Antibacterial insole

Abstract

The utility model relates to a bacteriostatic insole, and relates to the field of insoles, the bacteriostatic insole comprises a main body, the main body is provided with an elastic pad, the elastic pad is provided with a plurality of first air vents, the elastic pad is provided with a bacteriostatic cavity, the bacteriostatic pad is arranged on the elastic pad and can volatilize bacteriostatic molecules, the first air vents are communicated with the bacteriostatic cavity, and the first air vents are communicated with the bacteriostatic cavity. The first ventilation opening is in a closed state when the elastic cushion is not stressed. In actual use, the insole is located in the shoe, when the shoe is worn, the foot of a human body extrudes the insole, the elastic pad is pressed to open the first ventilation opening, and antibacterial molecules in the antibacterial cavity enter the shoe through the first ventilation opening; when the shoe is not worn, the elastic pad is not compressed, and the first ventilation opening is in a closed state, so that the loss of antibacterial molecules in the antibacterial pad is reduced, the lasting time of the antibacterial effect of the antibacterial insole is prolonged, and the durability is improved.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the technical field of insoles, and particularly relates to an antibacterial insole. BACKGROUND

[0002] An insole refers to a pad placed at the bottom of a shoe, which mainly increases comfort, supports the foot and improves the fitting of the shoe.

[0003] With the improvement of people's requirements for health and life quality, the requirements for insoles are not limited to buffering and support, and breathability and antibacterial property have also become important requirements. The antibacterial insoles on the market are prone to have a reduced antibacterial effect after long-term use, and the durability of the antibacterial insoles needs to be improved. SUMMARY

[0004] The utility model aims at providing an antibacterial insole to solve the technical problems in the background art.

[0005] The utility model is implemented in the following manner:

[0006] An antibacterial insole comprises a main body, an elastic pad is arranged on the main body, a plurality of air vents are formed in the elastic pad, an antibacterial cavity is formed in the elastic pad, and an antibacterial pad is arranged on the elastic pad. The antibacterial pad volatilizes antibacterial molecules. The air vents are in communication with the antibacterial cavity. The air vents are in a closed state when the elastic pad is not stressed.

[0007] In actual use, the insole is located inside a shoe. When the shoe is worn, the human foot presses the insole, the elastic pad is stressed to open the air vents, and the antibacterial molecules in the antibacterial cavity enter the inside of the shoe through the air vents. When the shoe is not worn, the elastic pad is not stressed, the air vents are in a closed state, the loss of the antibacterial molecules in the antibacterial pad is reduced, the duration of the antibacterial effect of the antibacterial insole is prolonged, and the durability is improved.

[0008] Preferably, the elastic pad comprises an elastic air bag and an antibacterial part arranged on the elastic air bag. The air vents are formed in the antibacterial part. An air injection port is formed in the elastic air bag. A plug is arranged on the elastic air bag. The plug is used to block the air injection port.

[0009] By means of the above technical solution, the air injection port is used to inject or release air into the elastic air bag, so that the hardness of the insole is adjusted.

[0010] Preferably, one end of the elastic air bag close to the antibacterial part is convex in the direction close to the antibacterial part to form a circular arc surface.

[0011] By adopting the technical scheme, the surface of the elastic air bag is provided as a convex, which is beneficial to increase the opening area of the air vent and improve the bacterium inhibition effect when the foot presses the bacterium inhibition layer downward.

[0012] Preferably, the elastic air bag is internally provided with three air filling cavities, which are respectively located at the forefoot, arch and heel, the air injection port is correspondingly arranged with the air filling cavity, and the plug is correspondingly arranged with the air injection port.

[0013] By adopting the technical scheme, the independent air filling cavities are arranged at the forefoot, arch and heel of the insole, and the internal air pressure of different air filling cavities can be adjusted to adapt to different support requirements.

[0014] Preferably, the main body is provided with a sweat absorption pad, and a plurality of air vents two are formed in the sweat absorption pad and are in communication with the air vents one.

[0015] By adopting the technical scheme, the sweat absorption pad is arranged on the side of the bacterium inhibition cavity close to the foot, which is beneficial to inhibit the breeding of bacteria in the sweat absorption pad.

[0016] Preferably, the bacterium inhibition cavity penetrates one end of the elastic pad.

[0017] By adopting the technical scheme, the bacterium inhibition pad can be taken out for replacement when the bacterium inhibition effect is reduced, or the bacterium inhibition pad can be taken out when the insole is cleaned.

[0018] Preferably, the bacterium inhibition pad is an activated carbon fiber pad capable of adsorbing bacterium inhibition molecules.

[0019] By adopting the technical scheme, after the bacterium inhibition molecules are consumed, the activated carbon fiber pad is sprayed with bacterium inhibition agent, and the microporous structure of the activated carbon fiber pad is beneficial to fix more bacterium inhibition molecules, and the bacterium inhibition molecules are released when the temperature in the shoe increases during movement.

[0020] Preferably, the bacterium inhibition cavity penetrates one end of the elastic pad perpendicular to the foot length direction and horizontally distributed, and a plurality of anti-skid strips are arranged on the inner wall of the bacterium inhibition cavity, and the distribution direction of the plurality of anti-skid strips is parallel to the foot length.

[0021] By adopting the technical scheme, the anti-skid strips are arranged in the bacterium inhibition cavity, the frictional resistance between the bacterium inhibition pad and the inner wall of the bacterium inhibition cavity is enhanced, and the displacement or wrinkle accumulation of the bacterium inhibition pad during movement is reduced.

[0022] Compared with the prior art, the utility model has the advantages of:

[0023] 1、The utility model discloses when people do not wear shoes, the elastic pad is not under pressure, and the air vent one is closed state, reduces the bacteriostatic molecule loss in bacteriostatic pad, is favorable to improve the duration of bacteriostatic effect of bacteriostatic shoe pad, is favorable to improve the durability;

[0024] 2、The utility model discloses through the gas injection port to the elastic air bag injection or degassing, the softness of shoe pad is convenient to adjust;

[0025] 3、The utility model discloses through the bacteriostatic cavity is penetrated one end of elastic pad, is convenient to take out and change after bacteriostatic pad bacteriostatic effect drops, or is convenient to take out bacteriostatic pad when cleaning shoe pad. DRAWINGS:

[0026] Figure 1 It is the overall structure schematic diagram of the utility model;

[0027] Figure 2 It is the utility model's explosion map;

[0028] Figure 3 It is the structure schematic diagram of the bacteriostatic part of the utility model, mainly shows the distribution of anti-skid strip;

[0029] Figure 4 It is the local sectional view of the utility model, mainly shows the distribution of the inflation cavity.

[0030] The drawings of the specification are as follows: 1, main body;2, elastic pad;21, elastic air bag;211, inflation cavity;212, gas injection port;213, plug;22, bacteriostatic part;221, bacteriostatic cavity;2211, anti-skid strip;222, air vent one;3, bacteriostatic pad;31, activated carbon fiber pad;4, sweat-absorbing pad;41, air vent two. DETAILED DESCRIPTION:

[0031] The utility model will be further described below with specific embodiments, refer to Figure 1 -4:

[0032] The application embodiment discloses a bacteriostatic shoe pad. A bacteriostatic shoe pad, refer to Figure 1 And Figure 2 , including main body 1, the elastic pad 2 is fixed on main body 1, and the elastic pad 2 is located above main body 1, and the elastic pad 2 is fixedly connected with main body 1. The elastic pad 2 includes elastic air bag 21 and bacteriostatic part 22, and the material of elastic air bag 21 and bacteriostatic part 22 is elastic, and the elastic air bag 21 is fixedly connected with main body 1, and the bacteriostatic part 22 is located at the side of elastic air bag 21 away from main body 1, and the end of elastic air bag 21 close to bacteriostatic part 22 is convex to the direction close to bacteriostatic part 22, and the bacteriostatic part 22 is fixedly connected with elastic air bag 21, and the end of bacteriostatic part 22 close to elastic air bag 21 is attached to elastic air bag 21.

[0033] Referring to Figure 2 and Figure 3 , the bacteriostatic part 22 is provided with a bacteriostatic cavity 221, and the bacteriostatic part 22 is detachably connected with a bacteriostatic pad 3. The bacteriostatic pad 3 is an activated carbon fiber pad 31. The microporous structure of the activated carbon fiber is conducive to adsorbing bacteriostatic agents and conducive to better adsorption of bacteriostatic molecules in the bacteriostatic liquid on the activated carbon fiber pad 31. The bacteriostatic cavity 221 penetrates the bacteriostatic part 22 along the horizontal distribution end of the bacteriostatic part 22. The bacteriostatic cavity 221 penetrates the bacteriostatic part 22 along the vertical distribution end of the bacteriostatic part 22. The bacteriostatic cavity 221 is conducive to the removal of the activated carbon fiber pad 31 from the bacteriostatic part 22. After removal, the activated carbon fiber pad 31 can be supplemented with bacteriostatic liquid, which is conducive to the repeated use of the activated carbon fiber pad 31.

[0034] Referring to Figure 2 and Figure 3 , the inner wall of the bacteriostatic cavity 221 is processed to form a plurality of anti-skid strips 2211. The plurality of anti-skid strips 2211 are horizontally arranged. The length direction of the plurality of anti-skid strips 2211 is perpendicular to the length direction of the insole. The plurality of anti-skid strips 2211 are equally spaced along the length direction of the insole and are arranged in the bacteriostatic cavity 221. The anti-skid strips 2211 are used to abut against the activated carbon fiber pad 31 to increase the friction between the activated carbon fiber pad 31 and the bacteriostatic part 22, which is conducive to reducing the displacement or wrinkle accumulation of the activated carbon fiber pad 31 during human movement.

[0035] Referring to Figure 2 and Figure 3 , the end of the bacteriostatic part 22 away from the elastic air bag 21 is provided with a plurality of air vents 222. The plurality of air vents 222 are equally spaced and uniformly distributed. The plurality of air vents 222 are located on the side of the bacteriostatic cavity 221 away from the elastic air bag 21. The plurality of air vents 222 are in communication with the bacteriostatic cavity 221. In this embodiment, the air vent 222 is a cross-shaped opening. When the bacteriostatic pad 3 is not under pressure, the air vent 222 is in a closed state. When a person walks or moves, the bacteriostatic pad 3 deforms under the pressure of the foot, causing the air vent 222 to open.

[0036] Referring to Figure 1 and Figure 2 , the side of the bacteriostatic part 22 away from the elastic air bag 21 is fixed with a sweat-absorbing pad 4. The sweat-absorbing pad 4 is used to contact the foot. The end of the sweat-absorbing pad 4 away from the bacteriostatic pad 3 is provided with a plurality of air vents 41. The projection of the plurality of air vents 41 in the direction close to the bacteriostatic pad 3 is located in the bacteriostatic cavity 221. When the air vent 222 is opened, the air vent 222 is in communication with the air vent 41. The bacteriostatic molecules on the activated carbon fiber pad 31 enter the inside of the shoe through the air vent 222 and the air vent 41.

[0037] With the increase of use time, if the antibacterial on the activated carbon fiber pad 31 decreases, the activated carbon fiber pad 31 is taken out from the antibacterial part 22 cavity, after taking out, the activated carbon fiber pad 31 is supplemented with antibacterial agent, after supplementing, it is put into the antibacterial cavity 221 again.

[0038] Referring to Figure 2 and Figure 4 The elastic air bag 21 is provided with three inflation cavities 211, the inflation cavities 211 are located in the elastic air bag, the three inflation cavities 211 are arranged at intervals, the three inflation cavities 211 are located at the forefoot, the arch and the heel respectively, the elastic air bag 21 is provided with an inflation port 212, the three inflation ports 212 are arranged correspondingly with the three inflation cavities 211, the inflation port 212 is used for inflating the corresponding inflation cavity, the elastic air bag 21 is fixed with three plugs 213, the three plugs 213 are arranged correspondingly with the three inflation ports 212, the plug 213 is used for plugging the corresponding inflation port 212, preventing the loss of gas in the inflation cavity 211. Adjusting the air pressure in the inflation cavity 211 at different positions is convenient for adapting to different foot shapes.

[0039] The implementation principle of the antibacterial shoe pad is: when not wearing shoes, the air vent one 222 is in a closed state, which is beneficial to reduce the loss of antibacterial molecules, and after a long time of use, the antibacterial pad 3 can be taken out to supplement the antibacterial agent, which is beneficial to improve the service life of the shoe pad.

[0040] The above embodiment is only one of the preferred embodiments of the present application, and does not limit the scope of the present application, so: all equivalent changes made according to the shape, structure and principle of the present application should be covered in the protection scope of the present application.

Claims

1. A bacteriostatic insole, characterized by: The utility model provides an antibacterial insole, including the main part (1), be equipped with elastic pad (2) on the main part (1), be equipped with a plurality of air vents (222) on the elastic pad (2), be equipped with bacteriostatic cavity (221) on the elastic pad (2), be equipped with bacteriostatic pad (3) in bacteriostatic cavity (221), bacteriostatic pad (3) can volatilize bacteriostatic molecule, a plurality of air vents (222) with bacteriostatic cavity (221) intercommunication, air vent (222) is in closed state when elastic pad (2) is not under stress.

2. The bacteriostatic insole of claim 1, wherein: The elastic pad (2) includes an elastic air bag (21) and a bacteriostatic part (22) disposed on the elastic air bag (21), the air vent (222) is formed on the bacteriostatic part (22), the elastic air bag (21) is provided with a gas injection port (212), and the elastic air bag (21) is provided with a plug (213) for plugging the gas injection port (212).

3. The bacteriostatic insole of claim 2, wherein: The elastic air bag (21) is convex to a circular arc surface near one end of the bacteriostatic part (22) in the direction close to the bacteriostatic part (22).

4. The bacteriostatic insole of claim 2, wherein: The elastic air bag (21) is provided with three inflation cavities (211) inside, which are respectively located at the forefoot, arch and heel, the gas injection port (212) is correspondingly arranged with the inflation cavity (211), and the plug (213) is correspondingly arranged with the gas injection port (212).

5. The bacteriostatic insole of claim 1, wherein: The main body (1) is provided with a sweat-absorbing pad (4), and a plurality of air vents (41) are formed on the sweat-absorbing pad (4), the air vents (41) are communicated with the air vents (222).

6. The antimicrobial insole of claim 1, wherein: The bacteriostatic cavity (221) penetrates one end of the elastic pad (2), facilitating the removal of the bacteriostatic pad (3) from the elastic pad (2).

7. The antimicrobial shoe pad of claim 6, wherein: The bacteriostatic pad (3) is an activated carbon fiber pad (31) capable of adsorbing bacteriostatic molecules.

8. The antimicrobial insole of claim 6, wherein: The bacteriostatic cavity (221) penetrates one end of the elastic pad (2) perpendicular to the length direction of the foot and horizontally distributed, and a plurality of anti-skid strips (2211) are arranged on the inner wall of the bacteriostatic cavity (221), and the distribution direction of the plurality of anti-skid strips (2211) is parallel to the length of the foot.

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