Honeycomb stabilization system sole structure

Abstract

The utility model provides a honeycomb stabilizing system sole structure which comprises a sole body, a hexagonal protruding frame is formed on the upper surface of the sole body, the protruding frame comprises six protruding walls connected end to end, bottom grooves corresponding to the protruding walls are formed in the lower surface of the sole body, and when the hexagonal structure is pressed, the bottom grooves are matched with the protruding walls. The force is uniformly conducted to the adjacent convex walls along the convex walls, so that a stable force dispersion network is formed, and the stability of the sole is improved. Due to the fact that the bottom groove corresponding to the protruding wall is formed in the lower surface of the shoe sole body, the thickness of the protruding wall is reduced, the protruding wall can generate slight elastic deformation under the action of pressure, impact is absorbed through the elastic deformation of the structure, the wearing comfort is improved, and the friction force generated when the shoe sole makes contact with the ground is also increased through the bottom groove structure.

Description

Technical Field

[0001] This utility model relates to the field of footwear materials, specifically to a honeycomb stability system sole structure. Background Technology

[0002] In daily life, people often experience foot pain and fatigue when standing or walking for long periods of time due to insufficient or overly firm shoe soles. Traditional shoe soles often present a contradiction between stability and softness: materials that are made harder to achieve stability reduce cushioning comfort; while materials that are too soft can lead to insufficient support, easily causing foot fatigue or sprains.

[0003] In view of this, the inventors of this case conducted in-depth research on the above-mentioned problems, which led to the creation of this case. Utility Model Content

[0004] The purpose of this invention is to provide a honeycomb stability system sole structure that offers high stability and comfort.

[0005] To achieve the above objectives, this utility model adopts the following technical solution:

[0006] The honeycomb stability system sole structure includes a sole body, a hexagonal raised frame formed on the upper surface of the sole body, the raised frame including six raised walls connected end to end, and a bottom groove corresponding to the raised wall formed on the lower surface of the sole body; a groove partition is formed between the bottom grooves of adjacent raised walls.

[0007] The bottom groove gradually widens from the bottom of the bottom groove to the opening of the bottom groove.

[0008] The main body of the sole includes a stabilizing section formed by multiple raised frames, which are arranged in a honeycomb pattern.

[0009] The stabilizing part is located on at least one of the parts of the sole corresponding to the ball of the foot and the heel.

[0010] The stabilizing part includes a foot stabilizing part located on the main body of the sole corresponding to the forefoot of the human foot, and a heel stabilizing part located on the main body of the sole corresponding to the heel of the human foot; the side length of the protruding frame of the foot stabilizing part is smaller than the side length of the protruding frame of the heel stabilizing part.

[0011] A transition section is provided between the ball of the foot stabilizing part and the heel stabilizing part for transition.

[0012] By adopting the above technical solution, the honeycomb stability system sole structure of this utility model, in actual use, forms a honeycomb-shaped arrangement of raised frames on the upper surface of the sole body. When the foot steps on the sole, the pressure of the foot mainly acts on the top of the raised frames. The raised walls, as the main load-bearing components, first provide solid vertical support, preventing excessive foot collapse and ensuring stability. Because the lower surface of the sole body has bottom grooves corresponding to the raised walls, the wall thickness of the raised walls is reduced. Under pressure, the raised walls can undergo slight elastic deformation, effectively dispersing the pressure on the sole and avoiding soreness caused by localized pressure concentration, significantly improving comfort. Compared with the prior art, the honeycomb stability system sole structure of this utility model has the advantages of high stability and high comfort. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the present invention from a top view.

[0014] Figure 2 This is a structural schematic diagram of the present invention viewed from below.

[0015] Figure 3 This is a cross-sectional view of the present invention from a frontal perspective;

[0016] Figure 4 for Figure 3 A magnified structural diagram of part A in the middle.

[0017] In the picture:

[0018] 1-Sole body, 11-Raised frame, 111-Raised wall, 112-Bottom groove, 113-Groove partition, 12-Stabilizing part, 121-Forefoot stabilizing part, 122-Heel stabilizing part, 123-Transition part. Detailed Implementation

[0019] To further explain the technical solution of this utility model, a detailed description is provided below through specific embodiments.

[0020] Honeycomb stability system sole structure, such as Figures 1-4As shown, the shoe includes a sole body 1. A hexagonal raised frame 11 is formed on the upper surface of the sole body 1. The raised frame 11 includes six connected raised walls 111. A bottom groove 112 corresponding to the raised walls 111 is formed on the lower surface of the sole body 1. When the hexagonal structure is under pressure, the force is evenly transmitted along the raised walls 111 to adjacent raised walls 111, forming a stable force distribution network and improving the stability of the sole. Because the bottom groove 112 corresponding to the raised walls 111 is formed on the lower surface of the sole body 1, the wall thickness of the raised walls 111 becomes thinner. Under pressure, the raised walls 111 can undergo slight elastic deformation, absorbing impact through the elastic deformation of the structure, thus improving wearing comfort. Furthermore, the bottom groove 112 structure also increases the friction when in contact with the ground. Furthermore, a groove partition 113 is formed between the bottom grooves 112 of adjacent protruding walls 111. The groove partition 113 acts as a reinforcing rib, connecting the bottom grooves 112 to form a continuous grid structure, which significantly enhances the overall rigidity of the sole. Especially under lateral force, it can effectively prevent excessive twisting of the sole and improve dynamic stability. Furthermore, the bottom grooves 112 gradually widen from the bottom to the opening, which facilitates manufacturing and reduces production costs. During exercise, it also helps to drain water or mud from the groove, significantly improving the grip performance of the sole, especially on wet and slippery surfaces, allowing for rapid drainage and easy removal of foreign objects from the groove.

[0021] The sole body 1 includes a stabilizing section 12 formed by multiple raised frames 11. The raised frames 11 in the stabilizing section 12 are arranged in a honeycomb pattern. The honeycomb arrangement allows adjacent raised frames 11 to share boundaries. When a raised frame 11 is compressed, the six raised frames 11 around it work together to bear the load, forming an efficient and coordinated load-bearing system. This results in a more uniform pressure distribution, avoids localized pressure concentration, and maintains the overall lightweight structure. Furthermore, the stabilizing section 12 is located at least one of the parts of the sole body 1 corresponding to the forefoot and the heel. Based on the force characteristics of different areas of the foot, the honeycomb structure is arranged at the locations requiring support, achieving precise positioning of the support, providing sufficient stability in key areas, while maintaining flexibility in other areas. The stabilizing part 12 includes a forefoot stabilizing part 121 located on the sole body 1 corresponding to the forefoot area, and a heel stabilizing part 122 located on the sole body 1 corresponding to the heel area. The side length of the raised frame 11 of the forefoot stabilizing part 121 is smaller than that of the raised frame 11 of the heel stabilizing part 122. The smaller raised frame 11 of the forefoot stabilizing part 121 provides denser support points, adapting to the needs of forefoot flexion and flexible movement. The larger raised frame 11 of the heel stabilizing part 122 provides stronger support and cushioning. The forefoot area maintains good flexibility, while the heel area provides better impact absorption. The two work together to provide better performance. A transition part 123 is provided between the forefoot stabilizing part 121 and the heel stabilizing part 122 to avoid abrupt changes in stiffness between the forefoot and heel, making force transmission smoother and reducing discomfort caused by changes in sole stiffness during foot movement, resulting in a more natural and smooth gait.

[0022] The product form of this utility model is not limited to the illustrations and embodiments in this case. Any appropriate changes or modifications made to it based on similar ideas should be considered as not departing from the patent scope of this utility model.

Claims

1. A cellular stability system sole structure comprising a sole body, characterized by: The upper surface of the shoe sole body is formed with a hexagonal raised frame comprising six first and last connected raised walls, and the lower surface of the shoe sole body is formed with bottom grooves corresponding to the raised walls; the bottom grooves between adjacent raised walls are formed with groove partition walls.

2. The cellular stability system sole structure of claim 1, wherein: The bottom grooves gradually widen from the bottom groove bottom to the bottom groove opening.

3. The cellular stability system sole structure of any of claims 1-2, wherein: The shoe sole body comprises a stabilizing part formed by a plurality of raised frames, and the raised frames in the stabilizing part are arranged in a honeycomb shape.

4. The cellular stability system sole structure of claim 3, wherein: The stabilizing part is arranged at least one of a position corresponding to the human palm part and a position corresponding to the human heel part of the shoe sole body.

5. The cellular stability system sole structure of claim 4, wherein: The stabilizing part comprises a palm stabilizing part arranged at a position corresponding to the human palm part of the shoe sole body and a heel stabilizing part arranged at a position corresponding to the human heel part of the shoe sole body; the side length of the raised frame of the palm stabilizing part is smaller than that of the heel stabilizing part.

6. The cellular stability system sole structure of claim 5, wherein: A transition part for transition is arranged between the palm stabilizing part and the heel stabilizing part.

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