A type of non-slip sports shoe

Abstract

This utility model discloses an anti-slip sports shoe, including a sole and an upper. The sole includes a heel, an arch, a forefoot, and a toe. Anti-slip components are provided inside the heel and forefoot. The arch has multiple first and second drainage grooves. Multiple anti-slip strips are fixedly connected to the bottom surface of the toe. The multiple first drainage grooves are all horizontal grooves. This utility model, through the cooperation of hollow grooves, sealed airbags, and anti-slip protrusions, pushes the protrusions to extend and open the venting seams when subjected to force, expelling air and water and allowing the anti-slip protrusions to contact the ground, thereby enhancing friction. The horizontal and vertical drainage grooves of the arch, together with the anti-slip sliders and anti-slip air cushions, can improve the fit while efficiently draining water, thus producing a comprehensive and targeted anti-slip effect, and greatly improving the anti-slip stability, reliability, and durability of the sports shoe in slippery environments.

Description

Technical Field

[0001] This utility model relates to the field of sports shoe technology, specifically to an anti-slip sports shoe. Background Technology

[0002] Anti-slip athletic shoes are a common type of functional athletic shoe, widely used in slippery scenarios such as rainy days, gym workouts, and outdoor hiking. Their core function is to enhance friction with the ground through a special structure design of the sole, reducing the risk of slipping during walking or exercise and ensuring personal safety. However, existing anti-slip sports shoes still have many shortcomings in actual use. For example, some products have a simple anti-slip structure design, relying solely on the sole pattern for slip resistance. In scenarios with a lot of water or muddy ground, it is difficult to effectively break the water film or expel air and moisture from the contact surface, which can easily form an air cushion and reduce the anti-slip effect. Some products lack synergistic anti-slip components, with insufficient targeted anti-slip functions for different pressure areas such as the heel, forefoot, and arch. When the foot's pressure is transferred, it cannot maintain stable anti-slip performance continuously. Therefore, we propose an anti-slip sports shoe that can maintain efficient and stable anti-slip performance under different stress areas and scenarios. Utility Model Content

[0003] The purpose of this invention is to provide a non-slip sports shoe to solve the problems existing in the operation of the current device.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a non-slip sports shoe, comprising a sole and an upper, wherein the sole comprises a heel, an arch, a forefoot, and a toe, wherein the interior of the heel and forefoot are provided with non-slip components, the arch has multiple first drainage grooves and second drainage grooves, and the bottom surface of the toe is fixedly connected with multiple sets of non-slip strips.

[0005] Furthermore, all of the first drainage channels are horizontal channels, and the bottom of the arch is fixedly connected to anti-slip blocks between two adjacent first drainage channels.

[0006] Furthermore, all of the second drainage channels are vertical channels, and the bottom of the arch is fixedly connected with anti-slip air cushions between two adjacent first drainage channels.

[0007] Furthermore, the anti-slip component includes hollow grooves formed inside the heel and the ball of the foot, with a sealing airbag bonded inside the hollow groove. Multiple sets of anti-slip protrusions are fixedly connected to the bottom of both the heel and the ball of the foot, and one end of each anti-slip protrusion extends into the hollow groove and is bonded to the sealing airbag.

[0008] Furthermore, the outer surface of the anti-slip protrusion has multiple sets of venting slots, and the interior of the venting slots is bonded with anti-slip protrusions.

[0009] Furthermore, the sole also includes a sponge pad bonded to the top of the heel, arch, forefoot, and toe.

[0010] Furthermore, the anti-slip bumps and anti-slip protrusions are made of a blend of natural rubber and styrene-butadiene rubber, and the outer surface of the anti-slip bumps is inlaid with multiple sets of nitrile rubber particles.

[0011] Furthermore, the bottom surfaces of both the anti-slip strip and the anti-slip block are provided with multiple sets of wavy anti-slip patterns.

[0012] Compared with the prior art, the beneficial effects of this utility model are: This invention utilizes the combination of hollow grooves, sealed airbags, and anti-slip protrusions. When subjected to force, the protrusions extend and open the venting seams, expelling air and water while allowing the anti-slip protrusions to contact the ground, thus enhancing friction. The horizontal and vertical drainage grooves in the arch area work in conjunction with the anti-slip slider and anti-slip air cushion to improve fit while efficiently draining water, thereby producing a comprehensive and targeted anti-slip effect. This significantly improves the anti-slip stability, reliability, and durability of sports shoes in slippery environments. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the entire utility model; Figure 2 This is a three-dimensional structural diagram of the sole from a first-view perspective in this utility model. Figure 3 This is a structural schematic diagram of the shoe sole from a second perspective in this utility model; Figure 4 This is a front view of the anti-slip protrusion in this utility model; Figure 5 This is a schematic diagram of the internal structure of a portion of the anti-slip protrusion in this utility model; Figure 6 This is a schematic diagram of the hollow groove inside the sole of the shoe in this utility model; Figure 7 This is a three-dimensional structural diagram of the sealing airbag inside the hollow groove of this utility model.

[0014] In the diagram: 1. Sole; 101. Heel; 102. Arch; 103. Forefoot; 104. Toe; 105. Sponge pad; 2. Upper; 3. First drainage channel; 4. Second drainage channel; 5. Anti-slip strip; 6. Anti-slip block; 7. Hollow groove; 8. Anti-slip protrusion; 9. Ventilation seam; 10. Anti-slip raised dot; 11. Sealing airbag; 12. Anti-slip air cushion. Detailed Implementation

[0015] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0016] Please see Figure 1-7 This utility model provides a technical solution: an anti-slip sports shoe, including a sole 1 and an upper 2. The sole 1 includes a heel part 101, an arch part 102, a forefoot part 103 and a toe part 104. Anti-slip components are provided inside the heel part 101 and the forefoot part 103. The arch part 102 has multiple first drainage grooves 3 and second drainage grooves 4. Multiple sets of anti-slip strips 5 are fixedly connected to the bottom surface of the toe part 104. When the shoe contacts the ground, the sole 1, as the main part in contact with the ground, has its heel 101, arch 102, forefoot 103, and toe 104 interacting with the ground sequentially or simultaneously, while the upper 2 wraps around the foot for fixation. The anti-slip components activate their anti-slip function when the heel 101 and forefoot 103 are subjected to force. The first drainage groove 3 and the second drainage groove 4 drain water when the arch 102 contacts the ground. The anti-slip strip 5 on the toe 104 contacts the ground before other parts to provide initial anti-slip protection. This achieves a clear division of labor and coordinated anti-slip effect among the various parts, thereby greatly improving the anti-slip stability of the shoe during overall contact with the ground. Furthermore, all of the first drainage channels 3 are horizontal channels, and the bottom of the arch support 102 is fixedly connected to anti-slip blocks 6 between adjacent first drainage channels 3. When the arch support 102 contacts the ground, the horizontal first drainage channels 3 can quickly drain the water accumulated on the contact surface horizontally, while the anti-slip blocks 6 between adjacent first drainage channels 3 are in direct contact with the ground. The wavy anti-slip texture on the bottom surface increases the frictional resistance with the ground, thereby achieving the effect of timely drainage of horizontal water and enhancing the horizontal friction of the arch support, thus greatly improving the anti-slip effect of the arch support on wet ground. Furthermore, all of the second drainage channels 4 are vertical channels, and anti-slip air pads 12 are fixedly connected to the bottom of the arch section 102 between each of the two adjacent first drainage channels 3. When the arch section 102 contacts the ground, the vertical second drainage channels 4 cooperate with the horizontal first drainage channels 3 to quickly drain water vertically, preventing water from accumulating in the arch section. The anti-slip air pads 12 between adjacent second drainage channels 4 undergo slight deformation under pressure, filling the small depressions in the ground, making the arch section 102 fit more tightly to the ground. This achieves efficient drainage through a combination of horizontal and vertical drainage and improves the fit between the arch section and the ground, thereby greatly improving the anti-slip reliability of the arch section on uneven and slippery surfaces. Furthermore, the anti-slip component includes hollow grooves 7 formed inside the heel portion 101 and the ball of the foot 103. A sealing airbag 11 is bonded inside the hollow groove 7. Multiple sets of anti-slip protrusions 8 are fixedly connected to the bottom of both the heel portion 101 and the ball of the foot 103, with one end of each protrusion extending into the hollow groove 7 and bonded to the sealing airbag 11. When the heel portion 101 and the ball of the foot 103 are subjected to pressure, the sealing airbag 11 inside the hollow groove 7 is compressed, increasing the internal air pressure and pushing the connected anti-slip protrusions 8 outwards. This increases the contact area between the anti-slip protrusions 8 and the ground, thereby achieving the effect of increasing the contact area by driving the anti-slip protrusions to extend under force, thus greatly improving the basic anti-slip friction of the heel and the ball of the foot. Furthermore, the outer surface of the anti-slip protrusion 8 is provided with multiple sets of venting slits 9, and anti-slip protrusions 10 are bonded to the inside of the venting slits 9. When the anti-slip protrusion 8 extends, the venting slits 9 on its outer surface open accordingly, promptly expelling air and moisture between the anti-slip protrusion 8 and the ground, preventing the formation of an air cushion that affects the fit. At the same time, the anti-slip protrusions 10 inside the venting slits 9 are exposed and in contact with the ground, utilizing their material properties and surface particles to increase friction, thereby achieving the effect of expelling air and water and enhancing friction through the anti-slip protrusions, thus greatly improving the anti-slip performance of the anti-slip protrusion. Furthermore, the sole 1 also includes a sponge pad 105 bonded to the top of the heel 101, arch 102, forefoot 103, and toe 104. During walking or exercise, the sponge pad 105 cushions the impact between the foot and the sole 1 through its elasticity, reducing the relative slippage of the foot on the sole 1. This achieves the functions of cushioning and shock absorption and reducing the relative displacement between the foot and the sole, thereby greatly improving the stability of the shoe and its anti-slip effect. Furthermore, both the anti-slip bumps 10 and the anti-slip posts 8 are made of a blend of natural rubber and styrene-butadiene rubber, and the outer surface of the anti-slip bumps 10 is inlaid with multiple sets of nitrile rubber particles. The blend of natural rubber and styrene-butadiene rubber gives the anti-slip bumps 10 and anti-slip posts 8 good elasticity and wear resistance, ensuring that they are not easily damaged under repeated deformation and friction. The nitrile rubber particles on the surface of the anti-slip bumps 10 utilize their high wear resistance and rough surface to form additional mechanical interlocking, thereby ensuring the durability of the anti-slip components and enhancing frictional interlocking, thus greatly improving the service life and anti-slip performance of the shoes. Furthermore, the bottom surfaces of both the anti-slip strip 5 and the anti-slip block 6 are provided with multiple sets of wavy anti-slip patterns. When the anti-slip strip 5 on the toe portion 104 and the anti-slip block 6 on the arch portion 102 come into contact with the ground, the wavy anti-slip patterns increase the contact area and frictional resistance. At the same time, the concave-convex structure of the patterns can break the water film on the contact surface, reducing the risk of slipping. This achieves the effect of increasing frictional resistance and breaking the water film, thereby greatly improving the anti-slip reliability of the anti-slip blocks on the toe and arch portions.

[0017] Working principle: In slippery environments such as rainy city streets, wet gym floors, or muddy outdoor surfaces, these anti-slip sports shoes achieve highly efficient slip resistance through the synergistic effect of multiple structures. When the user walks or exercises while wearing these shoes, the toe section 104, which first contacts the ground, provides initial slip resistance through multiple sets of anti-slip strips 5 fixedly connected to its bottom surface. The multiple sets of wavy anti-slip patterns on the bottom surface of the anti-slip strips 5 increase the frictional resistance with the ground, while the uneven structure of the patterns breaks up any water film that may exist on the contact surface, reducing the risk of slipping. As the foot exerts force, the ball of the foot 103 and the heel 101, as the main force-bearing areas, begin to contact the ground and bear pressure. At this time, the sealed airbags 11 in the hollow grooves 7 inside the ball of the foot 103 and the heel 101 shrink in volume due to pressure, and the internal air pressure increases. Since one end of the anti-slip protrusion 8 is bonded to the sealed airbag 11, the expansion force of the airbag will push the anti-slip protrusion 8 to extend outward, increasing the contact area between the anti-slip protrusion 8 and the ground, and improving the basic friction. During this process, the vents opened on the outer surface of the anti-slip protrusion 8... The vent 9 will gradually open as the protrusion extends, which can timely expel air or moisture from the contact surface, preventing it from being sealed between the protrusion and the ground to form an air cushion and ensuring that the protrusion can fit tightly against the ground. On the other hand, after the vent 9 opens, the anti-slip protrusions 10 bonded inside can come into contact with the ground. These anti-slip protrusions 10 are made of a blend of natural rubber and styrene-butadiene rubber, and the nitrile rubber particles embedded on the outer surface can form additional mechanical interlocking by utilizing their high wear resistance and rough surface, which significantly improves the anti-slip performance. When the force on the foot is transferred to the arch 102, the multiple horizontal first drainage grooves 3 and vertical second drainage grooves 4 on the arch 102 work together to quickly drain water from the contact surface, preventing water from accumulating on the sole 1 and affecting the anti-slip effect. At the same time, the anti-slip block 6 between adjacent first drainage grooves 3 increases local friction through the wavy anti-slip texture on its bottom surface, and the anti-slip air cushion 12 between adjacent second drainage grooves 4 can undergo slight deformation when pressure is applied, filling small depressions in the ground and improving the fit between the arch 102 and the ground. This prevents slipping caused by the arch being suspended or insufficient contact. The material properties of the anti-slip protrusions 10 and anti-slip pillars 8 ensure that they maintain good elasticity and wear resistance under repeated deformation and friction, extending the life of the shoe. This allows the sports shoe to play a targeted anti-slip role in different force stages and contact areas, thereby comprehensively improving the safety of the product in slippery scenarios.

[0018] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

Claims

1. Anti-slip sports shoes comprising a sole (1) and an upper (2), characterized in that: The sole (1) includes a heel (101), an arch (102), a ball of the foot (103), and a toe (104). The interior of the heel (101) and the ball of the foot (103) is provided with anti-slip components. The arch (102) has multiple first drainage grooves (3) and second drainage grooves (4). The bottom surface of the toe (104) is fixedly connected with multiple sets of anti-slip strips (5). The anti-slip component includes a hollow groove (7) formed inside the heel (101) and the ball of the foot (103). A sealing airbag (11) is bonded inside the hollow groove (7). Multiple sets of anti-slip protrusions (8) are fixedly connected to the bottom of both the heel (101) and the ball of the foot (103), and one end of the anti-slip protrusion (8) extends into the hollow groove (7) and is bonded to the sealing airbag (11).

2. The anti-slip sports shoe according to claim 1, wherein: All of the first drainage channels (3) are horizontal channels, and the bottom of the foot arch (102) is fixedly connected with anti-slip blocks (6) between two adjacent first drainage channels (3).

3. The non-slip sports shoe according to claim 1, wherein: All of the second drainage channels (4) are vertical channels, and the bottom of the foot arch (102) is fixedly connected with anti-slip air pads (12) between two adjacent first drainage channels (3).

4. The anti-slip sports shoe according to claim 1, characterized in that: The outer surface of the anti-slip protrusion (8) has multiple sets of venting slots (9), and the interior of the venting slots (9) is bonded with anti-slip protrusions (10).

5. The anti-slip sports shoe according to claim 1, characterized in that: The sole (1) also includes a sponge pad (105) bonded to the top of the heel (101), arch (102), forefoot (103) and toe (104).

6. The anti-slip sports shoe according to claim 4, characterized in that: The outer surface of the anti-slip protrusions (10) is inlaid with multiple sets of nitrile rubber particles.

7. The anti-slip sports shoe according to claim 2, characterized in that: The bottom surfaces of the anti-slip strip (5) and the anti-slip block (6) are provided with multiple sets of wavy anti-slip patterns.

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