A martial arts free combat quick-wearing electronic protective equipment sensor

Abstract

The application discloses a martial arts free combat quick-wearing electronic protector sensor and belongs to the technical field of sensors. The application discloses a martial arts free combat quick-wearing electronic protector sensor and belongs to the technical field of sensors. The application discloses a martial arts free combat quick-wearing electronic protector sensor and belongs to the technical field of sensors.

Description

Technical Field

[0001] This invention relates to the field of sensor technology, specifically to a martial arts Sanda (Chinese kickboxing) quick-wearing electronic protective gear sensor, and more specifically, a martial arts Sanda quick-wearing electronic protective gear sensor. Background Technology

[0002] A sensor is a device that converts a specified measurement into a signal according to a certain rule. When classified according to their working principle, sensors are divided into resistive sensors, capacitive sensors, and inductive sensors. In the case of electronic protective gear used in martial arts (Sanshou), sensors are built into the protective gear to detect the point of contact with the opponent. This electronic protective gear can prevent limb injuries, effectively protecting the hands, legs, or abdomen. Furthermore, when the protective gear is subjected to a heavy blow, the sensors detect the pressure received, thus detecting the point of contact and the force of the impact. However, effective positioning is inconvenient during use, and the sensors are prone to displacement when subjected to force.

[0003] To overcome the aforementioned shortcomings, existing technology (Chinese patent application CN201720029359.0, filed on 2017-01-10) provides an electronic protective gear sensor for Wushu Sanda competitions. This sensor, located on the inner surface of the protective gear, allows for clear and omnidirectional sensing of pressure signals, reducing the likelihood of misjudgment and bending, thus maintaining a consistently high level of sensitivity. Furthermore, the addition of a silver nanofilm layer to the pressure-sensing diaphragm lowers the resistivity, which is beneficial for reducing the overall voltage of the electronic protective gear. Additionally, the buffer layer and piezoelectric thin film layer... A vacuum-filled layer is provided to allow the sensor, which deforms under pressure, to quickly recover, preventing the sensor's sensitivity from decreasing over long-term use. The flexible shielding layer is made of high-strength plastic film, which not only provides signal shielding but also allows the shielding layer to be bent and deformed. There is also existing technology (Chinese patent application CN202411148356.X, filed on 2024-08-21) of a dot-matrix snow pressure sensor, which is formed by several connectable measuring mechanisms, each capable of independently measuring local areas. The snow pressure measurement method allows for flexible adjustment of the number of measuring components based on the measurement range, enabling installation on snow-covered surfaces and in harsh environments, overcoming site limitations and installation complexity. The measuring mechanism automatically achieves electrical connection upon connection, facilitating convenient and flexible assembly. The measuring components are embedded within fixed components, automatically connecting electrically to them after installation. This interconnected circuit forms a complete circuit for snow pressure measurement. This method also addresses existing technologies (Chinese patent application CN201911398507.6, filed on 2019-12-30) pressure sensor units and sensors. While existing technologies can detect pressure, they are inconvenient to replace when damaged, potentially affecting the normal operation of sensor connection components. Replacing the sensor is cumbersome and hinders rapid positioning and assembly. Furthermore, it is difficult to reliably apply the sensor to electronic protective gear after replacement, compromising safety during operation.

[0004] To address the aforementioned issues, there is an urgent need for innovative designs based on existing sensors. Summary of the Invention

[0005] The purpose of this invention is to provide a fast-wearing electronic protective gear sensor for martial arts and Sanda, in order to solve the problems mentioned in the background art, such as the inconvenience of replacing the sensor when it is damaged, the easy impact on the normal operation of the sensor connection components, the cumbersome process of replacing the sensor, the inability to quickly position and assemble the sensor, and the difficulty in ensuring stable operation of the sensor on the martial arts and Sanda electronic protective gear after replacement, thus affecting the safety of the sensor during operation.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor, comprising a base with connecting components; including: a flexible strip nested and connected to the lower side of the inner surface of the base, with a substrate mounted on the lower surface of the flexible strip, and a flexible ring bonded to the upper side of the inner surface of the base, while a conductive line one and a conductive line two are attached to the upper surface of the flexible ring; another set of flexible rings is connected to the upper surface of the conductive line two, and an elastic membrane is attached to the upper surface of the flexible ring, with a welding strip mounted on the lower surface of the elastic membrane, and a base welded to the outer surface of the welding strip, and a circuit holder mounted on the outer side of the base.

[0007] Preferably, the base forms a nested structure with the substrate through flexible strips, and the upper surface of the flexible strips has a "well" shaped structure. The flexible strips are used for multi-directional bending support. At the same time, the base forms a support structure with conductive line one and conductive line two through flexible rings. The outer surface of conductive line one and conductive line two forms a bonding structure with an elastic film through flexible rings. The elastic film forms a welding structure with the base through welding strips. The base and the outer surface of the circuit seat are embedded and installed.

[0008] The above structure facilitates control over the stability of the base support during use. The "X"-shaped structure on the upper surface of the flexible strip, while supporting the substrate, also helps control the stability of the base bending, preventing breakage and improving the stability of the built-in conductive lines one and two. The flexible rings connected to both sides reduce accidental contact, increase the buffering force during contact, improve the safety of compression, avoid breakage of conductive lines one and two, and improve the welding seal between the base and the elastic membrane.

[0009] Preferably, the outer surface of the base is wrapped with a sensor baseband, and the inner surface of the sensor baseband is nested with an attachment layer. Connector 1 and connector 2 are mounted on the outer surface of the sensor baseband. Connector 1 has a connecting seat mounted on its side, and its outer surface has a bending groove. The inner surface of the connecting seat has a locking groove, and the inner surface of the locking groove is locked to a rotating seat. A positioning seat is mounted on the outer surface of the rotating seat, and the positioning seat is equipped with a quick-tightening mechanism. A winding seat is connected to the middle section of the outer surface of the connecting seat, and a winding shaft is rotatably connected to the inner surface of the winding seat. The winding shaft is equipped with a locking winding mechanism. An inner protective layer is bonded to the inner surface of the attachment layer, and a connecting layer is bonded to the outer surface of the inner protective layer. A bonding positioning mechanism is provided on the outer surface of the connecting layer.

[0010] With the above structure, it is easy to stably assemble connector one and connector two for wear use, and the use of the rotating seat improves the stability of the winding seat.

[0011] Preferably, the connector one forms an integrated structure with the sensor baseband and the connector seat, and the bending groove is opened at equal distances with respect to the outer surface of the connector one. The connector seat forms a limiting engagement structure with the rotating seat through the locking groove, and the rotating seat and the positioning seat are embedded in the outer surface of the connector one.

[0012] The above structure facilitates effective control of the assembly and use of connector one and connector two during use, thereby improving the wearing effect of the protective gear and allowing it to be used in accordance with the deformation of the limbs.

[0013] Preferably, in the quick tightening mechanism, the outer surface of the positioning seat is equipped with a hanging ear, and the inner surface of the hanging ear is connected to a tightening rope, and the outer surface of the tightening rope is provided with a connecting member two at the cross end; the positioning seat forms a nested locking structure with the tightening rope through the hanging ear, and the connecting member two forms a cross locking mechanism with the connecting member one through the tightening rope.

[0014] The above structure allows for stable positioning and assembly of the tightening rope during use, thus controlling the service life of the protective gear in case of damage to the hooks, in conjunction with the replacement structure of the positioning seat.

[0015] Preferably, locking blocks are installed on the upper and lower sides of the outer surface of the rotating base, and the inner surface of the locking blocks has a slot, and a locking block is engaged with the inner surface of the slot. At the same time, a moving post is installed on the outer surface of the locking block, and a return spring is nested on the outer surface of the moving post. An unlocking block is installed on the outer surface of the moving post. The locking blocks are symmetrically embedded on the outer surface of the rotating base, and the locking blocks form a limiting engagement structure with the locking blocks through the slots. The locking blocks form an elastic sliding structure with the connecting base through the moving post and the return spring. At the same time, the locking blocks, the moving post, and the unlocking block form an integrated structure.

[0016] The above structure facilitates the effective nesting assembly of the rotating seat during use, allowing it to engage with the locking block after rotation to form a limiting engagement, preventing detachment and improving the stability of the rotating seat assembly.

[0017] Preferably, the take-up seat and the second connector form a nested engagement structure, and the take-up seat and the take-up shaft form a rotating structure. A rotating component is installed on the outer surface of the take-up shaft, and a tensioning rope is connected through the inner surface of the take-up shaft. At the same time, a sliding groove is provided on the lower side of the inner surface of the take-up seat, and the take-up shaft and the rotating component form an integrated structure. Meanwhile, the take-up shaft and the tensioning rope form a through-limiting structure.

[0018] With the above structure, the winding seat is positioned and assembled during use, thereby cooperating with the connected winding shaft to control the assembly of the winding rope and the stability after winding.

[0019] Preferably, in the locking and winding mechanism, a ratchet gear is installed on the outer surface of the winding shaft, and a pawl is engaged with the outer surface of the ratchet gear, positioning and rotating the pawl on the inner surface of the winding seat. An unlocking shaft is installed on the outer side of the pawl, limiting its sliding on the inner surface of the groove. A compression spring is connected between the pawl and the winding seat. The ratchet gear and the outer surface of the winding shaft are embedded and installed, and the winding shaft forms a one-way engagement structure through the ratchet gear and the pawl. The pawl forms a sliding structure with the groove through the unlocking shaft, and the pawl forms an elastic rotation structure with the winding seat through the compression spring.

[0020] The above structure facilitates stable control of the winding shaft rotation during use, prevents the winding rope on the winding shaft from coming off, and improves the locking performance of the winding rope.

[0021] Preferably, the inner protective layer and the adhesive layer form an internal structure, and the inner protective layer and the connecting layer form an adhesive structure. The main circuit is installed on the outer surface of the connecting layer, and the secondary circuit is installed on the outer surface of the main circuit. The connecting layer, the main circuit, and the secondary circuit form an adhesive structure.

[0022] With the above structure, the inner protective layer and connecting layer can be stably assembled during use, as can the main circuit and secondary circuit. This facilitates the bonding preparation of the base for the subsequent thin-film pressure sensor and makes it easy to quickly replace and wear the sensor.

[0023] Preferably, in the bonding and positioning mechanism, a nested ring is installed on the outer surface of the connecting layer, and a circuit seat is nested on the inner surface of the nested ring. A base is installed on the outer surface of the circuit seat, and a side buckle and a stop are engaged on the outer surface of the base, thereby installing the side buckle and the stop on the outer surface of the connecting layer. At the same time, a Velcro closure 1 is adhesively connected to the outer surface of the base, and a Velcro closure 2 is adhesively connected to the outer surface of the Velcro closure 1. The Velcro closure 2 is then attached to the outer surface of the connecting layer. A compression plate is connected to the outer surface of the base, and an outer protective layer is nested on the outer surface of the compression plate, which is nested within the inner surface of the sensor baseband. The connecting layer forms a limiting structure with the circuit seat through the nested ring, and the circuit seat and the base form an integrated structure. The base forms a signal connection structure with the secondary circuit through the circuit seat. The base forms a limiting engagement structure with the connecting layer through the side buckle and the stop. The connecting layer forms a quick replacement structure with the base through Velcro closure 2 and Velcro closure 1. The base and the compression plate are bonded together, and the compression plate and the outer protective layer form a nested structure.

[0024] The above structure effectively improves the ease of assembling and replacing the base of the thin-film pressure sensor during use, prevents misalignment, and enhances the stability of force point detection and force data detection by working with the extrusion plate, while also improving the ease of quick replacement.

[0025] Compared with the prior art, the beneficial effects of the present invention are: 1. It is equipped with a flexible strip that can be built in, and together with the substrate on which it is installed, it is stably bonded to the underside of the base, which can improve the stability of the base and reduce the possibility of breakage. The flexible ring improves the safety of conductive line 1 and conductive line 2, reduces the breakage damage caused by gravity impact, and increases the service life. In addition, the elastic membrane welded by ultrasonic welding improves the short circuit protection performance of the electronic protective sensor.

[0026] 2. It is equipped with a bonding and positioning mechanism, which can control the stable assembly of the connecting layer on the sensor baseband. Through the side buckles and blocks of the connecting layer assembly, as well as the use of Velcro 1 and Velcro 2, a stable positioning and bonding is formed for the base of the thin film pressure sensor, and displacement is prevented. In addition, with the nesting of the extrusion plate and the outer protective layer, it can be connected to the base of the thin film pressure sensor to form a stable point contact signal transmission and pressure data collection.

[0027] 3. It features a sensor baseband and attachment layer for easy protection, allowing for the effective assembly of the outer and inner protective layers. A base is then assembled between these layers, and a secondary circuit is connected via a wiring seat on the base, enabling data transmission via the main circuit. The base can also be used with side clips, stops, and Velcro 1 and Velcro 2 for positioning and replacement. Furthermore, a quick-tightening mechanism facilitates effective positioning of the connector on the first connector using the tightening rope, hanging ears, and positioning seat, controlling the stability of the positioning seat assembly. If the hanging ears become damaged after prolonged use, they can be detached from the connector via a rotating seat on the positioning seat, effectively replacing the positioning seat. This system improves the lifespan of the sensor baseband and enhances ease of wear through the cooperation of connectors one and two between the sensor basebands. Furthermore, the locking block mounted on the rotating base engages with the locking block, improving the stability of the positioning seat assembly on the rotating base, preventing detachment, and enhancing the ease of wear for the crisscrossing winding ropes. Additionally, a locking winding mechanism is provided, which effectively winds up and stores the nested winding ropes by rotating the rotating component on the winding shaft. During storage, the ratchet and pawl mounted on the winding shaft engage to control the stability of the winding shaft's positioning, preventing detachment, improving the ease of wearing the protective gear, and reducing wearing time. Attached Figure Description

[0028] Figure 1 This is a schematic diagram of the three-dimensional structure of the base of the present invention; Figure 2 This is a partial cross-sectional three-dimensional structural diagram of the base of the present invention; Figure 3 This is a partial cross-sectional three-dimensional structural diagram of the sensor baseband of the present invention; Figure 4 This is a schematic diagram of the half-section three-dimensional structure of the sensor baseband of the present invention; Figure 5 This is a partial cross-sectional perspective view of the three-dimensional structure of the connector of the present invention; Figure 6 For the present invention Figure 5 Enlarged 3D structural diagram at point A; Figure 7 This is a partial cross-sectional perspective view of the three-dimensional structure of the connector of the present invention; Figure 8 This is a schematic diagram of the three-dimensional structure of the tightening rope of the present invention; Figure 9 This is a partial cross-sectional perspective view of the three-dimensional structure of the winding base of the present invention; Figure 10 This is a schematic diagram of the three-dimensional structure of the winding shaft of the present invention; Figure 11 This is a schematic diagram of the three-dimensional structure of the connecting layer of the present invention; Figure 12 For the present invention Figure 11 Enlarged 3D structural diagram at point B.

[0029] In the diagram: 1. Base; 2. Flexible strip; 3. Substrate; 4. Flexible ring; 5. Conductive circuit one; 6. Conductive circuit two; 7. Circuit holder; 8. Elastic membrane; 9. Welding strip; 10. Sensor baseband; 11. Adhesive layer; 12. Connector one; 13. Bending groove; 14. Connecting seat; 15. Locking groove; 16. Rotating seat; 1601. Locking block; 1602. Slot; 1603. Locking block; 1604. Moving column; 1605. Return spring; 1606. Unlocking block; 17. 18. Positioning seat; 19. Hanging ear; 20. Tightening rope; 21. Connector II; 22. Rewind seat; 23. Rewind shaft; 24. Ratchet; 25. Pawl; 26. Unlocking shaft; 27. Compression spring; 28. Rotating component; 29. ​​Slide groove; 20. Inner protective layer; 21. Connecting layer; 22. Main circuit; 23. Secondary circuit; 24. Nested ring; 35. Side buckle; 36. Stop block; 37. Velcro I; 38. Velcro II; 39. Compression plate; 30. Outer protective layer. Detailed Implementation

[0030] 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.

[0031] Example 1: Please refer to Figure 1 and Figure 2This invention provides a technical solution: a martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor, comprising a base 1 with connecting components; including: a flexible strip 2, nested and connected to the lower side of the inner surface of the base 1, with a substrate 3 mounted on the lower surface of the flexible strip 2, and a flexible ring 4 bonded to the upper side of the inner surface of the base 1; simultaneously, conductive line 1 5 and conductive line 2 6 are attached to the upper surface of the flexible ring 4; another set of flexible rings 4 are connected to the upper surface of the conductive line 2 6, and an elastic membrane 8 is attached to the upper surface of the flexible ring 4; a welding strip 9 is mounted on the lower surface of the elastic membrane 8, and the outer surface of the welding strip 9... The base 1 is welded together, and the circuit seat 7 is installed on the outer surface of the base 1. The base 1 forms a nested structure with the substrate 3 through the flexible strip 2, and the upper surface of the flexible strip 2 has a "well" shaped structure. The flexible strip 2 forms a multi-directional bending support. At the same time, the base 1 forms a support structure with the first conductive line 5 and the second conductive line 6 through the flexible ring 4. The upper surface of the first conductive line 5 and the second conductive line 6 forms a bonding structure with the elastic membrane 8 through the flexible ring 4. The elastic membrane 8 forms a welding structure with the base 1 through the welding strip 9. The base 1 and the circuit seat 7 are embedded in the outer surface of the base 1.

[0032] In use, a flexible strip 2 is welded and assembled on the lower side of the base 1, and a substrate 3 is installed in conjunction with the flexible strip 2. The upper surface structure of the flexible strip 2 improves the support stability of the base 1, prevents breakage, and controls the stability of the base 1 during use. A flexible ring 4 is nested and assembled on the inner surface of the base 1 to support conductive line 5 and conductive line 6 from top to bottom. An elastic membrane 8 is connected to the upper side of conductive line 5 and conductive line 6 through the flexible ring 4, which improves the safety of conductive line 5 and conductive line 6 during use and reduces folding damage during gravity contact. The welding strip 9 installed through the elastic membrane 8 can improve the sealing after ultrasonic welding with the base 1, improve the safety of use, and prevent other conductive particles from entering and causing signal errors. The line holder 7 installed through the base 1 can be used for later assembly in the sensor baseband 10 to form a signal data connection and transmission.

[0033] Example 2: Figure 3 , Figure 4 , Figure 11 and Figure 12The technical solution shown, based on Embodiment 2, further discloses a quick replacement and wearing method for the base 1 of the thin-film pressure sensor during martial arts Sanda (Chinese kickboxing). The specific details are as follows: An inner protective layer 25 is bonded to the inner surface of the attachment layer 11, and a connecting layer 26 is bonded to the outer surface of the inner protective layer 25. A bonding and positioning mechanism is provided on the outer surface of the connecting layer 26. The inner protective layer 25 and the attachment layer 11 form a built-in structure, and the inner protective layer 25 and the connecting layer 26 form an adhesive structure. A main circuit 27 is installed on the outer surface of the connecting layer 26, and a secondary circuit 28 is installed on the outer surface of the main circuit 27. The connecting layer 26, the main circuit 27, and the secondary circuit 28 form an adhesive structure. In the bonding and positioning mechanism, a nested ring 29 is installed on the outer surface of the connecting layer 26, and a circuit seat 7 is nested to the inner surface of the nested ring 29. The base 1 is installed on the outer surface of the circuit seat 7, and a side buckle 30 and a stop block 31 are engaged on the outer surface of the base 1, thereby securing the side buckle 30... The stop block 31 is installed on the outer surface of the connecting layer 26. At the same time, the outer surface of the base 1 is bonded with a Velcro 32, and the outer surface of the Velcro 32 is bonded with a Velcro 33. The Velcro 33 is attached to the outer surface of the connecting layer 26. The outer surface of the base 1 is connected with a compression plate 34, and the outer surface of the compression plate 34 is nested with an outer protective layer 35, which is nested in the inner surface of the sensor baseband 10. The connecting layer 26 forms a limiting structure with the line seat 7 through the nested ring 29. The line seat 7 and the base 1 form an integrated structure. The base 1 forms a signal connection structure with the secondary line 28 through the line seat 7. The base 1 forms a limiting engagement structure with the connecting layer 26 through the side buckle 30 and the stop block 31. The connecting layer 26 forms a quick replacement structure with the base 1 through the Velcro 33 and the Velcro 32. The base 1 and the compression plate 34 are bonded together. The compression plate 34 and the outer protective layer 35 form a nested structure.

[0034] When the sensor is working, the extrusion plate 34 nested within the outer protective layer 35 assembled through the sensor baseband 10 compresses the thin-film pressure sensor base 1, detecting the force point and force intensity. It also works with the Velcro 32 assembled through the thin-film pressure sensor base 1 to attach the connecting layer 26 to the inner protective layer 25 via Velcro 33, preventing injury to limbs. Furthermore, the secondary line 28 connected through the wiring socket 7 mounted on the thin-film pressure sensor base 1, in conjunction with the main line 27 mounted on the secondary line 28, forms signal data transmission, improving data transmission stability. The base 1 has a side buckle 30 and a stop block 31 that are assembled with the connecting layer 26 to prevent misalignment or detachment of the wiring connector. When the base 1 is damaged and needs to be replaced, the sensor baseband 10 and the adhesive layer 11 will be disassembled to facilitate the removal of the base 1. The new thin-film pressure sensor will be stably assembled on the connecting layer 26 inside the sensor baseband 10 using the base 1, which improves the stability and ease of replacement of the thin-film pressure sensor using the base 1.

[0035] Example 3: Figures 3-10The technical solution shown, based on Embodiment 1, further discloses the winding assembly between connector 12 and connector 20 of the sensor baseband 10, as well as the replacement when the components are damaged. The specific details are as follows: The outer surface of the base 1 is wrapped with the sensor baseband 10, and the inner surface of the sensor baseband 10 is nested with an attachment layer 11. Connector 12 and connector 20 are mounted on the outer surface of the sensor baseband 10. A connector 14 is mounted on the side of connector 12, and a bending groove 13 is formed on the outer surface of connector 12. The inner surface of connector 14... A locking groove 15 is provided on the surface, and a rotating seat 16 is locked and engaged on the inner surface of the locking groove 15. A positioning seat 17 is installed on the outer surface of the rotating seat 16, and the positioning seat 17 is provided with a quick tightening mechanism. The connecting member 12, the sensor baseband 10, and the connecting seat 14 form an integrated structure. The bending groove 13 is equally spaced about the outer surface of the connecting member 12, and the connecting seat 14 forms a limiting engagement structure with the rotating seat 16 through the locking groove 15. The rotating seat 16 and the positioning seat 17 are embedded in each other on their outer surfaces. The positioning seat 17 in the quick tightening mechanism... The outer surface is fitted with a hanging ear 18, and the inner surface of the hanging ear 18 is connected to a tightening rope 19. A connecting member 20 is provided at the cross end of the outer surface of the tightening rope 19. The positioning seat 17 forms a nested locking structure with the hanging ear 18 and the tightening rope 19, and the connecting member 20 forms a cross-locking mechanism with the connecting member 12 through the tightening rope 19. Locking blocks 1601 are installed on the upper and lower sides of the outer surface of the rotating seat 16. A slot 1602 is formed on the inner surface of the locking block 1601, and a locking block 1603 is engaged with the inner surface of the slot 1602. The outer surface of the locking block 1603 is also fitted with... There is a movable column 1604, and a return spring 1605 is nested on the outer surface of the movable column 1604, and an unlocking block 1606 is installed on the outer surface of the movable column 1604; the locking block 1601 is symmetrically embedded on the outer surface of the rotating seat 16, and the locking block 1601 forms a limiting engagement structure with the locking block 1603 through the slot 1602, and the locking block 1603 forms an elastic sliding structure with the connecting seat 14 through the movable column 1604 and the return spring 1605, and the locking block 1603, the movable column 1604 and the unlocking block 1606 form an integrated structure.

[0036] When the lug 18 used by the sensor baseband 10 is damaged, the unlocking block 1606 on the outside of the connector 12 and the connector 14 on which the sensor baseband 10 is installed is pulled outwards from the connector 14. The locking block 1603, assembled by the moving post 1604 installed on the connector 14, disengages from the slot 1602 of the locking block 1601 nested on the inner surface of the connector 14. The locking block 1603 then compresses and contracts the return spring 1605, thus disengaging the locking block 1603 from the locking block 1601. The rotating seat 16, installed on the locking block 1601, is then rotated, thereby driving the positioning seat 17 assembled on the rotating seat 16 to control the positioning. The seat 17 disengages from the connecting seat 14 and the Panasonic unlocking block 1606, controls the locking block 1603 to automatically reset, and detaches the hanging ear 18 installed on the positioning seat 17 from the tightening rope 19. A new positioning seat 17 is then installed, and the locking block 1601 installed on the rotating seat 16 is nested in the locking groove 15. The positioning seat 17 is rotated to control the locking block 1601 to squeeze the locking block 1603, causing the locking block 1603 to retract. When the locking block 1601 is rotated to the designated position, the locking block 1603 will be stably locked in the locking block 1601, forming a positioning engagement with the positioning seat 17. The tightening rope 19 is then assembled on the hanging ear 18 for continued use of the protective gear, thus improving the service life of the protective gear.

[0037] A take-up seat 21 is connected to the middle section of the outer surface of the connecting seat 14, and a take-up shaft 22 is rotatably connected to the inner surface of the take-up seat 21. The take-up shaft 22 is equipped with a locking take-up mechanism. The take-up seat 21 and the connecting part 20 form a nested engagement structure, and the take-up seat 21 and the take-up shaft 22 form a rotating structure. A rotating part 23 is installed on the outer surface of the take-up shaft 22, and a tensioning rope 19 is connected through the inner surface of the take-up shaft 22. At the same time, a sliding groove 24 is opened on the lower side of the inner surface of the take-up seat 21, and the take-up shaft 22 and the rotating part 23 form an integrated structure. The take-up shaft 22 and the tensioning rope 19 form a through-limiting structure. In the locking take-up mechanism, a ratchet 2201 is installed on the outer surface of the take-up shaft 22, and the ratchet 2201... A pawl 2202 is engaged with the outer surface of the take-up shaft 22, and the pawl 2202 is positioned and rotated on the inner surface of the take-up shaft 21. An unlocking shaft 2203 is installed on the outer side of the pawl 2202, and the unlocking shaft 2203 is limited and slidably placed on the inner surface of the slide groove 24. At the same time, a compression spring 2204 is connected between the pawl 2202 and the take-up shaft 21. The ratchet gear 2201 is embedded in the outer surface of the take-up shaft 22, and the take-up shaft 22 forms a one-way engagement structure with the pawl 2202 through the ratchet gear 2201. The pawl 2202 forms a sliding structure with the slide groove 24 through the unlocking shaft 2203. At the same time, the pawl 2202 forms an elastic rotation structure with the take-up shaft 21 through the compression spring 2204.

[0038] When the sensor baseband 10 is working normally, the attachment layer 11 assembled with the sensor baseband 10 is connected to the limb. The connecting seat 14 installed on the control connector 20 and the rotating part 23 on the assembled winding seat 21 rotate, and the winding shaft 22 is rotated synchronously to wind up the tightening rope 19. The ratchet 2201 installed on the winding shaft 22 is engaged with the pawl 2202 connected to the compression spring 2204 to prevent the tightening rope 19 from disengaging and rotating automatically. This continuously controls the rotation of the winding shaft 22, stably wearing the sensor baseband 10 on the limb, improving wearing stability. When removing it later, when the unlocking shaft 2203 installed on the control pawl 2202 rotates in the slide groove 24, it contracts the compression spring 2204, thereby controlling the pawl 2202 to disengage from the ratchet 2201, making it easier for the sensor baseband 10 to unfold the tightening rope 19, improving the ease of wearing.

[0039] The contents not described in detail in this specification are existing technologies known to those skilled in the art.

[0040] 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 martial arts Sanda fast-wearing electronic protective gear sensor, with a base (1) provided with connecting components; Its features are, include: A flexible strip (2) is nested and connected to the lower side of the inner surface of the base (1), and a substrate (3) is installed on the lower surface of the flexible strip (2). A flexible ring (4) is bonded to the upper side of the inner surface of the base (1). At the same time, a conductive line one (5) and a conductive line two (6) are attached to the upper surface of the flexible ring (4). Another set of flexible rings (4) is connected to the upper surface of the conductive line two (6). An elastic film (8) is attached to the upper surface of the flexible ring (4). A welding strip (9) is installed on the lower surface of the elastic film (8). At the same time, the base (1) is welded to the outer surface of the welding strip (9). A circuit seat (7) is installed on the outer side of the base (1).

2. The electronic protective gear sensor for martial arts Sanda (Chinese kickboxing) according to claim 1, characterized in that: The base (1) forms a nested structure with the substrate (3) through the flexible strip (2), and the upper surface of the flexible strip (2) has a "well" shaped structure. The flexible strip (2) forms a multi-directional bending support. At the same time, the base (1) forms a support structure with the first conductive line (5) and the second conductive line (6) through the flexible ring (4). The upper surface of the first conductive line (5) and the second conductive line (6) forms a bonding structure with the elastic membrane (8) through the flexible ring (4). The elastic membrane (8) forms a welding structure with the base (1) through the welding strip (9). At the same time, the base (1) and the outer surface of the line holder (7) are embedded and installed.

3. The electronic protective gear sensor for martial arts Sanda (Chinese kickboxing) according to claim 1, characterized in that: The outer surface of the base (1) is covered with a sensor baseband (10), and the inner surface of the sensor baseband (10) is nested with an attachment layer (11). Connector 1 (12) and connector 2 (20) are installed on the outer side of the sensor baseband (10). Connector 1 (12) has a connecting seat (14) installed on its side. A bending groove (13) is formed on the outer surface of connector 1 (12), and a locking groove (15) is formed on the inner surface of the connecting seat (14). Simultaneously, a rotating seat (16) is locked and engaged on the inner surface of the locking groove (15). Furthermore, a positioning seat (17) is installed on the outer side of the rotating seat (16), and the positioning seat (17) is provided with a quick tightening mechanism; a winding seat (21) is connected to the middle section of the outer surface of the connecting seat (14), and a winding shaft (22) is rotatably connected to the inner surface of the winding seat (21), and the winding shaft (22) is provided with a locking winding mechanism; an inner protective layer (25) is attached to the inner surface of the adhesive layer (11), and a connecting layer (26) is attached to the outer surface of the inner protective layer (25), and an adhesive positioning mechanism is provided on the outer surface of the connecting layer (26).

4. The electronic protective gear sensor for martial arts Sanda (Chinese kickboxing) according to claim 3, characterized in that: The connector (12) forms an integrated structure with the sensor baseband (10) and the connector (14). The bending groove (13) is opened at equal distances from the outer surface of the connector (12). The connector (14) forms a limiting engagement structure with the rotating seat (16) through the locking groove (15). At the same time, the rotating seat (16) and the positioning seat (17) are embedded in the outer surface of the connector (16).

5. A martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor according to claim 3, characterized in that: The quick tightening mechanism has a hanging ear (18) installed on the outer surface of the positioning seat (17), and a tightening rope (19) is connected to the inner surface of the hanging ear (18). A connector (20) is provided at the cross end of the outer surface of the tightening rope (19). The positioning seat (17) and the tightening rope (19) form a nested locking structure through the hanging ear (18), and the connector (20) and the connector (12) form a cross locking mechanism through the tightening rope (19).

6. The martial arts Sanda fast-wearing electronic protective gear sensor according to claim 3, characterized in that: Locking blocks (1601) are installed on the upper and lower sides of the outer surface of the rotating base (16), and a slot (1602) is opened on the inner surface of the locking block (1601). A locking block (1603) is engaged with the inner surface of the slot (1602). A moving post (1604) is installed on the outer surface of the locking block (1603), and a return spring (1605) is nested on the outer surface of the moving post (1604). An unlocking block (1605) is installed on the outer surface of the moving post (1604). 606); The locking block (1601) and the rotating seat (16) are symmetrically embedded and installed on the outer surface of the locking block (16), and the locking block (1601) and the locking block (1603) form a limiting engagement structure through the slot (1602), and the locking block (1603) and the connecting seat (14) form an elastic sliding structure through the moving column (1604) and the return spring (1605), and the locking block (1603), the moving column (1604) and the unlocking block (1606) form an integrated structure.

7. The electronic protective gear sensor for martial arts Sanda (Chinese kickboxing) according to claim 3, characterized in that: The take-up seat (21) and the second connector (20) form a nested engagement structure, and the take-up seat (21) and the take-up shaft (22) form a rotating structure. A rotating component (23) is installed on the outer surface of the take-up shaft (22), and a tightening rope (19) is connected through the inner surface of the take-up shaft (22). At the same time, a sliding groove (24) is opened on the lower side of the inner surface of the take-up seat (21), and the take-up shaft (22) and the rotating component (23) form an integrated structure. At the same time, the take-up shaft (22) and the tightening rope (19) form a through-limiting structure.

8. A martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor according to claim 3, characterized in that: The locking and winding mechanism has a ratchet gear (2201) installed on the outer surface of the winding shaft (22), and a pawl (2202) is engaged with the outer surface of the ratchet gear (2201). The pawl (2202) is positioned and rotated on the inner surface of the winding seat (21). An unlocking shaft (2203) is installed on the outer side of the pawl (2202), and the unlocking shaft (2203) is limited and slid on the inner surface of the slide groove (24). At the same time, the pawl (2202) and the winding seat (2202) are engaged and rotated on the inner surface of the slide groove (24). 1) A compression spring (2204) is connected between them; the ratchet (2201) is embedded in the outer surface of the take-up shaft (22), and the take-up shaft (22) forms a one-way engagement structure with the ratchet (2201) and the pawl (2202), and the pawl (2202) forms a sliding structure with the slide groove (24) through the unlocking shaft (2203), and the pawl (2202) forms an elastic rotation structure with the take-up seat (21) through the compression spring (2204).

9. A martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor according to claim 3, characterized in that: The inner protective layer (25) and the adhesive layer (11) form an internal structure, and the inner protective layer (25) and the connecting layer (26) form an adhesive structure. The main circuit (27) is installed on the outer surface of the connecting layer (26), and the secondary circuit (28) is installed on the outer surface of the main circuit (27). The connecting layer (26), the main circuit (27), and the secondary circuit (28) form an adhesive structure.

10. A martial arts Sanda (Chinese kickboxing) speed-wearing electronic protective gear sensor according to claim 3, characterized in that: The outer surface of the connecting layer (26) in the fitting and positioning mechanism is equipped with a nested ring (29), and the inner surface of the nested ring (29) is nested with a wiring seat (7). The outer surface of the wiring seat (7) is equipped with a base (1), and a side buckle (30) and a stop (31) are snapped onto the outer surface of the base (1). The side buckle (30) and the stop (31) are then installed on the outer surface of the connecting layer (26). At the same time, a Velcro first (32) is bonded to the outer surface of the base (1), and a Velcro second (33) is bonded to the outer surface of the Velcro first (32). The Velcro second (33) is then bonded to the outer surface of the connecting layer (26), and an extrusion plate (34) is connected to the outer surface of the base (1). The outer surface of the extrusion plate (34) is nested with a wire seat (7). An outer protective layer (35) is connected and nested on the inner surface of the sensor baseband (10); the connecting layer (26) forms a limiting structure with the line seat (7) through the nested ring (29), and the line seat (7) forms an integrated structure with the base (1), and the base (1) forms a signal connection structure with the secondary line (28) through the line seat (7), while the base (1) forms a limiting engagement structure with the connecting layer (26) through the side buckle (30) and the stop block (31), and the connecting layer (26) forms a quick replacement structure with the base (1) through the second hook and loop fastener (33) and the first hook and loop fastener (32), and the base (1) forms a close fit connection with the extrusion plate (34), while the extrusion plate (34) forms a nested structure with the outer protective layer (35).

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