulls one side of a square string configuration so that a shoe closure is made. The single pull strap of the first embodiment is changed from the transverse direction (across the shoe) to the longitudinal direction (along the length direction of the shoe), pulled back to the longitudinal direction, and fixed to the side and / or heel of the shoe . In an alternative embodiment, the drawstring need not be pulled in the vertical direction but pulled laterally from the shorter drawstrap to the anchoring point on the shoe side below the tongue area. In a further alternative embodiment, the shoes are pulled longitudinally along the centerline of the upper portion of the shoe to return to the arrangement of the square rope up to the anchor point. In addition, various structural mechanisms can be expected and described to enable the square string configurations to be drawn against one another.

BRIEF DESCRIPTION OF THE DRAWINGS [0005] FIG. 1 is a top plan view, generally in an open and loose state, of a square rope shoe claw subject system in accordance with a first preferred embodiment of the present invention.
[0006] FIG. 2 is a side view illustrating redirecting the drawstrap from the horizontal direction to the vertical direction in the first preferred embodiment of the square rope shoe crossover system of the present invention shown in FIG.
[0007] FIG. 3 is a top plan view of a first preferred embodiment of a square rope shoe crossover system of the present invention shown in FIG. 1 in a closed and pinched configuration.
[0008] FIG. 4A and FIG. 4B are detailed views of a square cord fastener according to a first preferred embodiment of the present invention shown in FIG.
[0009] Figures 5A through 5C are detailed views of three alternative structures for the corner points of the square rope arrangement of various preferred embodiments of the present invention.
[0010] FIG. 6 is a top plan view showing an open and loose condition in a square rope shoe claw-subject system, including a single lateral pull and attachment on a side of a shoe as a second preferred embodiment of the present invention.
[0011] FIG. 7 is a top plan view showing a closed and tightened state in a square rope shoe crossover system according to a second preferred embodiment of the present invention shown in FIG. 6.
[0012] FIG. 8A is a side view of a square rope shoe claw subject system according to a third preferred embodiment of the present invention, including a single lateral pull with the attachment on the side of the shoe and complementing the additional lateral claw action, FIG.
[0013] FIG. 8B is a top plan view of the square rope shoe claw-subject system according to the third embodiment of the present invention shown in FIG.
[0014] FIG. 8C is a top plan view of a square rope shoe claw subject system according to a third preferred embodiment of the present invention shown in FIG.
[0015] FIG. 9 is a perspective view of a square rope shoe claw-receiving system according to a fourth preferred embodiment of the present invention, showing a system including a single horizontal pull acting on two sections of one side of a square rope component in an open and loose state FIG.
[0016] FIG. 10A is a schematic diagram of a square rope shoe crossover system in accordance with a fifth preferred embodiment of the present invention, in which a plurality of rope pulling arrangements in a double-square rope arrangement, such that a single short pull- In an open and loose state.
[0017] FIG. 10B is an alternative structure of a square rope shoe claw-subject system according to a fifth preferred embodiment of the present invention initially shown in FIG. 10A, wherein the double rectangular rope Lt; RTI ID = 0.0 > loosely < / RTI >
[0018] FIG. 11 is a schematic diagram of a square rope shoe crossover system according to a sixth preferred embodiment of the present invention, in which a plurality of ropes are arranged in a double rectangular rope arrangement so that a single short pull toward the top of the shoe, Lt; RTI ID = 0.0 > loosely < / RTI >
[0019] FIG. 12 is a schematic diagram of a square rope shoe crossover system according to a seventh preferred embodiment of the present invention, in which a plurality of ropes are arranged in a double rectangular rope arrangement so as to form a single long pull toward the longitudinal underneath of the shoe Lt; RTI ID = 0.0 > loosely < / RTI >
[0020] FIG. 13 is a detailed partial cross-sectional view of a strap pulling attachment structure of a square rope shoe claw subject system according to a sixth preferred embodiment of the present invention shown in FIG. 11;
[0021] FIG. 14 is a detailed partial cross-sectional view of a strap pulling attachment structure of a square rope shoe claw subject system according to a seventh preferred embodiment of the present invention shown in FIG. 12;

Referring to FIG. 1, a square rope shoe claw member system according to a first preferred embodiment of the present invention is shown in a generally open and loose state as a top plan view. In order to insert a user's foot into a shoe, Ready to do. The shoe claw subject system 10 is located on the shoe 12 (the left foot shoe shown in the embodiment provided) and the shoe has an outer 14 and an inner 16. The heel portion 18 of the shoe is shown at the bottom of Fig. 1 and the toe portion 20 of the shoe is shown at the top of Fig. The tongue-like portion 22 of the shoe is shown between the shoe claws subject system 10 of the present invention.

[0023] The overall shoe claw subject system 10 begins with a strap component that is secured to the heel portion 18 of the shoe 12 and forwardly toward the center of the shoe on the inside 16 at the front. It is understood that the structures described in FIG. 1 having side strap components located on the inside of the shoe, as will be appreciated by those skilled in the art, can be reversed entirely to operate from the outside or outside of the shoe. When manipulated from the outside, the square string components can also be reversed in the direction transverse to the top or tongue portion of the shoe.

[0024] The side strap member of the shoe claw subject system 10 includes an anchor strap 24 extending from a heel portion 18 of the shoe which is sewn or otherwise secured to the shoe structure. The anchor strap 24 extends from the periphery of the heel to the rear strap buckle 26 through which the strap passes forward and ends in the rear strap pull back 28. In a preferred embodiment, the rear strap pullback portion 28 is secured to the anchor strap 24 with attachment surfaces 25a and 25b. Various types of flexible or semi-rigid attachment surfaces may be used to securely secure the rear strap pullback portion 28 from the heel portion 18 of the shoe. In some embodiments, a rear strap pullback 28 formed from the end of the drawstrap longitudinal portion 30 for pulling the strap portion of the square strap system of the present invention, particularly with a small footwear for a child or the like, The buckle 26 and the anchor strap 24 can be both directly fixed (through the attachment surface 25b disposed on the strap) to the attachment surface 25a region of the heel portion 18 of the shoe 12 after the strap portion is pulled longitudinally along the side of the shoe .

[0025] In the preferred embodiment shown in FIG. 1, the longitudinal pull made by the strap device described above is operated on the rear strap buckle 26 which is joined to the draw strap length 30 to form an end. The drawstrap extending from the rear strap buckle 26 to the strap fastener 38 is made in two parts; The first transverse portion, the draw, straps the vertical portion 30; And the second side portion, the drawstrap longitudinal portion 30. The orientation of the overall strap is changed to the angle loop buckle 32. [ The angle loop buckle 32 is held in place by holding the strap 34 which extends from the buckle 32 to the NP1 at another fixed location on the side of the shoe or point where it matches the top of the shoe . Alternately, the angle loop buckle 32 can be secured to the side of the shoe with a rivet or other attachment member (not shown) that simply secures it to the same position shown in Figs. 1 and 2. The straps and cord arrangement shown in Figs. 1 and 2 are structured to be reversible and reversible (from the switching center to the side of the shoe).

After the position of the drawstrap 2 in the angular buckle 32 is changed in the transverse direction of the drawstrap transverse portion 36 in the vertical direction of the drawstrap longitudinal portion 32, the attachment of the strap to the string fastener 38 is completed. In the preferred embodiment, the drawstrap 36 extends across the tongue 22 of the shoe to the point where the inventive square string component is engaged. In the preferred embodiment shown in Figure 1, the length of the drawstrap transverse portion 36 can be adjusted independently ... by adjusting the position of the string fastener 38 on the end of the strap.

[0027] As shown in Figure 1, the square cord structure itself is made of a single-length draw cord. The single-length cord comprises a draw cord longitudinal section 40, a draw cord rear transverse section 42 and a draw cord front transverse section Part 44. [ This single-length draw cord extends in all directions from the cord end post 46a through the cord end post 46b. The cord end post 46b from the cord end post 46a is placed on the shoe. Within cord end stops 48a and 48b, the manner in which such a cord end is inserted and secured in the end eyelet can be varied from a fixed sewing attachment structure to a preferred toggle post structure, as indicated by the dashed line in FIG.

[0028] The single draw cord arrangement of the first preferred embodiment extends through the stationary pulleys 50a and 50b between the end post and the end eyelets. The draw cord is not only easily slid through the stationary pulleys 50a and 50b but also slides through the strap fastener 38. [ Additional details of the stationary pulley and strap fasteners are provided below. An alternative construction in which the stationary pulleys 50a and 50b can be disposed as shown in FIG. 1 is described in further detail below.

[0029] The two additional structures shown in the dashed line in FIG. 1 illustrate a member that can be optionally incorporated into the system to facilitate a soft function. The tongue-shaped sub-cord guide 49 can be fixed to the upper end of the tongue-shaped portion 22 of the shoe so as to prevent the swinging system 4 from sliding down in a loose and tightened state. In a state in which both sides of the shoe are in a loose state with the rectangular string crossover system, the elastic straps 35 can be arranged across the tongue 22, and each end is attached to the opposite eyestay.

In FIG. 1, in a generally loose state, the square rope components of the system according to the present invention are attached to the basic shoe structure, so that the rectangular rope can be removed and replaced for functional wear or aesthetic purposes . The cord fastener 38 can be easily detached from the draw cord longitudinal portion 40 and the ends of the cords 46a and 46b can be easily detached from the end eyelets 48a and 48b located on the shoe 12. [

Referring now to FIG. 1, there is shown a side view of a first preferred embodiment of a square cord crossover system of the present invention, and a method of redirecting a drawstrap in a longitudinal direction as shown in FIG. 1 . In the shoe claw subject system 10, it has been shown that the inner side 16 of the shoe is on the shoe 12 as shown in Fig. The heel portion 18 and the toe portion 20 of the shoe are also disclosed. The top of the tongue 22 of the shoe appears in the profile.

The anchor strap 24, which is mostly covered by the attachment surface 25a in the figure, is forwarded at a position where the heel portion 18 is fixed or extending around the heel, and thus in the longitudinal direction along the length of the shoe toward the rear strap buckle 26 . The anchor strap 24 ends at the rear strap pull back 28 through the rear strap, where the buckle 26 pulls back, and then redirects to the rear to terminate in the rear strap. As described above, various mechanisms for firmly fixing the rear strap pullback 28 to the anchor strap 24 can be foreseen. The rear strap buckle 26 may be simply a dual-loop buckle as shown in the figure, or it may be a friction transmission buckle capable of holding the pull strap in a fixed position. A further alternative embodiment in which the rear strap buckle 26 is entirely omitted and a single strap extends backwards toward the attachment surface 25a can be expected and described above.

The rear strap buckle 26 made up of the draw strap vertical portion 30 and the draw strap transverse portion 36 extends forward. It is the angle loop buckle 32 which makes it possible to change the direction of the draw strap from vertical to horizontal. It is the holding strap 34 that holds the angle loop buckle 32 at about the mid-point of the inner side 16 of the shoe 12, which in the preferred embodiment extends from the buckle to a fixed attachment point, (Not shown) that corresponds to the interface between the top of the shoe sole 54 and the top of the shoe sole 54, or that extends upwardly from the junction of the top and outsole.

[0034] In the fully open and loose state, as shown in FIG. 2, many operable square string components are not shown in the shoe claw subject system 12. 2 is the cord end eyelets 48a & 48b, which are located on the upper side of the inner side 16 of the shoe between the eyelets 48a and 48b, and cord end posts (not shown in FIG. 2) The draw cord rear cross section 42 and the draw cord front cross section 44 are extended. The draw cord transverse portions 42 & 44 extend over and cross the tongue portion 22 of the shoe. Similarly, the drawstrap transverse portion 36 extends to and crosses the draw cord longitudinal portion on the tongue portion 22 of the shoe. Generally, a selective elastic strap 35 is shown beneath the area of the drawstrap transverse portion 36 transverse to the tongue-like portion 22. 2, the optional tongue-shaped sub-cord guide 49 is shown schematically (in broken line).

Next, referring to FIG. 3, a top view of the square rope shoe claws main system according to the first preferred embodiment shown in FIG. 1 is shown in a closed state in FIG. 3. A user's foot is inserted into the shoe and a single pull vertical motion acts to bring the shoe into the closed state. Once again, the shoe claw jaw system 10 located on the shoe is located between the outer 14 and the inner 16 of the shoe. 3, the heel portion 18 of the shoe is shown at the top and the toe portion 20 is shown at the bottom. The tongue-shaped portion 22 of the shoe is shown between the shoe croissant system 10 according to the present invention and below.

In the closed state shown in FIG. 3, the rear strap pullback portion 28 is pulled back against the rear strap buckle 26 to pull the draw strap vertical portion 30 as described above. The rear strap pull back portion 28 is detachably fixed to the anchor strap 24 extending from the heel portion 18. Various mechanisms for securing the rear strap pull back portion 28 to the anchor strap 24 as shown above may be envisaged.

The longitudinal pull on the drawstrap longitudinal portion 30 is redirected by the angle loop buckle supported by the holding strap 34. The drawstrap longitudinal section 30 is transited to the drawstrap transverse section 36 where the string fastener 38 is fixed. In the closed condition shown in FIG. 3, the strap fastener 38 is moved transversely across the shoe, thus pulling the draw cord longitudinal section 40. The pulling process for the draw cord longitudinal section 40 changes the angle of the longitudinal cord to pull the draw cord rear cross section 42 and the draw cord front cross section 44 short. These code components slide along fixed pulleys 50a and 50b located at the corners of the square string structure. The draw cord rear and front transverse portions 42 & 44 are pulled and shortened to cause the shoes to be pulled against each other across the tongue-shaped portion 22 of the shoe, thereby tightening the shoes and securing them to the feet of the wearer. Optional resilient strap 35 and tongue-shaped sub-cord guide 49 are also shown in Fig.

[0038] Referring next to FIGS. 4A and 4B, further details provided on the strap fastener 38 are shown. The fastener 38 is generally implemented as a hook device having a flat base 35 including a strap length adjusting and securing opening 37. The hook position 39 of the fastener 38 is inverted back on the base 35 and is thus fastened by the fastener 38 leaving a vertical gap sufficient for the string 40 to slide in. The structure shown in Figures 4A and 4B can be removably positioned relative to the strap so that the fastener can be reoriented or replaced as needed.

[0039] Figures 5A-5C provide additional details on three alternate embodiments of a string fastening device at a corner point to be slid. Figure 5A discloses a stationary pulley 50A as shown in Figures 1 and 3. In this partial cross-sectional view, the stationary pulley 50A consists of a pulley block 60 which supports the rotatable cylinder 62 and shows that the position is maintained by the pulley axle 61. The pulley axle 61 acts as a method for fixing the axle for the pulley and the fixed pulley 50A to the upper end of the shoe 12. The pulley axle 61 may be, for example, a rivet fixed to the shoe through the fixed pulley 50A. Preferably, the top surface of the pulley block 60 includes a depression 63 for receiving the head portion of the pulley axle / rivet as shown. In the embodiment shown in FIG. 5A, the cord 42 is threaded through the block 60 of the stationary pulley 50A in such a way that it is prevented from being easily dislodged therefrom or is reclosed through a corner or side point structure. The system of the alternative embodiment shown in FIGS. 1-3 is oriented such that alternate system embodiments are oriented such that the open side of the pulley block 60 is outward at the corner point position. In this manner of orienting the stationary pulleys 50A & 50B, the cord 40 is easily secured around the corner point pulleys by squeezing or stretching the cord 40 from the outside of the rotatable cylinder 62. [

[0040] FIG. 5B shows a simpler method of securing the post structure to the upper portion of the shoe in the same manner as the rivets to allow the cord 40 to be cornered or laterally fixed. The corner post 70A shown in Fig. 5B includes a post pin 72 having a post cap 73 at its end. As shown, the rivet portion 71 extends through the material of the shoe 12 in a manner that secures the corner post 72A in a rigid vertical-top configuration that retains the strap 40 as long as the strap 42 maintains its tension. In the loose condition, the cord 40 can be more easily removed from the corner post 70A in a desired manner in many preferred embodiments.

5C, there are shown other constructions for forming corners or side points for the string 40 in such a way that the cornering of the square string profile, or the side-to-side conversion of the cord, can be made. Figure 5C shows a corner or side point opening 77a essentially consisting of a simple gromit 76 in which the draw cord transverse portion 42 passes through the top of the shoe so that it can pass over the grommet 76, Before it escapes into the draw cord longitudinal section 40 toward the corresponding opening grommet, which is the underside of the shoes adjacent to the eyestay and tongue base, at the point where it is diverted down the length of the draw cord longitudinal section 40.

[0042] In the square cord system of the present invention disclosed in Figs. 5A to 5C, the grommet 76 is pulled out as the draw cord vertical portion 40 toward the grommet opening portion corresponding to the lower portion of the shoe near the eye and tongue portion race, Various alternative embodiments in terms of points suitably combine the advantages of simplicity in construction and the advantages of frictionless motion around corner points. Each of the special structures described above enjoys other advantages over those that are not advantageous in terms of shoe type and shoe sizes. It is also possible to mix the corner or side point types in a given square string arrangement.

[0043] Next, referring to FIG. 6, a description will be made of a square rope shoe crossover system according to a second preferred embodiment of the present invention, which includes fixing and a single horizontal pull on the shoe side, Indicates an open and loose condition ready to insert the foot into the shoe. The shoe closure system 80 is positioned on the shoe 12 having an outer side 14 and an inner side 16 of the shoe (represented by left foot shoe in the example of Fig. 6). In Fig. 6, the heel portion 18 and the toe portion 20 are also shown. The tongue 22 is also shown between the shoe claw main system 80 of the present invention and below.

In the second preferred embodiment shown in FIG. 6, strap components extending downward in the lateral direction of the shoe, as in the first embodiment described above, are fixed to the heel portion of the shoe. The second embodiment is instead attached to the strap and has a single short lateral strap, which is attached to a fixing point on one side of the mid-sole of the shoe in a similar manner to the first preferred embodiment .

The rectangular string arrangement structure shown in FIG. 6 is made of a string having a draw cord first longitudinal portion 82a, a draw cord front transverse portion 82b, a draw cord second vertical portion 82c, and a draw cord rear transverse portion 82d . The cord member is again secured onto the cord crimp connector 79, which is preferably located at an intermediate point on the draw cord front transverse section 82b. The rope in such a structure has a rectangular shape by extending or passing around the corner points forming the square. In the embodiment shown in Fig. 6, the fixed pulleys 84a to 84b are included in the first preferred embodiment and the method described in Fig. 5A. Each of the corner points described in the above-described preferred first embodiment may also be applied to the embodiment in Fig.

[0046] The fixing strap 81 includes a pull tab 87, an opening array 85, and a strap fastener 83. The fixing strap 81 is designed to be fixed to the draw cord first vertical portion 82a or the draw cord second vertical portion 82c alternately (the strap ply 83) according to the sideways pulling direction as desired by the user. Thus, the stationary assemblies are positioned on each side of the shoe so that the user can sideways across the inside of the shoe from the outside of the shoe (the outside of the shoe). Or from the inside to the outside (outside) side of the shoe, in the direction to tighten the strap horizontally. The cord guard 86 provides an optional connection point on the draw cord second longitudinal portion 82c, where the strap clasp 83 is fixed otherwise and is fixed so as to act in the inverse of the transverse direction (using a fixed post assembly 88b instead of 88a So).

[0047] The method of connecting the stationary strap 81 to the side of the shoe is provided by either of the stationary post assemblies 88a & 88b, and it is initiated by lateral pulling on the stationary strip 81 and above the drawcord second vertical portion 82c (In the direction shown in Fig. 6). The manner in which the locking mechanisms are used is described in more detail below with reference to FIG. The tongue-shaped sub-cord guide 89 and the elastic band 75 are selectively added to the shoelace crossover system 80, and are also shown in dashed lines.

In the open state shown in FIG. 6, the resilient strap 75 is shown as being positioned below the stationary strap 82, and the resilient strap 75 is designed to maintain a constant tension in the system of the present invention, and even when the cord claw system is not tightened, Pull both sides of the open shoes to be gathered together. The tongue-shaped sub-cord guide 89 is also shown in FIG. 6 and is located similarly to the first preferred embodiment described above wherein the tongue-shaped portion 22 of the shoe is supported by residual tension at the drawcord rear transverse portion 82d.

[0048] Referring next to FIG. 7, the second preferred embodiment shown in FIG. 6 shows a tightened and closed state. The retention strap 81 is pulled transversely across the shoe, which snaps and shortens the pull cord on the draw cord first longitudinal portion 82a, thus drawing cord rear side 82d and draw cord front side 82b. This single transverse pull compresses the outer 14 of the shoe to the inner 16 side. And extends across the stationary post assembly 88a when the stationary strap 81 is pulled toward the side. One of the openings in the aperture array 85a on the hook post on the stationary post assembly 88a is attached to the user to secure in the lateral tension position. The number of openings is set in a linear array 85 of openings.

[0049] In the preferred embodiments of the present invention shown in Figures 6 and 7, closed-loop drawcords (made of 82a-82d encodings) are preferably resilient or anti-resilience cords, It is desirable to have elastic or semi-elastic cords when tightened or pulled as shown. The residual tension on the strap imparts tension on the securing strap 81 to help hold the stiff pit on the shoe and to maintain its position on the fixed post assembly 88a as well as pulling both sides to the shoe across the tongue 22 . As will be appreciated by those skilled in the art, the elasticity of the cord must be balanced, the balance of which has a residual tension once pulled across and attached to the shoe as described above, the draw cord front transverse portion 82b, Refers to an appropriate balance between the ability to pull both sides of the shoe across the tongue-shaped portion by effectively shortening the rear transverse portion 82d. If the elasticity of the cord is too great, it is stretched only once at the position where the fixing strap is pulled, so that it can not pull tightly on both sides of the shoe sufficiently across the tongue-shaped portion. Inadequate elasticity, once the cord is pulled and secured, will leave no residual tension on the cord. The various cord structures that combine the inner resilient fibers within the woven fiber sheet to satisfy the desired balance of such elastic properties are satisfied. The closed loop structure shown in Figs. 6 & 7 can be implemented with a longer strap structure, which is located on both sides of the shoe described in Figs.

Next, referring to FIGS. 8A to 8C, a square rope shoe claw system according to a third preferred embodiment of the present invention is supplemented with a single lateral pulling of both sides of the shoe and an additional center eye stalking action . In Fig. 8A, the retainer bridge 91 is positioned on one side of the shoe on the opposite side of the fixed post assembly 88a. In addition, an eye stay opening 93 is provided through the eye stay on the side of the shoe similar to the fixed post assembly 88a. Although the third embodiment can be manufactured and implemented with the arrangement of the mirror images shown in Figs. 8A to 8C, the user reverses the structure on a given shoe, as in the previously described second preferred embodiment, It is not suitable by itself.

In the third preferred embodiment, as shown in FIG. 8A, the fixing strap 81 is attached to the draw cord second vertical portion 82c through the eye stay hole 93 having the strap fastening 83. In this embodiment, rather than simply being pulled transversely across the shoe, the securing strap 81 is first retracted past the retention bridge 91 before being pulled back across the shoe and attached to the fixed post assembly 88a. This additional tension point on one side of the shoe pulls the shoe side stays and shoe eye stays together to provide additional compressive force across the tongue 22 of the shoe. Here again, the elastic properties in the draw cord not only provide the residual tension in the cord, but also provide an inelastic stretch sufficient to pull the sides of the shoe together.

[0051] In FIG. 8B, shoe 12 is similar to the previous figure, except that the square shoelace shoe claws system 82 is in the middle of a generally progressing state through a fixing process by the user. At this process point, one side of the square cord structure to the point where both sides of the shoe are pulled together by pulling the draw cord second opening 82c through the eye stay opening 93 and pulling the middle part is pulled by each side. The fastening strap 81 is extended to extend down the retention bridge 91 before turning around the retention bridge 91 again. The eye stay opening 93 is of a sufficient size to allow passage of the strap fastener 83 with the fastening portion of the draw cord second vertical portion 82c.

[0053] FIG. 8C illustrates a state in which the fixing process of the third preferred embodiment of the present invention is completed, wherein the fixing strap 81 extends back across the shoe to the attachment point of the fixed post assembly 88a. This structure provides the compression claw force of the branch at the top of the shoe, the first being the tension of the square string arrangement and the second is the tension on the strap between the eye stay opening 93 and the retention bridge 91. The four fixed pulleys 84a-84d provide low friction corner slide points so that the square cord cord can be tightened tightly and the process of pulling the two sides of the shoe together is facilitated. The retention strap 81 engages the transverse line to return from the eye stay opening 93 to the retaining bridge 91 and back to the fixed post assembly 88a, pulling on both sides of the shoe to provide a comfortable fit while being tight to the wearer.

Next, referring to FIG. 9, many aspects are similar to the embodiment shown in FIG. 6 except that a fifth fixing pulley 84e is added in the middle of the draw code first vertical portion 82a. Figure 9 shows a square rope shoe claw-subject system according to a preferred embodiment of the present invention having a single lateral pull action on two sections of one side of the square rope arrangement. The picture is open and loose. The action in the preferred fourth embodiment structure is to double the pulling length on a square string for a given horizontal pull on the fastening strap.

[0055] In addition to placing the fifth pulley (which may be posts as described above in various other preferred embodiments), there was previously only one connection point for the stationary strap, but in this fourth embodiment, Which is strap fasteners 93a & 93b. The Y-shaped fastening strap 92 can double the pulling force of the strap against the given transverse motion for the fastening strap 92 by pulling the strap twice. Otherwise, the structure of the fastening strap 92 and the hook opening array 95 with the pull tab 92 remains essentially similar to the strap structure of the straight line described previously.

[0056] In the embodiment shown in FIG. 9, two elastic straps 75a and 75b are provided between the eye stays to provide a residual tension when the draw cord is loosened and are located across the tongue 22, It has one surface on the top so that the fixing strap can be pulled. Otherwise, the methods of strap attachment are basically the same. An alternative form of forming the Y-shaped strap structure includes a loop of strap material forming the Y-strap arms 94a & 94b, with the straight strap 92 of the strap 92 engaged with the Y-strap arm. Various mechanisms for retaining the transverse pulling fastening straps of the Y-shaped configuration can be expected.

[0057] In the embodiment shown in Fig. 9, the structure is generally such that the user is not allowed to change the direction of the horizontal pulling. For this reason, only the addition of one fixed post assembly 88 and only one new stationary pulley 84e is shown in Fig. However, as will be appreciated by those skilled in the art, a system such as the addition of a sixth stationary pulley (not shown) and a second stationary post assembly (not shown) may be designed, By allowing the tie-down strap to be pulled, the user can reverse the direction of the Y-type tie strap. Of course, the shoe can be manufactured with an intermediate portion facing the full strap in the transverse direction, and the user can select the direction of the lateral pulling by increasing the degree of complexity.

[0058] Referring now to FIG. 10a, there is provided a similar to the Y-pull pull strap similar to that shown in the embodiment of FIG. 9, except that the draw code is divided into two separate closed-loop code components or subassemblies . In order to allow for two separate square rope components, two eye-steer pulleys 84e & 84f are located on each of the eye stages of the shoe so that each of the two individual sub- do. Figure 10a shows a square rope shoe claw subject system according to a fifth preferred embodiment of the present invention in a top plan view and has a single lateral pull acting on each side portion of two separate closed loop square rope subassemblies. Fig. 10A shows this ninth embodiment in an open and loose condition. The operational effect of the structure of the fifth preferred embodiment is to double the pulling length on the square string components for a given horizontal pull of the stationary strap.

[0059] The dual square string structure shown in FIG. 10A includes a square string cord receiving system 90 of two separate orthogonal arrangements, wherein the two separate closed loop codes form a double square cord structure, A vertical portion 82a, a draw cord intermediate transverse portion 82b, a draw cord second vertical portion 82c, and a draw cord rear transverse portion 82d. The second lower draw cord component comprises a draw cord first longitudinal portion 86a, a draw cord front transverse portion 86b, a draw cord second longitudinal portion 86d, and a draw cord middle transverse portion 86d. Although the fifth preferred embodiment provides two separate square rods, the function on the code arrays is similar to that described above in that the process is to shorten the horizontal components in the square rope components to act to pull the two sides of the shoe together Basically the same. By forming the angled cord elements by pulling the longitudinal elements of the square string components transversely, the longitudinal elements become correspondingly long as the transverse elements are shortened.

[0060] The fixing strap 92 shown in FIG. 10A includes a pull tab 97, an opening array 95, and strap clips 93a & 93b. The fastening strap 92 is designed to alternatively correct the draw code first vertical portion 82a & 86a or the draw code second vertical portion 82c & 86c depending on the direction of the side pull desired by the user. Thus, the stationary post assemblies are positioned on each side of the shoe so that the user can pull the shoe horizontally across the shoe from the outside (outside of the shoe) to the inside of the shoe, or reverse the process ) So that the strap can be tightened transversely. The cord guards 96a & 96b provide an optional connection point on the draw cord second vertical portions 82c & 86c on which the strap clips 93a & 93b are alternately secured, Using fixed post assembly 88b instead of assembly 88a).

[0061] The method of connecting the anchoring strap 92 to the side of the shoe is again provided by one of the anchoring post assemblies 88a & 88b, which is initiated by lateral pulling on the anchoring strap 92, Or across the longitudinal portions 82c & 86c and across the draw cord second longitudinal portions 82a & 82a. The manner in which the locking mechanisms are used is basically the same as that described with reference to Fig.

The tongue-shaped cord guide 89 and the elastic bands 75a & 75b, which can be selectively added on the square cord claw-receiving system 96, are indicated by broken lines. In the open state shown in FIG. 10A, the elastic bands 75a & 75b are seen to be positioned beneath the arms of the stationary strap 92, maintaining a constant tension within the system, I pull it. 10A shows a tongue-shaped cord guide 89, which is similar to that of the first preferred embodiment described above, wherein the tongue-shaped portion 22 of the shoe is supported by the drawcord rear transverse portion 82d.

[0063] Referring now to FIG. 10B, there is provided an alternate dual pull pull strap embodiment as shown in FIG. 10A, except that the Y drawstrap is separated into two linear draw straps, similar. The embodiment shown in Fig. 10b can serve to be used in connection with the shoe structure itself and includes lower and upper bump sections, which are the side quota of the shoe. The side quota of the shoe includes separate lower and upper vamp sections, which can be secured through separate closed loop cord components or subassemblies. Between the upper and lower vamp sections, the upper vamp edges 87a & 87b are shown in dashed lines. Such a shoe structure is similar to that described in U.S. Patent 4,200,998. The upper vamp can be designed with a structure in which the upper vamp edge 87a & 87b extends over the lower vamp section (as shown in FIG. 10B), or the upper and lower vamp sections can meet equally at their corners, And extend over the upper vamp section (not shown).

To combine two separate square rope components in this diagonal embodiment, the two mid-shoe dual pulleys shown in FIG. 10a were replaced with four single pulleys 84e-84h in total. In this way, the two square string components can function as a whole as a whole so that each of the square string cord components can be tightly tightened in an independent manner. 10B is a schematic view of a square rope shoe fixing system according to a fifth preferred embodiment of the present invention, wherein an alternative structure is shown as a top view, And dual lateral pulling straps acting on the part. Figure 10b shows a fifth preferred embodiment of such alternate structures as open and loose. The working effect in the alternative structure of the fifth preferred embodiment is to double the pulling length for each of the square string components for a given horizontal pull on independent fastening straps.

[0065] The dual quadrangle structure shown in Figure 10b includes two separate quadrangle arrangements, which are for a quadrangle cord receiving system 91, the two individual closed loop codes 83a & 83b being a dual code array And a second rectangular string component 83b having a first rectangular string component 83a of four sides similar to the rectangular array of the upper bump sections on the upper bump section and which is similar to a rectangular structure on the lower bump section. The alternative structure of the fifth preferred embodiment as in the structure shown in Figure 10a provides two separate square rods and the function of the code array is to shorten the transverse elements of the square rope components to act to pull the opposite sides of the shoe together Basically similar to that described above in terms of having a process. The longitudinal elements are elongated such that the square element elements form the angled code elements by pulling the longitudinal elements to correspond to the transverse elements being shortened.

[0066] Fixed straps 94a & 94b shown in Figure 10b include strap clips 93a & 93b with aperture arrays 95a & 95b. The fastening straps 94a & 94b are alternatively configured such that the strap clips 93a & 93b are alternatively fastened to the clip points 96a & 96b thereon so that the reverse pull direction is reversed (88b & 88c). Thus, a plurality of stationary post assemblies 88a-88d are positioned, two on each side of the shoe so that the user can pull sideways outside the shoe (the outer portion of the shoe) Process, in the direction from the inside to the outside (outside) of the shoe, in the tightening direction of the straps. One possible implementation of the straps shown in FIG. 10B is to arrange a fixed strap pulled in one direction and a second secured strap pulled in the opposite direction. It is possible to reverse the direction of the securing strap so that this deformation in the direction of the transverse pull is allowed by reversing the position on the draw cord where it is clipped.

[0067] The method of connecting the fixing straps 94a & 94b to the side of the shoe comprises any one of the fixed post assemblies 88a-88, as in Fig. 10a. This method of connecting the securing straps starts by traversing each securing strap across the opposite side of the draw cord, which is used in the securing mechanisms described above with reference to Fig. The tongue-shaped sub-cord guide 89 is also shown in FIG. 10B and is located similarly to the first preferred embodiment described above wherein the tongue-shaped portion 22 of the shoe is supported by the residual tension in the draw cord 83a.

[0068] Referring now to FIG. 11, although the draw cord arrangement similar to the embodiment shown in FIGS. 10a and 10b is provided, the transverse fastening strap (s) are replaced with a single strap directed vertically for securing. Fig. 11 provides a square rope shoe claw-subject system according to a sixth preferred embodiment of the present invention, in which a single vertical pulling action acts on each transverse portion of two separate quadrangle cord subassemblies . Figure 11 shows a sixth embodiment in an open and loose condition. The effect of the arrangement of the preferred sixth embodiment is to double the pulling length on the square string member for a given longitudinal pull for a single locking strap.

[0069] The rectangular string arrangement shown in FIG. 11 includes two separate rectangularly arranged rectangular string closing systems 100, as in FIGS. 10a and 10b, wherein the two individual closed loop codes include a first row of draw cord first vertical portions 102a A middle portion 102b of the draw cord, a second longitudinal portion 102c of the draw cord, and a rear lateral portion 102d of the draw cord. The second lower draw cord component comprises a draw cord first longitudinal portion 106a, a draw cord front transverse portion 106b, a draw cord second longitudinal portion 106c, and a draw cord middle transverse portion 106d. This sixth embodiment provides two separate closed loop square rods as in the fifth embodiment, but is somewhat unusual with respect to Figures 10a & 10b of the operation of the code array. In the croissing process, the upper and lower horizontal transverse cords are shortened to pull both sides of the shoe continuously, but by pulling the intermediate transverse portion of the cord component toward a longitudinal angle, the two shoe middle dual pulleys 104e & 104f Pull together and at the same time pull vertically of the square string components, so that the upper and lower transverse portions are more tightened and shortened. This arrangement provides another way in which the rectangular straps can be worn tightly against one another in the process of closing the upper isostere region, but still be able to provide a comfortable fit.

The fixed strap 108 shown in FIG. 11 includes a strap pull tab 112 and a strap fastener 110. In this case, however, the point of the strap fixation is in the upper slide collar 114 disposed at the drawcord rear transverse portion 102d. The method in which the fixing straps 108 are connected and fixed to slide the collar 114 will be described in more detail with reference to Fig.

[0071] The sixth embodiment shown in FIG. 11 still utilizes the residual tension elastic bands 75a & 75b, each of which is positioned to be connected to one of the two square string components. However, the previous tongue-shaped sub-code guides are divided into two tongue-like guides 115a & 115b in this sixth embodiment, each located on either side of the upper slide collar 114. [ Thus, the cord guides 115a & 115b serve two purposes: to maintain the position of the tongue 22 under the draw cord assembly and to keep the slide collar 114 in the center of the cord.

[0072] FIG. 12 is a top plan view of a seventh preferred embodiment of a square rope shoe claw subject system in accordance with the present invention, wherein a double long rope arrangement is provided, prior to flipping the upper direction of the shoe upward in the dual closed- It shows a structure that draws a plurality of strings together in the lower horizontal direction of the shoe, and this system shows open and loose setting. The basic structure of the seventh embodiment is quite similar to the sixth embodiment described above with reference to Fig. 11 and includes a drawcord front transverse portion 106b disposed in the reverse orientation completely above the drawcord intermediate transverse portions 102b & 106d, The lower slide color 128 on the use of 120 is added. In the configuration shown in Figure 12, the fastening strap 120 is disposed on the central cord portion in a manner that allows the strap fastener 122 to pass under the lower slide collar 128 before it is deflected to extend laterally downward toward the toe of the shoe The lower slide collar 128 and the upper slide collar 114 in a manner analogous to that shown in FIG. The tightening and closing process of the cord system shown in Figure 12 is an additional way to increase the pulling length on the transverse cords and thereby increase the overall force pulling both sides of the top across the tongue. In the arrangement shown, the cord portions 106d, 106b, & 102b are pulled together with the group made at the point of the connection with the upper slide collar 114 above the cord portion 102d.

[0073] Finally, reference is made to Figs. 13 and 14, which are partial sectional views showing details of the pulling-strap attaching structure according to the sixth and seventh embodiments of the present invention. 13 shows an arrangement for the strap pulling attachment structure shown in Fig. 11, whereby the fixing strap 108 is fixed to the draw cord middle transverse portions 102b & 106d at the upper sliding collar 114 disposed at the drawcord rear transverse portion 102d And extends between the points of the connection to pull the point. The strap fastener 110 disposed in the fastening strap 108 is configured to allow the fastener and pulls the draw cord intermediate transverse portion 102b & 106d because the attached strap to be secured, but detachably, is shown.

[0074] In the illustration of FIG. 13, the tongue 22 is shown as a resilient band 75a loosely disposed on the tongue. A fixed strap 108, and a hook channel array 116 terminating in a strap pull tab 112 and providing a hooked channel segmented to engage around the cylindrical structure of a plurality of upper slide collar 114. By tilting (up and down) the locking straps 108, the user can optionally place the upper slide collar 114 into one of the hook channels in the hook channel array 116 to secure the strap in place. In the process, the square code crossover system is pulled together to affect the proper fit for the shoe as described above.

[0075] Fig. 14 generally shows a detailed partial sectional view of the pulling strap attaching structure of the seventh preferred embodiment shown in Fig. In this embodiment, a longer fastening strap 120 includes a similar strap fastener 122 that immobilizes the end of the strap to pull draw cord intermediate transverse portions 102b & 106d, again suitably from below, in this embodiment. The fastening strap 120 is attached to the upper slide collar 114 disposed at the draw cord rear transverse portion 102d and the shoe lower slide collar 128 disposed at the draw cord front transverse portion 106b prior to extending laterally over the middle line of the shoe at the attachment point, Lt; / RTI > The opposite end of the securing strap 120 terminating at the strap pull tab 124 is comprised of a hook channel array 126 that provides a hooked channel that is segmented to engage around the cylindrical structure of the plurality of upper slide collars 114. Here again, the upper slide collar 114 can be selectively placed into one of the hook channels in the hook channel array 126 to secure the strap in place by the user, by lifting the fastening straps 120 upward (laterally). In the illustration of Fig. 14, tongue 22 is shown as resilient bands 75a & 75b loosely disposed on its upper surface. The block arrows in Fig. 14 show the method and the entire array of lateral nerve bundle segments are pulled together by the strap to affect the compression of the side of the shoe for a suitable fit as described above.

It will be appreciated by those skilled in the art that although the preferred embodiments of the present invention described herein are generally submitted to the existence of a single pulling action influenced from the inside of the shoe, Lt; RTI ID = 0.0 > and / or < / RTI > In addition, although many embodiments are depicted taking account of the user-selected pooling direction, each of the embodiments may be implemented with such a user-select function. In each case, the balance is struck between the user selectability and the corresponding increase in the complexity of the square string structure that will occur in the reflected fixed assembly.

[0077] It will be appreciated by those skilled in the art that various embodiments of the present invention embody the tongue shaped portion positioned between parallel and opposing eyestays in relation to the shoe so that the present invention has a side overlapping in the upper midline of the shoe It will be appreciated that shoes may be embodied in shoes without specific tongue-like structures, such as shoe configurations, or shoes that do not have parallel and opposing eye stays, or in the shoe front that is not centered on the foot. While the shoe structure is only needed to be able to be compressed since the sides of the assembly are intermeshed together as long as the edges and side point structures of the various embodiments are disposed on opposite sides of the shoe. It will be appreciated by those skilled in the art that, with the edge and side point mechanism of the additional strains in a particular arrangement, the rectangular open and closed loop structures are still included in the scope and scope of the pulling function of the single string of the present invention It will be possible.

Claims (20)

A footwear crossover system in which, in a shoe having a width direction and a length direction, a wearer of a shoe can be pulled in one direction so that both sides of the shoe are pulled to each other across the top of the shoe,
At least two transverse portions located across the shoe in an at least partially closed geometric configuration and extending across the width direction of the shoe and at least one transverse portion extending downwardly along a lengthwise portion of the shoe between the draw cord transverse portions, At least one draw cord of a predetermined length having a vertical portion;
A plurality of guide point positioning structures for fastening at least one constant length draw cord at at least two points on at least partially closed geometric arrangement;
A transverse portion extending across the upper portion of the shoe, the transverse portion being generally perpendicular to the transverse portion and extending along the length of the shoe toward the heel of the shoe;
A hook fastener draw cord fastening member fastened to at least one longitudinal portion of the draw cord attached to one end of the draw strap;
An angle buckle secured to a side point of the shoe to allow the drawstrap to pass therethrough and to affect the angle between the transverse portion and the longitudinal portion;
An attachment surface located on the heel of the shoe for engaging and retaining a corresponding attachment surface located on the longitudinal side of the drawstrap;
Pulling the transverse portion of the drawstrap and the vertical portion of the drawstrap and attaching the attachment surfaces pulls the transverse portion of the drawstrap across the upper portion of the shoe so that at least one draw cord transverse portion So as to attract both sides of the shoe to each other. 2. The footwear according to claim 1, wherein the drawstrap further includes a vertical portion extending generally perpendicularly to the transverse portion in the direction of the heel of the shoe along the longitudinal direction of the shoe;
The system further includes an angle buckle secured to a position on a side of the shoe such that the drawstrap passes through and affects the angle between the transverse and longitudinal portions of the drawstrap,
The attachment surface located on the shoe is located on the heel of the shoe and its attachment surface is located on the vertical portion of the drawstrap,
The action of returning the gearing surfaces to each other on the longitudinal portion of the drawstrap acts to pull the transverse portion of the drawstrap across the top of the shoe so that at least one longitudinal dimension of the draw cord Wherein the shoes act to pull each other and pull both sides of the shoe together. 2. The drawcord of claim 1, wherein the constant length draw cord comprises a single length draw cord having a first end and a second end, wherein a first end of the draw cord is attached to a first point on a first side of the shoe upper, So that a single length of the draw cord extends to the first structure of the plurality of guide point positioning structures located on the second side of the upper portion of the shoe across the upper portion of the shoe, And a draw cord of a single length continues to extend to a second structure of a plurality of guide point positioning structures located at a second side of the shoe upper portion along the shoe upper length, A first transverse portion of at least two transverse portions of the draw cord is disposed on the first side of the upper portion of the shoe, Characterized in that a single length of draw cord is extended and a second end of the draw cord is attached to a second point on the first side of the upper portion of the shoe up to a second structure of the two guide point positioning structures . 4. The method of claim 3, wherein the first and second ends of the single-length draw cords each include a toggle post, wherein the first and second attachment points on a first side of the shoe upper portion each include an eyelet, Is detachably attached from an eyelet. The shoe cro object system of claim 1, wherein at least one of the plurality of guide post-poration structures comprises a cap-shaped open post around which a draw cord of a certain length is fastened. The shoe cro object system of claim 1, wherein at least one of the plurality of guide post-poration structures comprises a block and a pulley around which a draw cord of a certain length is fastened. The shoe croissant system according to claim 1, wherein the draw cord fastening member is detachably attached to at least one lateral portion of the draw cord. 2. The apparatus of claim 1, wherein the shoe comprises a tongue-like portion, the system further comprising a tongue-shaped subcordile guide positioned on the tongue-like portion and having at least a predetermined length of drawcord passed therethrough and slidably supported therein And the shoe claw main body. 3. The buckle of claim 2, wherein the angle buckle includes a ring member, wherein the angle buckle is secured to a securing strap extending from an attachment point on a shoe side adjacent the shoe bottom and is slidably coupled through a ring member of the angle buckle Wherein the shoe claw main body is a shoe claw main body system. 3. The apparatus of claim 2, wherein the drawstrap transverse portion
A first transverse strap section extending from being engaged with the angle buckle to terminating in the adjusting buckle; And
And a second transverse strap section slidably passed through the adjusting buckle from an attachment point on the shoe adjacent to the heel of the shoe and terminating at a point corresponding to the attachment surface on the draw strap,
And the second horizontal strap section is pulled back to a point corresponding to the attachment surface on the draw strap so that the adjustment buckle is attached and fixed so as to variably attach the draw strap on the attachment surface. 2. The article of claim 1, wherein the at least one predetermined length of draw cord comprises a closed loop single-length draw cord, which is at least a first of two transverse portions of the draw cord, Extending from a first one of the guide point positioning structures to a second one of a plurality of guide point positioning structures located on a second side of the upper portion of the shoe across an upper portion of the shoe,
The closed loop single-length draw cord may then comprise three of the plurality of guide point positioning structures located on the second side of the upper portion of the shoe across the upper portion of the shoe as the first of the at least one vertical draw cords of the draw cord Lt; / RTI >
The closed loop single-length draw cord is then placed in the draw cord as the second of at least two of the transverse portions, and the fourth of the plurality of guide point positioning structures located on the first side of the upper portion of the shoe, Lt; / RTI >
The closed loop single-length draw cord may then be the second of at least one of the longitudinal portions of the draw cord, the first of the plurality of guide point positioning structures located on the second side of the shoe upper along the length of the shoe upper portion The shoe claw main body system comprising: 12. The shoe according to claim 11, wherein the attachment surface located on the shoe includes a corresponding post attachment and a corresponding attachment surface comprising a plurality of eyelets positioned on the draw strap, Is pulled toward one of the eyelets to a fixed post hook to keep the drawstrap and the top of the shoe tight. 12. The method of claim 11,
The draw cord fastening member is detachably attached to either the first or second of at least one of the longitudinal portions of the draw strap and the system attaches the cord strap to the first attachment surface located on the shoe Of the at least one longitudinal portion of the draw cord, or to attach the cord strap to the second mounting surface located on the shoe, And a second fastening surface located on the shoe by fastening the draw cord fastening member to the shoe claw member. 12. The apparatus of claim 11, wherein the shoe comprises a tongue-like portion, the system further comprises a tongue-shaped subcordile guide located on the tongue-like portion and having at least a predetermined length of drawcord passed therethrough and slidably supported therein And the shoe claw main body. 12. The method of claim 11,
An eye stay eyelet defined as a first slot opening and positioned adjacent to a drawstrap fastening portion passing through a first eye stay portion at an upper portion of the shoe and engaged with at least one draw cord longitudinal portion; And
A retainer bridge defined as a second slot opening and positioned across the shoe in a transverse direction from the first eye stay portion over a second eye stay portion of the upper portion of the shoe,
The drawstrap pulls the draw cord through the first slot opening to extend transversely across the shoe through the first slot opening and laterally to change the direction of the shoes to attach to the attachment surface on the shoe, And is configured to pass through the second slot opening prior to reversing its direction across the attachment surface on the drawstrap. The method according to claim 1,
The transverse portion of the drawstrap includes a " Y " -shaped strap and a drawcord fastening member, and the drawcord fastening member includes first and second fastening members individually positioned on each of the two arms of the " Y & In addition,
The system further includes a fifth guide point positioning structure positioned generally between the second and third guide point positioning structures, wherein the first fastener member fastens the draw cord between the second and fifth guide point positioning structures , And the second fastening member fastens the draw cord between the fifth and the third guide point positioning structure. The method according to claim 1,
The draw cord of the entire one length comprises a first closed loop draw cord length and a first closed loop draw cord length,
The first closed loop draw cord length portion is the first of at least two transverse portions of the draw cord and extends from the first of the plurality of guide point positioning structures located on the first side of the upper portion of the shoe, The first closed loop draw cord length portion is the first of at least one longitudinal portion of the draw cord and the length of the top portion of the shoe is set to be the first of the plurality of guide point positioning structures located on the second side, Extending to a third of a plurality of guide point positioning structures located on a second side of the upper portion of the shoe, the first closed loop draw cord length portion being a second of at least one transverse portion of the draw cord, A plurality of guide points located on the first side of the upper portion of the shoe, The first closed loop draw cord length portion being the second one of the at least one longitudinal portion of the draw cord and located on the second side of the shoe upper portion along the length of the shoe upper portion Extending to the first of a plurality of guide point positioning structures;
The second closed loop draw cord length portion is the third of at least two transverse portions of the draw cord and extends from the fifth of the plurality of guide point positioning structures located on the first side of the upper portion of the shoe, Extending to the sixth of the plurality of guide-point positioning structures located on the second side, and the second closed-loop draw-cord length portion is again the third of at least one longitudinal portion of the drawcord, Extending to the seventh of a plurality of guide point positioning structures located on a second side of the shoe upper portion, the second closed loop draw cord length portion being fourth of at least one transverse portion of the draw cord, A plurality of guys positioned on a first side of the upper portion of the shoe, The first closed-loop draw cord length is extended to reach the eighth of the point-positioning arrangements, again being the fourth of at least one longitudinal portion of the draw cord, extending along the length of the upper portion of the shoe on the second side of the shoe upper Extending to a fifth of the plurality of guide point positioning structures that are located. 18. The drawstring of claim 17, wherein the transverse portion of the drawstrap comprises:
The draw cord fastening member includes first and second fastening members individually positioned on each of the two arms of the " Y " type strap,
Wherein the first fastening member engages the draw cord between the second and third guide point positioning structure and the second fastening member fastens the draw cord between the fifth and sixth guide point positioning structure. system. 19. The method of claim 18,
The first fastening member may be detachably attached to the first or second one of the at least one longitudinal portions of the draw cord, and the second fastening member may be detachably attached to the third or fourth one of the at least one longitudinal portions of the draw cord And the system is configured to fasten the first and second drawcord fastening members to the first and third of the longitudinal portions of the drawcord so that the drawstrap can be attached to the first attachment surface located on the shoe, And a second attachment surface for fastening the first and second drawcord fastening members to the second and fourth of the vertical portions of the draw cord so that the drawstrap can be attached to the second attachment surface located on the shoe, Wherein the shoe claw main body system comprises: 2. The shoe croissant system of claim 1, further comprising an elastic band extending generally transverse to the transverse portion of the drawstrap across the upper portion of the shoe and extending between both sides of the shoe.

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