High-breathability anti-skid shoe sole with micropore structure

Abstract

The utility model relates to the technical field of women's shoes, in particular to a high-breathability anti-skidding sole with a micropore structure, which comprises a sole body, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole, a sole and a sole body, and is characterized in that the sole body comprises an insole, an insole and an outsole; the flow guide unit comprises a lateral flow guide part and a bottom flow guide part, the bottom flow guide part is arranged on the shoe sole body in the vertical direction, the lateral flow guide part is obliquely arranged on the shoe sole body, and the lateral flow guide part is communicated with the lower portion of the bottom flow guide part; the buffering unit comprises buffering grooves and buffering parts, the buffering grooves are formed in the two ends of the insole, the buffering parts are arranged in the buffering grooves, the upper ends of the buffering parts are attached to the insole, and the lower ends of the buffering parts are connected with the bottom flow guide part; the ventilation unit is arranged in the bottom flow guide part, and the ventilation unit is fixedly connected with the buffering part. The flow guide unit and the ventilation unit are arranged on the sole, so that the ventilation process in the shoe can be completed in the process of treading the sole, and the heat dissipation effect is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of shoes, specifically, relates to a high-breathability antiskid shoe sole with micropore structure. BACKGROUND

[0002] The shoe sole is one of the key components of the shoe, and directly affects the comfort, safety and durability of the shoe.

[0003] The document with the Chinese utility model patent application number 202420895503.9 discloses a breathable shoe sole, which increases the heat dissipation effect by setting an avoidance surface to avoid the breathable hole of the shoe sole. Although the design of the avoidance surface can make the breathable hole not be blocked, the natural heat dissipation effect of the breathable hole is relatively limited, and it is difficult for the heat dissipation to quickly take away the large amount of heat and moisture generated by the foot, which easily leads to the heat and sweat accumulation of the foot.

[0004] Therefore, there is an urgent need for a high-breathability antiskid shoe sole with micropore structure to solve the problems existing in the current technology. UTILITY MODEL CONTENT

[0005] In view of this, the utility model provides a high-breathability antiskid shoe sole with micropore structure, aiming at solving the problem of poor heat dissipation of the existing shoe sole.

[0006] The utility model provides a high-breathability antiskid shoe sole with micropore structure, comprising:

[0007] The shoe sole body comprises an inner sole, a middle sole and an outer sole, the lower surface of the inner sole is connected with the middle sole, and the lower surface of the middle sole is connected with the outer sole;

[0008] The flow guide unit comprises a lateral flow guide part and a bottom flow guide part, the bottom flow guide part is arranged on the shoe sole body in the vertical direction, the lateral flow guide part is arranged on the shoe sole body in an inclined manner, and the lateral flow guide part is communicated with the lower part of the bottom flow guide part;

[0009] The buffer unit comprises a buffer groove and a buffer part, buffer grooves are arranged at both ends of the middle sole, the buffer part is arranged in the buffer groove, the upper end of the buffer part is attached to the inner sole, and the lower end of the buffer part is connected with the bottom flow guide part;

[0010] The air exchange unit is arranged in the bottom flow guide part, and the air exchange unit is fixedly connected with the buffer part.

[0011] Further, the buffer part comprises a buffer plate and a piston, the upper surface of the buffer plate is attached to the inner sole, and the lower surface of the buffer plate is connected with the piston.

[0012] Further, the ventilation unit comprises a first connecting rod, a second connecting rod, a connecting block and a ventilation strip, one end of the first connecting rod is connected with the piston, the other end of the first connecting rod is fixedly connected with the connecting block, two second connecting rods are fixedly connected on two sides of the connecting block, and the lower ends of the two second connecting rods are fixedly connected with the ventilation strip.

[0013] Further, the heat conduction unit comprises an elastic driving part and an exhaust part, a heat conduction hole is formed in the sole body, the elastic driving part is arranged in the heat conduction hole, and the lower end of the elastic driving part is rotatably connected with the exhaust part.

[0014] Further, the elastic driving part comprises a driving plate, a first driving rod, a second driving rod, a connecting plate and a rotating shaft, one end of the driving plate is attached to the lower surface of the insole, the other end of the driving plate is fixedly connected with two first driving rods, the second driving rod is arranged on two sides of the two first driving rods, the first driving rod and the second driving rod are connected with the connecting plate, the rotating shaft is arranged between the two first driving rods, and the rotating shaft is rotatably connected with the connecting plate.

[0015] Further, the elastic driving part further comprises a torsion spring, the torsion spring is sleeved on the two second driving rods.

[0016] Further, the exhaust part comprises an exhaust net and a fan blade, the fan blade is rotatably connected with the rotating shaft, and the exhaust net is arranged at the bottom end of the fan blade.

[0017] Further, a plurality of ventilation holes are arranged on the insole.

[0018] Further, the bottom surface of the outsole is fixedly connected with a first wear-resistant strip and a second wear-resistant strip, the first wear-resistant strip is arranged on the left side of the outsole, and the second wear-resistant strip is arranged on the right side of the outsole.

[0019] Further, a plurality of third wear-resistant strips are fixedly connected to the middle part of the bottom surface of the outsole, and a plurality of air holes are arranged between the plurality of third wear-resistant strips.

[0020] Compared with the prior art, the utility model discloses the beneficial effect lies in: the utility model discloses the sole is trodden, and then drive the buffer part in the buffer groove displacement downward, make the air exchange unit downward displacement and then expose the bottom guide vane and lateral guide vane, when lifting the sole, air exchange unit resets, and then air exchange unit can drive the airflow to flow into lateral guide vane and bottom guide vane, accelerate the airflow exchange in the shoe, through the initiative airflow circulation, the hot air and moisture in the shoe can be discharged in time, and the fresh air of outside can be more rapidly entered in the shoe, improved the air permeability and heat dissipation effect, reduced the foot sweat and the feeling of stuffy simultaneously, reduced the generation of foot peculiar smell, although the traditional static air hole has certain effect under the natural ventilation state, but under the condition that the hot air and moisture gather in large quantities, the effect is not ideal, and through the dynamic air exchange, the outside air is actively guided to enter the shoe in the process of every time treading and lifting, and the hot and humid air in the inside is discharged, realizes higher airflow exchange, thereby alleviate the stuffy feeling and sweat problem of foot. BRIEF DESCRIPTION OF DRAWINGS

[0021] Figure 1 The section view of the high air permeability antiskid shoe sole with micropore structure provided by the utility model embodiment is provided.

[0022] Figure 2 The inside bottom schematic view in the high air permeability antiskid shoe sole with micropore structure provided by the utility model embodiment is provided.

[0023] Figure 3 The outside bottom front view in the high air permeability antiskid shoe sole with micropore structure provided by the utility model embodiment is provided.

[0024] Wherein: 1, sole body;110, inside bottom;120, middle bottom;130, outside bottom;2, guide unit;210, lateral guide vane;220, bottom guide vane;3, buffer unit;310, buffer groove;320, buffer plate;330, piston;4, air exchange unit;410, first connecting rod;420, second connecting rod;430, connecting block;440, air exchange strip;5, heat conduction unit;510, drive plate;520, first drive rod;530, second drive rod;540, connecting plate;550, rotating shaft;560, torsion spring;570, exhaust net;580, fan blade;6, air hole;7, first wear-resistant strip;8, second wear-resistant strip;9, third wear-resistant strip;10, air hole. DETAILED DESCRIPTION

[0025] With reference to the drawings and the embodiments of the present application, the technical solutions in the embodiments of the present application will be described clearly and completely. Obviously, the described embodiments are only a part of the embodiments of the present application, but not all the embodiments of the present application. Based on the embodiments in the present application, all the other embodiments obtained by those skilled in the art without creative work fall within the scope of the present application.

[0026] In the description of the present application, it should be understood that the terms "center", "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer" and the like indicate the orientation or positional relationship shown in the drawings based on the orientation or positional relationship shown in the drawings, and are only for the purpose of facilitating the description of the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the present application.

[0027] The terms "first", "second" are only for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the technical features indicated. Therefore, the features defined with "first", "second" can explicitly or implicitly include one or more of the features. In the description of the present application, unless otherwise specified, the meaning of "a plurality of" is two or more.

[0028] In the description of the present application, it should be noted that unless otherwise specified and limited, the terms "mounting", "connection", "connection" should be understood broadly, for example, it can be fixed connection, or detachable connection, or integral connection; it can be mechanical connection, or electrical connection; it can be directly connected, or indirectly connected through intermediate medium, or the communication inside two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0029] Referring to Figure 1 As shown in the drawings, the present embodiment provides a high air permeability and anti-skid sole with microporous structure, comprising: a sole body 1, comprising an insole 110, a midsole 120 and an outsole 130, the lower surface of the insole 110 is connected with the midsole 120, and the lower surface of the midsole 120 is connected with the outsole 130;

[0030] A flow guide unit 2, comprising a lateral flow guide part 210 and a bottom flow guide part 220, the bottom flow guide part 220 is arranged on the sole body 1 in the vertical direction, and the lateral flow guide part 210 is arranged on the sole body 1 in an inclined manner, and the lateral flow guide part 210 communicates with the lower part of the bottom flow guide part 220;

[0031] The buffer unit 3 includes a buffer groove 310 and a buffer part. The buffer groove 310 is formed at both ends of the midsole 120, and the buffer part is arranged in the buffer groove 310. The upper end of the buffer part is attached to the insole 110, and the lower end of the buffer part is connected to the bottom guide part 220.

[0032] The ventilation unit 4 is arranged in the bottom guide part 220, and the ventilation unit 4 is fixedly connected to the buffer part.

[0033] Specifically, the shoe sole is composed of the insole 110, the midsole 120 and the outsole 130. The insole 110 is a cushioning member adjacent to the foot. The insole 110 is usually very soft, and the insole 110 is made of a breathable material, which can enhance the comfort of the shoe. The outsole 130 is the outermost part of the shoe that contacts the ground and is usually made of a wear-resistant material. The midsole 120 is usually used to prevent the foot from over-rolling inward. The lateral guide part 210 and the bottom guide part 220 penetrate the midsole 120 and the outsole 130 and are connected to the lower surface of the insole 110. When wearing the shoe, the sweat and heat of the foot are accumulated in the insole 110. Therefore, ventilating and cooling the insole 110 can alleviate the accumulation of sweat. At both ends of the midsole 120, corresponding to the front and rear parts of the foot, the buffer groove 310 is arranged, and the buffer part is arranged in the buffer groove 310. The lower end of the buffer part is connected to the ventilation unit 4. When the wearer walks, the rear foot usually lands first, then the front foot lands, and then the rear foot lifts up, alternating walking. When stepping on the shoe sole, the buffer part drives the ventilation unit 4 to displace downward. Since the ventilation unit 4 is arranged in the bottom guide part 220, when the ventilation unit 4 displaces downward, the holes of the bottom guide part 220 and the lateral guide part 210 are connected to the external environment, realizing the air exchange between the inside and outside of the shoe. When lifting up, the ventilation unit 4 resets. At this time, the ventilation unit 4 can drive the air flow, thereby increasing the air flow in the lateral guide part 210 and the bottom guide part 220.

[0034] It can be understood that through the multi-layer structure and dynamic ventilation mechanism, the breathability and comfort of the sole are improved, and the overall performance and durability of the shoe are enhanced. The sweat and heat of the foot first accumulate at the insole 110. Since the insole 110 is made of a breathable material, it already has a certain breathability, and the buffer part provided in the buffer groove 310 not only provides additional cushioning and comfort, but also realizes dynamic ventilation through the ventilation unit 4 connected to its lower end. When the wearer walks, it is usually the back foot that lands first, followed by the front foot, and then the back foot lifts up, alternating walking. With each step on the sole, the buffer part will be displaced downward under pressure, driving the ventilation unit 4 to displace downward synchronously. The ventilation unit 4 is provided in the bottom guide flow part 220, and when it is displaced downward, the holes of the bottom guide flow part 220 and the side guide flow part 210 are connected to the external environment, realizing air exchange between the inside and outside of the shoe, so that the hot and humid air inside the shoe can be discharged, and fresh air from the outside can enter, thereby maintaining the dryness and ventilation inside the shoe. When the wearer lifts the foot, the buffer part and the ventilation unit 4 quickly reset, driving the inflow of air flow. When the ventilation unit 4 resets, it can drive external air to enter the shoe through the bottom guide flow part 220 and the side guide flow part 210, while discharging the hot and humid air inside the shoe. Compared with the traditional static ventilation hole 10 design, the breathability and heat dissipation effect are improved, which can relieve the stuffy feeling of the foot, reduce sweating and the generation of foot odor, and improve the overall wearing comfort. In addition, the internal environment of the shoe is also improved. The timely discharge of moisture and heat from the shoe not only reduces foot sweating, but also makes the environment inside the shoe more dry, which helps to prevent fungal infections and other health problems of the foot. Good breathability and dry environment are crucial for foot health, and in terms of structural strength, the buffer part and the ventilation unit 4 also improve the durability of the shoe. The buffer groove 310 and the buffer part not only improve the cushioning performance of the sole, but also protect the structural integrity of the midsole 120 and the outsole 130 by reducing direct impact. While ensuring breathability, the support and protection functions of the shoe are not sacrificed, so that the shoe can maintain good performance in various activities and reduce foot fatigue and injury during exercise.

[0035] In some embodiments of the present application, the buffer part includes a buffer plate 320 and a piston 330, and the upper surface of the buffer plate 320 is attached to the insole 110, and the lower surface of the buffer plate 320 is connected to the piston 330.

[0036] In some embodiments of the present application, the ventilation unit 4 includes a first connecting rod 410, a second connecting rod 420, a connecting block 430, and a ventilation strip 440, one end of the first connecting rod 410 is connected to the piston 330, the other end of the first connecting rod 410 is fixedly connected to the connecting block 430, the connecting block 430 is fixedly connected to two second connecting rods 420 on both sides, and the lower ends of the two second connecting rods 420 are fixedly connected to the ventilation strip 440.

[0037] Specifically, when the sole is stepped on, the insole 110 collapses downward, in turn driving the buffer plate 320 to displace downward, in turn driving the air exchange strip 440 to displace downward under the driving of the second connecting rod 420, in turn exposing the orifice of the bottom guide flow part 220, which is arranged in the middle ditch of the sole anti-skid structure, so that the downward movement of the air exchange strip 440 will not hinder the movement, and when the foot is lifted, the piston 330 resets, in turn driving the air exchange strip 440 to reset, in turn driving the air exchange strip 440 to drive the air flow, increasing the air flow in the lateral guide flow part 210 and the bottom guide flow part 220, in turn increasing the heat exchange efficiency between the inside and outside of the shoe.

[0038] It can be understood that when the wearer lifts the foot, the piston 330 will quickly reset, in turn driving the air exchange strip 440 to reset. Not only the buffering performance of the buffer plate 320 is restored, but also through the movement of the air exchange strip 440, the external air is driven into the shoe through the bottom guide flow part 220 and the lateral guide flow part 210 like a pump, while the hot and humid air in the shoe is discharged. Through active air circulation, compared with the traditional static air hole 10, the air permeability and heat dissipation effect are improved. In addition, the internal environment of the shoe is also improved. The moisture and heat in the shoe are discharged in time, not only reducing the foot sweating, but also making the environment in the shoe more dry, which helps to prevent foot fungus infection and other health problems. The buffer part and the air exchange unit 4 not only improve the buffering performance of the sole, but also protect the structural integrity of the insole 120 and the outsole 130 by reducing direct impact. The setting of the buffer plate 320 and the piston 330 makes the sole better absorb the impact force every time it is stepped on, reducing the direct impact on the foot and improving the comfort of wearing. At the same time, the linkage between the piston 330 and the air exchange strip 440 ensures the stability and reliability of the air exchange unit 4, which will not fail after long-term use. Dynamic air exchange not only can remove the moisture and heat in the shoe during high-intensity sports such as running and jumping, but also can provide better temperature regulation through air circulation. It helps to keep the feet dry and reduce the sliding caused by sweating, and improves the grip and stability of the feet and the insole 110. The humid environment in the shoe is a breeding ground for bacteria and fungi, which can easily cause foot diseases and odors. Dynamic air exchange reduces the humidity in the shoe through air exchange, reducing the growth conditions of bacteria and fungi. The air exchange strip 440 not only can discharge hot and humid air, but also can bring in fresh air from the outside during each step and lift, further inhibiting the growth of bacteria. It helps to keep the shoe fresh and reduce the occurrence of foot diseases, improving the health level of users.

[0039] In some embodiments of the present application, a heat conduction unit 5 is further included, which comprises an elastic driving part and an exhaust part, and a heat conduction hole is formed on the sole body 1, the elastic driving part is arranged in the heat conduction hole, and the lower end of the elastic driving part is rotationally connected with the exhaust part.

[0040] Specifically, the elastic driving part and the exhaust part are arranged at the front side of the sole, the elastic driving part is stepped on to drive the exhaust part to work, and the air exchange efficiency between the inside and outside of the shoe is further increased.

[0041] It can be understood that the front foot is a part frequently stressed in walking and movement of people, especially in activities such as running and fast walking, the movement frequency of the front foot is higher, the elastic driving part and the exhaust part are arranged at the front side, so that the front foot can drive air flow at each time of stepping on. When the elastic driving part is stressed, the exhaust part is driven to work through the rotary connection at the lower end, the ventilation and heat dissipation effect of the front foot is more obvious at high temperature or long time movement, the stuffiness and sweating of the front foot are reduced, and the overall comfort is improved.

[0042] The heat conduction unit 5 optimizes the air circulation path inside the sole. In traditional sole designs, air mainly enters and exits through static air vents 10, the path is relatively single, and it is easy to cause local uneven ventilation. Through the linkage of the elastic driving part and the exhaust part, the air can be more evenly distributed in each part of the sole. When the user is walking, the air exchange unit 4 of the forefoot and the hindfoot works at the same time, forming a complete air circulation path. Through the optimized air circulation path, not only the ventilation effect in the shoe is improved, but also the shoe can maintain good air permeability and heat dissipation in different sports scenes. Dynamic air exchange through the cooperation of the elastic driving part and the exhaust part not only improves the air circulation and heat dissipation effect in the shoe, but also reduces the fatigue of the foot. When the user is walking or running, the elastic driving part can quickly respond to the movement of the foot, and through the operation of the exhaust part, the moisture and heat in the shoe are effectively discharged. Continuous air circulation makes the foot always dry and comfortable, reducing the fatigue and discomfort of the foot caused by long-time sports. The heat conduction unit 5 not only improves the air circulation and heat dissipation effect in the shoe, but also enhances the blood circulation of the foot through its dynamic cooperation mechanism. When the user is walking or exercising, the linkage of the elastic driving part and the exhaust part makes the air circulation of the forefoot and the hindfoot more frequent. Frequent air flow can promote the microcirculation of foot tissues and help to speed up the evaporation of sweat and reduce local temperature rise. Good blood circulation not only improves the comfort of the user, but also reduces the swelling and fatigue of the foot caused by long-time sports or standing. Foot health is not only related to the support and protection of the shoe, but also closely related to the environment in the shoe. Traditional shoe design has shortcomings in air permeability and heat dissipation, which can easily cause a humid and hot environment in the foot and bacterial breeding, thereby causing foot diseases. Through the heat conduction unit 5, the dynamic adjustment of the shoe environment is realized, and the accumulation of moisture and heat is reduced, thereby preventing the occurrence of foot diseases. When exercising, sweat in the shoe can easily cause the foot to slide between the shoe and the insole 110, affecting sports performance and safety. Through the dynamic air exchange of the heat conduction unit 5, the sweat can be discharged, reducing the humidity in the shoe, thereby reducing the possibility of foot sliding and the risk of injury caused by sliding.

[0043] In some embodiments of the present application, the elastic driving part includes a driving plate 510, a first driving rod 520, a second driving rod 530, a connecting plate 540, and a rotating shaft 550. One end of the driving plate 510 is attached to the lower surface of the insole 110, and the other end of the driving plate 510 is fixedly connected with two first driving rods 520. The second driving rod 530 is arranged on both sides of the two first driving rods 520, and the first driving rod 520 and the second driving rod 530 are connected with the connecting plate 540. The rotating shaft 550 is arranged in the middle of the two first driving rods 520, and the rotating shaft 550 is rotatably connected with the connecting plate 540.

[0044] In some embodiments of the present application, the elastic driving part further comprises a torsion spring 560, which is sleeved on the two second driving rods 530.

[0045] Specifically, when the sole is stepped on, the driving plate 510 drives the first driving rod 520 to displace downward, the rotating shaft 550 is arranged between the two first driving rods 520, the connecting plate 540 is provided with a limiting protrusion, the rotating shaft 550 is provided with a limiting groove, the rotating shaft 550 is in a cylindrical shape, and the limiting groove thereon is arranged in an M shape around the rotating shaft 550. Therefore, when the driving plate 510 drives the first driving rod 520 to displace downward, the first driving rod 520 drives the connecting plate 540 to displace, and then the limiting protrusion on the connecting plate 540 moves in the limiting groove, thereby driving the rotating shaft 550 to rotate. The torsion spring 560 is sleeved on the second driving rod 530, and when the connecting plate 540 displaces downward, the torsion spring 560 is pressed. When the foot is lifted, the elastic driving part is reset under the action of the torsion spring 560, and then the rotating shaft 550 rotates in the opposite direction, thereby driving the exhaust part to rotate in the opposite direction.

[0046] It can be understood that the elastic driving part improves the air exchange efficiency between the inside and outside of the shoe. When the user steps on the sole, the driving plate 510 is first subjected to pressure, driving the first driving rod 520 to displace downward. Since the first driving rod 520 and the second driving rod 530 are connected through the connecting plate 540, the downward displacement of the first driving rod 520 will further drive the connecting plate 540 to move, so that the limiting protrusions on the connecting plate 540 move in the limiting grooves on the rotating shaft 550. It ensures that each step can start the air exchange process, so that the moisture and heat in the shoe can be discharged more quickly. In high-intensity exercise or long-distance walking, this air exchange can significantly reduce the feeling of heat and humidity of the foot, improving the comfort of the user. The elastic driving part provides good elastic response through the spring structure of the driving plate 510 and the first driving rod 520. When the user steps on the sole, the driving plate 510 can quickly absorb the impact force, and through the downward displacement of the first driving rod 520, the impact force is dispersed to each part of the sole. The dispersed impact force is further transmitted through the connecting plate 540 and the second driving rod 530, so that the entire sole can provide continuous cushioning effect at each step. When the user lifts his foot, the driving plate 510 and the first driving rod 520 quickly reset, driving the connecting plate 540 and the second driving rod 530 to reset, so that the sole returns to its original shape. Not only improves the comfort of the user, but also reduces the risk of foot injury caused by excessive impact force. In traditional shoe design, air mainly enters and exits through static air holes 10, the path is relatively single, and local uneven ventilation is easy to occur. Through the linkage of the elastic driving part and the exhaust part, air can be more evenly distributed in each part of the sole. When the user is walking or exercising, the elastic driving part of the front foot can respond to the pressure, through the linkage of the first driving rod 520 and the connecting plate 540, driving the exhaust part to rotate, realizing the rapid circulation of air. Not only improves the ventilation effect in the shoe, but also makes the shoe maintain good air permeability and heat dissipation in different exercise scenarios. The heat conduction unit 5 improves the uniform distribution of temperature of the sole. When the user is walking or exercising, the elastic driving part can respond to the direction of the foot, through the first driving rod 520 and the connecting plate 540, driving the exhaust part to rotate, realizing the rapid circulation of air, so that the temperature difference between the front foot and the rear foot of the sole is reduced, maintaining the uniform distribution of temperature in the shoe.

[0047] In some embodiments of the present application, the exhaust part includes an exhaust net 570 and a fan blade 580, the fan blade 580 is rotationally connected to the rotating shaft 550, and the exhaust net 570 is arranged at the bottom end of the fan blade 580.

[0048] It can be understood that the exhaust part improves the air circulation efficiency in the shoe. When the user is walking or running, stepping on the sole will make the driving plate 510 drive the first driving rod 520 to displace downward, and then drive the rotating shaft 550 to rotate through the linkage of the connecting plate 540 and the limiting protrusion. The rotation of the rotating shaft 550 in turn makes the fan blade 580 rotate, realizing the rapid exhaust of air in the shoe. When the user lifts the foot, the elastic driving part quickly resets under the action of the torsional spring 560, the rotating shaft 550 rotates in the opposite direction, and the fan blade 580 also rotates in the opposite direction, realizing the rapid introduction of air in the shoe. Through the two-way air circulation, not only the ventilation effect in the shoe is improved, but also the air in the shoe is fully exchanged during each step and lifting. In a high temperature or humid environment, air circulation can take away the moisture and heat in the shoe, keeping the feet dry and comfortable. In the traditional shoe design, the hot and humid feeling in the shoe is a common problem, especially when walking or running for a long time, the feet are prone to sweating, resulting in a hot and humid environment in the shoe. Through the linkage of the fan blade 580 and the exhaust net 570, the continuous circulation and exchange of air in the shoe are realized. When the user is walking or exercising, the rotation of the fan blade 580 can bring out the hot and humid air in the shoe, while introducing fresh air. Continuous air circulation reduces the hot and humid feeling in the shoe, keeping the user's feet dry. The exhaust part enhances the air permeability and heat dissipation effect of the shoe through its dynamic rotation. When the user is walking or exercising, the rotation of the fan blade 580 will form a dynamic air duct, so that the air in the shoe can be exhausted, while introducing fresh air from the outside. Not only improves the air circulation speed in the shoe, but also realizes the air exchange between the inside and outside of the shoe during each step and lifting. The temperature difference of the sole will directly affect the comfort. In the traditional sole design, the temperature distribution of the forefoot and the hindfoot is often uneven, and a high temperature area is easily formed in some parts. Through the linkage of the fan blade 580 and the exhaust net 570, the temperature of the forefoot and the hindfoot of the sole is evenly distributed. When the user is walking or exercising, stepping on the sole will make the fan blade 580 rotate, forming a dynamic air duct, rapidly taking out the heat of the forefoot, and at the same time, evenly distributing the heat to all parts of the sole through the air circulation in the shoe. Not only reduces the local high temperature feeling of the feet, but also improves the comfort and exercise performance of the user.

[0049] In some embodiments of the present application, referring to Figure 2 As shown in the figure, the insole 110 is provided with a plurality of air exchange holes 6.

[0050] It can be understood that in traditional shoe design, the wet and hot feeling in the shoe is a common problem, especially when walking or running for a long time, the foot is easy to sweat, resulting in a wet and hot environment in the shoe. The air exchange holes 6 provided on the insole 110 realize the continuous circulation and exchange of air in the shoe through the linkage with the elastic driving part and the exhaust part. When the user is walking or exercising, stepping on the sole will make the fan blade 580 rotate, the exhaust net 570 opens, and the wet and hot air in the shoe is quickly taken out through the air exchange holes 6 on the insole 110. This continuous air circulation not only takes away the moisture and heat in the shoe, but also inhibits the growth of bacteria and fungi, reducing the odor in the shoe.

[0051] The insole 110 is provided with a plurality of air exchange holes 6. These air exchange holes 6 are microporous structures, mainly used for heat dissipation and perspiration in the shoe. The plurality of air exchange holes 6 provided on the insole 110 improve the air circulation efficiency in the shoe. The microporous structure can provide a continuous air flow channel, so that the air in the shoe can be exchanged with the outside air through these micropores even when the user is stationary. When the user is walking or running, the pressure change on the sole will cause the air in the shoe to be quickly discharged through these micropores, while fresh air from the outside is introduced by negative pressure. The air circulation mechanism not only improves the ventilation effect in the shoe, but also allows the air in the shoe to be fully exchanged during each step and lifting, which can quickly take away the moisture and heat in the shoe, keeping the foot dry and comfortable.

[0052] The wet and hot environment in the shoe is a common problem, especially when walking or running for a long time, the foot is easy to sweat, resulting in a wet and hot feeling in the shoe. The plurality of air exchange holes 6 provided on the insole 110 provide efficient air perspiration and heat dissipation function through its microporous structure. When the user is walking or exercising, the moisture and heat in the shoe can be quickly discharged through these micropores, keeping the shoe dry, inhibiting the growth of bacteria and fungi, and reducing the odor in the shoe.

[0053] In some embodiments of the present application, referring to Figure 3 As shown, the bottom surface of the outsole 130 is fixedly connected with a first wear-resistant strip 7 and a second wear-resistant strip 8, the first wear-resistant strip 7 is arranged on the left side of the outsole 130, and the second wear-resistant strip 8 is arranged on the right side of the outsole 130.

[0054] In some embodiments of the present application, the bottom surface of the outsole 130 is fixedly connected with a plurality of third wear-resistant strips 9, and a plurality of air holes 10 are arranged between the plurality of third wear-resistant strips 9.

[0055] It can be understood that the bottom surface of the outsole 130 is fixedly connected with the first wear-resistant strip 7 and the second wear-resistant strip 8, which are arranged on the left side and the right side of the outsole 130 respectively. The wear resistance of the sole is improved, especially at the edge of the shoe, which is most prone to wear during walking or exercising. The material of the wear-resistant strip is usually selected to be high-wear-resistant and high-strength material, such as rubber or polyurethane, which can maintain the integrity and service life of the sole when subjected to friction. The wear-resistant strips arranged on both sides of the bottom surface of the outsole 130 not only improve the wear resistance of the sole, but also enhance the anti-skid effect of the sole. The surface of the wear-resistant strip is designed with anti-skid lines, which can increase the contact area between the sole and the ground, improve the friction, and reduce the risk of sliding. Especially on wet or uneven ground, the anti-skid design can improve the walking stability of the user and reduce the risk of injury caused by sliding. The bottom surface of the outsole 130 is fixedly connected with a plurality of third wear-resistant strips 9, and a plurality of air holes 10 are arranged between the third wear-resistant strips 9. Not only the wear resistance of the middle part of the sole is improved, but also the uniformity and supportability of the middle part of the sole are enhanced through the distribution of the wear-resistant strips. The distribution of the wear-resistant strips can make the sole more uniform under stress, reducing foot fatigue and discomfort caused by uneven stress. At the same time, the hardness and strength of the wear-resistant strips can provide additional support effect, especially during long-standing or walking, the foot can get better support, improving comfort and tolerance.

[0056] The high-breathability anti-skid sole with a microporous structure in one of the above embodiments can displace the buffer part in the buffer groove downward by stepping on the sole, so that the air exchange unit is displaced downward to expose the bottom guide part and the side guide part. When the sole is lifted, the air exchange unit resets, and the air exchange unit can guide the airflow into the side guide part and the bottom guide part, accelerating the airflow exchange in the shoe. Through active airflow circulation, hot and humid air in the shoe can be discharged in time, and fresh air from the outside can enter the shoe more quickly, improving the breathability and heat dissipation effect, reducing the feeling of sweating and stuffiness of the foot, and reducing the generation of foot odor. Although the traditional static air hole has a certain effect in natural ventilation, the effect is not ideal when hot and humid air accumulates. Through dynamic air exchange, external air is actively guided into the shoe during each step and lifting, and the internal hot and humid air is discharged, realizing more efficient airflow exchange, thereby relieving the stuffiness and sweating of the foot.

[0057] Obviously, those skilled in the art can make various modifications and variations to the present application without departing from the spirit and scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the claims of the present application and their equivalent technologies, the present application also intends to include these modifications and variations.

Claims

1. A highly breathable and anti-slip sole with a microporous structure, characterized in that: include: The sole body comprises an insole, a midsole and an outsole, wherein the lower surface of the insole is connected to the midsole, and the lower surface of the midsole is connected to the outsole; The guide unit includes a lateral guide portion and a bottom guide portion, wherein the bottom guide portion is vertically arranged on the sole body, the lateral guide portion is obliquely arranged on the sole body, and the lateral guide portion is connected to the lower portion of the bottom guide portion; The buffer unit includes a buffer groove and a buffer part. The buffer grooves are provided at both ends of the midsole. The buffer part is provided in the buffer grooves. The upper end of the buffer part is in contact with the insole, and the lower end of the buffer part is connected to the bottom guide part. The ventilation unit is arranged in the bottom flow guide portion and is fixedly connected to the buffer portion.

2. The highly breathable and anti-slip sole with a microporous structure according to claim 1, characterized in that: The buffer portion includes a buffer plate and a piston. The upper surface of the buffer plate is in contact with the inner bottom, and the lower surface of the buffer plate is connected to the piston.

3. The highly breathable and anti-slip sole with a microporous structure according to claim 2, characterized in that: The ventilation unit includes a first connecting rod, a second connecting rod, a connecting block and a ventilation strip, one end of the first connecting rod is connected to the piston, the other end of the first connecting rod is fixedly connected to the connecting block, the two sides of the connecting block are fixedly connected to two second connecting rods, and the lower ends of the two second connecting rods are fixedly connected to the ventilation strip.

4. The highly breathable and anti-slip sole with a microporous structure according to claim 3, characterized in that: It also includes a heat conduction unit, which includes an elastic driving part and an exhaust part. A heat conduction hole is opened on the sole body, and the elastic driving part is arranged in the heat conduction hole. The lower end of the elastic driving part is rotatably connected to the exhaust part.

5. The highly breathable and anti-slip sole with a microporous structure according to claim 4, characterized in that: The elastic driving part includes a driving plate, a first driving rod, a second driving rod, a connecting plate and a rotating shaft. One end of the driving plate is in contact with the lower surface of the inner bottom, and the other end of the driving plate is fixedly connected to the two first driving rods. The second driving rod is arranged on both sides of the two first driving rods, and the first driving rod and the second driving rod are connected to the connecting plate. The rotating shaft is arranged between the two first driving rods, and the rotating shaft is rotatably connected to the connecting plate.

6. The highly breathable and anti-skid sole with a microporous structure according to claim 5, characterized in that: The elastic driving part further includes a torsion spring, and the torsion spring is sleeved on the two second driving rods.

7. The highly breathable and anti-skid sole with a microporous structure according to claim 6, characterized in that: The exhaust part includes an exhaust net and fan blades, the fan blades are rotatably connected to the rotating shaft, and the exhaust net is arranged at the bottom end of the fan blades.

8. The highly breathable and anti-slip sole with a microporous structure according to claim 1, characterized in that: A plurality of ventilation holes are provided on the inner bottom.

9. The highly breathable and anti-slip sole with a microporous structure according to claim 1, characterized in that: A first wear-resistant strip and a second wear-resistant strip are fixedly connected to the bottom surface of the outsole. The first wear-resistant strip is arranged on the left side of the outsole, and the second wear-resistant strip is arranged on the right side of the outsole.

10. The highly breathable and anti-skid sole with a microporous structure according to claim 9, characterized in that: A plurality of third wear-resistant strips are fixedly connected to the middle portion of the bottom surface of the outer bottom, and a plurality of air holes are provided between the third wear-resistant strips.

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