Anti-scald moxa -moxibustion physiotherapy instrument

Abstract

The present application relates to a kind of scald prevention moxa moxibustion physiotherapy instrument, including main body, moxa head, installation platform, fixed module, transfer module, detection module, feeding module, linkage module, ash collection module, universal arm, smoke guide pipe, hang shell.The present application is fixed by moxa stick on puncture column, and the detection module is overlapped between moxa stick, the combustion of moxa stick is inducted by detection module, actively reminds moxa stick replacement work after moxa stick is burned out, and ejects ejection bin, after new moxa stick is placed into ejection bin, only need to press ejection bin reset to realize moxa stick replacement work, and do not need to open equipment to replace, also save heat well, avoid waste caused by heat loss, realize the coherence of moxa moxibustion work.

Description

Technical Field

[0001] This invention relates to the field of medical equipment technology, and in particular to a moxibustion therapy device for preventing burns. Background Technology

[0002] Moxibustion, also known as moxibustion therapy, is a treatment method that uses moxa sticks or cones made from mugwort leaves to stimulate acupoints or specific areas of the body with the heat generated by burning them. This stimulates the flow of Qi (vital energy) to regulate disordered physiological and biochemical functions, thereby achieving the purpose of preventing and treating diseases. The mechanism of action of moxibustion is similar to that of acupuncture, and the two methods complement each other. Moxibustion has many advantages, including simple operation, low cost, and significant effects.

[0003] In existing moxibustion therapy processes, such as Chinese patent CN217960707U, a moxibustion therapy device with a temperature alarm is disclosed. It includes a moxibustion jar and two connecting plates that are rotatably connected to each other. There are at least two moxibustion jars. Each connecting plate is fixed with a moxibustion jar. Each connecting plate is connected to a fixing structure for fixing the connecting plate to the patient's leg. It also includes a controller, a temperature sensor, and an alarm. The temperature sensor and the alarm are both connected to the controller. The temperature sensor is used to monitor the temperature during moxibustion. The controller is used to control the alarm to sound when the real-time temperature measured by the temperature sensor exceeds a set value.

[0004] In the aforementioned existing technologies, temperature sensors are mainly used to measure real-time temperature to avoid burns. However, these technologies do not take into account that during moxibustion, the burning status of the moxa stick cannot be directly observed. Usually, one can only rely on experience to judge whether the moxa stick has burned out (a moxa stick can usually burn for about fifteen minutes). If a longer treatment is to be performed (usually about thirty minutes), it is not easy to determine when to replace the moxa stick. Replacing it too early will result in the moxa stick not burning out, causing waste, while replacing it too late will result in discontinuous treatment time and poor effect. Furthermore, the replacement of the moxa stick usually requires opening the device, which will cause a large amount of heat loss from the previous moxa stick, resulting in discontinuous treatment effect.

[0005] Therefore, there is still room for improvement in the aforementioned existing technologies. Summary of the Invention

[0006] In order to monitor the burning of the moxa stick in real time and replace it in time after the moxa stick has burned out to reduce heat loss, this application provides a moxibustion therapy device to prevent burns.

[0007] The scald prevention moxibustion therapy device provided in this application adopts the following technical solution:

[0008] A burn-preventing moxibustion therapy device includes a main body, a moxibustion head, a mounting platform, a fixing module, a transfer module, a detection module, a feeding module, a linkage module, an ash collection module, a universal arm, a smoke guide tube, and a mounting shell. The upper end of the main body is connected to the moxibustion head via the universal arm, and a smoke guide tube connects the moxibustion head to the main body. The mounting platform is installed on the inner wall of the top of the moxibustion head. The fixing module is located in the middle of the mounting platform via the transfer module. The fixing module, which has an anti-drop function, punctures and fixes the moxa stick. The detection modules are symmetrically arranged on the mounting platform at the front and back, and the detection modules detect the burning height of the moxa stick. The feeding module is located in the mounting shell, which is installed on the outer wall of the moxibustion head. The feeding module and the transfer module cooperate with each other via the linkage module. The ash collection module is located at the lower end of the moxibustion head and collects the ash produced by the burning moxa stick.

[0009] Preferably, the fixing module includes a puncture column, an outer flap, a pressing shaft, a protruding spike plate, and a pressing component. The puncture column is slidably disposed in a sliding groove in the middle of the mounting platform. The lower end of the puncture column has a pointed structure for easy puncture. The moxibustion stick is inserted into the puncture column for fixation. Hidden grooves are evenly distributed around the outer circumference of the puncture column. The lower end of the outer flap is rotatably disposed in the hidden groove via the pressing shaft. A spring is connected between the upper end of the outer flap and the hidden groove. Spring one always maintains a tendency to push the outer flap outward. In the initial state, the outer flap remains in an open, outward-rotating state under the action of spring one. When the moxibustion stick is inserted into the puncture column from bottom to top, the outer flap is pushed to close, thus not obstructing the insertion of the moxibustion stick. A hidden cavity is provided inside the outer flap. The protruding spike plate is horizontally slidably disposed in the hidden cavity. A spring two is connected between the protruding spike plate and the hidden cavity. Secondly, it serves a resetting function. The protruding bar is a plate-like structure with small spikes on its surface. The protruding bar contacts the moxa stick, thus scraping against it to prevent it from falling accidentally. The extrusion piece slides up and down in the hidden cavity. A spring three connects the extrusion piece and the hidden cavity, and the spring three serves a resetting function. The lower end of the extrusion piece is in a pressing fit with the extrusion shaft. The extrusion shaft has an extrusion groove corresponding to the position of the extrusion piece. The upper end of the extrusion piece is in a pressing fit with the protruding bar. Only when the outer flap is closed is the extrusion piece inserted into the extrusion groove. At this time, the extrusion piece does not press the protruding bar, and the protruding bar is retracted in the hidden cavity. When the outer flap is flipped outward, the extrusion piece is pressed against the extrusion groove, thus detaching from the extrusion groove. At this time, the extrusion piece, which is being pressed, presses the protruding bar, causing it to extend out of the hidden cavity, thereby providing a certain frictional effect to prevent the moxa stick from falling.

[0010] Preferably, the transfer module includes a transfer motor, a transfer screw, a transfer frame, a tilting shaft, a tilting gear, and a tilting rack. The transfer motor is installed inside the mounting platform, and the transfer screw is installed on the output end of the transfer motor. The transfer screw is rotatably disposed in a sliding groove, and the transfer frame is slidably disposed in the sliding groove. The transfer frame and the transfer screw are threadedly engaged. When the transfer screw rotates, the transfer frame translates left and right under the action of the thread. The transfer frame and the piercing column are engaged through the tilting shaft. The tilting gear is installed on the tilting shaft, and the tilting rack is installed in the sliding groove. The tilting rack and the tilting gear are connected by a tilting shaft. In the temporary meshing engagement, the flipping rack is located at the edge of the sliding groove. When the transfer frame moves in the left and right directions, causing the flipping gear and the flipping rack to contact each other, the flipping gear rotates under the meshing action, thereby causing the puncture column to rotate 90 degrees. (Before the flipping gear and the flipping rack contact each other, the puncture column slides in the sliding groove. At this time, the sliding groove guides the puncture column and also limits it, preventing the puncture column from rotating prematurely and ensuring the stability of the puncture column. When the flipping gear and the flipping rack contact each other and cause the puncture column to rotate, the puncture column is at the end of the sliding groove and can rotate smoothly.)

[0011] Preferably, the detection module includes a movable frame, a guide column, a detection mesh plate, a snap-fit ​​component, a trigger block, a locking mechanism, and an inductive switch. The movable frame is slidably mounted in a guide rail groove on the mounting platform. An elastic element connects the movable frame and the guide rail groove, serving a reset function. The guide column is mounted on the movable frame, and the detection mesh plate is slidably mounted on the guide column. A spring four connects the detection mesh plate and the guide column, and the spring four always maintains an upward pulling tendency on the detection mesh plate. The detection mesh plate has a mesh structure. When the movable frame is closed, the detection mesh plate overlaps the moxibustion column. The mesh structure ensures normal contact between the moxibustion column and the air, preventing the detection mesh plate from extinguishing the moxibustion column. Simultaneously, the spring four is a lightweight spring, its function being to move the detection mesh plate... The spring is moderately elastic and will not cause excessive pressure on the moxibustion column. The locking component is slidably set in the hollow groove opened inside the guide column. A spring five connects the locking component and the hollow groove, and the spring five plays a reset role. The locking component is U-shaped. The detection screen plate has a locking groove that engages with the lower end of the locking component. In the initial state, the detection screen plate is located at the bottom of the guide column. At this time, the locking component is inserted into the locking groove to lock the position of the locking component. The trigger block is installed in the guide rail groove. The trigger block corresponds to the upper end of the locking component. The locking mechanism locks the position of the moving frame. The induction switch is installed at the upper end of the moving frame. The induction switch corresponds to the position of the detection screen plate. When the detection screen plate rises to the highest position, the induction switch is triggered. The induction switch is electrically connected to the transfer motor.

[0012] Preferably, the locking mechanism includes a locking block, a locking slot, a locking plate, an insertion groove, an unlocking plate, and a lifting groove. The locking block is installed on the upper end of the movable frame. A locking slot corresponding to the position of the locking block is opened in the guide rail groove. The locking plate is slidably disposed on the upper part of the locking slot. A spring six is ​​connected between the locking plate and the locking slot, and the spring six plays a reset role. An insertion groove is opened on the locking block to temporarily engage with the locking plate. The unlocking plate is slidably disposed inside the mounting platform. A spring seven is connected between the unlocking plate and the mounting platform, and the spring seven plays a reset role. A lifting groove corresponding to the position of the unlocking plate is opened on the locking plate. One end of the unlocking plate is pressed into the lifting groove, and the other end of the unlocking plate is pressed into the transfer frame.

[0013] Preferably, the feeding module includes a pusher drive, a pusher plate, an ejection chamber, an ejection mechanism, an opening and closing door, a start switch, a pressing block, a pressing plate, and a partition door. The pusher drive is installed on the left side of the mounting shell, and a pusher plate is connected to the output end of the pusher drive. The pusher plate has a mesh plate structure. The pusher plate pushes the burning moxa stick onto the piercing column. The pusher plate contacts the burning surface. The mesh plate structure ensures that it will not extinguish the moxa stick. The ejection chamber is slidably disposed inside the mounting shell. A spring is connected between the ejection chamber and the mounting shell. The spring always supports the ejection... The ejection chamber maintains an upward pushing trend. The ejection chamber and the mounting shell cooperate via an ejection mechanism. The opening / closing door is rotatably positioned in the ejection outlet above the mounting shell. A spring (Spring 9) connects the opening / closing door and the ejection outlet, serving a reset function. An alarm device is installed on the opening / closing door; when the door is opened, the alarm device emits an audible alarm. The start switch is installed in a mounting groove on the lower inner wall of the mounting shell. The start switch is electrically connected to the pusher drive. The pressing block slides left and right in the mounting groove, and the pressing block is connected to the mounting groove. There is a spring ten, which acts as a reset mechanism. The position of the pressing block corresponds to that of the start switch. The upper end of the pressing block has a chamfered structure. The pressing plate is rotatably positioned at the lower left side of the ejection chamber via a pin. A spring eleven connects the pressing plate and the ejection chamber, which maintains the state and also acts as a reset mechanism. The pressing plate and the pressing block are in a mutual pressing fit. Initially, the pressing plate remains horizontal under the action of spring eleven. When the ejection chamber moves upward, the upward-moving pressing plate corresponds to the position of the pressing block, and the pressing plate is pressed by the pressing block. The pressure plate rotates downwards. After the pressing plate crosses the pressing block, it returns to its original position under the action of spring eleven. Then, when the ejection chamber descends, the pressing plate and the pressing block come into contact and press again. At this time, the pressing plate cannot rotate upwards. Therefore, the pressing plate presses the pressing block, causing the pressing block to move and press the start switch. This achieves the purpose of triggering the start switch only when the ejection chamber descends. The partition door is set inside the mounting shell by rotating through an elastic hinge. The partition door serves to block heat from entering the mounting shell and prevents heat from being dissipated uselessly.

[0014] Preferably, the ejection mechanism includes an adsorption plate, a shuttle plate, a receiving groove, and a telescopic pressure member. The adsorption plate is slidably disposed in the mounting shell, and a spring twelve connects the adsorption plate and the mounting shell, with the spring twelve acting as a reset mechanism. The adsorption plate is located directly below the ejection chamber. The upper surface of the adsorption plate is a magnetic layer, and the adsorption plate and the lower surface of the ejection chamber are magnetically attracted together. In the initial state, the adsorption plate firmly attracts the ejection chamber, at which time the spring twelve is in a compressed state. The shuttle plate is slidably disposed in the middle of the adsorption plate, and a spring connects the shuttle plate and the adsorption plate. Thirteen, spring thirteen always maintains a tendency to push the shuttle plate to the right. The lower left end of the shuttle plate has a chamfer. The inner wall of the mounting shell has a receiving groove corresponding to the right end of the shuttle plate. The receiving groove is trapezoidal, with the hypotenuse at the top, facilitating compression between it and the right end of the shuttle plate. The shuttle plate can smoothly enter and exit the receiving groove. The telescopic pressure member slides vertically within the mounting shell. Spring fourteen connects the telescopic pressure member to the mounting shell, acting as a reset mechanism. The telescopic pressure member is an elastic, telescopic structure. The right side of the telescopic pressure component has a chamfer. The right end of the telescopic pressure component and the left end of the shuttle plate are in contact and compression fit. In the initial state, the telescopic pressure component is located above the shuttle plate. When the telescopic pressure component descends, the shuttle plate is squeezed and descends together. When the shuttle plate descends to the position corresponding to the receiving groove (at this time, the adsorption plate and the ejection chamber are separated), under the action of spring thirteen, the shuttle plate moves to the right and enters the receiving groove, thereby separating the shuttle plate from the telescopic pressure component. After that, the telescopic pressure component continues to descend, but the shuttle plate no longer follows the telescopic pressure component. Under the action of spring twelfth, the adsorption plate rises and resets, and the shuttle plate rises and resets with the adsorption plate (at this time, the ejection chamber has been pushed out by spring eight, so the rising and reset adsorption plate cannot contact and adsorb with the ejection chamber). After that, the telescopic pressure component rises and resets. When the rising telescopic pressure component contacts the shuttle plate again, the telescopic pressure component is squeezed and contracted, thereby allowing the telescopic pressure component to smoothly cross the shuttle plate and reset. In this way, the adsorption plate is temporarily unlocked. When the ejection chamber descends again, it can smoothly adsorb with the adsorption plate and lock.

[0015] Preferably, the linkage module includes a sliding frame, a moving block, a linkage flipping component, and a rotating rocker. The sliding frame is installed on the inner wall of the moxibustion head. The moving block is slidably arranged inside the sliding frame. A spring fifteen connects the moving block and the sliding frame, and the spring fifteen plays a resetting role. The linkage flipping component is rotatably mounted on the moving block via a pin. The linkage flipping component is T-shaped. The rotating rocker is rotatably mounted on the outer wall of the mounting shell via a pin. The pin is positioned on the left. Through the lever principle, this can save effort. The right side of the rotating rocker corresponds to the position of the linkage flipping component. The left side of the rotating rocker is in contact and pressing fit with the telescopic pressure component.

[0016] Preferably, the ash collection module includes an ash-separating mesh, a rotating column, a fan-shaped mesh plate, a cleaning plate, a storage box, and an air suction component. The ash-separating mesh is fastened to the lower end of the moxibustion head using fasteners. The bottom of the ash-separating mesh has evenly spaced fan-shaped grooves. The rotating column is rotatably positioned in the middle of the ash-separating mesh. A spring sixteen connects the rotating column and the ash-separating mesh, and the spring sixteen serves as a reset mechanism. Fan-shaped mesh plates are evenly arranged around the outer periphery of the rotating column. The fan-shaped mesh plates have a fine mesh structure, which prevents the ash from falling and also avoids obstructing heat from being transferred out for moxibustion. The cleaning plate is evenly positioned on the top of the rotating column. The storage box is installed at the bottom of the rotating column. The bottom of the storage box also has a fine mesh structure. The air suction component is located inside the lower part of the mounting shell. The air suction component is connected to the storage box via a pipe.

[0017] In summary, the beneficial technical effects of this application are as follows:

[0018] The present invention discloses a moxibustion therapy device for preventing burns. By fixing the moxa stick to the puncture column and connecting the detection module to the moxa stick, the detection module senses the burning status of the moxa stick and actively reminds the user to replace the moxa stick after it has burned out. The device also pops out an ejection chamber. After placing the new moxa stick into the ejection chamber, the user only needs to press the ejection chamber to reset it to complete the moxa stick replacement without opening the device. This also effectively preserves heat and avoids waste caused by heat loss, thus achieving continuity of moxibustion work. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0020] Figure 2 This is a schematic diagram of the structure between the moxibustion head, mounting shell, mounting platform, fixing module, transfer module, detection module, feeding module, and linkage module of the present invention;

[0021] Figure 3 This is the present invention. Figure 2 Enlarged view of a portion at point A;

[0022] Figure 4 This is the present invention. Figure 2 A magnified view of section B;

[0023] Figure 5 This is the present invention. Figure 2 A magnified view of a portion at point C;

[0024] Figure 6 This is a structural diagram of the moxibustion head, mounting platform, fixing module, detection module, and feeding module of the present invention;

[0025] Figure 7 This is the present invention. Figure 6 A magnified view of a portion at point D;

[0026] Figure 8 This is the present invention. Figure 6 A magnified view of a portion at point E;

[0027] Figure 9 This is a schematic diagram of the ash collection module of the present invention.

[0028] Explanation of reference numerals in the attached drawings: 1. Main body; 2. Moxibustion head; 3. Mounting platform; 4. Fixing module; 5. Transfer module; 6. Detection module; 7. Feeding module; 8. Linkage module; 9. Ash collection module; 11. Universal arm; 12. Smoke guide tube; 21. Mounting shell; 41. Puncture column; 42. Outer flap; 43. Extrusion shaft; 44. Protruding thorn plate; 45. Extrusion component; 51. Transfer motor; 52. Transfer screw; 53. Transfer frame; 54. Tilting shaft; 55. Tilting gear; 56. Tilting rack; 61. Moving frame; 62. Guide column; 63. Detection mesh plate; 64. Snap-fit ​​component; 65. Trigger block; 66. Locking mechanism; 67. Inductive switch; 661 662. Locking slot; 663. Locking plate; 664. Insertion slot; 665. Unlocking plate; 666. Lifting slot; 71. Pushing drive; 72. Pushing plate; 73. Pop-out chamber; 74. Ejection mechanism; 75. Opening and closing door; 76. Start switch; 77. Pressing block; 78. Pressing plate; 79. Partition door; 741. Adsorption plate; 742. Shuttle plate; 743. Receiving slot; 744. Telescopic pressing component; 81. Sliding frame; 82. Moving block; 83. Linkage flipping component; 84. Rotating rocker; 91. Dust-proof net; 92. Rotating column; 93. Fan-shaped mesh plate; 94. Cleaning plate; 95. Storage box; 96. Air suction assembly. Detailed Implementation

[0029] The following is in conjunction with the appendix Figures 1-9 This application will be described in further detail.

[0030] This application discloses a moxibustion therapy device for preventing burns. By sensing the burning status of the moxa stick, it actively reminds the user to replace the moxa stick after it has burned out. The replacement is done quickly with minimal heat loss.

[0031] Reference Figure 1 , Figure 2 , Figure 4As shown, a burn-preventing moxibustion therapy device includes a main body 1, a moxibustion head 2, a mounting platform 3, a fixing module 4, a transfer module 5, a detection module 6, a feeding module 7, a linkage module 8, an ash collection module 9, a universal arm 11, a smoke guide pipe 12, and a mounting shell 21. The upper end of the main body 1 is connected to the moxibustion head 2 via the universal arm 11. The smoke guide pipe 12 connects the moxibustion head 2 to the main body 1. The mounting platform 3 is installed on the inner top wall of the moxibustion head 2. The fixing module 4 is located in the middle of the mounting platform 3 via the transfer module 5. The fixing module 4, which has an anti-drop function, punctures and fixes the moxa stick. The detection module 6 is symmetrically arranged on the mounting platform 3 at the front and back. The detection module 6 detects the burning height of the moxa stick. The feeding module 7 is located in the mounting shell 21, which is installed on the outer wall of the moxibustion head 2. The feeding module 7 and the transfer module 5 cooperate through the linkage module 8. The ash collection module 9 is located at the lower end of the moxibustion head 2 and collects the ash produced by the burning moxa stick.

[0032] In the actual moxibustion process, the ash collection module 9 is removed, and the moxa stick is fixed with the fixing module 4, so that the detection module 6 overlaps with the moxa stick. Then, the moxa stick is lit, the ash collection module 9 is reset, and the moxibustion head 2 is moved to the patient's affected area for moxibustion. As the moxa stick burns, the detection module 6 senses the height of the moxa stick in real time. When the moxa stick burns out, the detection module 6 triggers the transfer module 5 to transfer the fixed module 4. At the same time as the transfer module 5 completes the transfer, it triggers the linkage module 8, which activates the feeding module 7. The feeding module 7 reminds the person to add a new moxa stick (only once, because the moxibustion time should not be too long, not exceeding half an hour, and the moxa stick only needs to be replaced once). Then, the feeding module 7 fixes the newly added moxa stick to the fixing module 4 and continues the moxibustion. After the moxibustion is completed, the ash produced by the burning moxa stick is collected and cleaned by the ash collection module 9. This application senses the burning status of the moxa stick, actively reminds the person when the moxa stick burns out, and replaces the moxa stick while minimizing heat loss, making the moxibustion work more stable and continuous.

[0033] Reference Figure 2 , Figure 3As shown, this application includes a fixing module 4 to secure the moxa stick and prevent it from falling off. The fixing module 4 includes a piercing column 41, an outer flap plate 42, a pressing shaft 43, a protruding thorn plate 44, and a pressing element 45. The piercing column 41 is slidably disposed in a sliding groove opened in the middle of the mounting platform 3. The lower end of the piercing column 41 is a pointed structure for easy piercing. The moxa stick is inserted into the piercing column 41 and thus fixed. Hidden grooves are evenly opened on the outer periphery of the piercing column 41. The lower end of the outer flap plate 42 is rotatably set by the pressing shaft 43. In the hidden groove, a spring is connected between the upper end of the outer flap 42 and the hidden groove. The spring always maintains a tendency to push the outer flap 42 outward. In the initial state, the outer flap 42 is kept in an outwardly rotated and open state under the action of the spring. When the moxa stick is inserted into the puncture stick 41 from bottom to top, the outer flap 42 is pushed to close, so as not to obstruct the insertion of the moxa stick. A hidden cavity is opened inside the outer flap 42, and the protruding spike plate 44 is horizontally slidably disposed in the hidden cavity. The protruding spike plate 44 and the hidden cavity are connected. A second spring connects the two parts, which acts as a reset mechanism. The protruding spike plate 44 is a plate-shaped structure with small spikes on its surface. The protruding spike plate 44 contacts the moxa stick, thus scraping against it to prevent it from falling off accidentally. The extrusion member 45 is slidably disposed in the hidden cavity. A third spring connects the extrusion member 45 and the hidden cavity, which also acts as a reset mechanism. The lower end of the extrusion member 45 is in a pressing fit with the extrusion shaft 43. The extrusion shaft 43 has an extrusion groove corresponding to the position of the extrusion member 45. The upper end of the extrusion member 45 is in a pressing fit with the protruding spike plate 44. The extrusion member 45 is inserted into the extrusion groove only when the outer flap 42 is closed. At this time, the extrusion member 45 does not press the protruding spike plate 44, and the protruding spike plate 44 is retracted in the hidden cavity. When the outer flap 42 flips outward, the extrusion member 45 is pressed against the extrusion groove, thus detaching from the extrusion groove. At this time, the extrusion member 45, which is being pressed, presses the protruding spike plate 44, causing it to extend out of the hidden cavity, thereby providing a certain frictional effect to prevent the moxa stick from falling off.

[0034] During the actual fixation process, the moxa stick is inserted into the puncture post 41 for fixation. When inserted, the outer flap 42 is pushed to close. After insertion, the outer flap 42 tends to push outward under the action of spring one (spring one is a light spring with moderate elasticity to avoid breaking the moxa stick). The squeezing member 45 is squeezed between itself and the squeezing groove, thus detaching from the squeezing groove. At this time, the squeezing member 45 squeezes the protruding thorn plate 44, causing it to extend out of the hidden cavity, thereby preventing the moxa stick from falling off.

[0035] Reference Figure 2 , Figures 6-8As shown, the moxa stick is in an unobservable state during combustion in the device, making it impossible to accurately determine whether it has burned out. To sense its combustion status, this application includes a detection module 6. The detection module 6 includes a movable frame 61, a guide column 62, a detection mesh plate 63, a snap-fit ​​component 64, a trigger block 65, a locking mechanism 66, and a sensor switch 67. The movable frame 61 is slidably mounted in a guide rail groove on the mounting platform 3. An elastic element connects the movable frame 61 to the guide rail groove, serving a reset function. The guide column 62 is mounted on the movable frame 61. The detection mesh plate 63 is slidably mounted on the guide column 62. A spring connects the detection mesh plate 63 to the guide column 62, and the spring always maintains an upward pulling tendency on the detection mesh plate 63. The detection mesh plate 63 has a mesh structure. After the movable frame 61 is closed, the detection mesh plate 63 overlaps the moxa stick. The mesh structure ensures normal contact between the moxa stick and the air, preventing the detection mesh plate 63 from extinguishing the moxa stick. Furthermore, spring four is a lightweight spring, its function is to drive the detection screen plate 63 to rise, its elasticity is moderate, and it will not cause excessive pressure on the moxibustion column. The locking piece 64 is slidably disposed in the hollow groove opened inside the guide column 62. Spring five is connected between the locking piece 64 and the hollow groove, and spring five plays a reset role. The locking piece 64 is U-shaped, and the detection screen plate 63 has a locking groove that engages with the lower end of the locking piece 64. In the initial state, the detection screen plate 63 is located at the bottom of the guide column 62. At this point, the snap-fit ​​component 64 is inserted into the snap-fit ​​slot to lock its position. The trigger block 65 is installed in the guide rail slot, and the trigger block 65 corresponds to the upper position of the snap-fit ​​component 64. The locking mechanism 66 locks the position of the moving frame 61. The induction switch 67 is installed at the upper end of the moving frame 61, and the induction switch 67 corresponds to the position of the detection screen plate 63. When the detection screen plate 63 rises to the highest position, the induction switch 67 is triggered. The induction switch 67 is electrically connected to the transfer motor 51.

[0036] Reference Figure 7As shown, the locking mechanism 66 includes a locking block 661, a locking slot 662, a locking plate 663, an insertion groove 664, an unlocking plate 665, and a lifting groove 666. The locking block 661 is installed on the upper end of the movable frame 61. A locking slot 662 corresponding to the position of the locking block 661 is provided in the guide rail groove. The locking plate 663 is slidably disposed on the upper part of the locking slot 662. A spring six is ​​connected between the locking plate 663 and the locking slot 662, and the spring six plays a reset role. An insertion groove 664 is provided on the locking block 661 to temporarily engage with the locking plate 663. The unlocking plate 665 is slidably disposed inside the mounting platform 3. A spring seven is connected between the unlocking plate 665 and the mounting platform 3, and the spring seven plays a reset role. A lifting groove 666 corresponding to the position of the unlocking plate 665 is provided on the locking plate 663. One end of the unlocking plate 665 is pressed into the lifting groove 666, and the other end of the unlocking plate 665 is pressed into the transfer frame 53.

[0037] During the actual sensing process, the movable frame 61 is closed, bringing the detection mesh plate 63 closer to the moxibustion column. The closed movable frame 61 causes the locking block 661 to be inserted into the locking slot 662. The inserted locking block 661 presses against the locking plate 663, causing the locking plate 663 to move upward, compressing the spring. When the locking block 661 moves to the position corresponding between the insertion slot 664 and the locking plate 663, the locking plate 663 moves downward under the action of the spring and inserts into the insertion slot 664, thereby locking the position of the locking block 661, i.e., locking the position of the movable frame 61. At the same time, the closed movable frame 61 causes the upper end of the latching member 64 to contact and press against the trigger block 65. The latching member 64 moves after being pressed, causing the lower end of the latching member 64 to move out of the latching position. The detection screen 63 is released from the groove, thus unlocking its position. Spring 4 pulls the unlocked detection screen 63 upward, causing it to overlap the moxa stick. As the moxa stick burns, the detection screen 63 moves upward under the pull of spring 4. When the moxa stick burns out, the detection screen 63 rises to its highest position and contacts the induction switch 67, thus triggering the induction switch 67. When the subsequent transfer frame 53 moves, the moving transfer frame 53 presses the unlocking plate 665, causing the unlocking plate 665 to press the lifting groove 666. The lifting groove 666 is pressed, causing the locking plate 663 to rise. The rising locking plate 663 disengages from the insertion groove 664, thus unlocking the position of the moving frame 61. Under the action of the elastic element, the unlocked moving frame 61 returns to its original position.

[0038] Reference Figure 4 , Figure 7As shown, after the moxa stick has burned out, the position of the puncture post 41 needs to be adjusted to replenish the moxa stick. Therefore, this application provides a transfer module 5, which includes a transfer motor 51, a transfer screw 52, ​​a transfer frame 53, a flip shaft 54, a flip gear 55, and a flip rack 56. The transfer motor 51 is installed inside the mounting platform 3. The transfer screw 52 is installed on the output end of the transfer motor 51. The transfer screw 52 is rotatably disposed in a sliding groove, and the transfer frame 53 is slidably disposed in the sliding groove. The transfer frame 53 and the transfer screw 52 are threadedly connected. When the transfer screw 52 rotates, the transfer frame 53 moves horizontally in the left and right directions under the action of the thread. The transfer frame 53 and the puncture post 41 are connected via the flip shaft 54. The flip gear 55 is installed on the flip shaft 54. The rotating rack 56 is installed in the sliding groove. The rotating rack 56 and the rotating gear 55 are temporarily meshed. The rotating rack 56 is located at the edge of the sliding groove. When the transfer frame 53 moves in the left and right direction and the rotating gear 55 and the rotating rack 56 come into contact, the rotating gear 55 rotates under the meshing action, thereby causing the puncture column 41 to rotate 90 degrees. (Before the rotating gear 55 and the rotating rack 56 come into contact, the puncture column 41 slides in the sliding groove. At this time, the sliding groove guides the puncture column 41 and also limits it, so that the puncture column 41 will not rotate prematurely, thus ensuring the stability of the puncture column 41. When the rotating gear 55 and the rotating rack 56 come into contact and the puncture column 41 rotates, the puncture column 41 is at the end of the sliding groove and can rotate smoothly.)

[0039] During the actual transfer process, the triggered induction switch 67 starts the transfer motor 51. The started transfer motor 51 drives the transfer screw 52 to rotate. Under the action of the screw, the transfer frame 53 moves to the left. When the transfer frame 53 moves to contact between the flip gear 55 and the flip rack 56, the flip gear 55 rotates under the meshing action, thereby causing the puncture column 41 to rotate ninety degrees. The puncture column 41 in this state is convenient for subsequent replacement of the moxibustion column. In addition, the puncture column 41 triggers the linkage module 8 during the rotation process.

[0040] Reference Figure 1 , Figure 2 , Figure 4As shown, after the position of the puncture column 41 is moved, in order to replace the moxa column in time, this application provides a linkage module 8. The linkage module 8 includes a sliding frame 81, a moving block 82, a linkage flipping component 83, and a rotating rocker 84. The sliding frame 81 is installed on the inner wall of the moxibustion head 2. The moving block 82 is slidably arranged inside the sliding frame 81. A spring 15 is connected between the moving block 82 and the sliding frame 81. The spring 15 plays a reset role. The linkage flipping component 83 is rotatably arranged on the moving block 82 through a pin. The linkage flipping component 83 is T-shaped. The rotating rocker 84 is rotatably arranged on the outer wall of the mounting shell 21 through a pin. The position of the pin is on the left. Through the lever principle, it can save effort. The right side of the rotating rocker 84 corresponds to the position of the linkage flipping component 83. The left side of the rotating rocker 84 is in contact and squeeze fit with the telescopic pressure component 744.

[0041] During the actual linkage process, the rotating piercing column 41 presses against the linkage flipping component 83, causing it to rotate 90 degrees synchronously. The rotating linkage flipping component 83 presses upward against the right end of the rotating rocker 84, causing the right end of the rotating rocker 84 to rise. Consequently, the left end of the rotating rocker 84 descends, triggering the feeding module 7. Afterward, the replacement moxibustion column is pushed and pierced onto the piercing column 41. During this process, the moxibustion column will press against the linkage flipping component 83. After being pressed, the linkage flipping component 83 causes the moving block 82 to move to the right along the sliding frame 81, thereby preventing the moxibustion column from being obstructed by the linkage flipping component 83 and unable to move.

[0042] Reference Figure 2 , Figure 5As shown, to facilitate the replacement of the moxa stick, this application includes a feeding module 7. The feeding module 7 includes a pusher 71, a pusher plate 72, an ejection chamber 73, an ejection mechanism 74, an opening and closing door 75, a start switch 76, a pressing block 77, a pressing plate 78, and a partition door 79. The pusher 71 is installed on the left side of the mounting shell 21. The pusher plate 72 is connected to the output end of the pusher 71. The pusher plate 72 has a mesh plate structure. The pusher plate 72 pushes the burning moxa stick onto the piercing column 41. The pusher plate 72 contacts the burning surface. The mesh plate structure ensures that it will not extinguish the moxa stick. The ejection chamber 73 is slidably disposed inside the mounting shell 21. A spring eight connects the ejection chamber 73 to the mounting shell 21, and the spring eight always maintains an upward pushing tendency on the ejection chamber 73. The ejection chamber 73 and the mounting shell 21 are connected by an ejection mechanism 74. The opening and closing door 75 is rotatably installed in the ejection outlet opened above the mounting shell 21. A spring nine connects the opening and closing door 74 and the ejection outlet, and the spring nine plays a reset role. An alarm device is installed on the opening and closing door 75. When the opening and closing door 75 is opened, the alarm device of the prior art will sound an alarm. The start switch 76 is installed in the mounting groove opened in the lower inner wall of the mounting shell 21. The start switch 76 is electrically connected to the pusher drive 71. The pressing block 77 is slidably installed in the mounting groove. In the slot, a spring 10 connects the pressing block 77 to the mounting slot, and the spring 10 acts as a reset mechanism. The pressing block 77 corresponds to the position of the start switch 76. The upper end of the pressing block 77 has a chamfered structure. The pressing plate 78 is rotatably mounted on the lower left side of the ejection chamber 73 via a pin. A spring 11 connects the pressing plate 78 to the ejection chamber 73, and the spring 11 acts as a maintenance mechanism and a reset mechanism. The pressing plate 78 and the pressing block 77 are in a mutual pressing fit. In the initial state, the pressing plate 78 remains horizontal under the action of the spring 11. When the ejection chamber 73 moves upward, the upward-moving pressing plate 78 corresponds to the position of the pressing block 77. Pressed by the pressing block 77, the pressing plate 78 rotates downward. After the pressing plate 78 crosses the pressing block 77, the pressing plate 78 returns to its original position under the action of the spring eleven. Then, when the ejection chamber 73 descends, the pressing plate 78 and the pressing block 77 come into contact and press again. At this time, the pressing plate 78 cannot rotate upward. Therefore, the pressing plate 78 presses the pressing block 77, causing the pressing block 77 to move and press the start switch 76, so that the start switch 76 is only triggered when the ejection chamber 73 descends. The partition door 79 is rotatably set inside the mounting shell 21 by the elastic hinge. The partition door 79 serves to block heat from entering the mounting shell 21 and prevent the heat from being dissipated uselessly.

[0043] Reference Figure 2 , Figure 5As shown, the ejection mechanism 74 includes an adsorption plate 741, a shuttle plate 742, a receiving groove 743, and a telescopic pressure member 744. The adsorption plate 741 is slidably disposed in the mounting shell 21. A spring 12 connects the adsorption plate 741 and the mounting shell 21, and the spring 12 acts as a reset mechanism. The adsorption plate 741 is located directly below the ejection chamber 73. The upper surface of the adsorption plate 741 is a magnetic layer, and the adsorption plate 741 and the lower surface of the ejection chamber 73 are magnetically attracted together. In the initial state, the adsorption plate 741 firmly attracts the ejection chamber 73. At this time, the spring 12 is in a compressed state. The shuttle plate 742 is slidably disposed in the middle of the adsorption plate 741. The shuttle plate 742 and the adsorption plate 741 are connected. A spring thirteen connects the shuttle plate 742, which always pushes it to the right. The lower left end of the shuttle plate 742 has a chamfer. The inner wall of the mounting shell 21 has a receiving groove 743 corresponding to the right end of the shuttle plate 742. The receiving groove 743 is trapezoidal, with the hypotenuse at the top, facilitating compression between it and the right end of the shuttle plate 742. The shuttle plate 742 can smoothly enter and exit the receiving groove 743. A telescopic pressure member 744 slides vertically within the mounting shell 21. A spring fourteen connects the telescopic pressure member 744 to the mounting shell 21, acting as a reset mechanism. The telescopic pressure member 744 is an elastic, telescopic structure. The upper right side of the device has a chamfer. The right end of the telescopic pressure member 744 is in contact with the left end of the shuttle plate 742 through a pressing fit. In the initial state, the telescopic pressure member 744 is located above the shuttle plate 742. When the telescopic pressure member 744 descends, the shuttle plate 742 is pressed and descends together. When the shuttle plate 742 descends to the position corresponding to the receiving groove 743 (at this time, the suction plate 741 and the ejection chamber 73 are separated), under the action of spring thirteen, the shuttle plate 742 moves to the right and enters the receiving groove 743, thereby separating the shuttle plate 742 from the telescopic pressure member 744. After that, the telescopic pressure member 744 continues to descend, but the shuttle plate 742 no longer follows the telescopic pressure member 744. As the spring 12 descends, the adsorption disk 741 rises and resets, and the shuttle plate 742 follows the adsorption disk 741 to rise and reset (at this time, the ejection chamber 73 has already been pushed out by the spring 8, so the rising and resetting adsorption disk 741 cannot contact and adsorb with the ejection chamber 73). Then, the telescopic pressure member 744 rises and resets. When the rising telescopic pressure member 744 contacts the shuttle plate 742 again, the telescopic pressure member 744 is squeezed and contracted, so that the telescopic pressure member 744 can smoothly cross the shuttle plate 742 to reset. In this way, the adsorption disk 741 is temporarily unlocked. When the ejection chamber 73 descends again, it can smoothly adsorb with the adsorption disk 741 and lock.

[0044] During the actual feeding process, the left end of the rotating rocker 84 presses down on the shuttle plate 742, causing the adsorption plate 741 to descend. The descending adsorption plate 741 separates from the ejection chamber 73, unlocking the position of the ejection chamber 73. Under the action of the spring 8, the ejection chamber 73 is pushed upward, and the opening and closing door 75 is pushed upward to open. The alarm device sounds an alarm to remind you to replace the moxa stick. Afterward, the lit moxa stick is placed into the ejection chamber 73, and the ejection chamber 73 is pressed down to reset it. At the same time, the downward movement of the ejection chamber 73 causes the pressing plate 78 to press the pressing block. 77. Pressing block 77 is squeezed and moved, thereby pressing the start switch 76. The pusher drive 71 is triggered, and the pusher drive 71 drives the pusher plate 72 to move to the right. The pusher plate 72, which moves to the right, pushes the moxibustion column to the right. The partition door 79 is pushed and rotates to the right to open. At the same time, the partition door 79, after opening, plays a certain supporting and guiding role for the moxibustion column. The moxibustion column is finally pushed onto the puncture column 41. Then, the transfer motor 51 drives the transfer screw 52 to rotate in the opposite direction, thereby resetting the puncture column 41. The moxibustion column follows the puncture column 41 back to the appropriate combustion position.

[0045] Reference Figure 2 , Figure 9 As shown, the ash collection module 9 includes an ash-separating mesh 91, a rotating column 92, a fan-shaped mesh plate 93, a cleaning plate 94, a storage box 95, and an air suction component 96. The ash-separating mesh 91 is fastened to the lower end of the moxibustion head 2 using fasteners. The bottom of the ash-separating mesh 91 has evenly spaced fan-shaped grooves. The rotating column 92 is rotatably positioned in the middle of the ash-separating mesh 91. A spring sixteen connects the rotating column 92 and the ash-separating mesh 91, and the spring sixteen serves a resetting function. The ash-separating mesh 91 has a fine mesh structure, which prevents the ash from falling and avoids obstructing heat. The moxibustion is performed from here. The outer periphery of the rotating column 92 is evenly provided with fan-shaped mesh plates 93. The fan-shaped mesh plates 93 have a fine mesh structure. In the initial state, the fan-shaped mesh plates 93 and the dust-proof mesh 91 form a complete circular structure. The cleaning plate 94 is evenly provided on the top of the rotating column 92. The storage box 95 is installed at the bottom of the rotating column 92. The bottom of the storage box 95 also has a fine mesh structure. The air suction component 96 is located inside the lower part of the mounting shell 21. The air suction component 96 and the storage box 95 are connected by a pipeline.

[0046] When ash removal is required (such as after burning a moxa stick or after moxibustion), twist the storage box 95 to rotate the fan-shaped mesh plate 93 into the ash-separating mesh 91. The ash on the fan-shaped mesh plate 93 falls into the storage box 95. At the same time, the cleaning plate 94 rotates synchronously to scrape off the ash on the surface of the ash-separating mesh 91, causing the ash to fall into the storage box 95. The ash is then sucked out by the air suction component 96.

[0047] The implementation principle of this embodiment is as follows:

[0048] Step 1: Remove the ash collection module 9, fix the moxa stick with the puncture column 41, and make the detection module 6 overlap with the moxa stick;

[0049] Step 2: Ignite the moxa stick and reset the ash collection module 9;

[0050] Step 3: Move the moxibustion head 2 to the affected area of ​​the patient to perform moxibustion;

[0051] Step 4: After the moxa stick has finished burning, the detection module 6 triggers the transfer module 5 to transfer the position of the fixed module 4. At the same time as the transfer module 5 completes the position transfer, it triggers the linkage module 8, which causes the feeding module 7 to work. The feeding module 7 reminds the personnel to put in a new moxa stick.

[0052] Step 5: Replace the moxa stick. The feeding module 7 will fix the replaced moxa stick onto the fixing module 4.

[0053] Step Six: Continue with the moxibustion treatment;

[0054] Step 7: After the moxibustion is completed, collect and clean the ash produced by the burning moxa stick using the ash collection module 9.

[0055] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. A moxibustion therapy device for preventing burns, characterized in that, include: The main body (1) has a moxibustion head (2) connected to its upper end via a universal arm (11), and a smoke guide tube (12) is connected between the moxibustion head (2) and the main body (1). Mounting platform (3) is mounted on the top inner wall of the moxibustion head (2); The fixing module (4) is set in the middle of the mounting platform (3) through the transfer module (5). The fixing module (4) with anti-drop function punctures and fixes the moxa stick. The detection module (6) is symmetrically arranged on the mounting platform (3) and the detection module (6) detects the burning height of the moxa stick; The feeding module (7) is set in the mounting shell (21), which is installed on the outer wall of the moxibustion head (2). The feeding module (7) and the transfer module (5) cooperate through the linkage module (8). The ash collection module (9) is located at the lower end of the moxibustion head (2) and collects the ash produced by the burning moxa stick.

2. The anti-scalding moxibustion therapy device according to claim 1, characterized in that, The fixed module (4) includes: The puncture column (41) is slidably set in the sliding groove opened in the middle of the mounting platform (3). The lower end of the puncture column (41) is a sharp corner structure that facilitates puncture. Hidden grooves are evenly opened on the outer periphery of the puncture column (41). The lower end of the outer flap (42) is rotatably set in the hidden groove by the extrusion shaft (43), and the upper end of the outer flap (42) is connected to the hidden groove by a spring. The inner part of the outer flap (42) has a hidden cavity. The spiked plate (44) is horizontally slidably disposed in the hidden cavity. A spring is connected between the spiked plate (44) and the hidden cavity. The spiked plate (44) is a plate-shaped structure with small spikes on its surface. The extrusion piece (45) is slidably disposed in the hidden cavity. A spring is connected between the extrusion piece (45) and the hidden cavity. The lower end of the extrusion piece (45) is in extrusion fit with the extrusion shaft (43). An extrusion groove corresponding to the position of the extrusion piece (45) is opened on the extrusion shaft (43). The upper end of the extrusion piece (45) is in extrusion fit with the protruding thorn plate (44).

3. The anti-scalding moxibustion therapy device according to claim 2, characterized in that, The transfer module (5) includes: A transfer motor (51) is installed inside the mounting platform (3). A transfer screw (52) is installed on the output end of the transfer motor (51). The transfer screw (52) is rotatably set in the sliding groove. The transfer frame (53) is slidably arranged in the sliding groove. The transfer frame (53) and the transfer screw (52) are threaded together. The transfer frame (53) and the piercing column (41) are connected by a flipping shaft (54). A reversing gear (55) is mounted on a reversing shaft (54); The flip rack (56) is installed in the sliding groove, and the flip rack (56) and the flip gear (55) are temporarily meshed.

4. The anti-scalding moxibustion therapy device according to claim 3, characterized in that, The detection module (6) includes: The movable frame (61) is slidably mounted in the guide rail groove opened on the mounting platform (3), and an elastic element is connected between the movable frame (61) and the guide rail groove. Guide column (62), which is mounted on the movable frame (61); The detection mesh plate (63) is slidably mounted on the guide column (62). A spring is connected between the detection mesh plate (63) and the guide column (62). The detection mesh plate (63) is a mesh plate structure with a grid. The snap-fit ​​component (64) is slidably disposed in the hollow groove opened inside the guide column (62). A spring is connected between the snap-fit ​​component (64) and the hollow groove. The snap-fit ​​component (64) is U-shaped. The detection mesh plate (63) is provided with a snap-fit ​​groove that engages with the lower end of the snap-fit ​​component (64). A trigger block (65) is installed in the guide rail groove, and the upper position of the trigger block (65) corresponds to that of the snap-fit ​​(64); A locking mechanism (66) locks the position of the movable frame (61); An induction switch (67) is installed on the upper end of the moving frame (61). The position of the induction switch (67) corresponds to that of the detection screen (63). The induction switch (67) is electrically connected to the transfer motor (51).

5. The anti-scalding moxibustion therapy device according to claim 4, characterized in that, The locking mechanism (66) includes: A locking plug (661) is installed on the upper end of the movable frame (61), and a locking slot (662) corresponding to the position of the locking plug (661) is provided in the guide rail groove; A locking insert (663) is slidably disposed on the upper part of the locking slot (662). A spring is connected between the locking insert (663) and the locking slot (662). An insertion slot (664) is provided on the locking insert (661) to temporarily engage with the locking insert (663). The unlocking plate (665) is slidably disposed inside the mounting platform (3). A spring is connected between the unlocking plate (665) and the mounting platform (3). The locking plate (663) has a lifting groove (666) corresponding to the position of the unlocking plate (665). One end of the unlocking plate (665) is pressed into the lifting groove (666), and the other end of the unlocking plate (665) is pressed into the transfer frame (53).

6. The anti-scalding moxibustion therapy device according to claim 1, characterized in that, The feeding module (7) includes: The pusher drive (71) is installed on the left side of the mounting shell (21). The output end of the pusher drive (71) is connected to the pusher plate (72), which is a grid plate structure. The ejection chamber (73) is slidably disposed inside the mounting shell (21). A spring is connected between the ejection chamber (73) and the mounting shell (21). The ejection chamber (73) and the mounting shell (21) cooperate through the ejection mechanism (74). The opening and closing door (75) is rotated in the ejection port opened above the mounting shell (21). A spring is connected between the opening and closing door (74) and the ejection port. An alarm device is installed on the opening and closing door (75). The start switch (76) is installed in the mounting groove opened on the lower inner wall of the mounting shell (21), and the start switch (76) is electrically connected to the push drive (71); The pressing block (77) is slidably disposed in the mounting groove. A spring is connected between the pressing block (77) and the mounting groove. The pressing block (77) corresponds to the position of the start switch (76). The upper end of the pressing block (77) is provided with a chamfer structure. The pressing plate (78) is rotatably mounted on the lower left side of the ejection chamber (73) via a pin. A spring eleven is connected between the pressing plate (78) and the ejection chamber (73). The pressing plate (78) and the pressing block (77) are mutually pressurized. The partition door (79) is rotatably mounted inside the mounting shell (21) via a flexible hinge.

7. The anti-scalding moxibustion therapy device according to claim 6, characterized in that, The ejection mechanism (74) includes: The adsorption plate (741) is slidably disposed in the mounting shell (21). A spring twelve is connected between the adsorption plate (741) and the mounting shell (21). The adsorption plate (741) is located directly below the ejection chamber (73). The upper surface of the adsorption plate (741) is a magnetic layer. The adsorption plate (741) and the lower surface of the ejection chamber (73) are magnetically adsorbed together. The shuttle plate (742) is slidably disposed in the middle of the adsorption plate (741). A spring thirteen is connected between the shuttle plate (742) and the adsorption plate (741). A chamfer is provided at the lower left side of the shuttle plate (742). A receiving groove (743) corresponding to the right end of the shuttle plate (742) is provided on the inner wall of the mounting shell (21). The receiving groove (743) is trapezoidal. The telescopic pressure member (744) is slidably disposed in the mounting shell (21). A spring fourteen is connected between the telescopic pressure member (744) and the mounting shell (21). The telescopic pressure member (744) is an elastic telescopic structure. A chamfer is provided on the upper right side of the telescopic pressure member (744). The right end of the telescopic pressure member (744) and the left end of the shuttle plate (742) are in contact and squeeze fit.

8. The anti-scalding moxibustion therapy device according to claim 7, characterized in that, The linkage module (8) includes: A sliding frame (81) is installed on the inner wall of the moxibustion head (2). A movable block (82) is slidably arranged inside the sliding frame (81) and a spring fifteen is connected between the movable block (82) and the sliding frame (81). The linkage flipping component (83) is rotatably mounted on the moving block (82) via a pin shaft. The linkage flipping component (83) is T-shaped. The rotating rocker (84) is rotatably mounted on the outer wall of the mounting shell (21) via a pin. The right side of the rotating rocker (84) corresponds to the position of the linkage flipping component (83), and the left side of the rotating rocker (84) is in contact and pressing fit with the telescopic pressing component (744).

9. The anti-scalding moxibustion therapy device according to claim 6, characterized in that, The ash collection module (9) includes: The ash-proof net (91) is fastened to the lower end of the moxibustion head (2) using fasteners. The bottom of the ash-proof net (91) is evenly provided with fan-shaped grooves. A rotating column (92) is rotatably set in the middle of the ash-proof mesh (91). A spring sixteen is connected between the rotating column (92) and the ash-proof mesh (91). Fan-shaped mesh plates (93) are evenly arranged on the outer periphery of the rotating column (92). Cleaning plates (94) are evenly distributed on the top of rotating columns (92); A storage box (95) is installed at the bottom of the rotating column (92); The air suction assembly (96) is located inside the lower part of the mounting shell (21), and the air suction assembly (96) is connected to the storage box (95) by a pipe.

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