TWM616311U - Shoe sole anti-slip system - Google Patents

Abstract

An anti-slip structure of shoe sole is mainly located on the sole and heel of the shoe sole, and is provided with a plurality of anti-slip units and linear grooves connected to the anti-slip units. The anti-slip units include at least a first anti-slip area, a second anti-slip area, and a third anti-slip area, wherein the first anti-slip area is round and is provided with a plurality of grooves arranged at intervals, and the second anti-slip area is The loop is looped around the first anti-skid area, and the third anti-skid area is looped around the second anti-skid area; the linear grooves are distributed between the aforementioned anti-skid areas. The anti-slip units can form a full range of anti-slip effects, and the linear grooves can form drainage in rainy weather, so that the shoe sole can achieve a better anti-slip effect.

Description

Non-slip structure of the sole

This creation is related to a kind of anti-slip structure of the sole, especially one that can form an all-round anti-slip effect, and can form water drainage in rainy days, so that the sole can achieve a better anti-slip effect.

Press; shoes have become a must-have item in our lives. However, shoes can protect the feet and facilitate walking, but when wearing shoes, the most cautious soles slip and cause falls and injuries. Therefore, ordinary shoes are designed with a number of lines on the bottom surface of the sole to prevent the person wearing the shoe from slipping and getting injured when stepping on the water-stained or slippery ground.

However, although conventional shoe soles have design-related anti-slip lines, common shoe soles anti-slip lines are arranged by several continuous or intermittent wavy raised lines. The design of these lines may have a certain anti-slip effect in a single direction. However, when we step on water-stained or slippery ground, it is omnidirectional. This kind of design is only aimed at a single direction, which leads to poor grip effect and greatly reduces the anti-skid effect, so it cannot reliably achieve all-round anti-skid The incidence of slips and falls has not been reduced. In view of this, the applicant, after continuous research and experimentation, came up with a design of an anti-slip structure for the sole to achieve a better anti-slip effect.

The main purpose of this creation is to provide an anti-skid structure for the sole, so that the sole can form a full-scale anti-skid effect, and can form a drainage in rainy weather, so that the sole can achieve a better anti-skid effect.

The aforementioned anti-slip structure of the shoe sole is attached to the sole and heel of the shoe sole, respectively, with a plurality of anti-slip units and drainage grooves connected to the anti-slip units. The anti-slip units include at least a first anti-slip area, a second anti-slip area, and a third anti-slip area, wherein the first anti-slip area is round and is provided with a plurality of grooves arranged at intervals, and the second anti-slip area is The first anti-skid area is circled, and the third anti-skid area is circled around the second anti-skid area. The drainage grooves are distributed between the aforementioned anti-skid areas. The anti-slip units can form a full range of anti-slip effects, and the drainage grooves can form drainage in rainy days, so that the shoe sole can achieve a better anti-slip effect.

In the anti-slip structure of the aforementioned shoe sole, the first anti-slip area is a slight arc-shaped embossed shape.

In the anti-slip structure of the aforementioned shoe sole, the second anti-slip area is surrounded by the first anti-slip area with a crescent ring.

In the anti-skid structure of the aforementioned shoe sole, the third anti-skid area is surrounded by a crescent ring around the second anti-skid area.

In the anti-skid structure of the shoe sole, the first, second and third anti-skid areas are respectively provided with looped linear grooves.

In the aforementioned anti-slip structure of the shoe sole, the drainage grooves are respectively connected to the anti-slip units.

In the anti-skid structure of the aforementioned shoe sole, the drainage grooves are respectively set in an arc shape.

Please refer to Figure 1 and Figure 2 at the same time, which are the three-dimensional and plan views of this creation. As shown in the figure, this creation is provided with a sole body 1 including a sole part 11, a toe part 12 and a heel part 13. The sole body 1 of the sole part 11 and the heel part 13 are respectively provided with a plurality of anti-slip units 2 And drainage trench 3. Wherein, the anti-skid units 2 at least include a first anti-skid area 21, a second anti-skid area 22, and a third anti-skid area 23. The first anti-skid area 21 is round and has a slightly arc-shaped embossed shape. The surface is provided with a plurality of grooves 211 arranged at intervals, and the rough surface formed by the grooves 211 forms a high friction force.

The second non-slip area 22 is looped around the first non-slip area 21, and a looped linear groove 24 is formed between the second non-slip area 22 and the first non-slip area 21. In this embodiment, the second non-slip area 22 is formed in a crescent shape.

The third anti-slip area 23 is looped around the second anti-slip area 22, and a looped linear groove 25 is provided between the third anti-slip area 23 and the second anti-slip area 22. In this embodiment, the third anti-skid area 23 is formed in a crescent shape.

The drainage grooves 3 are connected between the aforementioned first anti-slip area 21, second anti-slip area 22 and third anti-slip area 23, and are distributed on the sole portion 11 and the heel portion 13 of the sole body 1. In this embodiment, the drainage grooves 3 are arc-shaped.

The anti-slip structure of the sole is formed by the aforementioned components. When the sole body 1 is made into shoes for walking, the first anti-skid area 21, the second anti-skid area 22 and the third anti-skid area 23 can form an all-round anti-skid effect, and can be stepped on in rainy days. When the ground is stained or slippery, drainage can be formed by the drainage grooves 3, so that the sole body 1 can achieve a better anti-slip effect.

Please refer to Figure 3, which is a cross-sectional view of the non-slip unit of this creation. Please refer to Figure 2. As shown in the figure, the first non-slip area 21 of this creation is a slightly arc-shaped embossed shape, and the surface is provided with a plurality of grooves 211 arranged at intervals. The grooves 211 make the first The surface of a non-slip area 21 is continuously concave and convex to improve friction. Between the first anti-skid area 21 and the second anti-skid area 22, and between the second anti-skid area 22 and the third anti-skid area 23, linear grooves 24 and 25 of appropriate width are respectively circled, and because of this The second anti-slip area 22 and the third anti-slip area 23 are set in a crescent shape to form an asymmetrical area, so that when the shoes are worn and walked, they can form an anti-slip effect in any direction, so as to achieve a full-scale anti-slip effect.

Please refer to Figure 4, which is the anti-skid state diagram of this creation. As shown in the figure, in this creation, the sole body 1 has a plurality of anti-slip units 2 on the sole 11 and the heel 13 of the heel. The second anti-skid area 22 and the third anti-skid area 23 of the first anti-skid area 21 form different anti-skid areas covered by layers. In this way, there will not only be a single block of anti-slip effect, and since the first anti-slip area 21, the second anti-slip area 22 and the third anti-slip area 23 are circular in design, the anti-slip effect can be achieved no matter which direction. Furthermore, it can form a omni-directional anti-skid effect, and it can indeed achieve all-directional anti-skid when actually walking.

In the aforementioned anti-slip structure, since the first anti-slip area 21, the second anti-slip area 22 and the third anti-slip area 23 are respectively circled with linear grooves 24 of appropriate width, and drainage grooves 3 are respectively connected. When there is water in the road area on a rainy day, the water attached to the sole body 1 will be drained by the linear groove 24 and the drainage groove 3 to avoid slipping due to the accumulation of water in the sole body 1, thereby achieving a positive anti-slip effect.

The foregoing embodiments are merely illustrative of the preferred implementation of this creation, rather than limiting the scope of this creation. All minor modifications and changes will still not lose the essence of this creation, nor deviate from the spirit of this creation.

To sum up, this creation is provided with a plurality of anti-slip units on the sole body, and drainage grooves connecting the anti-slip units to form the anti-slip structure of the shoe sole. So that the sole can form a full range of anti-skid effect, and can form water drainage in rainy days, so that the sole can achieve a better anti-skid effect. For a practical design, it is truly a creation of novelty. I file an application for a patent according to the law. I pray that the Bureau will review it and grant the patent as soon as possible, which is very convenient.

1: The sole body

11: Sole

12: Foot body

13: Heel

2: Anti-slip unit

21: The first non-slip zone

211: Groove

22: The second non-slip zone

23: The third anti-skid zone

24: Linear groove

25: Linear groove

3: Drainage trench

Figure 1 is a three-dimensional view of this creation.

Figure 2 is the floor plan of this creation.

Figure 3 is a cross-sectional view of the anti-skid unit of this creation.

Figure 4 is the anti-skid state diagram of this creation.

1: The sole body

11: Sole

12: Foot body

13: Heel

2: Anti-slip unit

21: The first non-slip zone

211: Groove

22: The second non-slip zone

23: The third anti-skid zone

24: Linear groove

3: Drainage trench

Claims (6)

A non-slip structure for shoe soles is provided with soles including soles and heels, and is characterized by: The sole portion and the heel portion are respectively provided with a plurality of anti-skid units and a plurality of drainage grooves connected to the anti-skid units. The anti-skid units at least include a first anti-skid area, a second anti-skid area, and a third anti-skid area , Wherein, the first anti-skid area is circular, which is provided with a plurality of grooves arranged at intervals, the second anti-skid area is looped around the first anti-skid area, and the third anti-skid area is looped around the second Anti-slip area; the drainage grooves are connected to the first anti-slip area, the second anti-slip area and the third anti-slip area, and are distributed between the first anti-slip area, the second anti-slip area and the third anti-slip area ; To form a full range of non-slip effects by the non-slip units, and can be formed by the drainage grooves in rainy weather, so that the soles can achieve a better anti-slip effect. The anti-skid structure of the shoe sole according to claim 1, wherein the first anti-skid area is configured as a slight arc-shaped embossed shape. The anti-slip structure of shoe sole according to claim 1, wherein the second anti-slip area is wound around the first anti-slip area with a crescent ring. The anti-slip structure of shoe sole according to claim 1, wherein the third anti-slip area is wound around the second anti-slip area with a crescent ring. The anti-skid structure of the shoe sole according to claim 1, wherein, between the first anti-skid area, the second anti-skid area and the third anti-skid area, a looped linear groove is respectively provided. The anti-skid structure of the shoe sole according to claim 1, wherein the drainage grooves are respectively set in an arc shape.

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