TWI846475B - Skid pad structure - Google Patents

Abstract

A sliding pad structure, the sliding pad includes at least one sliding area, at least two anti-slip areas located on both sides of the sliding area, and at least one light-emitting unit arranged on at least one side of the sliding pad. The surface friction of the sliding area is smaller than that of the anti-slip area, so that the user can slide from the sliding area to the anti-slip area to slow down or even stop by friction. The inner layer of the anti-slip area is preset with a sensing unit, and the sensing unit is coupled with the light-emitting unit through a controller. The pressure generated by stepping on the anti-slip area triggers the sensing unit to control the light-emitting unit. The sliding pad can be directly rolled up after use, effectively reducing the volume for easy storage, greatly improving the convenience of use and storage of the structure, thereby enhancing the practical value.

Description

Skid pad structure

The present invention relates to a sliding pad structure that uses surface friction to define a sliding area and two anti-slip areas, and has the effect of being able to be rolled up after use to reduce the volume for easy storage.

As we know, there are many kinds of fitness equipment, such as weight training machines, treadmills, steppers, sliding machines, rowing machines, fitness machines, etc., which can be used by users to perform specific or multiple training and strengthening on body muscles or lung capacity. However, the above common equipment is relatively large in size and has a complex structure that is not convenient for self-assembly and disassembly, thus taking up a lot of space at home. In today's living environment where every inch of land is valuable, it is not suitable for ordinary families to buy and use. They can only choose equipment with a single function and a small size that is easy to fold and store. Small fitness equipment, such as the skateboard fitness equipment with the domestic patent certificate No. M427165, includes two skateboard seats and at least two elastic ropes; the skateboard seats have a first surface and a second surface corresponding thereto, and a first fixing member and a second fixing member that can be combined and fixed to each other are provided on two sides of the two skateboard seats, and at least two elastic ropes are provided between the two skateboard seats. By connecting the two skateboard seats and the elastic ropes, the two skateboard seats are further controlled to move relative to each other or in correspondence, so as to provide consumers with the effect of exercising their bodies. Although the above-mentioned patent is convenient to use, it must be used with a pad when actually sliding, and both ends of the pad have a baffle, so that the two skateboard seats and the pad must be stored together after use. The baffles at both ends of the pad have a certain volume, so the storage after use still takes up a little space, which is not practical; in addition, the existing sliding pad has a single function and does not have the technical characteristics of interacting with other equipment. The usage scenario is simple and it is difficult to add other high-value attributes.

In view of this, the inventor has been engaged in the manufacturing, development and design of related products for many years. After careful design and careful evaluation for the above-mentioned goals, he finally obtained this invention which is truly practical.

The technical problem that the present invention aims to solve is to provide a sliding pad structure that uses surface friction to define a sliding area and an anti-slip area in response to the above-mentioned deficiencies of the existing technology.

The above-mentioned sliding pad structure includes at least one sliding area, at least two anti-skid areas located on both sides of the sliding area, and at least one light-emitting unit arranged on at least one side of the sliding pad. The surface friction of the sliding area is less than the surface friction of the anti-skid area. The inner layer of the anti-skid area is pre-set with a sensing unit, and the sensing unit is coupled to the light-emitting unit. By triggering the sensing unit, the light-emitting unit can be controlled to turn on and off.

Preferably, the light-emitting unit is arranged around the outer periphery of the sliding pad.

Preferably, the sensing unit is coupled to the light-emitting unit via a controller, and then electrically connected to a power source through the controller for power supply, and further the pressure generated by stepping on the anti-slip area triggers the sensing unit to control the on and off timing of the light-emitting unit.

Preferably, the sliding pad is further provided with a sound unit, and the sound unit and the light unit are coupled to the sensing unit after being integrated by the controller, so as to have a sound reminder effect during the sliding movement.

Preferably, the controller is connected to a power source such as AC power or mobile power via a power cord.

Preferably, the power source is a battery module such as a general battery or a storage battery.

Preferably, the controller is connected to the mains via a power cord to achieve the purpose of charging the battery.

Preferably, the power source is a power generation module, which is arranged in the sliding area of the sliding pad, and utilizes the energy generated by the user's movement in the sliding area, and converts it into electrical energy for use.

Preferably, the power source is a triboelectric power generation module, which utilizes the friction generated by the user sliding on the sliding area to generate static electricity, which is extracted and converted into electrical energy by the power generation module to achieve the purpose of power supply.

Preferably, the power source is a piezoelectric power generation module, which utilizes the vibration energy generated by sliding on the sliding area and converts it into electrical energy through the power generation module to achieve the purpose of power supply.

Preferably, the anti-slip zone includes a plurality of anti-slip intervals with different anti-slip coefficients, and the anti-slip coefficients of the anti-slip intervals increase as they are farther away from the sliding zone.

Preferably, the sliding pad is provided with a plurality of sliding areas, and an anti-slip area is provided on both sides of each sliding area, and the sliding areas are sequentially connected to form a plurality of levels, and the anti-slip area is used as the starting point or end point of each sliding area, further providing a corresponding luminous effect after the training reaches a specific goal.

Preferably, the sliding pad is provided with a plurality of light-emitting blocks in the area outside each of the sliding areas, and the light-emitting blocks are coupled to the corresponding sensing units.

Preferably, the sliding pad is connected to an interactive device through any connection method such as wired or wireless, and the sliding pad is used as a controller of the interactive device to achieve control of the interactive device.

Compared with the effects of the prior art: the sliding pad structure provided by the present invention, through the sliding area set on the surface and the anti-slip areas at least located on both sides of the sliding area, can provide users with different usage conditions and effects from the conventional sliding fitness equipment. Moreover, the sensing unit in the inner layer of the anti-slip area is coupled and controlled with its light-emitting unit, so that during the sliding movement, gorgeous light can be generated according to a specific target, adding to the fun of exercise use; in addition, the sliding pad can be directly rolled up after use, effectively reducing the volume for easy storage, greatly improving the convenience of the structure in use and storage, and thereby enhancing the practical value.

10: Gliding pad

11: Sliding area

12: Anti-slip area

121: Anti-slip zone

122: Anti-slip zone

123: Anti-slip zone

13: Light-emitting unit

14: Sensing unit

15: Controller

151: Power cord

16: Sound unit

17:Battery

18: Power generation module

19: Glowing block

[Figure 1] is a three-dimensional diagram of the present invention.

[Figure 2] is an enlarged perspective diagram of the present invention.

[Figure 3] is a schematic diagram of the use status of the present invention.

[Figure 4] is a top view of the present invention.

[Figure 5] is a schematic diagram showing that each of the anti-slip areas of the present invention has multiple anti-slip zones.

[Figure 6] is a schematic diagram of the present invention using battery power supply.

[Figure 7] is a schematic diagram of the invention's power supply using a power generation module.

[Figure 8] is a schematic diagram of another embodiment of the present invention.

[Figure 9] is a schematic diagram of the application of this creation to game consoles and multi-machine online interactive competitions.

In order to enable the review committee to have a deeper understanding and knowledge of the purpose, features and effects of this invention, please refer to the [Simple Diagram Description] for details as follows:

First, please refer to the first and second figures, a sliding pad structure, the sliding pad 10 includes at least one sliding area 11, at least two anti-slip areas 12 located on both sides of the sliding area 11, and at least one light-emitting unit 13 disposed on at least one side of the sliding pad 10, the sliding area 11 is an area with a relatively small surface friction, the anti-slip area 12 is an area with a relatively large surface friction, and the surface friction of the sliding area 11 is less than the surface friction of the anti-slip area 12. force, thereby providing the user with frictional deceleration or even stopping after sliding from the sliding area 11 to the anti-slip area 12, and the inner layer of the anti-slip area 12 is preset with a sensing unit 14, the sensing unit 14 is coupled to the light-emitting unit 13 through a controller 15, and then electrically connected to a power source through the controller 15 for power supply, and further the pressure generated by stepping on the anti-slip area triggers the sensing unit 14 to control the light-emitting unit 13 on and off timing.

The light-emitting unit 13 can be disposed on two symmetrical sides of the sliding pad 10, or can be disposed around the outer periphery of the sliding pad 10, as shown in FIG. 4.

The sliding pad 10 is further provided with a sound unit 16. The sound unit 16 and the light unit 13 are coupled to the sensor unit 14 after being integrated by the controller 15, so as to have a sound and light reminder effect during the sliding movement.

In addition, the sliding area 11 of the sliding pad 10 is made of fleece on the surface, a low-friction sliding sheet (such as PU, TPU, TPV or TPE with low surface friction) or a lubricant applied to reduce friction, so that the user can slide on the sliding area 11 safely and stably, and the anti-slip area 12 is made of a high-friction anti-slip sheet or an elastic sheet (such as elastic materials such as natural rubber) to effectively increase friction and achieve the effect of slowing down and stopping; furthermore, the sliding pad 10 The bottom surface includes an elastic layer (not shown in the figure), which can be an elastic material such as liquid SBR, PU, EVA, natural rubber, hot melt adhesive, etc., which is soaked and coated on the bottom surface of the sliding pad 10, and then cured by heating foaming or vulcanization technology, or a cured sheet-shaped elastic layer is fixed to the bottom surface of the sliding pad 10 by adhesion, so that when the sliding pad 10 is laid on the ground, it can contact the ground flatly through the elastic layer and have an anti-slip effect, thereby preventing the sliding pad 10 from moving and improving the stability of use.

The use of the structure is shown in Figures 2 and 3. The user slides back and forth between the sliding area 11 and the anti-slip area 12 of the sliding pad 10. Since the friction resistance of the anti-slip area 12 is greater than that of the sliding area 11, when the user slides back and forth and contacts the anti-slip area 12, the user is able to receive greater resistance feedback and slow down or even stop. Then, the friction grip of the foot is increased through the anti-slip area 12, so that the user applies force to slide back, thereby achieving the user's sliding on the sliding area. In addition, during the sliding motion of the user, since the sensor unit 14 is arranged in the anti-slip area 12, the sensor unit 14 is further pressed by the user during the sliding brake action to control the light unit 13 and the sound unit 16. For example, after ten reciprocating slides, the light unit 13 lights up a specific light, and at the same time, the sound unit 16 generates corresponding music, sound or human voice prompts to increase the fun of the user during the sliding motion.

Furthermore, the anti-skid area 12 of the skid pad 10 includes a plurality of anti-skid sections 121, 122, and 123 with different anti-skid coefficients. As shown in FIG. 5, the anti-skid coefficients of the anti-skid sections 121, 122, and 123 increase as they are farther from the skid area 11. For example, the anti-skid effect of the anti-skid section 121 is 20%, the anti-skid effect of the anti-skid section 122 is 50%, and the anti-skid effect of the anti-skid section 123 is 100%. When the user slides and steps on the anti-skid area 12, the anti-skid sections 121, 122, and 123 are gradually braked to achieve a braking effect similar to that of a vehicle ABS system.

The first embodiment of the power supply of the sliding pad 10 is shown in FIG. 4. The controller 15 is connected to a power source such as a mains power source or a mobile power source through a power line 151 for power supply and use.

The second embodiment of the power supply of the sliding pad 10 is shown in Figure 6. The power source can be any battery power supply module such as a general battery or a storage battery 17, and the controller 15 can be connected to the mains via a power line 151 to charge the storage battery 17.

The third embodiment of the power supply of the sliding pad 10 is shown in FIG. 7. The power source can be a power generation module 18, which is arranged in the sliding area 11 of the sliding pad 10. The power generation module 18 utilizes the energy generated by the user's movement in the sliding area 11, and converts it into electrical energy for use. Among them, one embodiment of the power generation module 18 is a friction power generation module, which utilizes the static electricity generated by the user sliding back and forth on the sliding area 11, and extracts and converts it into electrical energy through the power generation module 18 to achieve the purpose of power supply; another embodiment of the power generation module 18 is a piezoelectric power generation module, which utilizes the vibration energy generated by sliding back and forth on the sliding area 11, and converts it into electrical energy through the power generation module 18 to achieve the purpose of power supply.

The structure is known in another embodiment, as shown in FIG. 8 , the sliding pad 10 is provided with a plurality of sliding areas 11, and the anti-slip areas 12 are provided on both sides of each sliding area 11, and the sliding areas 11 are sequentially connected to form a plurality of levels, and the anti-slip areas 12 are used as the starting point or end point of each sliding area 11, so that the user can slide one by one and sense the level, and each anti-slip area 12 is provided with a sensing unit 14 in the inner layer, and the light unit 13 and the sound unit 16 are connected and controlled by the sensing unit 14, so as to further provide corresponding sound and light effects after the training reaches a specific goal. In addition, the sliding pad 10 is provided with a plurality of light-emitting blocks 19 in the area outside each sliding area 11. The light-emitting blocks 19 are coupled to the corresponding sensing units 14 so as to light up after each level is passed.

The sliding pad proposed by the present invention is connected to other interactive devices by wire or wirelessly, and serves as the input end of other interactive devices for signal input, thereby realizing the control or manipulation of other devices, and has richer device scalability.

Further explanation, the sliding pad 10 can be connected to interactive devices such as game consoles by any wired or wireless method, as shown in Figure 9. The sliding pad 10 is used as a dedicated controller for the game console to play games such as skiing, skating, roller skating, etc., and the game console network connection is used to achieve multi-machine online interaction and competition purposes, thereby obtaining sports effects during the game process. In addition, the game can be used in conjunction with a wearable device (such as VR virtual glasses) for game experience, allowing users to play games and sports as if they were in the real situation, thereby enhancing the gaming experience.

The structure of the above-mentioned specific embodiment can obtain the following benefits: the sliding pad 10 structure provided by the present invention can provide users with different usage conditions and effects from the conventional sliding fitness equipment through the sliding area 11 arranged on the surface and the anti-slip areas 12 located on both sides of the sliding area 11. Moreover, the sensing unit 14 in the inner layer of the anti-slip area 12 is coupled and controlled with the light-emitting unit 13, so that during the sliding movement, gorgeous light can be generated according to a specific target, adding to the fun of sports use; in addition, the sliding pad 10 can be directly rolled up after use, effectively reducing the volume for easy storage, greatly improving the convenience of using and storing the structure, thereby enhancing the practical value.

In summary, this invention has indeed achieved a breakthrough structural design and has improved invention content. At the same time, it can achieve industrial applicability and progress. Moreover, this invention has not been seen in any publication and is also novel. It should comply with the relevant provisions of the Patent Law. Therefore, we have filed an invention patent application in accordance with the law and pleaded with the review committee of the Jun Bureau to grant legal patent rights. We are very grateful.

However, the above is only a preferred embodiment of the present invention and should not be used to limit the scope of implementation of the present invention; that is, all equivalent changes and modifications made according to the scope of the patent application of the present invention should still fall within the scope of the patent of the present invention.

10: Gliding pad

11: Sliding area

12: Anti-slip area

13: Light-emitting unit

14: Sensing unit

15: Controller

151: Power cord

16: Sound unit

Claims (14)

A sliding pad structure includes a sliding pad, the sliding pad includes at least one sliding area, at least two anti-slip areas located on both sides of the sliding area, and at least one light-emitting unit arranged on at least one side of the sliding pad. The sliding area is coated with a lubricant to reduce friction, and the surface friction of the sliding area is less than the surface friction of the anti-slip area, so that when the user slides from the sliding area to the anti-slip area, he or she can receive a larger friction resistance feedback to slow down or even stop. The inner layer of the anti-slip area is preset with a sensing unit, and the sensing unit is coupled to the light-emitting unit. By triggering the sensing unit, the light-emitting unit can be controlled. The sliding pad structure as described in claim 1, wherein the light-emitting unit is arranged around the outer periphery of the sliding pad. The sliding pad structure as described in claim 1, wherein the sensing unit is coupled to the light-emitting unit via a controller, and then electrically connected to a power source through the controller for power supply, and further the pressure generated by stepping on the anti-slip area triggers the sensing unit to control the on and off timing of the light-emitting unit. The sliding pad structure as described in claim 3, wherein the sliding pad is further provided with a sound unit, the sound unit and the light unit are coupled to the sensing unit after being integrated by the controller, thereby having a sound reminder effect during the sliding movement. The sliding pad structure as described in claim 3, wherein the controller is connected to a power source such as AC power, mobile power, etc. through a power cord. The skid pad structure as described in claim 5, wherein the power source is any battery module such as a general battery or a storage battery. The skid pad structure as described in claim 6, wherein the controller is connected to the mains via a power cord to achieve the purpose of charging the battery. The sliding pad structure as described in claim 3, wherein the power source is a power generation module, which is arranged in the sliding area of the sliding pad, and utilizes the energy generated by the user's movement in the sliding area, and converts it into electrical energy for use. The sliding pad structure as described in claim 8, wherein the power source is a friction-generated power generation module, which utilizes the friction generated by the user sliding on the sliding area, and extracts and converts it into electrical energy through the power generation module to achieve the purpose of power supply. The ski pad structure as described in claim 8, wherein the power source is a piezoelectric power generation module, which utilizes the vibration energy generated by sliding on the ski area and converts it into electrical energy through the power generation module to achieve the purpose of power supply. The skid pad structure as described in claim 1, wherein the anti-skid area includes a plurality of anti-skid intervals with different anti-skid coefficients, and the anti-skid coefficients of the anti-skid intervals increase as they are farther away from the skid area. As described in claim 3, the sliding pad structure is provided with a plurality of sliding areas, and a non-slip area is provided on both sides of each sliding area, and the sliding areas are sequentially connected to form a plurality of levels, and the non-slip area is used as the starting point or end point of each sliding area, further providing a corresponding luminous effect after a specific goal is achieved in training. The sliding pad structure as described in claim 12, wherein the sliding pad is provided with a plurality of light-emitting blocks in the area outside each of the sliding areas, and the light-emitting blocks are coupled to the corresponding sensing units. The sliding pad structure as described in claim 1, wherein the sliding pad is connected to an interactive device through any connection method such as wired or wireless, and the sliding pad is used as a controller of the interactive device to realize control of the interactive device.

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