The invention relates to a shoe, especially to a sport shoe, comprising a shoe upper and a sole which is connected with the shoe upper, wherein the sole comprises an upper sole element as well as a lower sole element, wherein the upper sole element has a surface on which the sole of foot of the wearer of the shoe rests during intended use of the shoe.
Shoes of the generic kind are generally known and are for example used as soccer shoes. Especially—but not exclusively—during playing soccer it is often the case that humidity gets in the shoe, wherein water can reach especially the region between the insole and the inner sole and midsole respectively. Specifically in the case of soccer shoes, which mostly become frequently clammy and wet respectively, thus the danger exists that germinal and fungi respectively is generated between the bottom of the shoe (i. e. the inner sole) and the insole, because no sufficient ventilation is given.
It is the object of the invention to further develop a shoe of the generic kind so that the dehydration of the shoe can take place in an improved manner with simple means. By doing so it is aimed for that germinal and fungi respectively cannot be created so easy anymore. Thus, it is aimed for an improved dehydration effect which can be reached with low economical investment.
The solution of this object by the invention is characterized in that between the upper sole element and the lower sole element at least one spring element is effectively arranged, which spring element is designed and arranged in such a manner that the upper sole element rests on the lower sole element due to the weight of the wearer of the shoe, and that at least a part of the upper sole element lifts from the lower sole element duo to the force of the spring element during non-use of the shoe.
Thus, the proposed spring element causes that an opening for supply of fresh air is created between the lower sole element and the upper sole element after taking off of the shoe which opening significantly promotes the dehydration process.
The upper sole element is preferably an insole. The lower sole element is preferably a midsole, wherein an outer sole is arranged at its bottom side; it can also be an inner sole.
The spring element is designed as a spring wire or spring steel sheet according to a first preferred embodiment, especially as a wire clip made of spring wire. The spring wire or spring steel sheet can run in the longitudinal direction of the shoe. Preferably, the spring wire or spring steel sheet is connected with the upper sole element at at least two, preferably at three, locations and runs arcuated between the junctions in a non-loaded state. Thereby, the spring wire or spring steel sheet can be fixed with the upper sole clement at the junctions by means of a holding element (e. g. made of spring steel sheet).
An alternative solution provides that the spring element is designed as a strip from elastic material, especially as a rubber band. Thereby, the strip from elastic material can be fixed with one of its ends at the shoe upper, preferably at a height position in the upper half of the vertical extension of the shoe at that location where the strip is arranged. The strip from elastic material can be fixed with its other end at the upper sole element. But it is also possible that the strip from elastic material is fixed with its ends at the shoe upper and encompasses the upper sole element. The strip from elastic material is preferably arranged in the heel region of the upper sole element.
The upper sole element can be pivoted in the shoe around a horizontal swivel axis which lies in its toe region.
Preferably, the upper sole element lifts from at least 90% of the contact area during non-use of the shoe, which contact area is given between upper sole element and lower sole element during intended use of the shoe.
But it can also be provided that only a part of the upper sole element lifts from the lower sole element during non-use of the shoe. Thereby, only a lamellar section of the upper sole element can lift from the lower sole element during non-use of the shoe. Thereby, the lamellar section can have a substantial rectangular shape in the top plan view of the shoe. It can have a width which is between 40% and 80% of the width of the shoe in its heel region. Furthermore, it can be provided that the lamellar section has a length which is between 50% and 90% of the length of the shoe.
The proposed shoe is specifically preferred a soccer shoe.
To obtain an improved dehydration effect the idea according to the invention thus provides that especially the insole is biased with a spring element in such a manner that the insole lifts off automatically after taking off the shoe and so the region between the insole and the inner sole is exposed at least partially. Existing clamminess in this region can evaporate in a better manner. I. e. the insole can arch upwards due to the spring element. If applicable this effect can also be limited to a part of the insole only (i. e. only to a section of the insole, e. g. to a tongue-shaped section which lifts and arch upwards respectively during taking off the shoe). Beneficially, the dehydration of the bottom side of the insole as well as of th.e bottom of the leg of the shoe takes place in a substantial more simple manner.
In the drawing embodiments of the invention are illustrated. It shows:
In
The insole, i. e. the upper sole element 4, has a surface 6 on which the foot 18 of the wearer lies during the use of the shoe 1.
When the shoe 1 is worn the insole 4 is firmly pressed against the lower sole element 5 due to the weight force of the wearer so that the situation occurs as depicted in
Between the upper sole element 4 and the bottom sole element 5 a spring element 7 in the form of a spring wire clip is effectively arranged. Thereby, the spring element 7 is so designed and positioned that the upper sole element 4 lies on the lower sole element 5 due to the weight force of the wearer of the shoe 1—thus during wearing of the shoe (see
Therefore, the spring element 7 is connected with the insole 4 at three junctions 8, 9 and 10 as can be seen in
The spring element 7 comprises two arcs in the embodiment (see
In
Thus, when the shoe 1 is taken off (see
Also, only one single spring element 7 in form of a rubber band can be provided which ends are fixed at the shoe upper 2 and which encompassed the insole 4 to pull upward the insole during non-use by the foot of the wearer into the position as shown in
A further alternative of the proposed shoe is shown in
Here, the difference to the solution according to
The lamellar section 17 extends along a width BS which corresponds to a part of the width B of the shoe 1 in its heel region 14, e. g. between 40% and 80% of the width B. Furthermore, the section 17 has a length LS which corresponds to a part of the length L of the shoe 1, e. g. between 50% and 90% of the length L.
For the arrangement of the one spring element 7 or of the two spring elements 7 (one on each side of the section 17) applies the same as described in connection with the embodiment according to
1 Shoe
2 Shoe upper
3 Sole
4 Upper sole element (insole)
5 Lower sole element (midsole and outer sole)
6 Surface
7 Spring element
8 Junction
9 Junction
10 Junction
11 Holding element
12 End of spring element
13 End of spring element
14 Heel region
15 Toe region
16 Swivel axis
17 Lamellar section
18 Foot
BS Width of the lamellar section
B Width of the shoe in the heel region
LS Length of the lamellar section
L Length of the shoe
Number | Date | Country | Kind |
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20 2010 016 915.1 | Dec 2010 | DE | national |
Filing Document | Filing Date | Country | Kind | 371c Date |
---|---|---|---|---|
PCT/EP2011/006322 | 12/15/2011 | WO | 00 | 8/30/2013 |