Human body activity recording shoe

Abstract

The invention relates to the technical field of wearable equipment, in particular to a human body activity recording shoe which comprises a shoe body, a positioning piece fixedly installed on a shoe tongue of the shoe body, a rotating shoelace system fixedly installed at the top of the positioning piece, and an outer shell installed at the concentric position of the top of the rotating shoelace system. A lining block is fixedly installed on the upper end face of the positioning piece and located between the rotary shoelace system and the outer shell, an extrusion rod used for abutting against a rotary knob of the rotary shoelace system is installed on the outer side of the outer shell, a power module is arranged in the middle of the top of the outer shell, and a micro-generator is arranged above the rotary knob of the rotary shoelace system. An output shaft of the micro-generator is connected with the center of the top end in the outer shell through a driving part, the outer side of the micro-generator is connected with the lining block through a supporting frame, a metal guide piece is arranged at the output end of the micro-generator, and the outer side of the metal guide piece is externally protected through a branch pipe; unification of energy collection, intelligent sensing and shoe functions is realized.

Description

Technical Field

[0001] This invention relates to the field of wearable device technology, and more particularly to a human activity recording shoe. Background Technology

[0002] Modern smart footwear has evolved from traditional sports protective equipment into important health monitoring platforms. Human activity tracking shoes, as a prime example, utilize a multimodal sensor array (including an inertial measurement unit, pressure distribution sensor, and geolocation module) distributed across key parts of the shoe to continuously collect biomechanical parameters such as cadence, stride length, movement trajectory, and plantar pressure distribution. They also feature intelligent monitoring functions such as movement pattern recognition, fall detection and warning, and electronic fencing. These innovative products, integrating textile technology and electronic information, are demonstrating irreplaceable application value in fields such as elderly health management, rehabilitation medicine assessment, and professional athlete training. However, existing technology solutions for activity tracking shoes generally adopt a design approach with functional modules distributed across the entire shoe: the positioning module is fixed to the upper, the sensing unit is embedded in the sole, and the power supply system is scattered. This non-integrated architecture leads to a complex product structure, affecting not only the overall integrity and aesthetics of the shoe but also significantly reducing device reliability over long-term use due to uneven stress on various components. More importantly, the power supply methods of existing products severely limit their practical application value. Most devices rely on periodic wired charging, and even those products using energy harvesting technology are limited to generating electricity from sole deformation, failing to effectively utilize the most frequent and predictable interaction behavior of "lacing shoes." This power supply design, disconnected from the core usage scenario, forces users to bear the additional burden of charging management for smart functions, limiting user experience and device usability.

[0003] Therefore, it is necessary to provide a human activity recording shoe to solve the above-mentioned technical problems. Summary of the Invention

[0004] To address the problems existing in the prior art, the present invention provides a human activity recording shoe.

[0005] The technical solution adopted by the present invention to solve its technical problem is: a human activity recording shoe, including a shoe body, a positioning piece fixedly installed on the shoe tongue and a rotating shoelace system, wherein the rotating shoelace system is fixedly installed on the top of the positioning piece, and an outer shell is installed at the top concentric position of the rotating shoelace system; An inner liner block is fixedly installed on the upper end face of the positioning piece between the rotating shoelace system and the outer shell, and an extrusion rod for contacting the knob of the rotating shoelace system is installed on the outer side of the outer shell; A power module is located at the center of the top of the outer shell, and a micro generator is located above the knob of the rotating shoelace system. The output shaft of the micro generator is connected to the center of the top of the outer shell through the drive unit, and the outside of the micro generator is connected to the inner lining block through the support frame. The output end of the micro generator is equipped with a metal guide plate, and the outside of the metal guide plate is protected by a branch pipe. The branch pipe is an insulating material and is fixedly connected to the outside of the micro generator. An annular plate is fixedly installed on the upper part of the inner wall of the outer casing. Annular metal plates that contact the metal guide plates are embedded in the annular plate in sequence. The pins of the annular metal plates are electrically connected to the input terminal of the power module. A protective sleeve is fixedly installed on the inner side of the outer casing, below the annular plate. A motion data acquisition module and a data intelligent processing unit that are electrically connected to the power module are arranged inside the protective sleeve.

[0006] Preferably, the drive unit includes a gear ring fixedly connected to the branch pipe, a gear carrier is provided at the top of the gear ring, planetary gears that mesh with the gear ring are installed at the end of the gear carrier at equal angles along the circumference, the top of the gear carrier is connected to the outer shell through a shaft, a sun gear is meshed on the inner side of the multiple planetary gears, and the bottom of the sun gear is connected to the output shaft of the micro generator through a connecting rod.

[0007] Preferably, a placement groove is provided at the insole position of the shoe body, an air cushion for cushioning is installed in the placement groove, and a silicone spring is provided in a part of the air cushion.

[0008] Preferably, an annular hole is provided at the center of the outer side of the inner liner block, and a vent hole is provided directly below the annular hole. A support block is installed at the center of the inner liner block, and an annular tube is rotatably installed on the outer side of the support block. A metal flexible tube is connected to the outer side of the annular tube, and the tail of the metal flexible tube is connected to the inner end of the vent hole. An outwardly protruding tube connected to and communicating with the annular tube is inserted into the annular hole. A sealing plug and an abutment plug are inserted sequentially from the inside to the outside of the outwardly protruding tube. A first elastic membrane is fixedly installed inside the outwardly protruding tube and between the sealing plug and the abutment plug. A limit rod is installed at the tail of the sealing plug. The sealing plug has a bending hole inside, the convex tube has a leakage hole on the side, an arc-shaped tube is fixedly installed on the outer wall of the convex tube and at the leakage hole, a second elastic membrane is installed inside the arc-shaped tube, an arc-shaped rod is inserted into the arc-shaped tube, and a stop block is fixedly installed on the inner wall of the annular tube. Symmetrical through holes are provided on both sides of the placement slot. An air tube is inserted into the through hole. One end of the air tube is connected to the air cushion, and the other end of the air tube is connected to the inner lining block and is connected to the air vent.

[0009] Preferably, the end face of the abutment is an arc surface, and an anti-slip pad is embedded at the end face of the abutment.

[0010] Preferably, the inner cross-section of the convex tube is a stepped surface, and a return spring is installed between one side of the sealing plug and the stepped surface.

[0011] Preferably, a sealing membrane is installed at one end of the sealing plug facing the annular tube, and the end of the sealing membrane is embedded in the inner wall of the convex tube.

[0012] Preferably, an elastic rope is provided at the end of the protruding tube, and multiple elastic ropes are respectively connected to the end of the stop block and the arc-shaped tube.

[0013] Preferably, the protective sleeve is also equipped with an image collection module that captures images of the human body from multiple angles. The image collection module is electrically connected to the power supply module and communicatively connected to the data intelligent processing unit.

[0014] Preferably, a heating unit is provided inside the shoe body. The heating unit is powered by a power module and includes a flexible FPC circuit board substrate attached to the shoe sole interlayer and a carbon fiber heating film printed on the substrate.

[0015] Compared with related technologies, the human activity recording shoe provided by the present invention has the following beneficial effects: This invention provides a human activity recording shoe. It employs an integrated design by adding a linked outer shell to the outside of the knob in a traditional rotating shoelace system. This converts the user's natural action of tightening the shoelaces into electrical energy, directly powering the built-in power module, motion data acquisition module, and intelligent data processing unit, achieving seamless charging during operation. Simultaneously, all functional modules are highly integrated within the outer shell, avoiding the need for additional equipment on the upper or sole, perfectly preserving the shoe's original appearance, comfort, and durability. This achieves an organic unity of energy harvesting, intelligent sensing, and footwear functionality. Furthermore, it centrally integrates an image acquisition module and a heat therapy unit. On one hand, it allows real-time monitoring of the user's environment via a remote terminal, enabling location tracking in case of loss; on the other hand, it promotes foot health through heat stimulation.

[0016] This invention provides a human activity recording shoe. The invention utilizes the periodic pressure generated by the human body on the air cushion during walking to convert mechanical energy into the rotation of a micro generator through pneumatic transmission, thereby continuously charging the shoe. In this way, the user can automatically and imperceptibly replenish the power of the smart shoe system during walking without any additional operation. This further enhances the battery life of the motion data acquisition module and data intelligent processing unit, while expanding into a self-circulating power supply paradigm of charging while walking, effectively eliminating the dependence on wired charging and user-managed power. Attached Figure Description

[0017] Figure 1 This is an exploded view of the overall structure of the present invention; Figure 2 This is a partial structural cross-sectional view of the present invention; Figure 3 For the present invention Figure 2 A magnified view of a portion of region A in the middle; Figure 4 For the present invention Figure 2 A magnified view of a portion of region B in the middle; Figure 5 This is a cross-sectional view of the inner liner block of the present invention; Figure 6 For the present invention Figure 5 A magnified view of a portion of region C in the middle; Figure 7 This is a system diagram of the present invention; The following are the labeling elements in the diagram: 1. Shoe body, 2. Positioning plate, 3. Rotating shoelace system, 4. Outer shell, 5. Lining block, 6. Power module, 7. Micro generator, 10. Placement slot, 11. Air cushion, 12. Heating unit, 13. Through hole, 14. Air tube, 31. Annular plate, 32. Annular metal sheet, 33. Protective sleeve, 40. Extrusion rod, 41. Metal guide plate, 42. Branch tube, 50. Annular hole, 51. Gear ring, 52. Gear carrier, 53. Planetary gear, 54. Sun gear, 55. Shaft, 56. Sealing plug, 57. Abutment plug, 58. First elastic membrane, 59. Limiting rod, 551. Leakage hole, 552. Arc-shaped tube, 553. Second elastic membrane, 554. Arc-shaped rod, 555. Stop block, 561. Bending hole, 591. Sealing membrane. Detailed Implementation

[0018] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0019] Furthermore, the terms used below are defined based on the functionality of this invention and may vary depending on the user's, operator's, or conventions. Therefore, these terms are defined based on the entire contents of this specification.

[0020] Please see Figures 1-7 The present invention provides a human activity recording shoe, comprising a shoe body 1, a positioning piece 2 fixedly installed on the tongue of the shoe body 1, and a rotating shoelace system 3. The rotating shoelace system 3 is fixedly installed on the top of the positioning piece 2. The positioning piece 2 and the tongue can be fixed by one-piece sewing or by Velcro. The rotating shoelace system 3 includes a shoelace tightening mechanism, which is used to convert the user's input action of rotating the knob into linear tightening or loosening of the shoelaces to enable the shoe body 1 to be put on and taken off; In this embodiment, in one optional implementation, the specific structure of the rotating shoelace system 3 can be referred to the type described in patent number CN201922120359.3. Therefore, the specific working principle of the rotating shoelace system 3 will not be described in this embodiment. A housing 4 is installed concentrically at the top of the rotating shoelace system 3. An inner liner 5 is fixedly installed on the upper surface of the positioning piece 2 between the rotating shoelace system 3 and the housing 4. A pressing rod 40 for contacting the knob of the rotating shoelace system 3 is installed on the outside of the housing 4. A support spring is provided at the connection between the pressing rod 40 and the housing 4. In daily use, the user presses the squeezing rod 40 so that its end contacts the knob of the rotating shoelace system 3. At this time, rotating the outer shell 4 will simultaneously drive the knob to work. That is, the rotating shoelace system 3 can be driven to work through the cooperation of the outer shell 4 and the squeezing rod 40. A power module 6 is located at the top center of the outer casing 4, and a micro generator 7 is located above the knob of the rotating shoelace system 3. The power module 6 may include a rechargeable energy storage element (such as a lithium polymer battery) and a power management circuit. The power management circuit includes at least a rectifier unit (such as a full-bridge rectifier circuit), a voltage conversion unit (such as a DC-DC buck-boost converter), and a charging management unit (such as a lithium battery charging management IC). The rectifier unit is connected to the output terminal of the micro generator 7, and the charging management unit is connected to the rechargeable energy storage element; wherein the micro generator 7 can be a micro DC generator with an outer diameter of no more than 12mm and a length of no more than 20mm, and its rated voltage is between 3V and 5V. For example, a micro hollow cup generator that meets such specifications can be selected from the market. Furthermore, the output shaft of the micro generator 7 is connected to the top center of the inner part of the outer casing 4 via the drive unit 5, and the outer side of the micro generator 7 is connected to the inner liner block 5 via the support frame. The output end of the micro generator 7 is provided with a metal guide plate 41, and the metal guide plate 41 is externally protected by a branch pipe 42. The branch pipe 42 is an insulating material and is fixedly connected to the outside of the micro generator 7. An annular plate 31 is fixedly installed on the upper part of the inner side wall of the outer casing 4. An annular metal sheet 32 ​​that contacts the metal conductor 41 is embedded in the annular plate 31 in sequence. The pins of the annular metal sheet 32 ​​are electrically connected to the input terminal of the power module 6. A protective sleeve 33 is fixedly installed on the inner side of the outer shell 4 and below the annular plate 31. A motion data acquisition module and a data intelligent processing unit electrically connected to the power module 6 are arranged inside the protective sleeve 33. When the outer shell 4 rotates, the metal guide plate 41 rotates relative to the annular metal plate 32, but the two always remain in contact. The output end of the micro generator 7 maintains a path with the power module 6 and the motion data acquisition module and data intelligent processing unit through the metal guide plate 41 and the annular metal plate 32. When the user rotates the outer casing 4 to rotate the shoelace system 3 knob to tighten the shoelaces, this mechanical rotation synchronously drives the micro generator 7 to generate electrical energy. This electrical energy is processed by the power management circuit and stored in the rechargeable battery of the power module 6 (i.e., the lithium polymer battery mentioned above). The power module 6 supplies power to the motion data acquisition module and the data intelligent processing unit. In this embodiment, the motion data acquisition module and the data intelligent processing unit are respectively illustrated by a triaxial accelerometer, a rotary encoder, and a microcontroller. They can also be replaced by other components with the same function. The triaxial accelerometer detects changes in foot acceleration in real time for the microcontroller to identify the number of steps, and the rotary encoder records the knob rotation data for the microcontroller to analyze and adjust the behavior, thereby realizing the human activity recording function. In this embodiment, the integrated design adds a linkage outer shell 4 to the outside of the knob of the traditional rotating shoelace system 3, converting the user's natural action of tightening the shoelaces into electrical energy, which directly powers the built-in power module 6, motion data acquisition module, and data intelligent processing unit, achieving seamless battery life with operation-based charging. At the same time, all functional modules are highly integrated inside the outer shell 4, avoiding the need for additional equipment on the upper or sole, perfectly maintaining the original appearance, comfort, and durability of the shoe, and achieving an organic unity of energy harvesting, intelligent sensing, and footwear functions.

[0021] Furthermore, the protective sleeve 33 is also equipped with an image collection module that captures images of the human body from multiple angles. The image collection module is electrically connected to the power module 6 and communicatively connected to the data intelligent processing unit. The image acquisition module includes a miniature pinhole camera module, an image signal processor, and a communication module. The miniature pinhole camera module can be a commercially available OV6946 or AR1335 sensor. The image signal processor can be integrated into a Hi3516DV300 or MSM8909 chip. The communication module can be a Quectel EC200S series (4GCat.1) or Fibocom MA510 series (NB-IoT) module. It should be understood that the specific models mentioned above are merely illustrative and not intended to limit the invention. Under the concept of this invention, those skilled in the art can select other component models capable of achieving the same or similar functions according to actual needs. The miniature pinhole camera module and image signal processor establish a connection with a remote terminal through a data intelligent processing unit and a communication module. The remote terminal can be a mobile phone, smartwatch, AR glasses, etc. The mounting positions for the miniature pinhole camera module can be distributed on the outer side of the housing 4, and can be arranged at multiple angles; for example, if located at the top vertical outer side of the housing 4, the mounting positions for the miniature pinhole camera module are as follows: Figure 3 As shown at position I, the miniature pinhole camera module can also be installed on the horizontal outer side of the housing 4, in which case the installation position of the miniature pinhole camera module is as follows: Figure 3 Located at position II; The data pins of the miniature pinhole camera module are connected to the parallel sensor interface of the image signal processor via an FPC cable. After receiving the raw event stream data, the image signal processor executes preprocessing algorithms, including but not limited to noise reduction, format conversion and data encapsulation, to package the data into a standard format that can be transmitted through the system bus. The processed effective image data is sent to the buffer area of ​​the data intelligent processing unit and the communication module. like Figure 7 The system diagram shown illustrates that the wireless transmission unit integrated within the data intelligent processing unit and communication module acquires image data from the cache and uploads it to the cloud server via the mobile internet through its built-in 4G / 5G or NB-IoT communication protocol stack. Remote terminals can access the cloud server through an authorized account or receive data through point-to-point communication technology, thereby enabling remote, near real-time viewing of first-person perspective image data. If the user gets lost, external devices can observe the scene of the user's final destination through a mobile phone and provide real-time assistance and location services to help find the lost user. A heating unit 12 is provided inside the shoe body 1. The heating unit 12 is powered by the power module 6. The heating unit 12 includes a flexible FPC circuit board substrate attached to the shoe sole interlayer and a carbon fiber heating film printed on the substrate. The carbon fiber heating film is generally connected to the power module 6 via a temperature controller. The control switch for controlling the operation of the heat therapy unit 12 is generally located on the upper of the shoe body 1. Meanwhile, the heating points on the carbon fiber heating film correspond to the positions of the foot reflex zones. Specific foot reflex zones include the forefoot area (corresponding to the cardiopulmonary reflex zone, where the heating film has a slightly higher power density to promote blood circulation), the arch area (corresponding to the celiac plexus and spleen / stomach reflex zone, using a medium power density for gentle stimulation), and the heel area (corresponding to the kidney and gonadal reflex zone, this area is larger and uses uniform heating). Therefore, foot heat stimulation can promote foot health for the user. Figure 1 The medium-heating unit 12 is only shown in a portion of the area.

[0022] In another embodiment, reference Figures 1-6 The drive unit 5 includes a gear ring 51 fixedly connected to the branch pipe 42. A gear carrier 52 is provided directly above the gear ring 51. The gear ring 51 is always in a stationary state. Planetary gears 53 that mesh with gear rings 51 are installed at the end of the gear carrier 52 at equal angles along the circumference. The top of the gear carrier 52 is connected to the outer casing 4 through a shaft 55. When the outer casing 4 rotates, it drives the gear carrier 52 to rotate through the shaft 55. Multiple planetary gears 53 are meshed with a sun gear 54 on their inner sides. The bottom of the sun gear 54 is connected to the output shaft of the micro generator 7 via a connecting rod. In this structure, when the outer casing 4 drives the gear carrier 52 to rotate once, it forces multiple planetary gears 53 to roll around the fixed gear ring of the gear carrier 52, thereby driving the sun gear 54 to rotate at a transmission ratio of (1 + number of teeth on the gear ring / number of teeth on the sun gear). The rotation speed of the knob on the outer casing 4 used to tighten the shoelaces remains unchanged to ensure normal operation feel, but the rotation speed of the micro generator 7 is amplified. In this embodiment, energy harvesting efficiency is decoupled from user operation experience. Without changing or even increasing the force and operation time required to tighten the shoelaces, the rotation speed of the output end of the micro generator 7 is increased, enabling it to generate more electrical energy in a single operation. This provides ample power to the power module 6 efficiently and seamlessly, effectively improving the endurance of the motion data acquisition module and the data intelligent processing unit.

[0023] A placement groove 10 is provided at the insole position of the shoe body 1. An air cushion 11 for cushioning is installed in the placement groove 10. When the user uses the shoe, the foot applies pressure to the shoe body 1, and the air cushion 11 cushions the foot pressure, increasing the user's comfort. A silicone spring is provided in a part of the air cushion 11. Multiple silicone springs are evenly distributed in the cavity of the air cushion 11. When the foot is stepped on, the silicone springs are compressed; when the foot is lifted, the high elasticity of the silicone spring material itself quickly pushes the air cushion back to its original shape.

[0024] In another embodiment, reference Figures 1-6 An annular hole 50 is provided at the center of the outer side of the inner liner block 5, and a vent hole 54 is provided directly below the annular hole 50. A support block 51 is installed at the center of the inner liner block 5, and an annular tube 52 is rotatably installed on the outer side of the support block 51. The annular tube 52 can rotate along the support block 51. The outer side of the annular tube 52 is connected to a metal hose 53, and the tail of the metal hose 53 is connected to the inner end of the vent 54. Under normal conditions, the metal hose 53 is in a relaxed state and can be pulled in the circumferential direction. An outwardly protruding tube 55, which is connected and communicates with the annular tube 52, is inserted into the annular hole 50. A sealing plug 56 and an abutting plug 57 are inserted into the inside of the outwardly protruding tube 55 from the inside to the outside. A first elastic membrane 58 is fixedly installed inside the outwardly protruding tube 55 and between the sealing plug 56 and the abutting plug 57. A limit rod 59 is installed at the tail of the sealing plug 56. The sealing plug 56 has a bending hole 561 inside, the convex tube 55 has a leakage hole 551 on the side, the outer wall of the convex tube 55 is fixedly installed at the leakage hole 551, the second elastic membrane 553 is provided inside the arc tube 552, the arc rod 554 is inserted into the arc tube 552, and the inner wall of the annular tube 52 is fixedly installed with a stop 555. The placement groove 10 has symmetrical through holes 13 on both sides. An air tube 14 is inserted into the through hole 13. One end of the air tube 14 is connected to the air cushion 11, and the other end of the air tube 14 is connected to the inner liner block 5 and is connected to the vent hole 54. In this embodiment, the air cushion 11, air tube 14, annular tube 52, and convex tube 55 are interconnected and all are filled with gas. Under normal conditions, the elasticity of the first elastic membrane 58 has a similar effect to the contact plug 57. Figure 6 The pulling force in the L direction causes the initial state of the contact plug 57 to be such that, when the air cushion 11 is not under pressure, it is as follows: Figure 6 In the state shown, the abutment plug 57 is retracted inside the protruding tube 55, the end face of the abutment plug 57 does not contact the inner wall of the outer shell 4, and at this time the area of ​​the sealing plug 56 without the bending hole 561 seals the leakage hole 551. When the air cushion 11 is pressed by the user's foot, the gas stored inside the air cushion 11 is compressed. The compressed gas acts on one end of the sealing plug 56 along the air tube 14 and the annular tube 52. The sealing plug 56 is pushed by the pressure to the abutment plug 57 along... Figure 6 The R-axis moves and contacts the inner wall of the outer casing 4; Furthermore, the end face of the abutment plug 57 is an arc surface, which increases the contact area with the inner wall of the outer shell 4. An anti-slip pad is embedded at the end face of the abutment plug 57, and the anti-slip pad directly contacts the inner wall of the outer shell 4, increasing the contact friction with it. When the abutment plug 57 moves to contact the inner wall of the outer shell 4, the bending hole 561 inside the sealing plug 56 moves to overlap with the leakage hole 551. At this time, the compressed gas will enter the arc tube 552 along the bending hole 561 and the leakage hole 551. The second elastic membrane 553 is deformed by the air pressure and pushes the arc rod 554 to extend along the inner wall of the arc tube 552. Since the position of the stop block 555 remains unchanged, the reaction force acts directly on the convex tube 55, causing the annular tube 52 to deflect along the support block 51. The abutment plug 57 drives the outer shell 4 to deflect synchronously, thereby driving the micro generator 7 to work. In this embodiment, the periodic pressure exerted on the air cushion 11 by the human body during walking converts mechanical energy into the rotational operation of a micro generator through pneumatic transmission, thereby continuously charging the system. In this way, the user can automatically and imperceptibly replenish the power of the smart shoe system without any additional operation. This further increases the battery life of the motion data acquisition module and the data intelligent processing unit, while expanding into a self-circulating power supply paradigm of charging while walking, effectively eliminating the dependence on wired charging and user-managed power.

[0025] Meanwhile, the inner cross-section of the convex tube 55 is a stepped surface, and a return spring is installed between one side of the sealing plug 56 and the stepped surface. An elastic rope is provided at the end of the convex tube 55, and multiple elastic ropes are respectively connected to the end of the stop block 555 and the arc tube 552. During the gas compression process, the return spring and elastic rope are compressed or stretched. When the air cushion 11 loses its compression effect and returns to the initial state, the return spring and elastic rope can quickly drive the sealing plug 56 and the arc rod 554 to return to the initial state.

[0026] A sealing membrane 591 is installed at the end of the sealing plug 56 facing the annular tube 52. The end of the sealing membrane 591 is embedded in the inner wall of the convex tube 55. The sealing membrane 591 further increases the sealing performance of the gas inside the convex tube 55, preventing air leakage at the connection between the sealing plug 56 and the convex tube 55.

[0027] The above description is merely an embodiment of the present invention and does not limit the patent scope of the present invention. Any equivalent structural or procedural transformations made based on the content of the present invention specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of the present invention.

Claims

1. A human activity recording shoe comprising a shoe body (1), a positioning sheet (2) fixedly installed on the tongue of the shoe body (1), and a rotating shoelace system (3), characterized in that, The rotating shoelace system (3) is fixedly installed at the top of the positioning sheet (2), and the outer shell (4) is installed at the concentric position of the top of the rotating shoelace system (3); The inner lining block (5) is fixedly installed at the upper end face of the positioning sheet (2) and between the rotating shoelace system (3) and the outer shell (4), and the extrusion rod (40) for abutting against the knob of the rotating shoelace system (3) is installed at the outer side of the outer shell (4); The power module (6) is arranged at the top of the outer shell (4), the micro generator (7) is arranged above the knob of the rotating shoelace system (3), the output shaft of the micro generator (7) is connected to the inner top of the outer shell (4) through the driving part (5), and the outer side of the micro generator (7) is connected to the inner lining block (5) through the support frame; The output end of the micro generator (7) is provided with a metal guide plate (41), and the outer side of the metal guide plate (41) is externally protected through a branch pipe (42), the branch pipe (42) is made of an insulating material and is fixedly connected to the outer side of the micro generator (7); The annular plate (31) is fixedly installed at the upper position of the inner side wall of the outer shell (4), the annular metal sheet (32) in contact with the metal guide plate (41) is sequentially embedded on the annular plate (31), the pin position of the annular metal sheet (32) is electrically connected to the input end of the power module (6), the protective sleeve (33) is fixedly installed at the lower position of the annular plate (31) at the inner side position of the outer shell (4), and the motion data acquisition module and the data intelligent processing unit electrically connected to the power module (6) are arranged in the protective sleeve (33).

2. The ambulatory recording shoe of claim 1, wherein, The driving part (5) includes the gear ring (51) fixedly connected to the branch pipe (42), the gear frame (52) is arranged above the gear ring (51), the planetary gears (53) meshing with the gear ring (51) are installed at the end positions of the gear frame (52) at equal angles in the circumferential direction, the top of the gear frame (52) is connected to the outer shell (4) through the shaft rod (55), the sun gear (54) is meshingly installed at the inner side positions of the plurality of planetary gears (53), and the bottom of the sun gear (54) is connected to the output shaft of the micro generator (7) through the connecting rod.

3. The ambulatory recording shoe of claim 1, wherein, The placing groove (10) is formed at the insole position of the shoe body (1), the air cushion (11) for buffering is installed in the placing groove (10), and the silica gel spring is arranged in the inner part region of the air cushion (11).

4. An activity recording shoe according to claim 3, wherein, The outer side of the inner lining block (5) is provided with an annular hole (50) in the center, a breathable hole (54) is provided below the annular hole (50), a supporting block (51) is installed in the inner center of the inner lining block (5), the outer side of the supporting block (51) is rotatably installed with an annular pipe (52), the outer side of the annular pipe (52) is communicated with a metal hose (53), the tail of the metal hose (53) is communicated with the inner side end of the breathable hole (54), an outer convex pipe (55) connected and communicated with the annular pipe (52) is inserted in the annular hole (50), the inner part of the outer convex pipe (55) is sequentially inserted with a sealing plug (56) and a resisting plug (57) from inside to outside, a first elastic film (58) is fixedly installed in the inner part of the outer convex pipe (55) and between the sealing plug (56) and the resisting plug (57), the tail of the sealing plug (56) is installed with a limiting rod (59); The inner part of the sealing plug (56) is provided with a bending hole (561), the outer convex pipe (55) is provided with a leakage hole (551) in the side, an arc-shaped pipe (552) is fixedly installed on the outer side wall of the outer convex pipe (55) and at the leakage hole (551), a second elastic film (553) is arranged in the arc-shaped pipe (552), an arc-shaped rod (554) is inserted in the inner part of the arc-shaped pipe (552), and the inner side wall of the annular pipe (52) is fixedly installed with a stop block (555). The both sides of the placing groove (10) are symmetrically provided with through holes (13), and the through holes (13) are inserted with air pipes (14), one end of the air pipe (14) is communicated with the air cushion (11), and the other end of the air pipe (14) is connected with the inner lining block (5) and communicated with the breathable hole (54).

5. An activity recording shoe according to claim 4, wherein, The end face of the resisting plug (57) is a circular arc face, and an anti-skid gasket is embedded in the end face of the resisting plug (57).

6. An activity recording shoe according to claim 4, wherein, The inner side section of the outer convex pipe (55) is a stepped face, and a return spring is installed between one side of the sealing plug (56) and the stepped face.

7. The ambulatory recording shoe of claim 4, wherein, One end of the sealing plug (56) towards the annular pipe (52) is installed with a sealing film (591), and the tail end of the sealing film (591) is embedded in the inner wall of the outer convex pipe (55).

8. The ambulatory recording shoe of claim 4, wherein, The end of the elastic rope is connected with the end of the stop block (555) and the arc-shaped pipe (552).

9. The ambulatory recording shoe of claim 1, wherein, The protective sleeve (33) is further provided with an image collection module for multi-angle capturing of the human body, and the image collection module is electrically connected with the power module (6) and is in communication connection with the data intelligent processing unit.

10. The ambulatory recording shoe of claim 1, wherein, A hot compress unit (12) is arranged in the shoe body (1), the hot compress unit (12) is powered by the power module (6), and the hot compress unit (12) comprises a flexible FPC circuit board substrate attached to the shoe sole interlayer and a carbon fiber heating film printed on the substrate.

Images