CN221749733U - A magnetic levitation power-assisted balance shoe with massage function - Google Patents

Abstract

The utility model discloses a magnetic suspension power-assisted balance shoe with a massage function, which comprises a vamp, wherein the vamp is made of breathable net cotton, and further comprises a composite sole with a cavity structure, a magnetic suspension structure for providing walking power for a user and a massage structure for supporting and massaging the sole of the user, the composite sole is assembled at the lower part of the vamp, the magnetic suspension structure is arranged in the composite sole, the massage structure and the magnetic suspension structure are arranged in a staggered way, the multifunctional sole has the advantages that the multifunctional sole is composed of a multi-stage composite structure, the inner part of the multifunctional sole is provided with a cavity structure, so that the weight of the sole is reduced while installation space is provided for the magnetic suspension structure and the massage structure, the magnetic suspension structure is arranged, assistance can be provided for a user through magnetic force in the walking process of the user, the walking burden of the user is reduced, and the massage structure is arranged, so that the sole of the user can be supported, and the foot of the user can be massaged in the walking process.

Description

A magnetic levitation power-assisted balance shoe with massage function

Technical Field

The utility model relates to the technical field of sports shoes, in particular to a magnetic suspension power-assisted balancing shoe with a massage function.

Background Art

In the prior art, shoes are daily necessities for people, and they bear the functions of warmth, protection, and beauty. As the indispensable soles of sports shoes, their lightness and beauty can no longer meet people's requirements, and their multifunctionality is increasingly attracting the attention of consumers. The cushioning and shock absorption performance of sports shoes is one of the main performance indicators for measuring sports shoes. The shock absorption performance mainly refers to the ability to absorb the impact of the foot and thus protect the foot. The shock absorption effect of sports shoes directly affects their wearing comfort and sports effect, which is particularly prominent in the field of competitive sports. A pair of shoes with good shock absorption effect and comfortable wearing can not only protect the athlete's feet, but also provide assistance for the athlete's legs. At present, most sports shoes use high-elastic foam plastics as the basic material for sole cushioning and shock absorption. Although high-elastic foam plastics are a very effective shock absorption material, while absorbing vibration, a lot of starting energy will also be absorbed and lost. At present, most sports shoes only rely on the buffering of rebound force materials and air cushions, and the rebound and shock absorption effects are still lacking, and they cannot provide assistance for the wearer's legs.

The Chinese utility model patent with application number: 201720420890.0 discloses a multi-shock-absorbing sports shoe and its sole structure, including a midsole and an outsole, wherein the midsole includes a heel portion and a forefoot portion, and the outsole includes a heel portion and a forefoot portion, and an elastic rubber portion is further provided between the heel portion of the midsole and the heel portion of the outsole, and the elastic rubber portion includes more than two rubber columns, wherein the middle portion of one of the rubber columns is provided with a first through hole extending longitudinally, and the middle portion of another of the rubber columns is provided with a second through hole extending longitudinally; wherein a shock-absorbing spring is provided in the first through hole, an upper magnet is provided at the upper end of the second through hole, and a lower magnet is provided at the lower end, wherein the upper magnet and the lower magnet are arranged at intervals, and the magnetic poles of the adjacent surfaces of the upper magnet and the lower magnet are the same. However, this multi-shock-absorbing sports shoe cannot provide assistance to the user during the user's walking process, and therefore cannot effectively reduce the user's walking burden, and cannot massage the user's feet to relieve the user's foot fatigue.

Utility Model Content

The utility model aims to provide a magnetic suspension power-assisted balancing shoe with a massage function.

In order to achieve the above purpose, the technical solution proposed by the utility model is:

A magnetic levitation power-assisted balancing shoe with a massage function comprises an upper made of breathable mesh cotton, a composite sole with a cavity structure, a magnetic levitation structure for providing walking assistance to a user, and a massage structure for performing a top-hold massage on the sole of the user's foot, the composite sole being mounted on the lower part of the upper, the magnetic levitation structure being arranged inside the composite sole, and the massage structure and the magnetic levitation structure being arranged in a staggered manner.

The composite sole includes an insole layer, a bottom shoe layer and an edging layer. The insole layer is arranged at the lower part of the upper and its periphery is fixedly connected to the upper. The bottom shoe layer is arranged below the insole layer and a distance is left between the insole layer and the bottom shoe layer. The edging layer is arranged at the periphery between the insole layer and the bottom shoe layer and is fixedly connected to the insole layer and the bottom shoe layer. The edging layer and the interior of the insole layer and the bottom shoe layer form an installation cavity.

It also includes anti-skid patterns, which are arranged on the bottom of the sole layer and fixedly connected to the sole layer.

The magnetic levitation structure includes shock-absorbing air cushions and magnets. The shock-absorbing air cushions are provided with two groups. Each group of the shock-absorbing air cushions is composed of a number of air cushions arranged at intervals in a mounting cavity. The two groups of the shock-absorbing air cushions are relatively arranged between the insole layer and the shoe bottom layer through a mounting structure, and a gap is left between the two groups of the shock-absorbing air cushions. Two groups of magnets are provided corresponding to the two groups of the shock-absorbing air cushions. The two groups of magnets are respectively arranged on the opposite sides of the two groups of the shock-absorbing air cushions and are embedded and connected with the corresponding shock-absorbing air cushions through grooves. The same poles of the two groups of magnets are arranged relatively to each other, and a gap is left between the two groups of magnets.

The mounting structure includes a mounting rubber pad and a mounting foam pad, the mounting rubber pad is arranged on the upper part of the shoe bottom layer and fixedly connected to the shoe bottom layer, the shock-absorbing air pad located below is arranged on the upper part of the mounting rubber pad and fixedly connected to the mounting rubber pad, the mounting foam pad is arranged at the bottom of the insole layer and fixedly connected to the insole layer, the shock-absorbing air pad located above is arranged at the bottom of the mounting foam pad and fixedly connected to the mounting foam pad, and the magnetic levitation structure is arranged in the mounting cavity through the mounting structure.

The massage structure includes a massage base block, a connecting spring and a supporting column. The massage base blocks are provided with two groups. The two groups of massage base blocks are arranged in parallel and spaced apart and a receiving groove is provided on the opposite side of the two groups of massage base blocks. The massage base block located at the top is fixedly connected to the mounting foam pad and the massage base block located at the bottom is fixedly connected to the mounting rubber pad. The connecting spring is arranged between the two groups of massage base blocks and its two ends are respectively fixedly connected to the two groups of massage base blocks. The connecting spring is located in the supporting groove of the massage base block. The supporting column is arranged between the two groups of massage base blocks and its lower end is fixedly connected to the massage base block located at the bottom. The supporting column is located on the inner side of the connecting spring and a distance is left between its upper end and the massage base block located at the top.

The massage structure is provided with a plurality of groups, and the plurality of groups of massage structures are arranged in the installation cavity at intervals and staggered with the magnetic suspension structure. The massage structure and the magnetic suspension structure together form a double buffer structure.

It also includes binding shoelaces and a shoelace tightener. The binding shoelaces are arranged on the upper part of the shoe upper through shoelace holes. The shoelace tightener is arranged on the upper part of the shoe upper and fixedly connected to the shoe upper. The shoelace tightener is connected to the end of the binding shoelaces.

It also includes a toe protection plate, which is arranged at the connection between the head of the upper and the composite sole and is fixedly connected to the upper and the composite sole.

It also includes a heel stabilizing plate, which is arranged at the root of the upper and fixedly connected to the upper. The upper part of the heel stabilizing plate protrudes from the upper and the lower part of the heel stabilizing plate is fixedly connected to the composite sole.

The beneficial effects of the utility model are:

The composite sole is composed of a multi-level composite structure, the interior of which is arranged as a cavity structure, thereby providing installation space for the magnetic levitation structure and the massage structure while reducing the weight of the sole. The magnetic levitation structure can provide assistance to the user through magnetic force during the user's walking process, thereby reducing the user's walking burden. The massage structure can cooperate with the magnetic levitation structure to buffer the user's foot pressure and provide support for the user's sole during the user's walking process, thereby massaging the user's feet during walking to relieve the user's foot fatigue.

BRIEF DESCRIPTION OF THE DRAWINGS

Figure 1 is a schematic diagram of the overall structure of the utility model;

Fig. 2 is a cross-sectional view of the cooperation between the composite sole and the upper of the utility model;

FIG3 is a schematic diagram of the cooperation between the anti-skid pattern and the bottom layer of the shoe according to the present invention;

FIG. 4 is a cross-sectional view of the massage structure of the utility model.

In the figure: 1. Upper; 2. Insole layer; 3. Bottom layer; 4. Edge layer; 5. Anti-slip pattern; 6. Shock-absorbing air cushion; 7. Magnet; 8. Install rubber pad; 9. Install foam pad; 10. Massage base block; 11. Connecting spring; 12. Top support column; 13. Binding shoelaces; 14. Shoelace tightener; 15. Toe protection plate; 16. Heel stabilizer.

DETAILED DESCRIPTION

The utility model is further described in detail below in conjunction with the accompanying drawings.

A magnetic levitation power-assisted balancing shoe with a massage function comprises an upper 1, which is made of breathable mesh cotton, a composite sole with a cavity structure, a magnetic levitation structure for providing walking assistance to a user, and a massage structure for holding and massaging the sole of the user's foot. The composite sole is assembled at the lower part of the upper 1, the magnetic levitation structure is arranged inside the composite sole, and the massage structure and the magnetic levitation structure are staggered. The overall structural schematic diagram of the utility model is shown in Figure 1.

The composite sole comprises an insole layer 2, a bottom layer 3 and an edge layer 4, wherein the insole layer 2 is arranged at the lower part of the upper 1 and its periphery is fixedly connected to the upper 1, the bottom layer 3 is arranged below the insole layer 2 and a spacing is left between the insole layer 2, the edge layer 4 is arranged at the periphery between the insole layer 2 and the bottom layer 3 and is fixedly connected to the insole layer 2 and the bottom layer 3, and the edge layer 4 and the inside of the insole layer 2 and the bottom layer 3 form an installation cavity, and the composite sole is formed by the insole layer 2, the bottom layer 3 and the edge layer 4 to form a composite sole with a cavity structure, wherein the insole layer 2 is used as the upper surface layer of the sole, the bottom layer 3 is used as the bottom surface layer of the sole, and the edge layer 4 is used to connect the insole layer 2 and the bottom layer 3 to form a composite sole with a cavity structure, and the installation cavity is used to provide an installation space for a magnetic levitation structure and a massage structure, and a cross-sectional view of the composite sole and the upper of the utility model is shown in Figure 2.

It also includes anti-skid patterns 5, which are arranged at the bottom of the sole layer 3 and fixedly connected to the sole layer 3, wherein the anti-skid patterns 5 are used as anti-skid structures at the bottom of the sole layer 3, which can increase the friction between the sole layer 3 and the ground to improve the anti-skid property of the shoe. The schematic diagram of the cooperation between the anti-skid patterns 5 and the sole layer 3 of the utility model is shown in Figure 3.

The magnetic suspension structure includes a shock-absorbing air cushion 6 and a magnet 7. The shock-absorbing air cushion 6 is provided with two groups. Each group of shock-absorbing air cushion 6 is composed of a plurality of air cushions arranged in a spaced-apart installation cavity. The two groups of shock-absorbing air cushions 6 are relatively arranged between the insole layer 2 and the bottom layer 3 through the installation structure, and a gap is left between the two groups of shock-absorbing air cushions 6. Two groups of magnets 7 are provided corresponding to the two groups of shock-absorbing air cushions 6. The two groups of magnets 7 are respectively arranged on the opposite side of the two groups of shock-absorbing air cushions 6 and are embedded and connected with the corresponding shock-absorbing air cushions 6 through grooves. The same poles of the two groups of magnets 7 are arranged relatively and a gap is left between the two groups of magnets 7. The magnetic suspension structure is provided with the shock-absorbing air cushion 6 and the magnet 7. They cooperate to form a magnetic levitation structure in the installation cavity, thereby providing assistance to the user's feet during the user's movement and ensuring that the user's feet are evenly stressed. The shock-absorbing air cushion 6 is used to provide installation support for the magnet 7 and serve as an air cushion structure in the installation cavity to enhance the cushioning and shock-absorbing capabilities of the sole. The magnet 7 is used to form a magnetic levitation structure in the installation cavity together with the shock-absorbing air cushion 6, and the mutual force between them can provide assistance to the user's feet during the user's movement. Since the two groups of magnets 7 have a mutual repulsive force, it can be ensured that the sole is evenly stressed to ensure that the user's feet are evenly stressed.

The mounting structure includes a mounting rubber pad 8 and a mounting foam pad 9. The mounting rubber pad 8 is arranged on the upper part of the bottom layer 3 and is fixedly connected to the bottom layer 3. The shock-absorbing air pad located below is arranged on the upper part of the mounting rubber pad 8 and is fixedly connected to the mounting rubber pad 8. The mounting foam pad 9 is arranged on the bottom of the insole layer 2 and is fixedly connected to the insole layer 2. The shock-absorbing air pad located above is arranged on the bottom of the mounting foam pad 9 and is fixedly connected to the mounting foam pad 9. The magnetic levitation structure is arranged in the mounting cavity through the mounting structure. The mounting structure cooperates with the mounting rubber pad 8 and the mounting foam pad 9 to form a mounting structure in the mounting cavity, thereby providing mounting support for the magnetic levitation structure and the massage structure, wherein the mounting rubber pad 8 is used as the mounting structure on the upper surface of the bottom layer 3, and the mounting foam pad 9 is used as the mounting structure on the lower surface of the insole layer 2. The mounting rubber pad 8 and the mounting foam pad 9 can ensure that the sole is not easy to collapse and improve the shock-absorbing ability of the sole.

The massage structure includes a massage base block 10, a connecting spring 11 and a top holding column 12. The massage base block 10 is provided with two groups. The two groups of massage base blocks 10 are arranged in parallel and spaced apart, and a receiving groove is provided on the opposite side of the two groups of massage base blocks 10. The massage base block 10 located at the top is fixedly connected to the installation foam pad 9 and the massage base block 10 located at the bottom is fixedly connected to the installation rubber pad 8. The connecting spring 11 is arranged between the two groups of massage base blocks 10 and its two ends are respectively fixedly connected to the two groups of massage base blocks 10. The connecting spring 11 is located in the receiving groove of the massage base block 10. The top holding column 12 is arranged between the two groups of massage base blocks 10 and its lower end is fixedly connected to the massage base block 10 located at the bottom. The top holding column 12 is located on the inner side of the connecting spring 11 and a spacing is left between its upper end and the massage base block 10 located at the top. The massage structure cooperates with the massage base block 10, the connecting spring 11 and the top holding column 12 to form a massage structure of the composite sole To massage the user's foot, wherein the massage base block 10 is used to provide installation support for the connecting spring 11 and the supporting column 12, the connecting spring 11 is used to elastically connect the two groups of massage base blocks 10, and the supporting column 12 is used as a supporting structure between the two groups of massage base blocks 10, so as to prevent the two groups of massage base blocks 10 and the connecting spring 11 from getting stuck. When the user applies pressure downward with his foot during the movement, the massage base block 10 located above moves downward under the action of pressure, and the connecting spring 11 provides elastic supporting force for the massage base block 10 located above. When the massage base block 10 located above abuts against the upper end of the supporting column 12, the massage base block 10 stops moving and applies a reaction force to the user's foot, thereby supporting the user's foot, and cooperating with the magnetic suspension structure to massage the user's foot. The cross-sectional view of the massage structure of the utility model is shown in Figure 4.

The massage structure is provided with several groups, and the several groups of massage structures are arranged at intervals in the installation cavity and staggered with the magnetic levitation structure. The massage structure and the magnetic levitation structure together constitute a double buffer structure, wherein the massage structure and the magnetic levitation structure cooperate to form a double buffer structure, which can effectively improve the shock absorption and buffering performance and balance effect of the sole.

It also includes a binding shoelace 13 and a shoelace tightener 14. The binding shoelace 13 is arranged on the upper part of the upper 1 through the shoelace perforations. The shoelace tightener 14 is arranged on the upper part of the upper 1 and is fixedly connected to the upper 1. The shoelace tightener 14 is connected to the end of the binding shoelace 13. The binding shoelace 13 can improve the degree of fit between the user's foot and the upper 1. The shoelace tightener 14 is used to automatically tighten the binding shoelace 13 to achieve the purpose of improving the degree of fit between the foot and the upper 1.

It also includes a toe protection plate 15, which is arranged at the connection between the head of the upper 1 and the composite sole and is fixedly connected to the upper 1 and the composite sole, wherein the toe protection plate 15 is used as a protective structure for the head of the upper 1.

It also includes a heel stabilizer 16, which is arranged at the root of the upper 1 and fixedly connected to the upper 1, the upper part of the heel stabilizer 16 protrudes from the upper 1 and the lower part is fixedly connected to the composite sole, wherein the heel stabilizer 16 is used to improve the stability of the oblique heel.

Working principle:

When a user walks in the power-assisted balancing shoes disclosed in the present technical solution, the magnetic levitation structure installed in the cavity provides auxiliary support force for the user's feet under the action of magnetic force to assist the user's feet during walking, and the massage structure cooperates with the magnetic levitation structure to form a shock-absorbing and buffering structure inside the sole, which can reduce the impact of vibration on the foot and improve the balance of the sole. At the same time, the massage structure massages the sole of the user's foot. The specific principle is that when the foot applies downward pressure, the massage base block 10 located above moves downward under the action of pressure, and the connecting spring 11 provides elastic support force to the massage base block 10 located above. When the massage base block 10 located above abuts against the upper end of the supporting column 12, the massage base block 10 stops moving and applies a reaction force to the user's foot, thereby supporting the user's foot, and cooperating with the magnetic levitation structure to form an imitation acupressure plate structure to massage the user's foot.

The beneficial effect of the utility model is that the composite sole is composed of a multi-level composite structure, the interior of which is arranged as a cavity structure, thereby providing installation space for the magnetic levitation structure and the massage structure while reducing the weight of the sole. The magnetic levitation structure can provide assistance to the user through magnetic force during the user's walking process, thereby reducing the user's walking burden. The massage structure can cooperate with the magnetic levitation structure to buffer the user's foot pressure and provide support for the user's sole during the user's walking process, thereby massaging the user's feet during walking to relieve the user's foot fatigue.

The above is a detailed description of an embodiment of the utility model, but the content is only a preferred embodiment of the utility model and cannot be considered to limit the scope of implementation of the utility model. All equivalent changes and improvements made within the scope of application of the utility model should still fall within the scope of the patent coverage of the utility model.

Claims (10)

1. A magnetic levitation power-assisted balancing shoe with a massage function, comprising an upper (1), wherein the upper (1) is made of breathable mesh cotton, and characterized in that it also comprises a composite sole with a cavity structure, a magnetic levitation structure for providing walking assistance to a user, and a massage structure for holding and massaging the sole of the user's foot, wherein the composite sole is mounted on the lower part of the upper (1), the magnetic levitation structure is arranged inside the composite sole, and the massage structure and the magnetic levitation structure are arranged in a staggered manner. 2. A magnetic levitation assisted balancing shoe with a massage function as claimed in claim 1, characterized in that the composite sole comprises an insole layer (2), a sole layer (3) and an edge layer (4), the insole layer (2) being arranged at the lower part of the upper (1) and having its periphery fixedly connected to the upper (1), the sole layer (3) being arranged below the insole layer (2) and having a spacing therebetween, the edge layer (4) being arranged at the periphery between the insole layer (2) and the sole layer (3) and being fixedly connected to the insole layer (2) and the sole layer (3), and the edge layer (4) and the interior of the insole layer (2) and the sole layer (3) forming an installation cavity. 3. A magnetic levitation assisted balancing shoe with massage function as claimed in claim 2, characterized in that it also includes anti-slip patterns (5), wherein the anti-slip patterns (5) are arranged at the bottom of the sole layer (3) and are fixedly connected to the sole layer (3). 4. A magnetic levitation assisted balance shoe with massage function as described in claim 3, characterized in that the magnetic levitation structure includes a shock-absorbing air cushion (6) and a magnet (7), the shock-absorbing air cushion (6) is provided with two groups, each group of the shock-absorbing air cushion (6) is composed of a plurality of air cushions arranged in a spaced installation cavity, the two groups of the shock-absorbing air cushion (6) are relatively arranged between the insole layer (2) and the shoe bottom layer (3) through the installation structure, and a spacing is left between the two groups of the shock-absorbing air cushion (6), and the magnet (7) is provided with two groups corresponding to the two groups of the shock-absorbing air cushion (6), the two groups of the magnet (7) are respectively arranged on the opposite side of the two groups of the shock-absorbing air cushion (6) and are embedded and connected with the corresponding shock-absorbing air cushion (6) through a groove, and the same poles of the two groups of the magnet (7) are arranged relatively to each other and a spacing is left between the two groups of the magnet (7). 5. A magnetic levitation assisted balancing shoe with a massage function as described in claim 4, characterized in that the mounting structure includes a mounting rubber pad (8) and a mounting foam pad (9), the mounting rubber pad (8) is arranged on the upper part of the shoe bottom layer (3) and is fixedly connected to the shoe bottom layer (3), the shock-absorbing air pad located below is arranged on the upper part of the mounting rubber pad (8) and is fixedly connected to the mounting rubber pad (8), the mounting foam pad (9) is arranged at the bottom of the insole layer (2) and is fixedly connected to the insole layer (2), the shock-absorbing air pad located above is arranged at the bottom of the mounting foam pad (9) and is fixedly connected to the mounting foam pad (9), and the magnetic levitation structure is arranged in the mounting cavity through the mounting structure. 6. A magnetic suspension assisted balancing shoe with massage function as claimed in claim 5, characterized in that the massage structure comprises a massage base block (10), a connecting spring (11) and a supporting column (12), wherein the massage base block (10) is provided with two groups, the two groups of massage base blocks (10) are arranged in parallel and spaced apart, and a receiving groove is provided on the opposite side of the two groups of massage base blocks (10), the massage base block (10) located at the top is fixedly connected to the mounting foam pad (9), and the massage base block (10) located at the bottom is fixedly connected to the mounting rubber pad (8). The connecting spring (11) is arranged between the two groups of massage blocks (10) and its two ends are respectively fixedly connected to the two groups of massage blocks (10). The connecting spring (11) is located in the receiving groove of the massage block (10). The supporting column (12) is arranged between the two groups of massage blocks (10) and its lower end is fixedly connected to the massage block (10) located below. The supporting column (12) is located on the inner side of the connecting spring (11) and a distance is left between its upper end and the massage block (10) located above. 7. A magnetic levitation assisted balancing shoe with massage function as described in claim 6, characterized in that the massage structure is provided with a plurality of groups, the plurality of groups of massage structures are arranged at intervals in the installation cavity and staggered with the magnetic levitation structure, and the massage structure and the magnetic levitation structure together constitute a double buffer structure. 8. A magnetic levitation assisted balancing shoe with massage function as described in claim 7, characterized in that it also includes binding shoelaces (13) and a shoelace tightener (14), wherein the binding shoelaces (13) are arranged on the upper part of the vamp (1) through shoelace perforations, and the shoelace tightener (14) is arranged on the upper part of the vamp (1) and fixedly connected to the vamp (1), and the shoelace tightener (14) is connected to the end of the binding shoelaces (13). 9. A magnetic levitation assisted balancing shoe with massage function as described in claim 8, characterized in that it also includes a toe protection plate (15), wherein the toe protection plate (15) is arranged at the connection between the head of the upper (1) and the composite sole and is fixedly connected to the upper (1) and the composite sole. 10. A magnetic levitation assisted balancing shoe with massage function as claimed in claim 9, characterized in that it also includes a heel stabilizing plate (16), wherein the heel stabilizing plate (16) is arranged at the root of the upper (1) and is fixedly connected to the upper (1), and the upper part of the heel stabilizing plate (16) protrudes from the upper (1) and the lower part thereof is fixedly connected to the composite sole.