Shoe sole with bearing component and tactile node element and shoe

Abstract

The invention relates to the technical field of shoes, and provides a shoe sole with a bearing component and a tactile node element and a shoe, and the shoe sole comprises a bearing component body and a tactile node element body. A limiting protruding part is arranged at the connecting position between the upper end part and the lower end part, a plurality of first tooth grooves are formed in the upper surface and the lower surface of the limiting protruding part, and second tooth grooves matched with the first tooth grooves are formed in the inner surface of a limiting groove. At the moment, a limiting protruding part slides to abut against the inner surface of a limiting groove, and a first tooth groove and a second tooth groove are matched and engaged, so that the possibility that external water enters the bearing component body through a penetrating groove body is avoided, and the stability when the tactile node element body is connected with the penetrating groove body is improved; the magnets used for massage and magnet therapy on the acupuncture points of the foot sole are arranged in the shoe sole, and the stimulation and massage effect on the acupuncture points of the foot sole is enhanced through the arranged magnets.

Description

Technical Field

[0001] This invention application relates to the technical field of shoes, and in particular to a sole and shoe having a load-bearing component and a tactile node element. Background Technology

[0002] Existing massage shoes or insoles typically feature massage bumps of a fixed height and pattern on the upper surface of the sole. These bumps apply constant pressure to specific acupoints or areas on the sole to provide a massage effect. However, this design has significant drawbacks: because the height and position of the massage bumps are fixed during manufacturing, they are poorly adaptable to individual differences in foot bone structure, arch height, and pressure habits among users. For some users, the fixed bumps may cause a stinging sensation if they are too high, or the massage effect may be weak if they are too low, resulting in a poor user experience and poor fit. Furthermore, during walking, the contact force and position between the foot and the sole dynamically change. The fixed bumps and the waterproof performance of the sole are poor, making them unable to respond to these changes. This results in a weak and inflexible massage effect, thus requiring further improvement. Summary of the Invention

[0003] To address the above problems, this invention provides a shoe sole and shoe with a load-bearing component and tactile node elements, employing the following technical solution: A shoe sole having a load-bearing component and a tactile node element, the shoe sole comprising a load-bearing component body and a tactile node element body, the load-bearing component body having a plurality of through groove bodies, the through groove bodies having an upper through groove and a lower through groove, the connection portion between the upper through groove and the lower through groove having a limiting groove, the inner diameter of the limiting groove matching the inner diameter of the through groove body, the load-bearing component body having a first wear-resistant layer in the area of ​​the heel and the ball of the foot for contacting the ground; The device comprises several tactile node elements, each equidistant from its adjacent counterparts. Each tactile node element has an upper end and a lower end, with a limiting protrusion at the connection between the upper and lower ends. The limiting protrusion is slidably connected to the inner wall surface of the limiting groove. Both the upper and lower surfaces of the limiting protrusion have several first toothed grooves, and the inner surface of the limiting groove has second toothed grooves that match the first toothed grooves. The tactile node element is installed inside the through-groove. When the lower end of the tactile node element is in contact with the ground and subjected to force, the limiting protrusion slides against the limiting groove. On the inner surface, the first tooth groove and the second tooth groove are matched and meshed to prevent water from entering the body of the bearing component and to improve the stability when the tactile node element body is connected to the through groove body. The diameter of the limiting protrusion is matched with the inner diameter of the limiting groove. The inner diameter of the upper end is matched with the size of the upper through groove. The inner diameter of the lower end is matched with the inner diameter of the lower through groove. A cavity is opened on the top surface of the upper end. The inner diameter of the cavity gradually decreases from the bottom to the top. A magnet for massaging acupoints on the sole of the foot is provided inside the cavity. By setting a magnet on the tactile node element body, the effect of stimulating and massaging acupoints on the sole of the foot is enhanced. The through-slot body can be used to receive at least a portion of the tactile node element body. The upper and lower ends can move independently within the upper and lower through-slots respectively. With this technical solution, the lower end contacts the ground when walking. When the foot applies pressure to the tactile node element body, causing it to rise, the upper end protrudes from the upper surface of the supporting component body, thereby massaging the sole of the foot. This height-adjustable design can adaptively adjust the height of the tactile node element body according to the individual differences in foot bone structure, arch height, and force application habits of different users. This reduces the problems of traditional fixed-height massage protrusions causing stinging sensation due to being too high or having a weak massage effect due to being too low. It greatly improves the adaptability of the sole to different users. At the same time, during walking, as the contact force and position between the foot and the sole change dynamically, the tactile node element body in different areas slides a different distance in the through-slot body, and the distance the upper end protrudes from the upper surface of the supporting component body also varies. This allows for flexible response to massage different acupoints, achieving dynamic massage, improving the user experience, and making the massage effect more diverse and flexible.

[0004] Preferably, the tactile node element body is a columnar body, and the inner diameter of the limiting groove is larger than the inner diameter of the through groove body. The upper and lower ends have dome-shaped geometric shapes. The upper end has a first diameter, and the lower end has a second diameter. The diameter of the first diameter gradually decreases from the end of the upper end that contacts the ground toward the limiting protrusion. The diameter of the second diameter gradually decreases from the end of the lower end that contacts the user's foot toward the limiting protrusion. The thickness of the limiting protrusion is less than the groove depth of the limiting groove in the height direction. The diameter of the limiting protrusion is larger than the diameters of the upper and lower ends. The limiting protrusion is annular and is integrally formed with the tactile node element body.

[0005] By adopting the above technical solution, the limiting protrusion slides against the vertical surface of the inner wall of the limiting groove, which facilitates the tactile node element body to rise and fall along the height direction in the limiting groove. This allows the tactile node element body to flexibly adjust its height according to the foot conditions of different users and the dynamic changes during walking, improving the adaptability of the sole to different users and the flexibility of the massage effect. The limiting protrusion and the tactile node element body are integrally molded to facilitate their installation in the limiting groove.

[0006] Preferably, the bearing component body includes an upper bearing part and a lower bearing part. The lower bearing part is provided with a dovetail groove, and the upper bearing part is provided with a flange that is snapped into the dovetail groove. The vertical cross-sectional shape of the flange can be either a trapezoidal shape or a triangular shape. The dovetail groove and the flange are snapped into each other to increase the stability of the connection between the upper bearing part and the lower bearing part and to achieve rapid positioning when the two are bonded.

[0007] Preferably, a second wear-resistant layer is also fixedly connected to the bottom end of the lower end. The cross-sectional shape of the second wear-resistant layer includes either a square or a triangle. By setting the second wear-resistant layer, the durability and support of the load-bearing component body are increased.

[0008] Preferably, both the upper and lower end surfaces are fitted with sealing rings, which further reduces the possibility of external water entering the shoe through the through-groove body.

[0009] Preferably, the first radial distance of the upper end is greater than the depth of the upper through groove, the second radial distance of the lower end is greater than the depth of the lower through groove, and the distance between the upper or lower end of the tactile node element body and the surface of the supporting member body is different for adjacent tactile node element bodies. When the tactile node element bodies are worn, at least a portion of the upper and lower ends undergo elastic deformation.

[0010] By adopting the above technical solution, the upper or lower ends of each tactile node element protrude at different heights from the surface of the supporting component, thus distributing them at different positions on the sole. Different heights of protrusion provide different massage feedback effects, which can be set according to the massage requirements of the foot. This allows for better adaptation to individual differences in foot bone structure, arch height, and pressure habits among different users. For different users' feet, the upper ends at different heights can precisely apply appropriate pressure to specific acupoints or areas on the sole, avoiding the problem of pain caused by massage points being too high or weak massage effects due to points being too low, thereby improving the adaptability and comfort of the massage. Simultaneously, during walking, when the lower ends at different heights contact the ground, the tactile node elements can rise more flexibly according to the dynamic changes in the contact force and position between the foot and the sole, achieving diversified massage effects and enhancing the user experience.

[0011] The upper and lower ends of the tactile node element body are made of a material of first density, and the supporting component body is made of a material of second density. The material density of the tactile node element body is less than that of the supporting component body. When worn, this technical solution can increase the massage intensity of the tactile node element body on the acupoints on the sole of the foot by the different elastic deformation of the tactile node element body and the supporting component body.

[0012] A shoe includes a sole body and an upper body mounted on the sole body, wherein the sole body is the sole of the present invention.

[0013] Preferably, a plurality of first ventilation holes are provided through the top of the outer surface of the shoe upper, and the shape of the first ventilation holes includes a circular shape, thereby increasing the breathability of the shoe.

[0014] Preferably, the sidewall of the shoe upper body has a plurality of first side grooves, and a second side groove for ventilation is provided through the end of the first side groove away from the sole. The ventilation of the shoe can be further increased by setting the second side groove.

[0015] Preferably, the sole body is provided with an insole. By adopting the above technical solution, the wearing comfort is further improved. The insole can be installed on the sole body by heat pressing or adhesive bonding.

[0016] In summary, this application has the following beneficial effects: 1. By providing a limiting protrusion at the connection between the upper and lower ends, and by providing several first toothed grooves on the upper and lower surfaces of the limiting protrusion, the upper and lower ends gradually taper radially inward toward the limiting protrusion. The limiting protrusion is slidably connected to the inner wall surface of the limiting groove. The inner surface of the limiting groove is provided with a second toothed groove that matches the first toothed groove. The tactile node element body is installed inside the through groove body. When the lower end of the tactile node element body contacts the ground and is subjected to force, the limiting protrusion slides against the inner surface of the limiting groove. The first toothed groove and the second toothed groove match and mesh, thereby preventing the possibility of external water entering the bearing component body through the through groove body and improving the stability of the connection between the tactile node element body and the through groove body. 2. A cavity is provided on the top surface of the upper end, the inner diameter of the cavity gradually narrows from the bottom to the top, and a magnet for massaging and magnetically treating acupoints on the soles of the feet is provided inside the cavity. The effect of stimulating and massaging acupoints on the soles of the feet is enhanced by setting a magnet on the tactile node element body. 3. By varying the height of the upper or lower end of the tactile node element from the surface of the supporting component, the upper end, distributed at different locations on the sole and protruding at different heights, can provide different massage feedback effects. This can be set according to the massage requirements of the foot, thus better adapting to individual differences in foot bone structure, arch height, and pressure habits of different users. For different users' feet, the upper end at different heights can accurately apply appropriate pressure to specific acupoints or areas on the sole of the foot, avoiding the problem of stinging sensation caused by a fixed massage point that is too high or weak massage effect caused by a fixed massage point that is too low, thus improving the adaptability and comfort of the massage. Attached Figure Description

[0017] Figure 1 This is a bottom view of the structure of an embodiment of the present invention; Figure 2 This is a schematic diagram of the cross-sectional structure of the present invention along the b-b1 axis; Figure 3 This is a schematic diagram of the cross-sectional structure of the present invention along the a-a1 axis; Figure 4 This is the present invention. Figure 3 Enlarged structural diagram of section A in the middle; Figure 5 This is a schematic diagram of the connection structure between the tactile node element body, the limiting protrusion, and the second wear-resistant layer in this invention. Figure 1 ; Figure 6 This is a schematic diagram of the connection structure between the tactile node element body, the limiting protrusion, and the second wear-resistant layer in this invention. Figure 2 ; Figure 7 This is a schematic diagram of the cross-sectional structure of the tactile node element body of the present invention; Figure 8 This is a schematic diagram showing the connection relationship between the tactile node element body and the supporting component body of the present invention; Figure 9 This is a schematic diagram of the exploded structure of the shoe in this invention.

[0018] Explanation of reference numerals in the attached drawings: 1. Bearing component body; 11. Through groove body; 101. First wear-resistant layer; 111. Upper through groove; 112. Lower through groove; 12. Limiting groove; 13. Upper bearing part; 14. Lower bearing part; 15. Dovetail groove; 16. Flange; 17. Sealing ring; 18. Insole; 2. Tactile node element body; 211. Cavity; 21. Upper end; 21a. First diameter; 21d. First radial distance; 22. Lower end; 22a. Second diameter; 22d. Second radial distance; 23. Limiting protrusion; 231. First toothed groove; 24. Second toothed groove; 25. Second wear-resistant layer; 26. Magnet; 3. Upper body; 31. First side groove; 32. Second side groove; 33. Ventilation hole. Detailed Implementation

[0019] The following combination Figures 1-9 This application will be described in further detail below.

[0020] Reference Figure 1 and Figure 2 This application discloses a shoe sole having a load-bearing component and a tactile node element. The shoe sole includes a load-bearing component body 1 and a tactile node element body 2. The load-bearing component body 1 has a plurality of through groove bodies 11. The through groove body 11 has an upper through groove 111 and a lower through groove 112. A limiting groove 12 is provided at the connection between the upper through groove 111 and the lower through groove 112. The inner diameter of the limiting groove 12 matches the inner diameter of the through groove body 11. The load-bearing component body 1 has a first wear-resistant layer 101 in the area of ​​the heel and the ball of the foot that is in contact with the ground. The device comprises several tactile node element bodies 2. When a user walks, runs, or engages in other activities, these tactile node element bodies 2 can provide tactile feedback to the feet. Preferably, each tactile node element body 2 is equidistant from its adjacent counterparts. Figure 5 As shown, the tactile node element body 2 has an upper end 21 and a lower end 22, and a limiting protrusion 23 is provided at the connection between the upper end 21 and the lower end 22. In some embodiments, the tactile node element body 2 is fixedly connected inside the bearing member body 1, and the elastic deformation of the materials of the tactile node element body 2 and the bearing member body 1 itself is used to massage the acupoints on the soles of the user's feet, resulting in a good massage effect. Preferably, in other embodiments, refer to... Figure 7 and Figure 8As shown, the upper and lower surfaces of the limiting protrusion 23 are provided with a plurality of first toothed grooves 231, and the inner surface of the limiting groove 12 is provided with second toothed grooves 24 that match the first toothed grooves 231. When the tactile node element body 2 is installed inside the through groove body 11, the first toothed grooves 231 and the second toothed grooves 24 are matched and engaged to prevent water from entering the bearing member body 1 and to improve the stability of the connection between the tactile node element body 2 and the through groove body 11. The diameter of the limiting protrusion 23 matches the inner diameter of the limiting groove 12, the inner diameter of the upper end 21 matches the size of the upper through groove 111, and the inner diameter of the lower end 22 matches the size of the lower through groove 111. The inner diameter of the groove 112 is matched, and the side edge of the limiting protrusion 23 is slidably connected to the inner wall of the limiting groove 12. That is, the tactile node element body 2 can move freely in the limiting groove 12. During the user's running or walking, the upper end 21 or lower end 22 of each tactile node element body 2 protrudes at different heights from the surface of the bearing member body 1, so as to be distributed at different positions on the sole of the shoe. Different height protrusions can provide different massage effect feedback. The top surface of the upper end 21 is provided with a cavity 211. The inner diameter of the cavity 211 gradually decreases from the bottom to the top. A magnet 26 for massaging and magnetically treating acupoints on the sole of the foot is fixed inside the cavity 211. Reference Figure 2 and Figure 3 As shown, the through slot body 11 can be used to receive at least a portion of the tactile node element body 2, wherein the upper end 21 and the lower end 22 can move independently inside the upper through slot 111 and the lower through slot 112 that are respectively matched therewith.

[0021] Furthermore, in some embodiments, the tactile node element body 2 is a columnar body, which may have a near-constant diameter corresponding to a cylindrical geometry; however, in other embodiments, the tactile node element body 2 may have a diameter that varies along its length or height, as shown in the reference. Figure 6As shown, the inner diameter of the limiting groove 12 is larger than the inner diameter of the through groove body 11. The inner diameters of the upper through groove 111 and the lower through groove 112 are constant. The upper end 21 and the lower end 22 have dome-shaped geometries. The upper end 21 has a first diameter 21a, and the lower end 22 has a second diameter 22a. The diameter of the first diameter 21a gradually decreases from the end of the upper end 21 that contacts the ground towards the limiting protrusion 23, and the diameter of the second diameter 22a gradually decreases from the end of the lower end 22 that contacts the user's foot towards the limiting protrusion 23. The approximately conical shape of the upper end 21 and the lower end 22, combined with the constant inner diameter of the through groove body 11, allows for better adjustment during actual use. The part 22 enters the through groove body 11 at different depths. The sides of the upper end 21 and the lower end 22 are in closer contact with the inner wall of the through groove body 11, thereby further improving the waterproof effect of the sole. The thickness of the limiting protrusion 23 is less than the groove depth of the limiting groove 12 in the height direction. The diameter of the limiting protrusion 23 is greater than the first diameter 21a of the upper end 21 and the second diameter 22a of the lower end 22. The limiting protrusion 23 is ring-shaped and is restricted inside the limiting groove 12. The tactile node element body 2 will not fall off from the bearing member body 1 during walking or running or other walking activities. The limiting protrusion 23 and the tactile node element body 2 are integrally formed, which makes it convenient for the manufacturer to install it into the through groove body 11 of the bearing member body 1.

[0022] Furthermore, refer to Figure 3 and Figure 4 As shown, in some embodiments, the supporting component body 1 includes an upper supporting part 13 and a lower supporting part 14. The lower supporting part 14 is provided with a dovetail groove 15, and the upper supporting part 13 is provided with a flange 16 that is snapped into the dovetail groove 15. The vertical cross-sectional shape of the flange 16 can be either a trapezoidal shape or a triangular shape. The snap-fit ​​connection between the dovetail groove 15 and the flange 16 increases the stability of the connection between the upper supporting part 13 and the lower supporting part 14 and enables rapid positioning when the two are bonded together.

[0023] Furthermore, refer to Figure 1 As shown, in some embodiments, a second wear-resistant layer 25 is also fixedly connected to the bottom end of the lower end 22, and the cross-sectional shape of the second wear-resistant layer 25 includes either a square shape or a triangular shape.

[0024] Furthermore, refer to Figure 5As shown, in some embodiments, sealing rings 17 are fitted on the side surfaces of the upper end 21 and the lower end 22. The sealing rings 17 can be made of elastic rubber. By setting the sealing rings 17, the possibility of external water entering the shoe is further reduced.

[0025] Furthermore, refer to Figure 5 As shown, in some embodiments, the first radial distance 21d of the upper end 21 is greater than the depth of the upper through groove 111, the second radial distance 22d of the lower end 22 is greater than the depth of the lower through groove 112, and the protrusion distance between the upper end 21 or the lower end 22 of adjacent tactile node element bodies 2 and the surface of the bearing member body 1 is different. When several tactile node element bodies 2 are worn, at least a portion of the upper end 21 and the lower end 22 undergo elastic deformation. By adopting the above technical solution, the upper end 21 or lower end 22 of each tactile node element body 2 protrudes at different heights from the surface of the supporting component body 1, thus distributing them at different positions on the sole. Different heights of protrusion provide different massage feedback effects, which can be set according to the massage requirements of the foot. This allows for better adaptation to individual differences in foot bone structure, arch height, and pressure habits among different users. For different users' feet, the upper ends at different heights can precisely apply appropriate pressure to specific acupoints or areas on the sole, avoiding the problem of stinging sensation due to a fixed massage point being too high or weak massage effect due to being too low, thereby improving the adaptability and comfort of the massage. Simultaneously, during walking, when the lower ends 22 at different heights contact the ground, the tactile node element body 2 can rise more flexibly according to the dynamic changes in the contact force and position between the foot and the sole, achieving diversified massage effects and enhancing the user experience. Furthermore, the upper end 21 and lower end 22 of the tactile node element body 2 are made of a material of first density, and the supporting member body 1 is made of a material of second density. The material density of the tactile node element body 2 is less than that of the supporting member body 1. When worn, this technical solution can increase the massage intensity of the tactile node element body 2 on the acupoints on the sole of the foot by the different elastic deformation of the tactile node element body 2 and the supporting member body 1.

[0026] Then, in other implementation schemes of a shoe, refer to Figures 2 to 9As shown, the shoe uses a sole body comprising a support component body 1 and tactile node element bodies 2. The sole body and the upper body 3 constitute a shoe, including but not limited to slippers, sandals, hiking shoes, running shoes, and other types of shoes. The upper body 3 is bonded to the sole using a hot-pressing process. The support component body 1 has several through-slot bodies 11, each having an upper through-slot 111 and a lower through-slot 112. A limiting groove 12 is provided at the connection between the upper through-slot 111 and the lower through-slot 112. The inner diameter of the limiting groove 12 matches the inner diameter of the through-slot body 11. Several tactile node element bodies 2 are provided. When the user walks, runs, or performs other activities, several tactile node element bodies 2 located at different positions on the support component body 1 can provide tactile feedback to the foot. Preferably, each tactile node element body 2 is equidistant from adjacent tactile node element bodies 2. Figure 8 and Figure 9 As shown, the tactile node element body 2 has an upper end 21 and a lower end 22, and a limiting protrusion 23 is provided at the connection between the upper end 21 and the lower end 22. (Refer to...) Figure 7 and Figure 8 As shown, the upper and lower surfaces of the limiting protrusion 23 are provided with a plurality of first toothed grooves 231, and the inner surface of the limiting groove 12 is provided with second toothed grooves 24 that match the first toothed grooves 231. When the tactile node element body 2 is installed inside the through groove body 11, the first toothed grooves 231 and the second toothed grooves 24 are matched and engaged to prevent water from entering the bearing member body 1 and to improve the stability of the connection between the tactile node element body 2 and the through groove body 11. The diameter of the limiting protrusion 23 matches the inner diameter of the limiting groove 12, the inner diameter of the upper end 21 matches the size of the upper through groove 111, and the inner diameter of the lower end 22 matches the size of the lower through groove 111. The inner diameter of the groove 112 is matched, and the side edge of the limiting protrusion 23 is slidably connected to the inner wall of the limiting groove 12. That is, the tactile node element body 2 can move freely in the limiting groove 12. During the user's running or walking, the upper end 21 or lower end 22 of each tactile node element body 2 protrudes at different heights from the surface of the supporting component body 1, so as to be distributed at different positions on the sole of the shoe. Different height protrusions can provide different massage effect feedback. The top surface of the upper end 21 is provided with a cavity 211. The inner diameter of the cavity 211 gradually decreases from the bottom to the top. A magnet 26 for massaging and magnetically treating acupoints on the sole of the foot is fixed inside the cavity 211.

[0027] In some embodiments, refer to Figure 9As shown, a plurality of first ventilation holes 33 are provided through the top of the outer surface of the shoe upper body 3. The shape of the first ventilation holes 33 includes a circular shape. A plurality of first side grooves 31 are provided on the side wall of the shoe upper body 3. In some embodiments, the first side grooves 31 can be different shapes such as strip grooves or circular grooves. A second side groove 32 for ventilation is provided through the end of the first side groove 31 away from the sole, thereby increasing the breathability of the shoe.

[0028] Furthermore, an insole 18 is provided on the sole body to further improve wearing comfort. The insole 18 can be installed on the upper surface of the load-bearing component body 1 by heat pressing or adhesive fixation.

[0029] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A shoe sole having a load-bearing component and a tactile node element, the shoe sole comprising a load-bearing component body (1) and a tactile node element body (2), characterized in that: The bearing component body (1) has a plurality of through slot bodies (11). The through slot body (11) has an upper through slot (111) and a lower through slot (112). A limiting slot (12) is provided at the connection between the upper through slot (111) and the lower through slot (112). The inner diameter of the limiting slot (12) matches the inner diameter of the through slot body (11). The bearing component body (1) has a first wear-resistant layer (101) in the area where it contacts the ground at the heel and the ball of the foot. A plurality of tactile node element bodies (2) are provided, wherein each tactile node element body (2) is equidistant from the adjacent tactile node element body (2). Each tactile node element body (2) has an upper end (21) and a lower end (22). A limiting protrusion (23) is provided at the connection between the upper end (21) and the lower end (22). The limiting protrusion (23) is slidably connected to the inner wall surface of the limiting groove (12). A plurality of first toothed grooves (231) are provided on both the upper and lower surfaces of the limiting protrusion (23). A second toothed groove (24) matching the first toothed grooves (231) is provided on the inner surface of the limiting groove (12). When the tactile node element body (2) is installed inside the through groove body (11), The first tooth groove (231) and the second tooth groove (24) are matched and engaged to prevent water from entering the body of the bearing component (1) and to improve the stability when the tactile node element body (2) is connected to the through groove body (11). The diameter of the limiting protrusion (23) is matched with the inner diameter of the limiting groove (12). The inner diameter of the upper end (21) is matched with the size of the upper through groove (111). The inner diameter of the lower end (22) is matched with the inner diameter of the lower through groove (112). A cavity (211) is opened on the top surface of the upper end (21). The inner diameter of the cavity (211) gradually decreases from the bottom to the top. A magnet (26) for massaging and magnetically treating acupoints on the soles of the feet is provided inside the cavity (211). The through slot body (11) can be used to receive at least a portion of the tactile node element body (2), wherein the upper end (21) and the lower end (22) can move independently inside the upper through slot (111) and the lower through slot (112) that are respectively matched therewith.

2. A shoe sole having a load-bearing component and a tactile node element according to claim 1, characterized in that: The tactile node element body (2) is a columnar body, and the inner diameter of the limiting groove (12) is larger than the inner diameter of the through groove body (11). The upper end (21) and the lower end (22) have dome-shaped geometry. The upper end (21) has a first diameter (21a), and the lower end (22) has a second diameter (22a). The diameter of the first diameter (21a) gradually decreases from the end of the upper end (21) that contacts the ground toward the limiting protrusion (23). The diameter of the diameter (22a) gradually decreases from the end of the lower end (22) that contacts the user's foot toward the limiting protrusion (23). The thickness of the limiting protrusion (23) is less than the groove depth of the limiting groove (12) in the height direction. The diameter of the limiting protrusion (23) is greater than the diameter of the upper end (21) and the lower end (22). The limiting protrusion (23) is annular and is integrally formed with the tactile node element body (2).

3. A shoe sole having a load-bearing component and a tactile node element according to claim 2, characterized in that: The main body (1) of the bearing component includes an upper bearing part (13) and a lower bearing part (14). The lower bearing part (14) is provided with a dovetail groove (15). The upper bearing part (13) is provided with a flange (16) that is snapped into the dovetail groove (15). The vertical cross-sectional shape of the flange (16) can be either a trapezoidal shape or a triangular shape. The flange (16) is snapped into the dovetail groove (15) to increase the stability of the connection between the upper bearing part (13) and the lower bearing part (14) and to achieve rapid positioning when the two are bonded together.

4. A shoe sole having a load-bearing component and a tactile node element according to claim 3, characterized in that: The lower end (22) is also fixedly connected to a second wear-resistant layer (25), the cross-sectional shape of which includes either a square or a triangle.

5. A shoe sole having a load-bearing component and a tactile node element according to claim 4, characterized in that: Both the upper end (21) and the lower end (22) are fitted with sealing rings (17), which further reduce the possibility of external water entering the shoe.

6. A shoe sole having a bearing member and a tactile node element according to claim 5, characterized in that: the first radial distance (21d) of the upper end (21) is greater than the depth of the upper through groove (111), the second radial distance (22d) of the lower end (22) is greater than the depth of the lower through groove (112), and the protrusion distance between the upper end (21) or the lower end (22) of the adjacent tactile node element body (2) and the surface of the bearing member body (1) is different, and at least a portion of the upper end (21) and the lower end (22) of the plurality of tactile node element bodies (2) undergoes elastic deformation when worn.

7. A shoe, characterized in that: It includes a sole body and an upper body (3) mounted on the sole body, wherein the sole body is a sole with a load-bearing member and a tactile node element as described in claim 1.

8. A shoe according to claim 7, characterized in that: The top of the outer surface of the shoe upper body (3) is provided with a plurality of first ventilation holes (33), the shape of which includes a circle.

9. A shoe according to claim 7, characterized in that: The upper body (3) has several first side grooves (31) on its side wall, and a second side groove (32) for ventilation is provided at the end of the first side groove (31) away from the sole.

10. A shoe according to claim 7, characterized in that: The sole body is provided with an insole (18).

Images