CN216315957U - Artificial cartilage bionic energy-absorbing badminton insole - Google Patents
Artificial cartilage bionic energy-absorbing badminton insole Download PDFInfo
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- CN216315957U CN216315957U CN202121822482.0U CN202121822482U CN216315957U CN 216315957 U CN216315957 U CN 216315957U CN 202121822482 U CN202121822482 U CN 202121822482U CN 216315957 U CN216315957 U CN 216315957U
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Abstract
The utility model relates to an artificial cartilage bionic energy-absorbing badminton insole which comprises an insole body and an insole bottom layer which are arranged in a stacked mode; the insole body and the insole bottom layer can be divided into three areas, namely an insole half sole, an insole middle waist and an insole heel, from the front end to the rear end; a first groove is formed in the half sole of the insole, and a first energy absorption buffer gasket is arranged in the first groove; a second groove is formed in the heel of the insole, and a second energy-absorbing buffer gasket is arranged in the second groove; a plurality of air-permeable grooves are arranged on the half sole of the insole at positions surrounding the first grooves; the bottom of the middle waist of the insole is provided with a plurality of anti-skid convex ribs. By arranging the energy-absorbing buffer gaskets, the buffer performance of the artificial cartilage bionic energy-absorbing badminton insole is greatly improved, and the artificial cartilage bionic energy-absorbing badminton insole can absorb shock and absorb energy and protect foot kneepads; meanwhile, the ventilation grooves and the anti-skid convex ribs arranged on the half sole and the middle waist of the insole endow the insole with great friction force, so that the insole is tightly attached to the shoe, the insole can not shift even if the insole is violently moved for a long time, and the purposes of preventing sideslip and eversion are achieved.
Description
Technical Field
The utility model belongs to the technical field of insoles, and particularly relates to an artificial cartilage bionic energy-absorbing badminton insole.
Background
In sports, sports equipment of athletes has more and more obvious effects on improving the sports level and protecting the bodies of the athletes, particularly in the comprehensive sports of badminton, the athletes need to run quickly and take off frequently, explosive batting actions and high-load sports in the badminton sports process easily cause joint damage, particularly the conditions of sports damage of ankle joints, knee joints and other parts are very common, meanwhile, three shoe states are outwards turned to a certain degree when the badminton is pedaled and stepped to land, and excessive outwards turning of the rear parts of feet easily causes excessive loads of tendons, muscles and ligaments, so that the lower limbs are damaged. Select proper badminton shoe-pad can play the protection foot in shoes, the vibrations of foot and then the effect of alleviating the impact that the foot received when alleviateing the motion simultaneously.
However, the artificial cartilage bionic energy-absorbing badminton insole in the prior art has poor buffer performance, and cannot effectively reduce impact force generated when a knee joint, an ankle joint and a foot of a sportsman contact the ground when the sportsman lands on a ground by a frequent take-off and stepping method, and meanwhile, the artificial cartilage bionic energy-absorbing badminton insole in the prior art is easy to sideslip, turn over and the like. Moreover, the artificial cartilage bionic energy absorption badminton insole in the prior art is poor in air permeability, and when the artificial cartilage bionic energy absorption badminton insole is worn, the feet feel stuffy and hot, and a suitable environment is easily provided for breeding and propagating bacteria.
Therefore, the artificial cartilage bionic energy-absorbing badminton insole which has excellent buffering performance, lateral slip and outward turning prevention and good air permeability is urgently needed to be designed. The utility model patent ZL201610979730.X discloses a plant oil-based cartilage bionic buffering and damping material, a preparation method and application thereof, and badminton insoles can be developed by the material.
SUMMERY OF THE UTILITY MODEL
Based on the technical scheme, the artificial cartilage bionic energy absorption badminton insole is endowed with great buffering energy absorption performance through an ingenious structural design, can prevent the insole from sideslipping and turning outwards, and has good ventilation and antibacterial performance.
The utility model is realized by the following technical scheme: an artificial cartilage bionic energy absorption badminton insole comprises an insole body and an insole bottom layer which are arranged in a stacked mode; the insole body and the insole bottom layer can be divided into three areas, namely an insole half sole, an insole middle waist and an insole heel, from the front end to the rear end; a first groove is formed in the half sole of the insole, and a first energy absorption buffer gasket is arranged in the first groove; a second groove is formed in the heel of the insole, and a second energy-absorbing buffer gasket is arranged in the second groove; a plurality of air-permeable grooves are arranged on the half sole of the insole at positions surrounding the first grooves; the bottom of the middle waist of the insole is provided with a plurality of anti-skid convex ribs.
Furthermore, a plurality of air holes are arranged on the middle waist of the insole.
Furthermore, a plurality of air holes are arranged on the half sole of the insole. The air holes arranged on the middle waist and the front palm of the insole can discharge hot air generated during sports, so that good air permeability is kept, stuffiness is reduced, and the comfort level during wearing is improved.
Further, the thickness of the first energy absorption buffer gasket is 2-3 mm; the thickness of the second energy-absorbing buffer gasket is 3-5 mm. In the badminton sports process, the stress of the heel is often higher than that of the half sole, so that the energy-absorbing buffer gaskets on the half sole and the heel of the insole are set to be different in thickness, and the energy-absorbing buffer gasket on the heel of the insole is thicker than that of the half sole of the insole, so that the buffer performance can be ensured, and the comfort level in wearing can also be ensured.
Furthermore, the first energy-absorbing buffer gasket and the second energy-absorbing buffer gasket are both made of polyurethane film-coated foam materials. The energy absorption buffer pad made of the polyurethane film-coated foaming material has the energy absorption effect of 90 percent at most, and achieves the effects of absorbing shock and energy and protecting the foot and knee pad.
Furthermore, the upper surface of the insole body is also provided with an insole surface layer, and the insole surface layer is made of polyester knitted fabric. This dacron looped fabric possesses good air permeability for the heat that the shoe-pad produced can see through in this shoe-pad surface course gives out the external environment.
Further, the insole bottom layer is made of polyurethane foam materials. The bottom layer of the insole adopts polyurethane foam material, which has high hardness and good shaping effect, can avoid fatigue generated by sports to the maximum extent, and can reduce the injury caused by eversion of feet during sports.
Further, the ventilation grooves are of a diamond structure. The arrangement of the air-permeable grooves can not only improve the ground-grasping performance of the insole, but also endow the insole with good air permeability.
Further, the antiskid convex rib is formed by staggering a plurality of straight convex ribs at an angle of 60 degrees. The anti-skid convex ribs are arranged in a staggered mode, so that the insole is attractive and firmer, and the insole and the shoe are combined more tightly.
Furthermore, the middle waist of the insole is raised, and is connected with the half sole of the insole and the heel of the insole to form a wave-shaped structure. Set up the waist into bellied streamlined structure in the shoe-pad, the shape of human foot of laminating just satisfies human engineering and biomechanics' design, has given the splendid travelling comfort of badminton shoe-pad.
Compared with the prior art, the artificial cartilage bionic energy absorption buffer gaskets are arranged on the half sole and the heel of the insole, so that the buffer performance of the badminton insole is greatly improved, and the badminton insole can absorb shock and energy and protect the foot and knee pads; meanwhile, the air-permeable grooves and the anti-skidding convex ribs arranged on the half sole and the middle waist of the insole endow the insole with great friction force, so that the insole is tightly attached to the shoe, the insole cannot shift even if the insole is subjected to long-time severe movement, and the purposes of preventing sideslip and outward turning are achieved.
For a better understanding and practice, the utility model is described in detail below with reference to the accompanying drawings.
Drawings
FIG. 1 is a side cross-sectional structural view of an artificial cartilage bionic energy-absorbing badminton insole in an embodiment of the utility model;
FIG. 2 is a main sectional structure view of an artificial cartilage bionic energy absorption badminton insole in an embodiment of the utility model;
FIG. 3 is a comparison diagram of the size of an artificial cartilage bionic energy absorption badminton insole in an embodiment of the utility model and a badminton insole in the prior art;
fig. 4 is a structure diagram of a middle waist of an insole of the artificial cartilage bionic energy-absorbing badminton insole in the embodiment of the utility model.
Description of reference numerals:
10-insole surface layer, 20-insole body, 30-insole bottom layer, 21-insole half sole, 22-insole middle waist, 23-insole heel, 211-first energy absorption buffer gasket, 212-ventilation groove, 213-ventilation hole, 221-anti-skid convex rib, 222-bulge and 231-second energy absorption buffer gasket.
Detailed Description
The utility model provides an artificial cartilage bionic energy-absorbing badminton insole, which comprises an insole body 20, an insole bottom layer 30 and an insole surface layer 10, wherein the insole body 20 and the insole bottom layer 30 are arranged in a stacked mode, and the insole surface layer 10 is arranged on the upper surface of the insole body.
The insole surface layer 10 is made of polyester knitted fabric, preferably the polyester knitted fabric with mildew-proof, antibacterial, moisture absorption and quick drying functions, the scrubbing color fastness of the insole surface layer is more than four grades of GB/T420-2009 standard, the friction color fastness of the insole surface layer is higher than four grades of GB/T3920-2008 standard, and the antibacterial requirement passes the QBT2881-2013 requirement.
The whole structure of the insole body 20 and the insole bottom layer 30 can be divided into three areas, namely an insole half sole 21, an insole middle waist 22 and an insole heel 23 from the front end to the rear end.
Specifically, a first groove (not shown) is formed in the forefoot 21 of the insole, a first energy absorption buffer pad 211 is arranged in the first groove, in this embodiment, the first energy absorption buffer pad 211 is of a structure similar to a Z shape, the area of the first energy absorption buffer pad 211 occupies about 2/3 of the forefoot of the insole, the thickness of the first energy absorption buffer pad is 2-3 mm, the first energy absorption buffer pad is made of an artificial cartilage bionic energy absorption film material, and the maximum energy absorption effect can reach 90%; a plurality of air-permeable grooves 212 are arranged on the forefoot 21 of the insole at positions surrounding the first grooves, the air-permeable grooves 212 are arranged in a diamond structure, the air-permeable grooves are arranged along the edges of the diamond structure, and the inside of the diamond structure is of a solid structure; a plurality of air holes 213 are arranged on the half sole 21 of the insole. Preferably, referring to fig. 3, the width of the half sole 21 of the insole is appropriately widened relative to the badminton shoe on the market, so that the insole and the shoe are attached more closely, and the side slip in the badminton process is reduced.
The middle part of the insole middle waist 22 is a protrusion 222, and is connected with the insole half sole 21 and the insole heel 23 to form a wave-shaped structure, please refer to fig. 4. The bottom of the insole middle waist 22 is provided with a plurality of anti-skid convex ribs 221, preferably, the anti-skid convex ribs 221 are formed by a plurality of straight convex ribs in a staggered mode at an angle of 60 degrees. The insole middle waist 22 is further provided with a plurality of air holes 213, and specifically, the air holes 213 comprise a first air hole distributed on the half sole of the insole, a second air hole distributed on the upper part of the insole middle waist and a third air hole distributed on the lower part of the insole middle waist.
The insole is characterized in that a second groove (not shown) is formed in the insole heel 23, a second energy-absorbing buffer gasket 231 is arranged in the second groove, in the embodiment, the second energy-absorbing buffer gasket 231 is of a round-corner rectangular structure, the area of the second energy-absorbing buffer gasket accounts for more than 1/2 of the insole heel 23, the thickness of the second energy-absorbing buffer gasket is 3-5 mm, the second energy-absorbing buffer gasket is made of an artificial cartilage bionic energy-absorbing film-covering material, and the highest energy-absorbing effect can reach 90%.
Further, the insole base layer 30 is made of a polyurethane foam material, the density of the insole base layer is 0.11-0.15 g/cm3, the hardness is 35-45 degrees, the elasticity is more than or equal to 20%, the permanent deformation is less than or equal to 10%, and the air permeability is as high as 90%.
Compared with the prior art, the artificial cartilage bionic energy absorption buffer gaskets are arranged on the half sole and the heel of the insole, so that the buffer performance of the badminton insole is greatly improved, and the badminton insole can absorb shock and energy and protect the foot and knee pads; in addition, the air-permeable grooves and the anti-skidding convex ribs arranged on the half sole and the middle waist of the insole endow the insole with great friction force, so that the insole is tightly attached to the shoe, the insole cannot shift even if the insole is subjected to long-time severe movement, and the purposes of preventing sideslip and eversion are achieved. Moreover, the ventilating grooves are formed in the half sole of the insole, and the ventilating holes are formed in the half sole of the insole and the middle waist of the insole, so that the ventilating and sweat releasing effects can be realized, the stuffiness feeling during wearing is reduced, and the wearing comfort level is greatly improved; meanwhile, hot air generated in the insole can be quickly diffused to the outside through the air holes and the air permeable material of the insole surface layer, so that the insole is kept dry and comfortable, and the antibacterial and bacteriostatic effects are effectively achieved.
The above-mentioned embodiments only express several embodiments of the present invention, and the description thereof is more specific and detailed, but not construed as limiting the scope of the utility model. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the inventive concept, which falls within the scope of the present invention.
Claims (10)
1. The utility model provides a bionical energy-absorbing badminton shoe-pad of artificial cartilage which characterized in that: comprises an insole body and an insole bottom layer which are arranged in a stacked manner; the insole body and the insole bottom layer can be divided into three areas, namely an insole half sole, an insole middle waist and an insole heel, from the front end to the rear end; a first groove is formed in the half sole of the insole, and a first energy absorption buffer gasket is arranged in the first groove; a second groove is formed in the heel of the insole, and a second energy-absorbing buffer gasket is arranged in the second groove; a plurality of air-permeable grooves are arranged on the half sole of the insole at positions surrounding the first grooves; the bottom of the middle waist of the insole is provided with a plurality of anti-skid convex ribs.
2. The artificial cartilage bionic energy-absorbing badminton insole according to claim 1, characterized in that: the middle waist of the insole is also provided with a plurality of air holes.
3. The artificial cartilage bionic energy-absorbing badminton insole according to claim 2, characterized in that: a plurality of air holes are arranged on the half sole of the insole.
4. The artificial cartilage bionic energy-absorbing badminton insole according to claim 1, characterized in that: the thickness of the first energy absorption buffer gasket is 2-3 mm; the thickness of the second energy-absorbing buffer gasket is 3-5 mm.
5. The artificial cartilage bionic energy-absorbing badminton insole according to any one of claims 1-4, characterized in that: the first energy-absorbing buffer gasket and the second energy-absorbing buffer gasket are both made of polyurethane film-coated foam materials.
6. The artificial cartilage bionic energy-absorbing badminton insole according to any one of claims 1-4, characterized in that: the upper surface of the insole body is also provided with an insole surface layer, and the insole surface layer is made of polyester knitted fabric.
7. The artificial cartilage bionic energy-absorbing badminton insole according to any one of claims 1-4, characterized in that: the insole bottom layer is made of polyurethane foam materials.
8. The artificial cartilage bionic energy-absorbing badminton insole according to claim 1, characterized in that: the ventilation grooves are of a diamond structure.
9. The artificial cartilage bionic energy-absorbing badminton insole according to claim 1, characterized in that: the anti-skid convex ribs are formed by staggering a plurality of straight convex ribs at an angle of 60 degrees.
10. The artificial cartilage bionic energy-absorbing badminton insole according to any one of claims 1-4 and 8-9, which is characterized in that: the middle waist of the insole is raised, and the insole is connected with the half sole of the insole and the heel of the insole to form a wave-shaped structure.
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CN202121822482.0U CN216315957U (en) | 2021-08-04 | 2021-08-04 | Artificial cartilage bionic energy-absorbing badminton insole |
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CN202121822482.0U CN216315957U (en) | 2021-08-04 | 2021-08-04 | Artificial cartilage bionic energy-absorbing badminton insole |
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CN216315957U true CN216315957U (en) | 2022-04-19 |
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CN202121822482.0U Active CN216315957U (en) | 2021-08-04 | 2021-08-04 | Artificial cartilage bionic energy-absorbing badminton insole |
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2021
- 2021-08-04 CN CN202121822482.0U patent/CN216315957U/en active Active
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