A special foot pad for competitive electric surfboards and a bionic adsorption method thereof

Abstract

The application discloses a special foot pad for competitive electric surfboards and a bionic adsorption method thereof, which comprises a surfboard rubber shoe, the bottom of the surfboard rubber shoe is provided with an adsorption insole, the top of the adsorption insole is sequentially provided with a heel adsorption assembly, a sole adsorption assembly, an insole auxiliary adsorption groove and a toe adsorption assembly from left to right, the inner surface of the surfboard rubber shoe is provided with a spare fixing hole, the toe adsorption assembly comprises a first bionic adsorption hole, a rhombic boss and an elliptical bionic negative pressure air bag, and the heel adsorption assembly, the sole adsorption assembly, the toe adsorption assembly, the first bionic adsorption hole, the insole auxiliary adsorption groove, the spare fixing hole, the elliptical bionic negative pressure air bag, a bionic telescopic groove, a spherical bionic negative pressure air bag and a second bionic adsorption hole are used to solve the problem that the adsorption force between the soles of athletes and the shoe supports of the surfboards is insufficient, which increases the control difficulty, especially when the turning action is performed, and the athletes are prone to losing control.

Description

Technical Field

[0001] This invention relates to the field of electric surfboard racing technology, specifically to a foot pad for racing electric surfboards and its biomimetic adsorption method. Background Technology

[0002] Current competitive electric surfboards are powerful and fast. Athletes need to concentrate highly and control their leg muscles in coordination with their foot movements during electric surfboard competitions. However, insufficient adhesion between the sole of the foot and the board's insole increases the difficulty of control, especially when making turns, which can easily lead to loss of control. To address this, we propose a special footpad for competitive electric surfboards and its biomimetic adhesion method. Summary of the Invention

[0003] The purpose of this invention is to provide a footpad for competitive electric surfboards and its biomimetic adsorption method. The footpad has a dual biomimetic adsorption effect, which increases the adsorption force between the athlete and the surfboard. At the same time, the adsorption force can be instantly removed by lateral sliding, so that the surfboard and the athlete become one, making it easier to control and saving energy. It solves the problem that insufficient adsorption force between the athlete's foot and the board's shoe support increases the difficulty of control, especially when making turning maneuvers, which makes it easy to lose control.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a foot pad for a competitive electric surfboard, comprising surfing shoes, wherein the bottom of the surfing shoes is provided with an absorbent insole, and the top of the absorbent insole is provided with a heel absorbent component, a foot absorbent component, an auxiliary absorbent groove, and a toe absorbent component in sequence from left to right; the inner surface of the surfing shoes is provided with a spare fixing hole; the toe absorbent component includes a first biomimetic absorbent cavity, a rhomboid protrusion, and an elliptical biomimetic negative pressure airbag; the heel absorbent component and the foot absorbent component each include a spherical biomimetic negative pressure airbag and a second biomimetic absorbent cavity; and biomimetic telescopic grooves are provided on the inner sides of the first biomimetic absorbent cavity and the second biomimetic absorbent cavity.

[0005] Preferably, the heel adsorption component is located at the heel of the insole, and the number of heel adsorption components is seven; the foot adsorption component is located at the foot of the insole, and the number of foot adsorption components is eleven; the heel adsorption component and the foot adsorption component are located inside the auxiliary adsorption groove of the insole.

[0006] Preferably, the first biomimetic adsorption cavity is disposed on the inner side of the rhomboid protrusion, and the elliptical biomimetic negative pressure airbag is disposed on the inner side of the first biomimetic adsorption cavity.

[0007] Preferably, the second biomimetic adsorption acupoint is located inside the heel adsorption component and the foot adsorption component, and the spherical biomimetic negative pressure airbag is located inside the second biomimetic adsorption acupoint.

[0008] Preferably, the toe adsorption component is located at the toe of the adsorption insole, and the first biomimetic adsorption hole and the elliptical biomimetic negative pressure airbag are both elliptical, and the inner sides of the elliptical biomimetic negative pressure airbag and the spherical biomimetic negative pressure airbag are connected to the bottom of the adsorption insole.

[0009] A biomimetic adsorption method for a foot pad specifically designed for competitive electric surfboards includes the following steps:

[0010] Step 1: Athletes attach the absorbent insoles to the surfboard shoe mount through the fixing holes or place them directly on the competitive electric surfboard. No fixing is required when placing them directly.

[0011] Step 2: After the athlete puts on the surfing shoes, he steps directly onto the absorbent insole. The athlete's own weight will expel the air from the oval-shaped and spherical bionic negative pressure airbags through the bottom of the absorbent insole, completing the absorption of the bottom of the insole and the shoe support.

[0012] Step 3: The athlete's own weight will expel the air from the first and second bionic adsorption holes, creating negative pressure. Due to the effect of the bionic stretch grooves, the heel adsorption components, foot adsorption components, and toe adsorption components will be more likely to adsorb onto the athlete's feet. In addition, the insole auxiliary adsorption grooves will also generate adsorption on other force-bearing surfaces, making the adsorption force even greater.

[0013] Step 4: When it is necessary to remove the adhesion, the athlete only needs to twist slightly to the side.

[0014] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0015] 1. This invention uses biomimetic principles to have a strong adsorption effect, which increases the dynamic coordination between athletes and electric surfing, saves athletes' physical strength, and improves turning efficiency.

[0016] 2. This invention fully considers the standing posture of human surfers and the force on the bottom of the feet. The adsorption components are arranged at the points where the force is concentrated, and the toe area adopts a five-diamond protrusion design, which is not only aesthetically pleasing but also increases the wear resistance of the toes.

[0017] 3. The insole of this invention is convenient to carry, easy to install, and can be placed directly on the surface of an electric surfboard. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the working state structure of the present invention;

[0019] Figure 2 This is a schematic diagram of the separated state structure of the present invention;

[0020] Figure 3 This is a top view schematic diagram of the adsorption insole structure of the present invention;

[0021] Figure 4 This is a schematic diagram of the toe-adhesive component structure of the present invention;

[0022] Figure 5 This is a schematic diagram of the heel adsorption component structure of the present invention.

[0023] In the image: 1. Surfing shoe; 2. Adhesive insole; 3. Heel adhesive component; 4. Foot adhesive component; 5. Toe adhesive component; 6. First biomimetic adhesive hole; 7. Auxiliary adhesive groove of insole; 8. Spare fixing hole; 9. Rhomboid boss; 10. Elliptical biomimetic negative pressure airbag; 11. Biomimetic telescopic groove; 12. Spherical biomimetic negative pressure airbag; 13. Second biomimetic adhesive hole. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Please see Figure 1-5 A foot pad for competitive electric surfboards includes surf shoes 1. The bottom of the surf shoes 1 is provided with an absorbent insole 2. The top of the absorbent insole 2 is provided with a heel absorbent component 3, a foot absorbent component 4, an auxiliary absorbent groove 7, and a toe absorbent component 5, arranged sequentially from left to right. The inner surface of the surf shoes 1 is provided with a spare fixing hole 8. The toe absorbent component 5 includes a first bionic absorbent hole 6, a diamond-shaped protrusion 9, and an elliptical bionic negative pressure airbag 10. The heel absorbent component 3 and the foot absorbent component 4 both include a spherical bionic negative pressure airbag 12 and a second bionic absorbent hole 13. The inner sides of the first bionic absorbent hole 6 and the second bionic absorbent hole 13 are provided with bionic telescopic grooves 11.

[0026] The heel adsorption component 3 is located at the heel of the adsorption insole 2, and there are seven heel adsorption components 3. The foot adsorption component 4 is located at the foot of the adsorption insole 2, and there are eleven foot adsorption components 4. The heel adsorption component 3 and the foot adsorption component 4 are located on the inner side of the auxiliary adsorption groove 7 of the insole.

[0027] The first biomimetic adsorption cavity 6 is located inside the rhomboid protrusion 9, and the elliptical biomimetic negative pressure airbag 10 is located inside the first biomimetic adsorption cavity 6.

[0028] The second biomimetic adsorption acupoint 13 is located inside the heel adsorption component 3 and the foot adsorption component 4, and the spherical biomimetic negative pressure airbag 12 is located inside the second biomimetic adsorption acupoint 13.

[0029] The toe adsorption component 5 is located at the toe of the adsorption insole 2. The first bionic adsorption hole 6 and the elliptical bionic negative pressure airbag 10 are both elliptical, and the inner sides of the elliptical bionic negative pressure airbag 10 and the spherical bionic negative pressure airbag 12 are connected to the bottom of the adsorption insole 2.

[0030] A biomimetic adsorption method for a foot pad specifically designed for competitive electric surfboards includes the following steps:

[0031] Step 1: The athlete fixes the absorbent insole 2 to the surfboard shoe mount through the fixing hole 8 or places it directly on the competitive electric surfboard. No fixing is required when placing it directly.

[0032] Step 2: After the athlete puts on surfing rubber shoes 1, he steps directly onto the absorbent insole 2. The athlete's own weight will expel the air in the elliptical bionic negative pressure airbag 10 and the spherical bionic negative pressure airbag 12 through the bottom of the absorbent insole 2, thus completing the absorption between the bottom of the absorbent insole 2 and the shoe support.

[0033] Step 3: The athlete's own weight will expel the air in the first bionic adsorption hole 6 and the second bionic adsorption hole 13, forming a negative pressure. Due to the effect of the bionic stretch groove 11, the heel adsorption component 3, the foot adsorption component 4 and the toe adsorption component 5 will be more easily adsorbed onto the athlete's foot. In addition, the insole auxiliary adsorption groove 7 will also generate adsorption on other force-bearing surfaces, making the adsorption force greater.

[0034] Step 4: When it is necessary to remove the adhesion, the athlete only needs to twist slightly to the side.

[0035] Information on biomimicry:

[0036] 1. Microstructure of octopus tentacles suckers - with an opening at the top and a spherical protrusion at the bottom, this structure is the "secret" of how octopuses can firmly grasp their prey underwater, referring to the structure of the elliptical bionic negative pressure airbag 10 and the spherical bionic negative pressure airbag 12.

[0037] 2. Whales swallow seawater larger than their oral cavity by opening their mouths directly, because there are many grooves in the lower jaw that can help the mouth expand, which is the structure of the biomimetic telescopic groove 11.

[0038] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A bionic adsorption method of a special foot pad for a competitive electric surfboard, the special foot pad comprising a surfboard shoe (1), the bottom of the surfboard shoe (1) being provided with an adsorption insole (2), the top of the adsorption insole (2) being sequentially provided with a heel adsorption assembly (3) and a sole adsorption assembly (4) from left to right, and an insole auxiliary adsorption groove (7) and a toe adsorption assembly (5), the surface of the adsorption insole (2) being provided with a spare fixing hole (8), the toe adsorption assembly (5) comprising a first bionic adsorption hole (6), a rhombic boss (9), and an elliptical bionic negative pressure air bag (10), the heel adsorption assembly (3) and the sole adsorption assembly (4) each comprising a spherical bionic negative pressure air bag (12) and a second bionic adsorption hole (13), the inner side of the first bionic adsorption hole (6) and the second bionic adsorption hole (13) each being provided with a bionic telescopic groove (11); the first bionic adsorption hole (6) being arranged at the inner side of the rhombic boss (9), and the elliptical bionic negative pressure air bag (10) being arranged at the inner side of the first bionic adsorption hole (6); the second bionic adsorption hole (13) being arranged at the inner side of the heel adsorption assembly (3) and the sole adsorption assembly (4), and the spherical bionic negative pressure air bag (12) being arranged at the inner side of the second bionic adsorption hole (13); the bionic adsorption method comprising the following flow steps: Step 1: the athlete fixes the adsorption insole (2) on the surfboard shoe support through the fixing hole (8) or directly places it on the competitive electric surfboard, and direct placement does not require fixing; Step 2: after the athlete wears the surfboard shoe (1), the athlete directly steps on the adsorption insole (2), and the athlete's weight will discharge the air in the elliptical bionic negative pressure air bag (10) and the spherical bionic negative pressure air bag (12) through the bottom of the adsorption insole (2), thereby completing the adsorption of the bottom of the adsorption insole (2) and the shoe support; Step 3: the athlete's weight will discharge the air in the first bionic adsorption hole (6) and the second bionic adsorption hole (13) to form negative pressure, and due to the effect of the bionic telescopic groove (11), the adsorption of the heel adsorption assembly (3), the sole adsorption assembly (4), and the toe adsorption assembly (5) to the athlete's foot will be easier, and the insole auxiliary adsorption groove (7) will also produce adsorption of other stress surfaces, so that the adsorption force is greater; Step 4: when it is necessary to cancel the adsorption, the athlete only needs to slightly twist sideways.

2. A method of biomimetic adhesion for a specialized foot pad for a competitive electric surfboard according to claim 1, characterized in that: The heel adsorption assembly (3) is arranged at the heel of the adsorption insole (2), and the number of the heel adsorption assembly (3) is seven, the sole adsorption assembly (4) is arranged at the sole of the adsorption insole (2), and the number of the sole adsorption assembly (4) is eleven, and the heel adsorption assembly (3) and the sole adsorption assembly (4) are arranged at the inner side of the insole auxiliary adsorption groove (7).

3. The bionic suction method of a special foot pad for a competitive electric surfboard according to claim 1, characterized in that: The toe adsorption assembly (5) is arranged at the toe of the adsorption insole (2), the first bionic adsorption hole (6) and the elliptical bionic negative pressure air bag (10) are both elliptical, and the inner sides of the elliptical bionic negative pressure air bag (10) and the spherical bionic negative pressure air bag (12) are in communication with the bottom of the adsorption insole (2).

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