This invention relates to a snowboard boot having a soft inner shoe and a soft outer shoe, that is, to a so-called soft boot.
The closure used in the soft boot is usually a lacing, i.e. a shoelace as a tension means which is guided through eyelets or similar turning points which are provided in closing flaps on the leg of the outer shoe on each side of the tongue so as to form crossing points on the tongue overlapped by the closing flaps.
Due to its support on the tongue and the turning points on the closing flaps which are pressed against the tongue increasingly when the shoelace is tightened, the friction of the lacing increases from the upper to the lower end of the tongue when the shoelace is tightened. This has the consequence that the leg area and thus the calf area can be firmly laced up, but not the lower zone.
However, firm lacing is important in snowboarding particularly in the lower zone, i.e. the foot area. The foot must e.g. not slip forward in the shoe during a backside turn, and there should be firm contact of the heel with the sole in a frontside turn when the heel is applied.
It is therefore the problem of the invention to provide a soft boot which has an easily operated firm fixing means also in the foot area.
This is obtained according to the invention by the snowboard boot having turning points in the instep and heel areas for a tension means.
In the inventive snowboard boot, the sole of the outer shoe has fastened thereto a tension means which is guided from one side over the inner shoe via at least one turning point fastened to the sole on the other side on the inner side of the shoe, extends out of the outer shoe for operation, and is fixable in the tightened state.
This forms between the outer shoe and the inner shoe an additional separate lacing for the lower zone, that is, the foot area, which firmly presses the foot against the sole of the outer shoe and thus fixes it. This substantially facilitates snowboarding.
Since the tension means extends to the outside, it is easily accessible and thus easy to operate, i.e. it can be tightened, fixed and undone without any need to get out of the shoe or the binding.
In the simplest case, the tension means can be guided from one side on the inner side of the outer shoe e.g. diagonally over the instep to a turning point on the other side in the heel area of the outer shoe.
However, it is preferable to provide at least two turning points, the first turning point being disposed in the instep area and the second turning point fastened in the area of the heel on the opposite side.
The tension means is preferably fastened to the sole on the inner side of the outer shoe before the instep. It can also be fastened to another place on the sole of the outer shoe, however, for example in the middle area of the sole when the tension means extends to a place located before the instep.
The tension means preferably extends to the outside from the turning point in the heel area. For this purpose, the tension means can be guided from the turning point in the heel area on the inner side of the leg of the outer shoe and exit only on the upper edge of the leg. However, there is preferably an opening e.g. in form of an eyelet provided in the leg e.g. halfway up, out of which the tension means extends to the outside.
For fixing the tension means any device can be provided, for example a Velcro closure, with one Velcro closure member on the tension means and one Velcro closure member on the leg of the outer shoe. However, it is preferable to provide, for fixing the tension means, a clamp which is advantageously fastened to the outer side of the leg of the outer shell, namely above the opening out of which the tension means exits from the inner side of the outer shoe to the outside.
The tension means is preferably formed by a shoelace, in particular made of synthetic fibers plaited into a thin string with a thickness of for example 2 mm to 4 mm. It may be a string and/or a band or the like.
The at least one turning point is preferably formed by an element made of a flat, flexible material which is fastened to the sole on the inner side of the outer shoe in at least two places spaced apart in the longitudinal direction of the shoe. For this purpose, the turning point can be e.g. a triangular fabric member which is provided at its tip e.g. with an eyelet through which the tension means is guided, the side of the triangle opposite the tip being connected to the outer sole.
However, the element consisting of the flat, flexible material is preferably formed by a band shaped into a loop whose two ends are connected to the outer sole at two places spaced apart in the longitudinal direction of the shoe. The tension means can be guided in the loop for turning, or an eyelet or the like can be provided for turning the tension means in the middle area between the two ends of the band.
The closure of the outer shoe can be formed in any desired way. It is thus possible to use buckles, for example. However, it is preferable to use the lacing of the outer shoe with a shoelace that is usual for soft boots, as described above. As likewise mentioned above, the lacing of the outer shoe reliably fixes the calf area in the leg area of the shoe. Moreover, a reliable separate fixing of the lower zone, that is, the foot, is permitted according to the invention. This permits separate individual adjustment of the fixing of the calf area in the snowboard boot, on the one hand, and the fixing of the foot area, on the other hand.
The lacing of the outer shoe can be effected here by a rotary closure in which the shoelace or other tension means acts with both end portions on a take-up spool formed as a rotary handle and rotatably mounted on a holder provided on the tongue of the outer shoe. A directional locking mechanism is provided between the rotary handle and the holder. For lacing, the rotary handle is pushed onto the bearing on the holder. In this position the directional locking mechanism is coupled, while in the position of the rotary handle pulled away from the holder it is uncoupled. Such a rotary closure is described for example in U.S. Pat. No. 5,315,741 A.
An embodiment of the invention will hereinafter be described more closely by way of example with reference to the drawing, in which
The soft boot 1 consists of a soft, flexible outer shoe 2 and a soft, flexible inner shoe 3 of which only the upper end of the leg can be seen in the drawing.
The outer shoe 2 has a shell-like, relatively stiff sole 4 made of rubber-elastic material and a tongue 5. For lacing the outer shoe 2, a shoelace 6 is provided which is guided through turning points 7, 8 which are fastened to the closing flaps 9, 10 which are provided on the outer shoe 2 on each side of the tongue 5 so as to form crossing points 12 on the tongue 5 when the outer shoe 2 is laced up.
For lacing, a rotary closure is provided. For this purpose, both end portions of the shoelace 6 act on a take-up spool formed as a rotary handle 13 which is rotatably mounted on a holder 14 provided on the tongue 5. A directional locking mechanism (not shown) is provided between the take-up spool 13 and the holder 14. For lacing, the rotary handle 13 is pushed onto the bearing on the holder 14, thereby coupling the directional locking mechanism.
On the inner side of the outer shoe 2, i.e. between outer shoe 2 and inner shoe 3, a tension means formed as a shoelace 16 is provided which is fastened with a band 17 to the sole 4 on the right side of the right boot 1 shown in the drawing.
The shoelace 16 extends over the inner shoe 3 from its fastening point on the band 17 to a first turning point 18 on which it is guided through an eyelet 19 to a second turning point 21. The first turning point 18 with the eyelet 19 is disposed below the tongue 5 of the outer shoe 1 on the tongue (not shown) of the inner shoe 2 in the instep area 15.
The first turning point 18 is formed by a band loop 22 whose two ends 23, 24 are fastened at a space apart on the inner side of the outer shoe 2 to the sole 4 on the left or inner side of the right boot 1 shown in the drawing. The turning point 18 or eyelet 19 is located in the middle area between the ends 23, 24.
The second turning point 21 is located in the heel area 25 on the right side of the right boot 1 shown in the drawing, i.e. on the same side as the band 17 with which the shoelace 16 is fastened to the sole 4.
The second turning point is likewise formed by a band loop 26 whose two ends 27, 28 are fastened at a space apart to the sole 4. The shoelace 6 is drawn through the band loop 26 for guidance.
From the second turning point 21 the shoelace 16 first extends on the inner side in the leg 29 of the outer shoe 2, then exiting from the outer shoe 2 through an eyelet or similar opening 31 above the instep area 15.
A grip 32 is fastened to the end of the shoelace 6 to be used for tightening the shoelace 16 in order to reliably fix the foot in the soft boot 1 by the lacing comprising the shoelace 16 and by the turning points 18, 21 on the inner shoe 3.
To fix the shoelace 16 in the tightened position, a clamp 33 is provided on the outside of the leg 29 of the outer shoe 2 above the opening 31.
Number | Date | Country | Kind |
---|---|---|---|
10 2006 034 955 | Jul 2006 | DE | national |
Number | Name | Date | Kind |
---|---|---|---|
4513520 | Koch | Apr 1985 | A |
4984375 | Bonnet | Jan 1991 | A |
5315741 | Dubberke | May 1994 | A |
6467193 | Okajima | Oct 2002 | B1 |
6792702 | Borsoi et al. | Sep 2004 | B2 |
6802439 | Azam et al. | Oct 2004 | B2 |
6952891 | Hirayama | Oct 2005 | B2 |
7159340 | Borsoi | Jan 2007 | B2 |
7281341 | Reagan et al. | Oct 2007 | B2 |
7428789 | Holzer et al. | Sep 2008 | B2 |
20040074110 | Borsoi | Apr 2004 | A1 |
20060070261 | Reagan et al. | Apr 2006 | A1 |
Number | Date | Country |
---|---|---|
1 444 909 | Nov 2004 | EP |
2 770 379 | May 1999 | FR |
09201207 | Aug 1997 | JP |
2003289901 | Oct 2003 | JP |
2004236971 | Aug 2004 | JP |
Number | Date | Country | |
---|---|---|---|
20080028641 A1 | Feb 2008 | US |