Multifunctional temperature-adjusting leisure sports shoes and preparation method thereof

Abstract

The invention discloses a multifunctional temperature-adjusting leisure sports shoe and a preparation method thereof. According to the sports shoe, semiconductor refrigeration layers are embedded into the two sides of a vamp, and a flexible photovoltaic film is arranged on a shoe tongue; the sole is integrated with a heating layer block containing a heating wire, a piezoelectric power generation layer, a breathable buffer block and a heel structure. A fan, a battery and a processor bin are mounted in the heel structure bin cover, and side door units with filter screens are arranged on two sides; the fan is communicated with the air hole network of the breathable buffer block through a connecting pipe; and the microprocessor is connected with and controls each functional module. During preparation, the positioning grooves communicated with each other are machined in the breathable buffer block and the heel structure assembly body through special groove scraping equipment, and the positioning blocks are embedded in the positioning grooves for fixation. According to the invention, functions of refrigeration, heating, airflow circulation and piezoelectric and photovoltaic power generation are integrated, and intelligent control and multi-path energy management are combined, so that dynamic and accurate temperature regulation of a microenvironment in the shoe is realized; the modular design and the positioning block and groove interlocking structure effectively guarantee stable operation and overall reliability of core components.

Description

Technical Field

[0001] The present invention relates to the technical field related to sports shoes, in particular to a multifunctional temperature-regulating leisure sports shoe and a preparation method thereof. Background Art

[0002] Traditional sports shoes mainly rely on the breathability of materials and the physical structure of mesh and pores to regulate the foot environment. It is difficult to effectively maintain the temperature and humidity balance inside the shoes during strenuous exercise or extreme temperatures, affecting wearing comfort and athletic performance.

[0003] At present, China's patent application number: CN202023291541.4 discloses a temperature-regulating protective shoe, including a shoe body, the shoe body including a sole and a lining, the lining is arranged above the sole, and an air bag connected to the lining is provided in the sole, and a temperature-regulating silver wire layer is provided inside the lining. The silver wire layer is added to the lining, which feels cool to the touch and can quickly adjust the dryness of the foot in the shoe cavity with poor permeability, reduce the temperature, and reduce the burning sensation caused by long-term wear. The surface of the shoe lining material adopts 40-count quick-drying antibacterial cloth, woven with temperature-regulating silver wire thread, which feels cool to the touch and does not get hot after a long time of warming. It can effectively ensure that the problems in the shoe cavity do not increase and the body feels comfortable. The cloth surface adopts antibacterial cloth and bacterial flora, and the sole adopts a one-way moisture-conducting and exhaust air bag to accelerate the circulation of air in the shoe cavity and prevent water from entering the shoe cavity.

[0004] However, existing sports shoes have shortcomings in actively regulating the temperature and humidity inside the shoes, making it difficult to meet comfort needs in different environments. Some products attempt to integrate electronic temperature control functions, but they often have functional limitations, high energy consumption, lack of long-term self-sustaining energy, complex structures after multi-module integration, and connections that are prone to loosening and failure under sports impact, resulting in poor comfort and stability and reliability. Summary of the Invention

[0005] The object of the present invention is to provide a multifunctional temperature-regulating leisure sports shoe and a preparation method thereof, so as to solve the problems raised in the above background technology.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a multifunctional temperature-regulating leisure sports shoe, comprising an upper and a sole fixed to the top side thereof, wherein semiconductor refrigeration layers are embedded in both sides of the inclined surface of the upper, and a flexible photovoltaic film strip is provided at the tongue of the upper, and a heating layer block, a piezoelectric power generation layer, a breathable buffer block and a heel structure are sequentially provided inside the sole from the sole area to the heel area, electric heating wires are staggeredly embedded inside the heating layer block, and two connected grooves are provided above the side adjacent to the breathable buffer block and the heel structure, and And positioning blocks are fitted and fixed inside the two grooves. The heel structure includes a hopper cover embedded in the heel area of ​​the sole. Two columns are fixedly installed on the front and back sides of the hopper cover, and side door units are embedded in the left and right side walls of the hopper cover. Pads are fixed on the left and right sides of the hopper cover. Fans are locked and fixed on the top sides of the two pads. The impeller end of the fan is rotatably connected to the inside of the air duct. A connecting pipe is locked and fixed on the side of the air duct away from the side door unit. The other end of the connecting pipe is connected to the breathable buffer block. A battery is installed on the middle side of the hopper cover, and a processor compartment is provided above the battery.

[0007] Preferably, the flexible photovoltaic film strip is made of perovskite material, and the circuit is automatically connected when the light intensity is greater than 10,000 lux. The maximum temperature of the heating wire is 60 degrees.

[0008] Preferably, the left and right sides of the top of the breathable buffer block are integrally formed with protrusions, and air holes are provided at positions staggered with the protrusions. The air holes on the left and right sides are respectively integrated with air collecting grooves at the front end of the breathable buffer block, and the two air collecting grooves are respectively connected to two connecting pipes. A temperature sensor is embedded in the top side of the breathable buffer block, and a wire groove is opened through the middle side of the top of the breathable buffer block for connecting the wiring of the semiconductor refrigeration layer and the flexible photovoltaic film strip to the inside of the heel structure.

[0009] Preferably, a microprocessor and a Bluetooth module are provided inside the processor compartment, and the semiconductor refrigeration layer, the flexible photovoltaic film strip, the heating wire and the piezoelectric power generation layer are all electrically connected to the battery through the microprocessor.

[0010] Preferably, there are two side door units, and the two side door units are located in the middle of the warehouse cover and are arranged in opposite directions. The side door unit includes a frame seat embedded in the interior of the warehouse cover, a protective plate is fixedly connected to the outer side of the frame seat, and a filter plate is installed on the middle side of the inner side of the protective plate, an opening and closing assembly is provided on the bottom side of the inner part of the frame seat, the lower part of the opening and closing assembly is slidably connected to the inner side of the lower groove frame, and the upper part is slidably connected to the inner side of the upper groove frame, a rectangular sealing strip is fixed on the side of the protective plate close to the opening and closing assembly, and the other side of the rectangular sealing strip is in contact with the opening and closing assembly.

[0011] Preferably, the opening and closing assembly includes a base plate whose bottom is fixed to the frame seat, a first motor locked and fixed to the top side of the base plate, and an adjusting rod connected to the right output shaft of the first motor. Bearing blocks are provided at the left and right ends of the adjusting rod, and the bottom of the bearing block is fixed to the frame seat. The adjusting rod is composed of two coaxial screws, and the left and right sides of the two screws are provided with reverse threads. The two screws are respectively connected to the first folding door component and the second folding door component. The first folding door component and the second folding door component have the same structure and size, and the upper and lower parts are respectively slidably connected to the inner sides of the upper trough frame and the lower trough frame.

[0012] Preferably, the first folding door component includes a V-shaped folding door whose front side contacts a rectangular sealing strip, the upper side of the V-shaped folding door is rotatably connected to two first rollers, the two first rollers are slidably connected to the inner side of the upper groove frame, the left and right sides of the bottom of the V-shaped folding door are rotatably connected to the top rear sides of two internal thread blocks, the two internal thread blocks are respectively threadedly connected to the two reverse threaded outer surfaces of the screw, the bottom rear sides of the two internal thread blocks are connected to second rollers, and the two second rollers are slidably connected to the inner side of the lower groove frame.

[0013] In addition, the present invention also provides a method for preparing multifunctional temperature-regulating leisure sports shoes, which is used to prepare the multifunctional temperature-regulating leisure sports shoes, comprising the following steps:

[0014] S1. Embed semiconductor cooling layers on both sides of the shoe upper and fix flexible photovoltaic film strips on the tongue;

[0015] S2. Forming a heating layer block containing interlaced heating wires in the sole area of ​​the shoe, and laying a piezoelectric power generation layer and a breathable buffer block in sequence behind the heating layer block. The breathable buffer block has convex points and air holes formed on the top, a temperature sensor embedded inside, and a wire groove;

[0016] S3. Secure the fan in the hopper cover with a spacer, connect the fan's air duct to the pipe, install the battery and the processor compartment containing the microprocessor in the hopper cover, embed side door units on both sides to form a heel structure, and assemble the heel structure to the rear side of the breathable buffer block, connect the pipe to the air collecting groove of the breathable buffer block, and then use a scraping device to open two connecting grooves above the breathable buffer block and the heel structure, and then use positioning blocks to fix them inside the two grooves to prevent deviation;

[0017] S4. Place the shoe upper on the sole, connect the conductors of the semiconductor cooling layer, flexible photovoltaic film strip, heating wire, and piezoelectric power generation layer to the extension conductors of the processor compartment and battery in the wire slot, and apply waterproof sealant in the wire slot after connection;

[0018] S5. Fit and fix the above-mentioned upper and sole to complete the overall assembly.

[0019] Preferably, the scraping device includes a positioning plate, a guard fastened to the top side of the positioning plate, a second motor locked and fixed inside the guard, a worm connected to the bottom output shaft of the second motor, a rotating rack coaxially rotating at the bottom end of the worm, a displacement structure engaged with the right side of the worm, a cross slide slidably connected to the bottom of the rotating rack, a slide slidably connected to the bottom of the cross slide, a rotary cutter coaxially rotating on the middle side of the bottom of the slide, a slider wrapped around the upper outer surface of the rotary cutter, and a rectangular frame wrapped around the front and rear sides of the slider, the upper and lower sides of the worm rotate through the interior of the positioning plate, the top rear side of the rectangular frame is fixed to the positioning plate, the bottom end of the displacement structure is rotationally connected to the slider, and the rear side of the displacement structure is rotationally connected to the positioning plate.

[0020] Preferably, the bottom of the rotating frame and the top of the slide are both provided with a straight convex strip, and the two straight convex strips are distributed in a cross shape, respectively inserted and slid inside the upper and lower sides of the cross slide, and a strip groove is opened on the front side of the interior of the rectangular frame, and the front part of the slider is inserted and slid inside the strip groove.

[0021] Preferably, the displacement structure includes a worm wheel meshing with the worm on the left side, an eccentric groove disk fixedly connected to the middle side of the front part of the worm wheel, a support rod frame slidably connected to the inner side of the circular groove in the front part of the eccentric groove disk, and a connecting rod rotatably connected to the bottom end of the support rod frame. The middle part of the rear side of the worm wheel and the middle part of the rear side of the support rod frame are both rotatably connected to the positioning plate, and the end of the connecting rod away from the support rod frame is rotatably connected to the slider.

[0022] Compared with the prior art, the present invention has the following beneficial effects:

[0023] The present invention highly integrates multiple functions into sports shoes, significantly improving the wearing experience and practicality. The semiconductor refrigeration layer embedded on both sides of the upper and the flexible photovoltaic film at the tongue, combined with the heating layer block in the sole area, the energy recovery piezoelectric power generation layer and the control and air supply system in the heel area, jointly realize the active intelligent temperature control and air circulation management of the microenvironment inside the shoe. At the same time, the raised points and staggered air holes of the breathable buffer block of the sole, and the piezoelectric power generation layer built into the sole, not only greatly improve the wearing comfort, but also achieve partial energy self-sufficiency, effectively extending the use time of electronic functions, and meeting the user's comprehensive needs for comfort, functionality and environmental protection.

[0024] The sole structure of the present invention adopts a functional layered and modular design. The layout of the heel structure hood and the connection method between the breathable buffer block and the heel structure effectively ensure the stable operation and overall reliability of the core components. The internal structure of the hood is enhanced by the columns. The side door unit takes into account the air intake requirements and dust and waterproof sealing. In addition, a special scraping device is used to accurately process connecting positioning grooves on the breathable buffer block and the heel structure assembly, and the positioning blocks are embedded for fixation. The mechanical interlocking structure ensures that the precise relative position is maintained during dynamic use to prevent displacement, thereby ensuring the long-term connectivity and stability of the air flow channel formed by the connecting pipe and the air collecting groove and the wire trough routing channel, laying a solid foundation for the long-term and reliable operation of the entire shoe function.

[0025] The microprocessor located in the processor compartment of the present invention serves as the control core, receiving real-time in-shoe environmental data from the temperature sensor, and comprehensively controlling the lighting conditions and possible user interaction instructions to coordinate the control of the semiconductor refrigeration layer, heating layer block, and the start and stop and working intensity of the fan, thereby achieving precise and dynamic in-shoe temperature regulation and airflow circulation. It also integrates the ambient light energy collection of the flexible photovoltaic film, the stepping mechanical energy recovery of the piezoelectric power generation layer, and battery energy storage, forming a multi-path energy input and storage circuit, which significantly improves the energy self-sustaining capability of the system and greatly enhances the practicality and user experience of the product. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a structural schematic diagram of the present invention;

[0027] Figure 2 Schematic diagram of the structure of the interior of the sole of the present invention;

[0028] Figure 3 It is a structural schematic diagram of the heel structure of the present invention;

[0029] Figure 4 Schematic diagram of the structure of the side door unit of the present invention;

[0030] Figure 5 For the present invention Figure 4 Schematic diagram of the left side structure of the middle opening and closing component;

[0031] Figure 6 It is a structural schematic diagram of the scraping device of the present invention;

[0032] Figure 7 For the present invention Figure 6 Schematic diagram of the main structure.

[0033] In the figure: upper-1, sole-2, heating layer block-3, piezoelectric power generation layer-4, breathable buffer block-5, heel structure-6, groove-7, positioning block-8, semiconductor cooling layer-11, protrusion-51, air hole-52, temperature sensor-53, wire trough-54, compartment cover-61, column-62, side door unit-63, pad-64, fan-65, air duct-66, pipe-67, battery-68, processor compartment-69, frame-631, guard plate-632, opening and closing assembly-633, lower trough frame-634, upper trough frame-635, rectangular sealing strip-636, bottom plate- 6331, first motor 6332, adjusting rod 6333, first folding door component 6334, second folding door component 6335, V-folding door 63341, first roller 63342, second roller 63343, internal thread block 63344, positioning plate 91, protective cover 92, second motor 93, worm 94, rotating frame 95, shifting structure 96, cross slide 97, slide plate 98, rotating knife 99, slider 910, rectangular frame 911, worm gear 961, eccentric groove disk 962, support rod frame 963, connecting rod 964. DETAILED DESCRIPTION

[0034] In order to further explain the technical solution of the present invention, specific embodiments are described in detail below.

[0035] See also Figure 1 、 Figure 2 and Figure 3 The present invention provides a multifunctional temperature-regulating leisure sports shoe, comprising an upper 1 and a sole 2 fixed to the top side thereof. Semiconductor refrigeration layers 11 are embedded on both sides of the inclined surface of the upper 1 to provide a local precise cooling function, cooling the easily heated areas on both sides of the foot. A flexible photovoltaic film strip is provided on the tongue of the upper 1. The flexible photovoltaic film strip is made of perovskite material. When the light intensity is greater than 10,000 lux, the circuit is automatically connected, and the light is used to generate electricity for the system, providing partial energy self-sufficiency. When the light intensity is sufficient, the power generation is started, optimizing the energy collection efficiency. The inside of the sole 2 is connected from the sole area The heel area is sequentially provided with a heating layer block 3, a piezoelectric power generation layer 4, a breathable buffer block 5 and a heel structure 6, so as to integrate multiple functions of heating, energy recovery, breathable buffering, equipment accommodation and airflow management. Electric heating wires are interlaced and embedded inside the heating layer block 3. The maximum temperature of the heating wires is 60 degrees, providing uniform and efficient heating function for the sole area of ​​the foot. Two connected grooves 7 are provided above the adjacent side of the breathable buffer block 5 and the heel structure 6, and positioning blocks 8 are fixed inside the two grooves to ensure that the relative position between the breathable buffer block 5 and the heel structure 6 is accurately fixed to prevent displacement.

[0036] Among them, the heel structure 6 includes a hopper cover 61 embedded in the heel area of ​​the sole 2 to form a protective space for accommodating core functional components. Two columns 62 are fixedly installed on the front and back sides of the hopper cover 61 to enhance the structural strength of the hopper cover 61, and side door units 63 are embedded on the left and right side walls of the hopper cover 61 to provide an openable and closable air inlet for easy airflow entry and filtering maintenance. Pads 64 are fixed on the left and right sides of the hopper cover 61. Fans 65 are locked and fixed on the top sides of the two pads 64. The impeller end of the fan 65 is rotatably connected to the inside of the air duct 66. A connecting pipe 67 is locked and fixed on the side of the air duct 66 away from the side door unit 63. The other end of the connecting pipe 67 is connected to the breathable buffer block 5. Forced airflow is provided by the fan 65 to guide the airflow into the breathable buffer block 5, thereby realizing air circulation or auxiliary temperature regulation in the shoe.

[0037] A battery 68 for storing and providing electrical energy for the entire system is installed on the middle side of the interior of the compartment cover 61. A processor compartment 69 is provided above the battery 68. A microprocessor and a Bluetooth module are provided inside the processor compartment 69. The microprocessor serves as the intelligent control core, processes sensor data and controls each execution component. The Bluetooth module realizes wireless communication with external devices, performs status monitoring and setting adjustments, and the semiconductor refrigeration layer 11, flexible photovoltaic film strips, heating wires and piezoelectric power generation layer 4 are all electrically connected to the battery 68 through the microprocessor to establish a complete energy collection, storage management and intelligent control loop, thereby realizing the coordinated operation and optimization of system functions.

[0038] Among them, the left and right sides of the top of the breathable buffer block 5 are integrally formed with convex points 51, and air holes 52 are distributed at positions staggered with the convex points 51. The convex points 51 increase the massage feeling and breathable gap of the sole contact surface, thereby improving wearing comfort. The air holes on the left and right sides are respectively integrated with air collecting grooves at the front end of the breathable buffer block 5. The two air collecting grooves are respectively connected to two connecting pipes 67, which distribute the airflow from the fan 65 to the air hole 52 network on the sole, so as to achieve uniform air supply and enhance breathability. A temperature sensor 53 is embedded on the top side of the breathable buffer block 5 for real-time monitoring of the temperature inside the shoe and providing temperature control for the microprocessor. In addition, a wire groove 54 is opened through the middle side of the top of the breathable buffer block 5 for connecting the wiring of the semiconductor refrigeration layer 11 and the flexible photovoltaic film strip to the inside of the heel structure 6 to provide a safe and concealed wiring channel, and the cables on the front of the shoe are introduced into the heel structure 6 to protect the cables and maintain the flatness of the sole.

[0039] See also Figure 3 、 Figure 4 and Figure 5The present invention provides a multifunctional temperature-regulating leisure sports shoe, wherein two side door units 63 are provided, and the two side door units 63 are located in the middle of the bin cover 61 and are arranged in opposite directions to provide a balanced air intake requirement. The side door unit 63 includes a frame seat 631 embedded in the bin cover 61, and a protective sheet 632 is fixedly connected to the outer side of the frame seat 631, and a filter sheet is installed on the middle side of the inner side of the protective sheet 632 to filter the air entering the bin cover 61 and prevent dust and debris from entering and damaging the internal components. An opening and closing component 633 is provided on the bottom side of the frame seat 631. The lower part of the opening and closing component 633 is slidably connected to the inner side of the lower groove frame 634, and the upper part is slidably connected to the inner side of the upper groove frame 635 to ensure the stability of the movement trajectory of the opening and closing component 633. A rectangular sealing strip 636 is fixed on one side of the protective sheet 632 close to the opening and closing component 633, and the other side of the rectangular sealing strip 636 contacts the opening and closing component 633 when the opening and closing component is closed, thereby realizing the sealing of the bin cover 61 and having the function of dustproof and waterproof.

[0040] Among them, the opening and closing component 633 includes a bottom plate 6331 fixed to the frame seat 631 at the bottom, a first motor 6332 locked and fixed to the top side of the bottom plate 6331, and an adjusting rod 6333 connected to the right output shaft of the first motor 6332. The left and right ends of the adjusting rod 6333 are provided with bearing blocks, and the bottom of the bearing block is fixed to the frame seat 631. The adjusting rod 6333 is composed of two coaxial screws, and the left and right sides of the two screws are provided with opposite threads. The two screws are respectively connected to the first folding door component 6334 and the second folding door component 6335 to The first motor 6332 serves as a power source, transmitting the rotational power to the adjusting rod 6333, so that the two screws of the adjusting rod 6333 respectively drive the first folding door component 6334 and the second folding door component 6335 to move, so that the two folding door components are folded open or unfolded and closed respectively. The first folding door component 6334 and the second folding door component 6335 have the same structure and size, and the upper and lower parts are respectively slidably connected to the inner side of the upper slot frame 635 and the lower slot frame 634, ensuring that the opening and closing actions on both sides are symmetrical and consistent, so that they can slide smoothly along the predetermined track during the opening and closing process.

[0041] The first folding door component 6334 includes a V-shaped folding door 63341 whose front side contacts the rectangular sealing strip 636. The V-shaped structure is compact and space-saving, and provides a sealing surface when closed. The upper side of the V-shaped folding door 63341 is rotatably connected to two first rollers 63342, and the two first rollers 63342 are slidably connected to the inner side of the upper groove frame 635, reducing the sliding friction between the upper part of the V-shaped folding door 63341 and the upper groove frame 635, making the movement smoother. The left and right sides of the bottom are rotatably connected to the top rear sides of two internally threaded blocks 63344, which are respectively threadedly connected to the two oppositely threaded outer surfaces of the screw rod, converting the linear motion of the internally threaded blocks 63344 into the folding / unfolding motion of the V-shaped folding door 63341. The bottom rear sides of the two internally threaded blocks 63344 are connected to second rollers 63343, and the two second rollers 63343 are slidably connected to the inner side of the lower channel frame 634 to ensure the stability of the motion trajectory.

[0042] See also Figure 1-Figure 7 The present invention provides a method for preparing multifunctional temperature-regulating leisure sports shoes, which is used to prepare the multifunctional temperature-regulating leisure sports shoes, comprising the following steps:

[0043] S1. Embed semiconductor cooling layers 11 on both sides of the shoe upper 1 and fix flexible photovoltaic film strips on the tongue to achieve the integration of energy collection function and cooling function on both sides of the shoe upper 1;

[0044] S2. A heating layer block 3 containing interlaced heating wires is sequentially formed in the sole area of ​​the sole 2 to construct a heating functional layer on the front of the sole 2. A piezoelectric power generation layer 4 and a breathable buffer block 5 are sequentially laid on the rear side of the heating layer block 3. The breathable buffer block 5 has protrusions 51 and air holes 52 formed on the top, which provide massage, ventilation, and airflow channel functions. A temperature sensor 53 is embedded inside to integrate temperature monitoring functions. A cable trough 54 is provided to reserve a channel for the front cables to be introduced to the rear.

[0045] S3. Fix the fan 65 in the bin cover 61 through the pad 64, connect the air duct 66 of the fan 65 to the pipe 67, install a battery 68 and a processor bin 69 containing a microprocessor in the bin cover 61, embed side door units 63 on both sides to form a heel structure 6, and assemble the heel structure 6 to the rear side of the breathable buffer block 5, so that the pipe 67 is connected to the air collecting groove of the breathable buffer block 5, ensuring that the airflow of the fan 65 can be smoothly transported to the air hole 52 network on the front part of the sole 2, and then use a scraping device to open two connected grooves 7 above the breathable buffer block 5 and the heel structure 6, and then use a positioning block 8 to fix it inside the two grooves 7 to prevent deviation. The relative position between the breathable buffer block 5 and the heel structure 6 is firmly fixed by the cooperation of the positioning block 8 and the groove 7 to prevent displacement during exercise;

[0046] S4. Place the upper 1 on the sole 2 in preparation for integration of the upper 1 and the sole 2. Connect the wires of the semiconductor cooling layer 11, the flexible photovoltaic film strip, the heating wire, and the piezoelectric power generation layer 4 to the extension wires of the processor compartment 69 and the battery 68 in the wire groove 54. After connection, apply waterproof sealant in the wire groove 54. Complete the safe and concealed connection of all electrical components through the reserved wire groove 54. The sealed wire groove 54 prevents moisture and dust from entering, protects the circuit safety, and ensures the reliability of the electrical connection.

[0047] S5. Fit and fix the upper 1 and the sole 2 together to complete the overall assembly and form a complete sports shoe product.

[0048] The scraping device includes a positioning plate 91, a protective cover 92 fastened to the top side of the positioning plate 91, a second motor 93 locked and fixed inside the protective cover 92, a worm 94 connected to the output shaft at the bottom of the second motor 93, a rotating rack 95 coaxially rotating at the bottom end of the worm 94, and a shifting structure 96 meshing with the right side of the worm 94. The second motor 93 is used as a power source to drive the worm 94 to rotate and then drive the rotating rack 95 and the shifting structure 96 to move, a cross slide 97 slidably connected to the bottom of the rotating rack 95, a slide 98 slidably connected to the bottom of the cross slide 97, a rotary cutter 99 coaxially rotating on the middle side of the bottom of the slide 98, a slider 910 wrapped around the upper outer surface of the rotary cutter 99, and a slider 910 wrapped around the upper outer surface of the rotary cutter 99. The rectangular frames 911 on the front and rear sides of the slider 910, the bottom end of the shift structure 96 is rotatably connected to the slider 910, and the rear side of the shift structure 96 is rotatably connected to the positioning plate 91. The shift structure 96 converts the movement of the worm 94 into a reciprocating motion of a specific trajectory, so as to drive the slider 910 to perform a lateral reciprocating shift action. The rotational motion of the rotating frame 95 is transmitted to the slide plate 98, and the slide plate 98 is allowed to slide radially in the cross slide 97 to realize the synthesis of the rotation and axial offset motion of the rotary cutter 99. The upper and lower sides of the worm 94 are both rotated through the positioning plate 91 to support the worm 94 and allow it to rotate. The top rear side of the rectangular frame 911 is fixed to the positioning plate 91 to play a supporting and positioning role.

[0049] Among them, a straight convex strip is provided at the bottom of the rotating frame 95 and the top of the slide 98, and the two straight convex strips are distributed in a cross shape, which are respectively inserted and slid inside the upper and lower sides of the cross slide 97. There are corresponding cross-shaped sliding grooves on the upper and lower sides of the cross slide 97 to accommodate and constrain the convex strips of the rotating frame 95 and the convex strips of the slide 98 to slide therein, thereby realizing the transmission and synthesis of rotational motion and radial offset motion. A strip groove is opened on the front side of the interior of the rectangular frame 911, and the front part of the slider 910 is inserted and slid inside the strip groove, ensuring that the slider 910 can only make precise linear reciprocating motion along the direction of the strip groove.

[0050] Among them, the displacement structure 96 includes a worm gear 961 meshed with the worm 94 on the left side, an eccentric groove disk 962 fixedly connected to the middle side of the front of the worm gear 961, a support rod frame 963 slidingly connected to the inner side of the circular groove of the front of the eccentric groove disk 962, and a connecting rod 964 rotatably connected to the bottom end of the support rod frame 963. The middle part of the rear side of the worm gear 961 and the middle part of the rear side of the support rod frame 963 are both rotatably connected to the positioning plate 91, and the end of the connecting rod 964 away from the support rod frame 963 is rotatably connected to the slider 910. The worm gear 961 obtains power from the worm 94, so that the eccentric groove disk 962 rotates, and the support rod frame 963 follows the circular motion of the eccentric groove disk 962 to convert it into its own swinging motion. The swinging motion is then converted into a horizontal linear reciprocating motion of the slider 910 through cooperation with the connecting rod 964, driving it to radially offset.

[0051] In the above, the working principle of the scraping equipment is as follows:

[0052] First, after the device is started, the second motor 93 drives the worm 94 to rotate. On the one hand, the rotational motion of the worm 94 is directly transmitted downward to the rotating frame 95 fixed coaxially with its bottom end, driving the rotating frame 95 to rotate synchronously. On the other hand, the worm 94 drives the worm wheel 961 to rotate by meshing with the worm wheel 961. The rotation of the worm wheel 961 drives the eccentric groove disk 962 fixed thereon to rotate accordingly.

[0053] The rotation of the cross slide 97 is transmitted to the upper groove of the cross slide 97 through the convex strip at the bottom thereof, so that the cross slide 97 rotates as a whole. The rotation of the cross slide 97 cooperates with the convex strip on the top of the slide plate 98 through the slide groove at the bottom thereof, driving the slide plate 98 and the rotary cutter 99 fixed at the bottom thereof to rotate together, forming the basic cutting motion of the tool. At the same time, the worm gear 961 drives the eccentric groove disk 962 to rotate, and the support rod frame 963 in its circular groove is forced to swing back and forth around the hinge point of its rear end and the positioning plate 91 under the constraint of the groove. The swing of the support rod frame 963 is converted into a linear reciprocating motion of the slider 910 in the horizontal plane through the connecting rod 964. The front part of the slider 910 is precisely guided by the strip groove on the front side of the rectangular frame 911 to ensure that its motion trajectory is a fixed radial straight line, thereby driving the slide plate 98 and the rotary cutter 99 to continue to rotate under the constraint of the cross slide 97, and to perform reciprocating transverse motion in a direction perpendicular to the tool axis;

[0054] Third, the above-mentioned movements are synthesized at the cross slide 97, so that the rotary cutter 99 rotates at high speed around its own axis and can perform horizontal reciprocating displacement. When the equipment is positioned above the assembly of the breathable buffer block 5 and the heel structure 6 and pressed down, the rotary cutter 99 performing the composite movement can efficiently scrape out the connected grooves 7.

[0055] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments or to substitute equivalents for some of the technical features. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. A multifunctional temperature-regulating leisure sports shoe, comprising an upper (1) and a sole (2) fixedly attached to the top side thereof, characterized in that: Semiconductor cooling layers (11) are embedded in both sides of the slope of the upper (1), and a flexible photovoltaic film strip is provided at the tongue of the upper (1). A heating layer block (3), a piezoelectric power generation layer (4), a breathable buffer block (5) and a heel structure (6) are sequentially provided inside the sole (2) from the sole area to the heel area. Electric heating wires are staggeredly embedded inside the heating layer block (3). Two interconnected grooves (7) are provided above the adjacent side of the breathable buffer block (5) and the heel structure (6), and positioning blocks (8) are fitted and fixed inside the two grooves. The heel structure (6) includes a bin cover (61) embedded in the heel area of ​​the sole (2). Two upright posts (62) are fixedly installed on both the front and rear sides of the interior of the cover (61), and side door units (63) are embedded in the left and right side walls of the bin cover (61). Pads (64) are fixed on both the left and right sides of the interior of the bin cover (61), and fans (65) are locked and fixed on the top sides of the two pads (64). The impeller end of the fan (65) is rotatably connected to the interior of the air duct (66). A connecting pipe (67) is locked and fixed on the side of the air duct (66) away from the side door unit (63), and the other end of the connecting pipe (67) is connected to the air permeable buffer block (5). A battery (68) is installed on the middle side of the interior of the bin cover (61), and a processor bin (69) is provided above the battery (68).

2. The multifunctional temperature-regulating leisure sports shoe according to claim 1, characterized in that: The top of the air-permeable buffer block (5) is integrally formed with convex points (51) on both the left and right sides, and air holes (52) are arranged at positions staggered with the convex points (51). The air holes on the left and right sides are respectively integrated with air collecting grooves at the front end of the air-permeable buffer block (5), and the two air collecting grooves are respectively connected to two connecting pipes (67). A temperature sensor (53) is embedded in the top side of the air-permeable buffer block (5), and a wire groove (54) is opened through the middle side of the top of the air-permeable buffer block (5) for connecting the wiring of the semiconductor refrigeration layer (11) and the flexible photovoltaic film strip to the inside of the heel structure (6).

3. The multifunctional temperature-regulating leisure sports shoe according to claim 1, characterized in that: A microprocessor and a Bluetooth module are provided inside the processor compartment (69), and the semiconductor refrigeration layer (11), the flexible photovoltaic film strip, the heating wire and the piezoelectric power generation layer (4) are all electrically connected to the battery (68) via the microprocessor.

4. The multifunctional temperature-regulating leisure sports shoe according to claim 1, characterized in that: Two side door units (63) are provided, and the two side door units (63) are located in the middle of the bin cover (61) and are arranged in opposite directions. The side door unit (63) includes a frame seat (631) embedded in the bin cover (61). A protective sheet (632) is fixedly connected to the outside of the frame seat (631), and a filter sheet is installed on the middle side of the inner side of the protective sheet (632). An opening and closing component (633) is provided on the bottom side of the inner side of the frame seat (631). The lower part of the opening and closing component (633) is slidably connected to the inner side of the lower slot frame (634), and the upper part is slidably connected to the inner side of the upper slot frame (635). A rectangular sealing strip (636) is fixed on one side of the protective sheet (632) close to the opening and closing component (633), and the other side of the rectangular sealing strip (636) is in contact with the opening and closing component (633).

5. The multifunctional temperature-regulating leisure sports shoe according to claim 4, characterized in that: The opening and closing assembly (633) includes a bottom plate (6331) whose bottom is fixed to the frame seat (631), a first motor (6332) locked and fixed to the top side of the bottom plate (6331), and an adjusting rod (6333) connected to the right output shaft of the first motor (6332). The left and right ends of the adjusting rod (6333) are both provided with bearing blocks, and the bottom of the bearing block is fixed to the frame seat (631). The adjusting rod (6333) is composed of two coaxial screws, and the left and right sides of the two screws are both provided with opposite threads. The two screws are respectively connected to the first folding door component (6334) and the second folding door component (6335). The first folding door component (6334) and the second folding door component (6335) have the same structure and size, and the upper and lower parts are respectively slidably connected to the inner sides of the upper slot frame (635) and the lower slot frame (634).

6. The multifunctional temperature-regulating leisure sports shoe according to claim 5, characterized in that: The first folding door component (6334) includes a V-shaped folding door (63341) whose front side contacts a rectangular sealing strip (636); the upper side of the V-shaped folding door (63341) is rotatably connected to two first rollers (63342); the two first rollers (63342) are slidably connected to the inner side of the upper groove frame (635); the left and right sides of the bottom of the V-shaped folding door (63341) are rotatably connected to the top rear sides of two internal thread blocks (63344); the two internal thread blocks (63344) are respectively threadedly connected to the two oppositely threaded outer surfaces of the screw; the bottom rear sides of the two internal thread blocks (63344) are both connected to second rollers (63343), and the two second rollers (63343) are slidably connected to the inner side of the lower groove frame (634).

7. A method for preparing multifunctional temperature-regulating leisure sports shoes, for preparing the multifunctional temperature-regulating leisure sports shoes according to any one of claims 1 to 6, characterized in that: The following steps are involved: S1, embedding semiconductor cooling layers (11) on both sides of the shoe upper (1), and fixing a flexible photovoltaic film strip on the tongue; S2, forming a heating layer block (3) containing staggered heating wires in the sole area of ​​the shoe (2), and laying a piezoelectric power generation layer (4) and a breathable buffer block (5) in sequence on the rear side of the heating layer block (3), wherein the breathable buffer block (5) has a top formed with a protrusion (51) and an air hole (52), a temperature sensor (53) embedded in the interior, and a wire groove (54) provided; S3, fix the fan (65) in the hopper cover (61) through the pad (64), connect the air duct (66) of the fan (65) to the pipe (67), install the battery (68) and the processor compartment (69) containing the microprocessor in the hopper cover (61), embed the side door units (63) on both sides to form the heel structure (6), and assemble the heel structure (6) to the rear side of the breathable buffer block (5), so that the pipe (67) is connected to the air collecting groove of the breathable buffer block (5), and then use the scraping device to open two connected grooves (7) above the breathable buffer block (5) and the heel structure (6), and then use the positioning block (8) to fix it inside the two grooves (7) to prevent deviation; S4, placing the shoe upper (1) above the shoe sole (2), connecting the wires of the semiconductor cooling layer (11), the flexible photovoltaic film strip, the heating wire and the piezoelectric power generation layer (4) in the wire groove (54) to the extension wires of the processor compartment (69) and the battery (68), and applying waterproof sealant in the wire groove (54) after the connection; S5, fitting and fixing the above-mentioned upper (1) and sole (2) to complete the overall assembly.

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