Automatic moxa cautery device and moxa cautery method

Abstract

This application discloses an automatic moxibustion device and a moxibustion method. The automatic moxibustion device includes a moxa product fixing structure for placing moxa products, a flow guiding component, and a driving component. The flow guiding component includes a drainer, which includes at least one draining funnel body, comprising a large end and a small end, and a flow guiding channel that gradually decreases in size from the large end to the small end; the large end of the draining funnel body faces the moxa product fixing structure. The driving component is controlled and connected to the moxa product fixing structure for driving the moxa product fixing structure to move towards the large end of the draining funnel body of the drainer. This application can improve the cold-dispelling effect of moxibustion.

Description

Technical Field

[0001] This application relates to the field of health care equipment technology, and in particular to an automatic moxibustion device and moxibustion method. Background Technology

[0002] Traditional moxibustion primarily involves applying moxa sticks close to the body for a certain period of time, using heat to stimulate the body, aiming to warm and unblock the meridians and dispel cold. However, traditional fixed-temperature moxibustion methods often deliver heat unidirectionally into the body. Continuous heating can cause the pores to close, lacking a channel for cold pathogens to escape. This not only makes it difficult to eradicate deep-seated cold pathogens in the meridians but may also force them deeper into the internal organs. Furthermore, it can easily cause localized heat, burns, and other problems, affecting the treatment's effectiveness and the patient's experience.

[0003] Existing techniques also employ the "sparrow-pecking" moxibustion method. When the moxa stick approaches, the yang energy penetrates deep into the meridians to warm and dispel cold pathogens; when the moxa stick is lifted, the pores on the body surface open, providing a channel for the cold pathogens to escape, achieving a two-way flow of "yang entering and cold exiting." Through the repeated approach and withdrawal of the moxa stick from the skin, the cold energy is guided out of the body. However, sparrow-pecking moxibustion requires repeated manual pushing and pulling of the moxa stick, demanding extremely high levels of skill, feel, and concentration from the practitioner. It is time-consuming and laborious, making standardization and widespread application difficult. Furthermore, during repeated moxibustion, the body still receives a significant amount of heat, and long-term use may still result in poor effectiveness in expelling cold energy.

[0004] The prior application PCT / CN2023 / 091852 discloses a device for dispelling cold and its usage method. This device uses a moving moxa stick to draw cold out of the body, resulting in a better dispelling effect. Furthermore, this method involves less heat entering the body, and long-term use will not place excessive burden on the body. However, it was found that the tendency to draw out cold significantly weakens after the moxa stick stops moving or when it is too far from the body, indicating that its cold-dispelling effect needs further improvement. Summary of the Invention

[0005] The purpose of this application is to provide an automatic moxibustion device and moxibustion method with a display panel, which can effectively achieve the effect of dispelling cold.

[0006] This application discloses an automatic moxibustion device, comprising: A structure for holding moxa products; A flow guiding component includes a flow guide, the flow guide including at least one flow guide horn body, the flow guide horn body including a large end and a small end, and a flow guiding channel that gradually decreases in size from the large end to the small end; wherein the large end of one of the flow guide horn bodies faces the moxibustion product fixing structure; A driving component, controlled and connected to the moxibustion product fixing structure, is used to drive the moxibustion product fixing structure to move toward the large end of the drainage horn body of the drainage device.

[0007] Optionally, the drainage horn body is a conical horn body structure, and the cross-section of the inner wall of the drainage channel is a straight line.

[0008] In this design, the inner wall of the flow channel is a cone, which minimizes the guiding distance from the large end to the small end, resulting in strong guidance and improved efficiency in guiding cold air.

[0009] Optionally, the drainage horn body is an arc-shaped horn body structure, and the cross-section of the inner wall of the drainage channel is a concave arc.

[0010] In this design, the inner wall of the flow channel is a concave arc surface. After the cold air enters the flow channel from the large opening, it can smoothly transition to the small opening under the guidance of the arc surface. The process of guiding the cold air is more natural, which helps to stabilize the trend of cold air being drawn out and slows down the attenuation rate of cold air being drawn out.

[0011] Optionally, the drainage device further includes a diffuser; the diffuser and the drainage horn have the same shape and their small ends are fixedly connected; their drainage channels are connected; and the cross-section of the inner wall of their drainage channels is a concave arc.

[0012] In this design, a double-horn structure is adopted, and the flow channels of both horns are concave arc surfaces. After the cold air is guided out from the flow-guiding horn, it is evenly dispersed to all parts of the space under the guidance of the diffusion horn. This reduces the accumulation of cold air at the small opening of the flow-guiding horn, making the process of guiding the cold air smoother and more stable, and slowing down the attenuation rate of the cold air being drawn out.

[0013] Optionally, the drainage device further includes five diffuser horns; the five diffuser horns and the drainage horn have the same shape; the large openings of the five diffuser horns and the drainage horn face outwards, respectively facing six directions: up, down, left, right, front, and back; the five diffuser horns and the drainage horn converge at their small openings and are seamlessly connected; the drainage channels of the five diffuser horns and the drainage horn are interconnected.

[0014] In this design, the drainage device has six identical horn-shaped structures, corresponding to the six directions of space: up, down, left, right, front, and back. After the cold air enters the center of the drainage horn, it can be diverted through the other five diffusion horns in other directions, achieving uniform dispersion in three-dimensional space. This significantly improves the efficiency of cold air dissipation and, in turn, enhances the guiding effect of the drainage horns that introduce the cold air, further promoting the expulsion of cold air and improving the cold-removing effect.

[0015] Optionally, the cross-section of the five diffuser bells and the inner wall of the flow channel of the flow-guiding bells is a concave arc; the tangent at the large opening is perpendicular to the central axis; and the tangent at the small opening is parallel to the central axis.

[0016] In this scheme, the diversion and distribution effects in all directions are balanced. The shape of the diversion channel can guide more cold air into the large opening, and through gradual guidance, the cold air is naturally drawn out from the small opening. The process of drawing out the cold air is more orderly, which is conducive to further improving the diversion effect of the cold air.

[0017] Optionally, the flow guiding component further includes a flow divider; the flow divider includes six flow divider horns, each of which forms a flow divider channel that gradually decreases in size from the large end to the small end. The large ends of the six flow divider horns all face outward, respectively facing up, down, left, right, front, and back. The six horns converge at the small end and are seamlessly connected, and the flow divider channels of the six flow divider horns are interconnected.

[0018] In this solution, a diverter is added after the drainer. The diverter has 6 diverting horns, which correspond to the 6 directions of space, up, down, left, right, front, and back. After the cold air comes out of the drainer, it enters the diverter and is diverted by the 5 diverting horns in different directions of the diverter. This allows it to be evenly distributed in the three-dimensional space, further improving the efficiency of cold air extraction and slowing down the attenuation rate of cold air extraction.

[0019] Optionally, the moxibustion product is a moxa stick, which is placed after the moxibustion product fixing structure, with the burning surface of the moxa stick facing away from the large opening end of the drainage horn body.

[0020] In this design, the moxibustion product uses a moxa stick structure with its burning surface facing the human body. The heat mainly penetrates to the areas where cold is expelled, allowing for a more stable connection with the cold before movement. When the moxa stick is moved towards the flow guide component, the cold air will escape backward towards the tail of the moxa stick through the gaps in the moxa wool during moxibustion. The tail of the moxa stick faces the large opening of the flow guide funnel, allowing the cold air escaping from the tail of the moxa stick to smoothly enter the flow guide funnel, resulting in stronger guidance of the cold air and helping to improve the effect of expelling the cold air.

[0021] Optionally, the moxa product fixing structure further includes a slider and a tray; the slider is disposed on a guide rail; the tray is placed above the slider, and the elbow is fixed on the tray; the area of ​​the tray covers the moxa stick.

[0022] This design incorporates a tray structure, which is separate from the slider. Users can light the moxa stick on the outside before placing it on the slider for easy operation. The tray's area covers the moxa stick, and any ash that falls from the stick will also fall onto the tray for easy cleaning. There's no need to worry about sparks burning the main body of the product, ensuring high safety.

[0023] Optionally, after the moxa product fixing structure fixes the moxa product, the orthographic projection of the moxa product onto the large-mouth end plane of the drainage trumpet body is within the coverage area of ​​the large-mouth end, and its height is lower than the central axis of the drainage trumpet body. That is to say, the moxa product is projected along the plane perpendicular to the large-mouth end, and its projection is within the area enclosed by the large-mouth end. On the projection plane, the large-mouth end is a large circle, and if the projection of the moxa product is assumed to be a small circle, then the small circle is within this large circle.

[0024] In this design, the moxa product is placed below the large opening of the drainage funnel, which can enhance the effect of guiding cold air.

[0025] Optionally, the relationship between the height H1 of the center position of the moxa product from the lower end of the large opening and the radius R of the large opening is: 1 / 3R≤H1≤2 / 3R.

[0026] In this solution, within this height range, most of the cold air from the moxa product can be smoothly introduced into the drainage trumpet body.

[0027] Optionally, the flow guiding component remains stationary, and when the driving component drives the moxibustion product fixing structure to move toward the large opening end of the flow-guiding horn body of the flow guide, the driving component drives the moxibustion product fixing structure to stop at a first preset distance from the large opening end of the flow-guiding horn body.

[0028] In this design, the flow guiding component remains fixed, meaning it does not move with the fixed structure of the moxa product. When the moxa product moves, the cold air is drawn out along the direction of movement, creating a clear outflow trend. Once the moxa product moves close to the large opening of the flow guiding funnel, it stops. At this point, the cold air follows the original direction of movement and enters the flow guiding channel of the flow guiding funnel, where it is continuously discharged under the guidance of the channel, resulting in a better effect in dispelling cold.

[0029] Optionally, at the initial position of the moxa product fixing structure, the distance between the moxa product and the large end of the drainage trumpet body is 20cm-100cm; after the moxa product fixing structure moves towards the drainage trumpet body to the end position, the distance between the moxa product and the large end of the drainage trumpet body is 1cm-10cm.

[0030] In this method, on the one hand, if the moxa product moves too close, the tendency to draw out cold energy will not be obvious; if it moves too far, the practice of drawing out the moxa product and cold energy will be easily interrupted. On the other hand, after the moxa product stops at the preset position, the distance between it and the large opening of the drainage trumpet body must also be appropriate to smoothly guide the cold energy into the drainage trumpet body. Verification has shown that using the parameter range of this method, the cold energy can form a clear tendency to be drawn out and can be smoothly guided into the drainage trumpet body.

[0031] Optionally, the moxibustion product fixing structure moves along the central axis of the drainage trumpet body.

[0032] In this design, the direction of movement of the moxa product is consistent with the direction of the central axis, which allows more cold air to converge towards the direction of the drainage funnel, thereby improving the effect of cold air drainage.

[0033] Optionally, the drive assembly includes a guide rail, an active module, a driven module, and a ring conveyor belt. The active module and the driven module are respectively fixed at both ends of the guide rail; The guide rail surface is provided with a sliding groove; The annular conveyor belt is disposed in the chute and connected to the moxa product fixing structure; the two ends of the annular conveyor belt are respectively sleeved on the active module and the driven module. The flow guiding component is fixedly connected to the driven module.

[0034] In this design, the moxa product fixing structure is driven by a conveyor belt, which is not rigidly connected to the moxa product fixing structure. In the event of a malfunction, the relevant components of the drive assembly are less likely to jam, and the electrical components will not burn out due to overcurrent. The belt is hidden in the groove of the guide rail, and the flow guiding component is fixed together with the driven component, resulting in a more compact overall structure that helps reduce product size and facilitates carrying.

[0035] This application also discloses a moxibustion method, including the following steps: Point the lit moxa product at the area to be treated for cold and leave it for the first preset time; The moxa product is moved toward the flow guide component and stays at the preset position for a second preset time. in, The flow guiding component includes a flow guide, which includes a flow guide horn body. The flow guide horn body includes a large opening end and a small opening end, as well as a flow guiding channel that gradually decreases in size from the large opening end to the small opening end. The distance between the preset position and the large opening end of the flow guide horn body of the flow guiding component is less than 30cm. Optionally, after the moxa product is moved to the preset position, the remaining burning time is less than the second preset time.

[0036] In this design, once the moxa product stops at the preset position, it draws the cold air into the guide horn. Once the guide horn can stably guide the cold air out, the burning moxa product is no longer needed. At this point, whether the moxa product is left to burn out naturally or removed, the cold air extraction process will not be affected. This design reduces the amount of moxa product used and minimizes environmental pollution.

[0037] Optionally, the first preset time is 1-5 minutes.

[0038] In this method, the moxa product needs to remain in the initial position for an appropriate time. If it's too short, the connection between the moxa product and the cold energy will be unstable; if it's too long, excessive heat will accumulate in the body, causing the cold energy to accumulate rather than be expelled. It has been verified that a time of 1-5 minutes is suitable for most people.

[0039] Optionally, the second preset time is not less than 1 minute.

[0040] In this method, the moxa product should not remain at the end position for too short a time; otherwise, the cold air will not be fully guided into the drainage funnel, and the tendency for the cold air to be drawn out will be significantly weakened. Verification has shown that a time of at least one minute is sufficient for the drainage funnel to stably guide the cold air.

[0041] Optionally, at the initial position of the moxa product fixing structure, the distance between the moxa product and the large end of the drainage trumpet body is 20cm-100cm.

[0042] In this method, if the movement distance of the moxa product is too short, the tendency to draw out cold energy will not be obvious; if it is too far, the practice of using the moxa product and drawing out cold energy will easily be interrupted. Using the parameter range of this method, the tendency to draw out cold energy can be clearly formed.

[0043] Optionally, after the moxa product fixing structure moves to the end position towards the drainage trumpet body, the distance between the moxa product and the large opening end of the drainage trumpet body is 1cm-10cm.

[0044] In this method, after the moxa product stops at the preset position, the distance between it and the large opening of the drainage trumpet body must also be appropriate to ensure that the cold air is smoothly guided into the drainage trumpet body. Verification has shown that using the parameter range of this method, the cold air can be smoothly guided into the drainage trumpet body.

[0045] Optionally, the moxa product moves at a uniform linear speed.

[0046] In this method, the process of drawing out the cold must be stable in order to form a stable trend of drawing out the cold. Therefore, the moxa products are moved in a uniform linear motion, which makes it less likely for the process of drawing out the cold to be interrupted. After the movement stops, the trend of drawing out the cold becomes more obvious, thus improving the effect of dispelling cold.

[0047] This application utilizes burning moxa products for close-range moxibustion to expel cold from the body. After a period of time, the moxa products establish a relatively stable connection with the cold in the body. When the moxa products are moved, the cold is drawn out of the body due to the mutual attraction between heat and cold. Upon reaching the guiding component, the cold continues to be drawn out by the funnel-shaped guiding channel. Even if the moxa products are removed or extinguished, the process of expelling the cold will not be significantly interrupted. This shortens the duration of moxa product use within the same treatment time, reducing environmental pollution caused by long-term burning of moxa products. At the same time, the tendency to expel cold does not weaken significantly or rapidly when the movement of the moxa products stops, resulting in a better effect in expelling cold compared to simply moving the moxa products. Attached Figure Description

[0048] The accompanying drawings, which form part of the specification, are used to provide a further understanding of the embodiments of this application and illustrate the implementation methods of this application, together with the textual description, to explain the principles of this application. Obviously, the drawings described below are merely some embodiments of this application, and those skilled in the art can obtain other drawings based on these drawings without creative effort. In the drawings: Figure 1 This is a structural schematic diagram of the automatic moxibustion device of this application.

[0049] Figure 2 This is a structural schematic diagram of the automatic moxibustion device with moxa sticks according to this application.

[0050] Figure 3 This is a top view of the automatic moxibustion device of this application.

[0051] Figure 4 yes Figure 3 Schematic diagram of cross-section along the AA direction.

[0052] Figure 5 This is a schematic cross-sectional view of a ventilator with a conical horn-shaped structure.

[0053] Figure 6 This is a schematic diagram of the automatic moxibustion device with a curved horn-shaped drainage structure according to this application.

[0054] Figure 7 This is a schematic diagram of a drainage device with an arc-shaped horn-shaped structure.

[0055] Figure 8 This is a schematic diagram of the automatic moxibustion device with the arc-shaped double-horn body structure drainage device of this application.

[0056] Figure 9 This is a schematic diagram of a drainage device with a curved double-horn structure.

[0057] Figure 10This is a schematic diagram of a curved double-horn-shaped drainage device with a two-layer nested structure.

[0058] Figure 11 This is a schematic diagram of the automatic moxibustion device with six arc-shaped double-horn-shaped drainage devices according to this application.

[0059] Figure 12 This is a three-dimensional schematic diagram of a drainage device with a six-arc double-horn structure.

[0060] Figure 13 This is a cross-sectional schematic diagram of a drainage device with a six-arc double-horn structure.

[0061] Figure 14 This is a schematic diagram of the moxibustion method described in this application.

[0062] Figure 15 This is a structural schematic diagram of the automatic moxibustion device with a diverter according to this application.

[0063] Figure 16 This is an exploded schematic diagram of the automatic moxibustion device with a diverter according to this application.

[0064] Figure 17 This is a schematic diagram of the shunt in this application.

[0065] Figure 18 This is a cross-sectional schematic diagram of a splitter with a two-layer nested structure.

[0066] Figure 19 This is a schematic diagram of an automatic moxibustion device that uses a curved double-horn body structure with a diverter and a shunt.

[0067] Among them, 100 is the guide rail; 110 is the slide groove; 200 is the moxa product fixing structure; 210 is the moxa stick; 220 is the slider; 230 is the tray; 240 is the elbow; 300 is the drive assembly; 310 is the active module; 311 is the active wheel; 312 is the motor; 320 is the driven module; 321 is the driven wheel; 330 is the ring conveyor belt; 400 is the flow guiding assembly; 410 is the flow guide; 411 is the flow guide horn body; 412 is the large opening end; 413 is the small opening end; 414 is the flow guiding channel; 415 is the large flow guide; 416 is the small flow guide; 417 is the diffuser horn body; 420 is the flow divider; 421 is the flow divider horn body; 422 is the flow divider space; 423 is the large flow divider; 424 is the small flow divider; 425 is the flow divider channel. Detailed Implementation

[0068] It should be understood that the terminology, specific structural and functional details used herein are merely for describing particular embodiments and are representative. However, this application may be implemented in many alternative forms and should not be construed as being limited to the embodiments set forth herein.

[0069] In the description of this application, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating relative importance or implying the number of technical features indicated. Therefore, unless otherwise stated, a feature specified as "first" or "second" may explicitly or implicitly include one or more of that feature; "multiple" means two or more. Furthermore, terms such as "upper," "lower," "left," "right," "vertical," and "horizontal," indicating orientation or positional relationships, are based on the orientation or relative positional relationships shown in the accompanying drawings and are only for the purpose of simplifying the description of this application, not indicating that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as limiting this application. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0070] The present application will now be described in detail with reference to the accompanying drawings and optional embodiments.

[0071] Example 1 like Figure 1 As shown, this application discloses an automatic moxibustion device, including a moxa product fixing structure 200, a flow guiding component 400, and a driving component 300. The moxa product fixing structure 200 is used to hold the moxa product; the flow guiding component includes a drainer 410, which includes at least one draining funnel body 411. The draining funnel body 411 includes a large opening end 412 and a small opening end 413, and a flow guiding channel 414 that gradually decreases in size from the large opening end to the small opening end; the large opening end 412 of the draining funnel body 411 faces the moxa product fixing structure 200; The driving component 300 is controlled to be connected to the moxa product fixing structure 200 and is used to drive the moxa product fixing structure to move toward the large end of the flow guiding component.

[0072] This application utilizes burning moxa sticks at close range to expel cold from the body. After a period of time, a stable connection is established between the moxa sticks and the cold in the body. Moving the moxa sticks at this point allows the cold to be drawn out of the body under its influence. When the cold reaches the guiding component, the funnel-shaped channel continues to guide it outwards. Extinguishing or removing the moxa sticks at this point does not interrupt the process. This shortens the duration of moxa use within the same treatment time, reducing environmental pollution caused by prolonged burning of moxa. Simultaneously, the attenuation of cold expulsion is slowed, resulting in a better cold-expelling effect compared to simply moving the moxa sticks.

[0073] Without a guiding component, simply pulling the moxa stick to draw out cold air will initially draw it out along with the stick. However, as it moves, the connection between the moxa stick and the body's cold air weakens rapidly due to the unstable movement. This weakening also occurs due to the increased distance between the moxa stick and the body, significantly reducing the tendency to draw out the cold air. Even if the connection remains, the tendency to draw out the cold air will quickly diminish once the moxa stick stops moving. At this point, the moxa stick needs to be moved back, paused for a period, and then pulled again. This process is complex, the cold air is drawn out intermittently, and the efficiency is low. This is why traditional sparrow-pecking moxibustion requires repeated application to a single location and cannot be pulled too far, like a sparrow pecking at food.

[0074] While placing the flow-guiding component between the moxa stick and the area to be treated can stabilize the connection between the moxa stick and the cold energy during movement, thus addressing the issue of rapid weakening of the connection due to unstable movement, the tendency to draw out the cold energy will still quickly diminish once the moxa stick stops moving. Furthermore, with a longer distance between the moxa stick and the body, even with continuous movement, the tendency to draw out the cold energy will still significantly decrease or even cease. Therefore, this method limits the amount of cold energy that can be drawn out with each movement of the moxa stick.

[0075] This application places the flow-guiding component behind the moving moxa product. When the product is moved, the cold air is significantly drawn out due to its movement. Even when movement stops, the flow-guiding component continues to stabilize the outward flow of cold air. Therefore, once the moxa stick has moved to a position where its energy is no longer transmitted into the body and affects the extraction of cold air, and before the distance between the moxa stick and the body becomes too long and weakens, the moxa stick can be stopped, and the flow-guiding component takes over to maintain the continuous extraction of cold air, eliminating the need for multiple repetitions. The cold air extracted in this solution can continue for a longer period without interruption, greatly improving the efficiency of cold air extraction and resulting in a significant effect in dispelling cold. Even removing or extinguishing the moxa stick at this point will not affect the extraction of cold air, significantly reducing the burning time of the moxa stick and minimizing environmental pollution.

[0076] Furthermore, the flow guiding component 400 remains stationary. When the driving component drives the moxa product fixing structure 200 to move towards the large opening end of the flow-guiding funnel body of the flow-guiding device, it drives the moxa product fixing structure 200 to stop at a first preset distance D1 from the large opening end 412 of the flow-guiding funnel body 411. That is, the flow guiding component 400 does not move with the moxa product fixing structure 200. When the moxa product moves, the cold air is drawn out along the direction of movement of the moxa product, forming a clear outward trend. When the moxa product moves close to the large opening end of the flow-guiding funnel body and stops, the cold air follows the original direction of movement and enters the flow guiding channel of the flow-guiding funnel body. Under the guidance of the flow guiding channel, it is continuously discharged, resulting in a better effect in dispelling cold.

[0077] like Figure 2 As shown, in this embodiment, the moxibustion product uses a moxa stick 210. The moxibustion product fixing structure 200 includes a slider 220, a tray 230, and an elbow 240. The driving component includes a guide rail 100. The slider 220 is disposed on the guide rail 100 and can move back and forth on the guide rail 100. The tray 230 is placed above the slider, and the elbow 240 is fixed on the tray 230. The tray 230 covers the moxa stick 210; that is, the orthographic projection of the moxa stick 210 onto the plane of the tray 230 is within the coverage area of ​​the tray 230. After the elbow 240 fixes the moxa stick 210, the burning surface of the moxa stick 210 faces away from the large opening end 412 of the drainage horn body 411.

[0078] After the non-combustible surface of the moxa stick 210 is inserted into the elbow 240 and fixed, the moxa stick 210 is within the coverage area of ​​the large opening end of the drainage horn body 411, and its height is lower than the central axis X of the drainage horn body. That is to say, the projection of the moxa stick along the plane perpendicular to the large opening end is within the area enclosed by the large opening end. On the projection plane, the large opening end is a large circle, and if the projection of the moxa product is assumed to be a small circle, then the small circle is within this large circle.

[0079] Moxibustion products use a moxa stick structure with the burning surface fixed at the end. The heat mainly penetrates to the area where cold is expelled, allowing for a more stable connection with the cold during moxibustion. When the moxa stick is moved, it also has a stronger guiding effect on the cold, which helps to enhance the effect of drawing out the cold.

[0080] The tray 230 and slider 220 are separate structures. When using them, you can light the moxa stick on the outside first, then place it on the slider for easy operation. The tray area can cover the moxa stick, and any ash that falls from the stick will also fall onto the tray for easy cleaning later. There's no need to worry about sparks falling and burning the main body of the product, ensuring high safety.

[0081] The moxa stick is placed below the larger opening of the drainage funnel, which enhances the guiding effect of cold air. Verification has shown that the relationship between the height H1 of the center of the moxa stick from the lower end of the larger opening and the radius R of the larger opening is: 1 / 3R ≤ H1 ≤ 2 / 3R. Within this range, most of the cold air can be smoothly introduced into the drainage funnel.

[0082] like Figure 3 , 4 As shown, a structure of a drive assembly 300 is disclosed. It includes an active module 310, a driven module 320, and an annular conveyor belt 330. The active module and the driven module are respectively fixed at both ends of the guide rail; The guide rail 100 has a groove 110 on its surface; The annular conveyor belt 330 is disposed in the chute 110 and is fixedly connected to the slider 220; the two ends of the annular conveyor belt 330 are respectively sleeved on the active module 310 and the driven module 320; specifically, the active module has an active wheel 311, which is connected to a motor 312, and the driven module has a driven wheel 321, and the annular conveyor belt is sleeved on the active wheel 311 and the driven wheel 321.

[0083] The flow guiding component 400 is fixed on the driven module 320.

[0084] The moxa product fixing structure is driven by a conveyor belt, which is not rigidly connected to the product fixing structure. In the event of a malfunction, the relevant components of the drive assembly are less likely to jam, and the electrical components will not burn out due to overcurrent. The belt is hidden in the groove of the guide rail, and the flow guiding component is fixed together with the driven component, resulting in a more compact overall structure that helps reduce product size and facilitates carrying.

[0085] At the initial position of the moxa product fixing structure, the distance between the moxa product and the large opening end of the drainage trumpet body is 20cm-100cm; after the moxa product fixing structure moves towards the end position towards the drainage trumpet body, the distance between the moxa product and the large opening end of the drainage trumpet body is 1cm-10cm. If the moving distance of the moxa product is too close, the tendency to draw out cold air is not obvious; if it is too far, the practice of drawing out cold air with the moxa product is easily interrupted. On the other hand, after the moxa product stops at the preset position, the distance between it and the large opening end of the drainage trumpet body must also be appropriate to smoothly guide the cold air into the drainage trumpet body. Through verification, using the parameter range of this embodiment, the cold air can form a clear tendency to be drawn out and can be smoothly drawn into the drainage trumpet body. The length range of the guide rail can be determined based on this range.

[0086] The drainage device of this application has a variety of structural forms to choose from, as illustrated below.

[0087] like Figure 5As shown, the horn body 411 is a conical horn body structure. The cross-section of the inner wall of the flow channel is a straight line, that is, the inner wall of the flow channel is a conical surface. The guiding distance from the large end to the small end is the shortest, the guiding effect is strong, and the guiding efficiency of cold air can be improved.

[0088] like Figure 6 , 7 As shown, the horn-shaped body 411 has an arc-shaped horn-shaped structure, and the cross-section of the inner wall of the flow channel is a concave arc, meaning that the inner wall of the flow channel is an arc surface that is concave towards the central axis. After the cold air enters the flow channel from the large opening, it can smoothly transition to the small opening under the guidance of the arc surface. The process of guiding the cold air is more natural, which helps to stabilize the trend of cold air extraction and slow down the attenuation rate of cold air extraction.

[0089] like Figure 8 , 9 As shown, the drainer 410 has an arc-shaped double-horn structure. The drainer includes a draining horn 411 and a diffuser horn 417. The diffuser horn 417 and the draining horn 411 have the same shape. Their small openings are fixedly connected. Their flow channels are connected. The cross-section of the inner wall of the flow channel of both is a concave arc.

[0090] The tangent of the arc at the large end is perpendicular to the central axis of the drain; the tangent of the arc at the small end is parallel to the central axis of the drain.

[0091] In this design, a double-horn structure is adopted, and the flow channels of both horns are concave arc surfaces towards the central axis. After the cold air is guided out from the flow-guiding horn, it is evenly dispersed in all directions of space under the guidance of the diffusion horn. This reduces the accumulation of cold air at the small opening of the flow-guiding horn, making the process of guiding the cold air smoother and slowing down the attenuation rate of the cold air being drawn out.

[0092] The tangent at the large opening of the drainage funnel is perpendicular to the central axis of the drainage device, maximizing the intake of cold air. The tangent at the small opening is parallel to the central axis, guiding the cold air out of the funnel in a direction parallel to the central axis, reducing resistance and congestion at the small opening, thus improving drainage efficiency. Similarly, the diffuser funnel has the same shape as the drainage funnel, allowing cold air to enter more smoothly and diffuse evenly across the entire plane of the large opening. This reduces resistance and ensures more uniform dispersion, preventing stagnation. With reduced obstruction at both the entry and exit points, the drainage process is less likely to be interrupted, further slowing the rate of cold air attenuation.

[0093] like Figure 10As shown, the drainage device 410 can adopt a nested double-flare structure, that is, it includes a large drainage device 415 and a small drainage device 416. The small drainage device is nested in the center of the large drainage device, and the two are coaxially arranged and have the same shape as the large drainage device. That is to say, in Figure 9 Based on the drainage device shown, a smaller drainage device of equal scale is nested in its center.

[0094] After the cold air enters the large drainage device, it is guided a second time through the small drainage device, directing the cold air further towards the central axis. This makes the cold air extraction process more stable and further enhances the extraction effect. Based on this invention concept, a nested structure with three or more levels can also be made to further enhance the extraction effect.

[0095] like Figure 11-13 As shown, the drainage device can adopt a six-sided symmetrical horn-shaped structure. Specifically, the drainage device 410 includes one drainage horn-shaped body 411 and five diffuser horn-shaped bodies 417; the five diffuser horn-shaped bodies 417 and the drainage horn-shaped body 411 have the same shape; the large openings of the five diffuser horn-shaped bodies 417 and the drainage horn-shaped body 411 all face outwards, respectively facing six directions: up, down, left, right, front, and back; the five diffuser horn-shaped bodies 417 and the drainage horn-shaped body 411 converge at their small openings and are seamlessly connected; the drainage channels of the five diffuser horn-shaped bodies 417 and the drainage horn-shaped body 411 are interconnected.

[0096] The device has six horn-shaped structures, corresponding to the six directions of space: up, down, left, right, front, and back. After the cold air is drawn into the center by the horn-shaped structure, it can be diverted by the other five horn-shaped structures in other directions, achieving uniform dispersion in three-dimensional space. This significantly improves the efficiency of cold air dissipation and, in turn, enhances the guiding effect of the horn-shaped structure that introduced the cold air, further promoting the expulsion of cold air and improving the effect of dispelling cold.

[0097] Optionally, the cross-section of the inner wall of the five diffuser bells and the flow channel of the flow-guiding bells is a concave arc; the tangent at the large opening is perpendicular to the central axis; and the tangent at the small opening is parallel to the central axis. The shape of the flow channel can guide more cold air into the large opening, and through gradual guidance, allow the cold air to be naturally drawn out from the small opening. The process of drawing out the cold air is more orderly, which is conducive to further improving the guiding effect of the cold air.

[0098] like Figure 14 As shown, a moxibustion method is disclosed, including the following steps: S1. Point the lit moxa product at the area to be treated for cold and leave it for the first preset time; S2. Move the moxa product toward the flow guide component, and after reaching the preset position, stay there for a second preset time; in, The flow guiding component includes a flow guide, which includes a flow guide horn body. The flow guide horn body includes a large opening end and a small opening end, as well as a flow guiding channel that gradually decreases in size from the large opening end to the small opening end. The distance between the preset position and the large opening end of the flow guide horn body of the flow guiding component is less than 30cm.

[0099] The flow guiding component has two fixing methods. One is to fix it relative to the moxa stick fixing structure, and then move together with the moxa stick fixing structure. When it reaches the preset position, they stop moving together. At this time, the cold air is not limited to the direction the moxa stick is pointing, and the cold air is emitted from the entire area covered by the flow guiding component. The effect of drawing out the cold air during the movement of the moxa stick is better.

[0100] Another method is to fix the flow guiding component in place and set it behind a preset position (at the end away from the cold-removing part). After the moxa product fixing structure moves to the preset position and stops, the moxa product stays at a distance of less than 30cm from the large opening end of the flow guiding horn body.

[0101] Furthermore, the lit moxa product stops precisely within the area covered by the large opening of the drainage funnel body, that is, its projection along the plane perpendicular to the large opening. The projection of the moxa product falls within the space defined by the large opening. As the moxa product moves, the cold air is drawn out along its direction of movement, creating a clear outward trend. When the moxa product stops near the large opening of the drainage funnel body, the cold air follows its original direction of movement and enters the drainage channel of the funnel body. Guided by the channel, it maintains a stable outward trend, continuously guiding the cold air out for even better results.

[0102] The process of drawing out the cold must be stable to create a consistent trend. Therefore, when moving mugwort products, a uniform, linear motion should be used to prevent the process of drawing out the cold from being interrupted. Once the movement stops, the trend of drawing out the cold will be more pronounced, enhancing the effect of dispelling cold.

[0103] The moxa products used in this method can be moxa sticks, moxa wool, moxa cakes, or other moxa products. The implementation of this invention can be achieved using the aforementioned automatic moxibustion equipment, or the moxa products and flow guiding components can be provided manually.

[0104] Taking a fixed flow-guiding component as an example, a set of reference parameter ranges is provided to ensure a good cold-relieving effect: T1: 1-5 minutes; T2: Not less than 1 minute; T3: Not exceeding T2; D1: Less than 30cm; D2: 5cm-20cm; D3: 20cm-100cm; Wherein, T1 is the first preset time; T2 is the second preset time; T3 is the burning time after the moxa product stops moving in step S2; D1 is the distance between the moxa product fixing structure and the large opening end of the drainage horn body after the moxa product stops moving to the preset position in step S2 (first preset distance); D2 is the distance between the moxa product and the cold-removing part before moving in step S1; D3 is the distance the moxa product moves in step S2.

[0105] The moxa product should be left on the initial site for an appropriate time. If it's too short, the connection between the moxa product and the cold energy is unstable; if it's too long, too much heat will accumulate in the body, causing the cold energy to stagnate rather than be expelled. A T1 of 1-5 minutes is suitable for most people.

[0106] When moving the moxa product to the end position, the time spent there should not be too short; otherwise, the cold air will not be fully guided into the drainage funnel, and the tendency for the cold air to be drawn out will be significantly weakened. The T2 time should be no less than 1 minute for the drainage funnel to stably guide the cold air.

[0107] During normal use, the T2 time can be slightly longer, such as extended to 10-15 minutes or more, to increase the duration and effectiveness of the moxa stick's continuous removal of cold energy with each movement. The T3 time does not need to be extended accordingly. After the moxa product stops at the preset position, it guides the cold energy into the guide vane. Once the guide vane can stably guide the cold energy out, the burning moxa product is no longer needed. At this point, whether the moxa product is left to burn out naturally or removed, it will not affect the cold energy removal process. This setup reduces the amount of moxa product used and minimizes environmental pollution.

[0108] After the moxa product stops at the preset position, the distance between it and the large opening of the drainage trumpet body must be appropriate to ensure that the cold air is smoothly introduced into the drainage trumpet body. When D1 is within a range of 30cm, the cold air can be smoothly drawn into the drainage trumpet body. This distance can be further limited to a range of 1-10cm to more stably introduce the cold air into the drainage trumpet body.

[0109] If moxibustion products are held too close to the body, the user will feel a noticeable burning sensation, triggering the body's self-protective mechanism and hindering the expulsion of cold air; if they are too far away, the user will not feel anything, and the cold air will not be expelled. Maintaining a distance of 5cm-20cm allows most people to feel the heat without experiencing a burning sensation, which is beneficial for drawing out the cold air.

[0110] If the moxa product is moved too close, the tendency to draw out cold energy will not be obvious; if it is too far, the practice of drawing out the moxa product and cold energy will be easily interrupted. Maintaining a distance of 20cm-100cm between D3 will allow for a clear tendency to draw out cold energy.

[0111] After step S2, the treatment ends. This means the moxa product only needs to be moved once, eliminating the need for repeated back-and-forth movements required in sparrow-pecking moxibustion, making the operation simpler. Furthermore, sparrow-pecking moxibustion relies on pulling the moxa stick outwards to expel cold air; after pulling it to the desired position, it needs to be pulled back, and then pulled outwards again to draw out the cold air, resulting in an intermittent process. Using the moxibustion method described in this application, only one movement of the moxa product is needed to draw out the cold air, and then the flow-guiding component allows for continuous drawing out of the cold air, ensuring an uninterrupted process and higher efficiency.

[0112] Implementation Method 2 like Figure 15 and 16 As shown, the difference from the above embodiment is that the flow guiding component 400 adds a diverter 420 at the rear of the flow guide 410, that is, at the end of the flow guide away from the cold-relief part. The diverter includes six diverting horn bodies 421, each of which forms a diverting channel 422 that gradually decreases in size from the large end to the small end. The large ends of the six diverting horn bodies all face outward, respectively facing up, down, left, right, front, and back. The six horn bodies converge at the small end and are seamlessly connected. The diverting channels of the six diverting horn bodies are interconnected, forming a diverting space 425 at the center.

[0113] The diverter has six diverting horns, corresponding to the six directions of space: up, down, left, right, front, and back. After the cold air comes out of the diverter, it enters the diverter and is diverted by the five diverting horns in different directions, so that it can be evenly distributed in three-dimensional space, further improving the efficiency of cold air extraction and slowing down the attenuation rate of cold air extraction. like Figure 17 and 18 As shown, the splitter 420 has three mutually perpendicular central axes, that is, the three central axes are set according to the coordinate axes of three-dimensional space, and the six splitter horn bodies 421 are symmetrical about each other.

[0114] The six horn bodies 421 of the splitter are all concave arcs towards the central axis. The small ends of the six horn bodies merge and connect at the center to form a splitting space 425.

[0115] Furthermore, the tangent at the large opening of each diverter horn 421 is perpendicular to the central axis, ensuring that cold air is drawn into the diverter horn body to the maximum extent; the tangent at the small opening is parallel to the central axis X, reducing the resistance of cold air exiting from the small opening and reducing the possibility of cold air clogging at the small opening.

[0116] When in use, point the large opening of one of the diverting horns toward the diverter. The cold air drawn out by the diverter enters the diversion space from the large opening of that diverting horn, and then diffuses to all directions of the space from the large openings of the other five diverting horns. This greatly improves the efficiency of cold air diffusion. The faster the cold air dissipates, the more cold air will enter the diverter, thereby improving the efficiency of cold air extraction and stabilizing the trend of cold air extraction.

[0117] Furthermore, the splitter also adopts a two-level nested structure, namely, it includes a large splitter 423 and a small splitter 424. The small splitter 424 is a proportionally scaled-down version of the large splitter 423, embedded and fixed in the middle position of the large splitter; the small splitter is arranged to coincide with the axis of symmetry of the large splitter. Of course, the shape of the small splitter does not have to be exactly the same as that of the large splitter, as long as it has 6 interconnected 6-sided horn body structures.

[0118] After the cold air exits from the large diverter's horn-shaped section, it is guided a second time by the smaller diverter's horn-shaped section, directing the cold air further towards the central axis. This draws more cold air into the diversion space, where it is then further diverted through five additional horn-shaped sections, enhancing the diversion effect. This, in turn, draws even more cold air into the diverter, further improving the efficiency and stability of the cold air diversion. Based on this invention, the diverter can also be made into a nested structure with three or more levels to further enhance the diversion effect.

[0119] like Figure 19 As shown, the drainage device can also adopt an arc-shaped double-flare structure, that is, adding a diverter at the rear of the arc-shaped double-flare drainage device. For the specific structure of the drainage device, please refer to... Figure 9 and 10 The structure of the shunt can be referenced. Figure 17 and 18 This will not be elaborated upon here.

[0120] The cold air coming out of the diffuser with its curved double-horn structure diffuses evenly towards the large opening of the diffuser, which has a certain diversion effect. However, this diversion is only in the planar direction and the effect is limited. Adding a diverter at the rear can further guide the cold air to a three-dimensional direction for secondary diversion, which further slows down the attenuation rate of the cold air and improves the cold air extraction effect.

[0121] To verify the actual effect of the technical solution of this application, the inventors manufactured the product according to Example 1 and conducted the following group experiments.

[0122] I. Subject Data General Information Thirty middle-aged women were selected and randomly divided into three groups of 10 each: a group with moxa sticks that were not moved, a group with moxa sticks that were moved, and a group with moxa cones that were moved and products.

[0123] Inclusion criteria ① Female aged 30-55; ② Able to provide detailed contact information, have no intention of relocating in the short term, and willing to cooperate with follow-up visits.

[0124] Exclusion criteria ① Individuals with a history of chronic diseases such as heart disease, hypertension, or diabetes, as well as those with acute illnesses, infectious diseases, or malignant tumors; ② Individuals experiencing pain due to other causes; ③ Individuals with severe mental or psychological illnesses; ④ Individuals with foot ulcers or wounds; ⑤ Pregnant or breastfeeding women; ⑥ Individuals with a history of alcohol or drug abuse; ⑦ Individuals currently participating in other clinical research; ⑧ Individuals unable to cooperate with follow-up. Individuals meeting any one of these criteria will not be included in the study.

[0125] II. Experimental Methods 2.1 Grouping Method Using a random number table, the subjects were randomly divided into 4 groups of 10 people each.

[0126] 2.2 Intervention methods Group A - Moxa Stick Without Moving: Place the lit moxa stick about 5cm away from the Yongquan acupoint and maintain it for 15 minutes.

[0127] Group B - Moxibustion Sticks + Mobile Group: ① Place a lit moxa stick about 5cm away from the Yongquan acupoint and hold it for 1 minute.

[0128] ② Slowly and evenly move the moxa stick away from the Yongquan acupoint until it is about 50cm away.

[0129] ③ Light the moxa stick and place it about 50cm away from the Yongquan point for 15 minutes.

[0130] Group C - Moxibustion + Mobile + Product Group 1: ① Place the product about 50cm away from the spring, with the flared end facing the spring.

[0131] ② Place the lit moxa stick about 5cm away from the Yongquan acupoint and hold it for 1 minute.

[0132] ③ Slowly and evenly move the moxa stick away from the Yongquan acupoint, stopping 1cm in front of the product.

[0133] ④ Light the moxa stick and place it 1cm in front of the product for 1 minute.

[0134] ⑤ Remove the moxa stick and leave the product on for 15 minutes.

[0135] Product Group 1 Select Appendix Figure 1 The automatic moxibustion device shown in the corresponding implementation method.

[0136] Group D - Moxibustion + Mobile + Product Group 2: ① Place the product about 50cm away from the spring, with the flared end facing the spring.

[0137] ② Place the lit moxa stick about 5cm away from the Yongquan acupoint and hold it for 1 minute.

[0138] ③ Slowly and evenly move the moxa stick away from the Yongquan acupoint, stopping 1cm in front of the product.

[0139] ④ Light the moxa stick and place it 1cm in front of the product for 1 minute.

[0140] ⑤ Remove the moxa stick and leave the product on for 15 minutes.

[0141] Product Group 2 Selection Appendix Figure 15 The automatic moxibustion device shown in the corresponding implementation method.

[0142] All four groups were observed once a day for three consecutive days, and their feelings were observed after the three observations were completed.

[0143] 2.3 Observation Indicators ① During the last experiment, was a cool breeze felt?

[0144] ②The duration of warmth in the Yongquan / sole of the foot after the last experiment.

[0145] ③ The extent of the warmth sensation during the last experiment.

[0146] III. Experimental Results The experimental statistics on whether a cool breeze could be felt during the final experiment are as follows:

[0147] Group A: No one felt any cold air emanating from them, indicating virtually no effect on expelling cold. Group B: Six people felt a cool air emanating from them, indicating some effect on expelling cold. Group C: Nine people felt a cool air emanating from them, indicating a significant effect on expelling cold. Group D: All people in Group D felt a cool air emanating from them, indicating the most significant effect on expelling cold.

[0148] After the final experiment, the experimental statistics on whether there was a warm sensation on the Yongquan point / sole of the foot at different time periods are as follows:

[0149] Group A had the most people experiencing a warm sensation shortly after the treatment, but the number of people experiencing this sensation decreased over time, and no one felt any warmth after one hour. This indicates that the warmth felt by Group A was from the moxa sticks; as time passed, the heat dissipated, and the feeling of warmth disappeared.

[0150] The number of people in Group B who felt warmth also decreased over time. Group B received less heat from moxibustion than Group A, but the rate of heat loss was significantly slower than that of Group A. This indicates that Group B had a certain effect in expelling cold. After the cold was expelled, the body's functions began to recover, and a certain amount of heat was generated through the circulation of Qi and blood.

[0151] In groups C and D, the number of people experiencing heat sensations initially increased over time, reaching a peak after 30 minutes. The number of people then began to decline slowly, with some still feeling warmth two hours later. These two groups ingested the least amount of heat from the moxibustion, indicating that most of the heat was generated by their own bodies, demonstrating a significantly better effect in expelling cold compared to groups A and B.

[0152] The experimental statistics on the range of warmth sensation during the final experiment are as follows:

[0153] It can be seen that in Group A, almost only the feet were warm, with only one person's temperature extending past the ankles. The area of ​​warmth was limited.

[0154] In Group B, two people were able to warm their ankles, two people were able to warm their knees, and one person was able to warm their abdomen, showing a significant increase in the range of warmth applied.

[0155] In Group C, all participants felt warmth extending to their ankles, 4 felt warmth extending to their knees, 1 felt warmth extending to their abdomen, and 0 felt warmth in their limbs. The range of warmth experienced a significant improvement.

[0156] In Group D, all participants felt warmth extending from their ankles, four felt warmth extending to their knees, two felt warmth extending to their abdomen, and one felt warmth in their limbs. The range of warmth was further improved compared to Group C.

[0157] Based on the above experimental results, it can be seen that the technical solution of this application can draw out the cold air from the human body, and the effect of dispelling cold is better than the solutions of fixing the moxa stick and moving the moxa stick.

[0158] It should be noted that the inventive concept of this application can form many embodiments, but due to the limited space of the application documents, they cannot all be listed. Therefore, without conflict, the embodiments described above or the technical features can be arbitrarily combined to form new embodiments. After the embodiments or technical features are combined, the original technical effect will be enhanced.

[0159] The above description, in conjunction with specific optional embodiments, provides a further detailed explanation of this application and should not be construed as limiting the specific implementation of this application to these descriptions. For those skilled in the art, various simple deductions or substitutions can be made without departing from the concept of this application, and all such modifications or substitutions should be considered within the scope of protection of this application.

Claims

1. An automatic moxibustion device, characterized in that, include: A structure for holding moxa products; A flow guiding component includes a flow guide, the flow guide including at least one flow guide horn body, the flow guide horn body including a large end and a small end, and a flow guiding channel that gradually decreases in size from the large end to the small end; the large end of the flow guide horn body faces the moxibustion product fixing structure; A driving component, controlled and connected to the moxibustion product fixing structure, is used to drive the moxibustion product fixing structure to move toward the large end of the drainage horn body of the drainage device.

2. The automatic moxibustion device according to claim 1, characterized in that, The drainage horn body has a conical horn body structure, and the cross-section of the inner wall of the drainage channel is a straight line.

3. The automatic moxibustion device according to claim 1, characterized in that, The drainage horn body has an arc-shaped horn structure, and the cross-section of the inner wall of the drainage channel is a concave arc.

4. The automatic moxibustion device according to claim 1, characterized in that, The drainage device also includes a diffuser; the diffuser and the drainage horn have the same shape and their small ends are fixedly connected; their drainage channels are connected; the cross-section of the inner wall of their drainage channels is a concave arc.

5. The automatic moxibustion device according to claim 1, characterized in that, The drainage device also includes five diffuser horns; the five diffuser horns and the drainage horn have the same shape; the large openings of the five diffuser horns and the drainage horn all face outwards, respectively facing six directions: up, down, left, right, front, and back; the five diffuser horns and the drainage horn converge at their small openings and are seamlessly connected; the drainage channels of the five diffuser horns and the drainage horn are interconnected.

6. The automatic moxibustion device according to any one of claims 1-5, characterized in that, The flow guiding component also includes a flow divider; the flow divider includes six flow divider horns, each of which forms a flow divider channel that gradually decreases in size from the large end to the small end. The large ends of the six flow divider horns all face outwards, respectively facing up, down, left, right, front, and back. The six horns converge at the small end and are seamlessly connected, and the flow divider channels of the six flow divider horns are interconnected.

7. The automatic moxibustion device according to claim 1, characterized in that, The moxibustion product is a moxa stick, which is placed behind the moxibustion product fixing structure with the burning surface of the moxa stick facing away from the large opening end of the drainage horn body.

8. The automatic moxibustion device according to claim 1, characterized in that, After the moxa product is fixed by the moxa product fixing structure, the orthographic projection of the moxa product onto the large-mouth end plane of the drainage trumpet body is within the coverage area of ​​the large-mouth end, and its height is lower than the central axis of the drainage trumpet body.

9. The automatic moxibustion device according to claim 1, characterized in that, The flow guiding component is fixed in place. When the driving component drives the moxibustion product fixing structure to move toward the large opening end of the flow-guiding horn body of the flow guide, it drives the moxibustion product fixing structure to stop at a first preset distance from the large opening end of the flow-guiding horn body.

10. A moxibustion method, characterized in that, Including the following steps: Point the lit moxa product at the area to be treated for cold and leave it for the first preset time; The moxa product is moved toward the flow guide component and stays at the preset position for a second preset time. in, The flow guiding component includes a flow guide, which includes a flow guide horn body. The flow guide horn body includes a large end and a small end, and a flow guiding channel that gradually decreases in size from the large end to the small end. The distance between the preset position and the large end of the flow guide horn body of the flow guiding component is less than 30cm.

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