CN116407443A - Thermal moxibustion device - Google Patents

Abstract

The application mainly relates to a thermal moxibustion device, including the moxibustion bed, cut off the structure and place the moxibustion utensil of moxibustion material, cut off the structure setting in the below of moxibustion bed to divide into two at least thermal moxibustion areas with the moxibustion bed, at least one thermal moxibustion area is provided with the moxibustion utensil, cuts off the structure and is provided with two at least air doors, two at least air doors intercommunication moxibustion utensil place thermal moxibustion area and adjacent thermal moxibustion area. The application provides a thermal moxibustion device divides the moxibustion bed into two at least thermal moxibustion areas through set up a partition structure in the moxibustion bed below. At least two air doors are communicated with the hot moxibustion area where the moxibustion tool is positioned and the adjacent hot moxibustion area, so that circulating heat flow is generated between the hot moxibustion area where the moxibustion tool is positioned and the adjacent hot moxibustion area when the moxibustion material is combusted. In this way, the overall temperature in the thermal moxibustion device can be kept balanced, i.e. local overheating or underheating of the thermal moxibustion device is avoided.

Description

Thermal moxibustion device

Technical Field

The application relates to the technical field of medical treatment, in particular to a thermal moxibustion device.

Background

Moxibustion, the moxibustion method in traditional Chinese medicine acupuncture therapy, generally comprises exciting body surface acupoints or specific parts by Ai Reci generated by burning moxibustion materials, so as to regulate physiological and biochemical functions of human body disorder by exciting menstrual qi. With the continuous development of society, the living pressure of people is increased, people also pay more attention to self health, and moxibustion and related products thereof are favored and trusted by more and more consumers.

When the existing thermal moxibustion device is used, the internal thermal circulation is poor, and local overheating or underheating is easy to occur.

Disclosure of Invention

The embodiment of the application provides a thermal moxibustion device, this thermal moxibustion device include the moxibustion bed, cut off the structure and place the moxibustion utensil of moxibustion material, cut off the structure setting in the below of moxibustion bed to divide into two at least thermal moxibustion areas with the moxibustion bed, at least one thermal moxibustion area is provided with the moxibustion utensil, cuts off the structure and is provided with two at least air doors, two at least air doors intercommunication moxibustion utensil place thermal moxibustion area and adjacent thermal moxibustion area.

In some embodiments, the partition structure includes a link and at least two sets of switch structures, each set of switch structures includes at least two sub-switch structures, each sub-switch structure includes a retaining wall provided with the damper and a blade disposed corresponding to the damper, and the blades of the same set of switch structures synchronously move under the traction of the link to allow the damper of one of the sub-switch structures of the same set to close when the damper of the other sub-switch structure is opened.

In some embodiments, the blade is pivoted to the retaining wall, each of the sub-switch structures further includes a switching rod, one end of the switching rod is fixed to the blade and provided with a chute, the connecting rod is provided with a sliding column, and the sliding column extends into the chute, so that the sliding column moves along the chute under the traction of the connecting rod, and further the blade rotates relative to the retaining wall; wherein the extending directions of the sliding grooves of two adjacent sub-switch structures are intersected.

In some embodiments, each of the sub-switch structures further includes a rotating rod fixed to the transfer rod, the blade is fixed to the rotating rod, the retaining wall includes a main plate and side plates connected to opposite ends of the main plate, the two side plates are bent relative to the main plate and extend in the same direction, the damper is provided on the main plate, the rotating rod is rotatably mounted on the two side plates, and the blade is located between the two side plates to open or close the corresponding damper.

In some embodiments, the retaining wall further comprises a connecting plate connected with the moxibustion bed, the connecting plate is connected with one of the two side plates in a bending way, the connecting rod is positioned between the moxibustion bed and the side plate connected with the connecting plate, and the side plates of the adjacent two groups of sub-switch structures extend back to back.

In some embodiments, the main plate includes a body portion and a bending portion integrally connected, the bending portion bending relative to the body portion such that the main plate forms the damper; wherein the bend directs gas through the damper.

In some embodiments, the moxibustion device comprises a primary moxibustion device and two sets of secondary moxibustion devices, the primary moxibustion device being located between the two sets of secondary moxibustion devices.

In some embodiments, the main moxibustion tool is arranged in a circular shape, the auxiliary moxibustion tool is arranged in a strip shape, and the long side of the auxiliary moxibustion tool is close to the main moxibustion tool.

In some embodiments, the thermal moxibustion device further comprises a driving structure, the driving structure drives the main moxibustion tool to rotate relative to the moxibustion bed, and the main moxibustion tool drives the hot air in the thermal moxibustion area where the moxibustion tool is located to flow along the rotation direction of the main moxibustion tool.

In some embodiments, the lower side of the moxibustion bed has a first central line and a second central line which are orthogonal to each other along a horizontal plane, the at least two thermal moxibustion areas are sequentially arranged along the first central line, the partition structure comprises two groups of switch structures, the two groups of switch structures are respectively positioned at two sides of the first central line, the blades of the two groups of switch structures synchronously move under the traction of the connecting rod, and the air doors of the two groups of switch structures in an open state are asymmetrically arranged relative to the first central line.

The beneficial effects of this application are: the application provides a thermal moxibustion device divides the moxibustion bed into two at least thermal moxibustion areas through set up a partition structure in the moxibustion bed below, and at least one area is provided with the moxibustion utensil to the steam that the moxibustion material burning produced flows to each thermal moxibustion area. The partition structure is provided with at least two air doors, wherein at least one air door flows out of hot air, and the other air door flows in of hot air. At least two air doors are communicated with the hot moxibustion area where the moxibustion tool is positioned and the adjacent hot moxibustion area, so that hot air can flow from one hot moxibustion area to the other hot moxibustion area through the air doors, and circulating heat flow is generated between the hot moxibustion area where the moxibustion tool is positioned and the adjacent hot moxibustion area when the moxibustion material is combusted. Through the embodiment, when the moxibustion materials are combusted, the heat of the hot moxibustion area where the moxibustion tool is located can be guided to the adjacent hot moxibustion area through the air door, so that the heat of the hot moxibustion area where the moxibustion tool is located is reduced, the whole temperature in the hot moxibustion device can be kept balanced, and the local overheating or underheating of the hot moxibustion device is avoided.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings that are needed in the description of the embodiments will be briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present application, and that other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.

FIG. 1 is a schematic view of a thermal moxibustion device according to an embodiment of the present invention;

fig. 2 is another schematic structural view of an embodiment of a thermal moxibustion device provided in the present application;

FIG. 3 is a schematic view of an embodiment of a partition structure provided herein;

FIG. 4 is an exploded view of one embodiment of a partition structure provided herein.

Detailed Description

The present application is described in further detail below with reference to the drawings and examples. It is specifically noted that the following examples are only for illustration of the present application, but do not limit the scope of the present application. Likewise, the following embodiments are only some, but not all, of the embodiments of the present application, and all other embodiments obtained by a person of ordinary skill in the art without making any inventive effort are within the scope of the present application.

Reference in the present application to "an embodiment" means that a particular feature, structure, or characteristic described in connection with the embodiment may be included in at least one embodiment of the present application. Those of skill in the art will explicitly and implicitly understand that the embodiments described herein may be combined with other embodiments.

In addition, if there is a description of "first", "second", etc. in the embodiments of the present application, the description of "first", "second", etc. is for descriptive purposes only and is not to be construed as indicating or implying a relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defining "a first" or "a second" may explicitly or implicitly include at least one such feature. In addition, the technical solutions of the embodiments may be combined with each other, but it is necessary to base that the technical solutions can be realized by those skilled in the art, and when the technical solutions are contradictory or cannot be realized, the combination of the technical solutions should be regarded as not exist and not within the protection scope of the present application.

Example 1

Referring to fig. 1 and 2, a thermal moxibustion device 10 is provided, comprising: a moxibustion bed 20, a partition structure 21 and a moxibustion device 22 for placing moxibustion materials. Wherein the bed 20 may have a contoured passage 205 that allows the person to be at least partially positioned within the thermal moxibustion device 10, with the moxibustion device 22 positioned above the person in use. Thus, the user can put the thermal moxibustion device 10 above the part of the human body requiring thermal moxibustion, i.e. the moxibustion bed 20 is fastened above the human body in the use state. The moxibustion bed 20 may further comprise a cylindrical side plate 203 and a support plate 204 disposed in the moxibustion bed 20, wherein the support plate 204 is used for supporting the moxibustion tool 22 and the partition structure 21. The partition structure 21 is disposed below the moxibustion bed 20. In this embodiment, the moxibustion bed 20 can be fastened above the human body in the use state, so that the lower side of the moxibustion bed 20 can refer to the inner side of the support plate 204 facing the human body, that is, the partition structure 21 is disposed on the side of the support plate 204 facing away from the moxibustion device 22.

Further, since the hot air generated by burning the moxibustion material in the moxibustion device 22 is lighter than the cold air, it is mainly collected inside the support plate 204 toward the human body. Therefore, the partition structure 21 may isolate the hot air generated by burning the moxibustion material by being connected to the support plate 204. The partition structure 21 may then divide the bed 20 into at least two thermal moxibustion areas, at least one of which is provided with a moxibustion tool 22. The partition structure 21 is provided with at least two air doors 211, and the at least two air doors 211 are used for communicating the hot moxibustion area where the moxibustion device 22 is located with the adjacent hot moxibustion area, so that hot air can flow from one hot moxibustion area to the other through the air doors 211. The hot moxibustion material in the hot moxibustion region of the moxibustion device 22 burns to produce hot gas which causes the temperature to rise, resulting in at least two hot moxibustion regions having different temperatures. The air flow expansion of the hot moxibustion area with high temperature has small air density and high air pressure; the air flow in the hot moxibustion area with low temperature is contracted, the air density is high, and the air pressure is low. The air flows from high pressure to low pressure, so that the hot air flows from one hot moxibustion region to another hot moxibustion region at a low temperature through the damper 211, thereby generating a circulating heat flow between the hot moxibustion region where the moxibustion device 22 is located and the adjacent hot moxibustion region when the moxibustion material is burned.

It should be noted that, in this embodiment, the moxibustion bed 20 is divided into at least two thermal moxibustion areas by providing a partition structure 21 below the moxibustion bed 20, and at least one thermal moxibustion area is provided with a moxibustion tool 22, so that hot air generated by burning the moxibustion material flows to each thermal moxibustion area. The partition structure 21 is provided with at least two dampers 211, wherein at least one damper 211 is used for hot gas outflow and the other damper 211 is used for hot gas inflow. At least two air doors 211 are used to connect the thermal moxibustion region of the moxibustion device 22 with the adjacent thermal moxibustion region, so that hot air can flow from one thermal moxibustion region to the other through the air doors 211, and thus a circulating heat flow is generated between the thermal moxibustion region of the moxibustion device 22 and the adjacent thermal moxibustion region when the moxibustion material is burned. Through the above embodiment, when the moxibustion material is burned, the heat of the hot moxibustion area where the moxibustion device 22 is located can be guided to the adjacent hot moxibustion area through the damper 211, so that the heat of the hot moxibustion area where the moxibustion device 22 is located is reduced, and the overall temperature in the hot moxibustion device 10 can be kept balanced, so as to avoid local overheating or under heating of the hot moxibustion device 10.

In some embodiments, the partition structure 21 may divide the lower portion of the moxibustion bed 20 into two thermal moxibustion areas, one of which may be provided with a moxibustion device 22. At this time, the partition structure 21 may be provided with two dampers 211 to communicate with the two thermal moxibustion areas. In this way, a temperature difference can be formed between the two hot moxibustion areas when the moxibustion material is burned in the moxibustion device 22. The thermal moxibustion area where the moxibustion device 22 is placed may correspond to a portion of the human body to be moxibustion, and the thermal moxibustion area where the moxibustion device 22 is not placed may have the effects of adjusting the moxibustion temperature of the portion to be moxibustion and maintaining the human body temperature.

In other embodiments, the partition structure 21 may divide the lower portion of the moxibustion bed 20 into three thermal moxibustion regions, which may be linearly arranged along a direction, one of which may be provided with a moxibustion device 22, or two non-adjacent thermal moxibustion regions may be respectively provided with a moxibustion device 22. At this time, the partition structure 21 may be provided with two dampers 211 to communicate with any adjacent two of the thermal moxibustion areas. In this way, a temperature difference can be formed between the two hot moxibustion areas when the moxibustion material is burned in the moxibustion device 22. Similarly, the hot moxibustion region where the moxibustion device 22 is placed may correspond to the portion of the human body to be moxibustion, while the hot moxibustion region where the moxibustion device 22 is not placed may serve to regulate the moxibustion temperature of the portion to be moxibustion, maintain the body temperature of the human body, and the like.

In other embodiments, the partition structure 21 may divide the lower portion of the moxibustion bed 20 into three thermal moxibustion regions, wherein two adjacent thermal moxibustion regions are simultaneously adjacent to another thermal moxibustion region, and the other thermal moxibustion region may be provided with a moxibustion device 22. At this time, four dampers 211 may be provided on the partition structure 21 to communicate the other one of the thermal moxibustion areas with the other two adjacent thermal moxibustion areas. In this manner, a temperature differential may be established between the two thermal moxibustion regions as the moxibustion material burns in the moxibustion device 22. Similarly, the hot moxibustion region where the moxibustion device 22 is placed may correspond to the portion of the human body to be moxibustion, while the hot moxibustion region where the moxibustion device 22 is not placed may serve to regulate the moxibustion temperature of the portion to be moxibustion, maintain the body temperature of the human body, and the like. Of course, in other embodiments, an agitation mechanism may be provided in at least one of the thermal moxibustion areas to assist or replace the aforementioned temperature difference to achieve the cyclic heat flow.

In some embodiments, and in conjunction with fig. 2, the moxibustion device 22 may include a main moxibustion device 221 and two sets of auxiliary moxibustion devices 222, with the main moxibustion device 221 being located between the two sets of auxiliary moxibustion devices 222. Wherein the main moxibustion tools 221 may include a third set of moxibustion tools, which will be described below, and the two sets of auxiliary moxibustion tools 222 may include a first set of moxibustion tools and a second set of moxibustion tools, which will be described below. The main moxibustion tool 221 is arranged in a disc shape, the auxiliary moxibustion tool 222 is arranged in a strip shape, and the long side of the auxiliary moxibustion tool 222 is close to the main moxibustion tool 221. That is, the third group of moxibustion tools are arranged in a disc shape, the first group of moxibustion tools and the second group of moxibustion tools are arranged in a strip shape, and the long sides of the first group of moxibustion tools and the second group of moxibustion tools are close to the third group of moxibustion tools.

In still other embodiments, the thermal moxibustion device 10 may further include a driving structure configured to drive the main moxibustion tool 221 to rotate relative to the moxibustion bed 20, and to drive the hot air in the thermal moxibustion area where the moxibustion tool 22 is located by the main moxibustion tool 221 to flow in the rotation direction of the main moxibustion tool 221. The driving structure may include a motor, a driving wheel and a driven wheel, the driven wheel is engaged with the driving wheel, the driving wheel is connected with an output end of the motor, and the driven wheel is connected with the main moxibustion tool 221. In the use state, the motor is electrified to rotate to drive the driving wheel to rotate, the driving wheel drives the driven wheel to rotate, and the driven wheel is connected with the main moxibustion tool 221 to drive the main moxibustion tool 221 to rotate together so as to drive hot air in a hot moxibustion area where the moxibustion tool 22 is positioned to flow along the rotation direction of the main moxibustion tool 221. In this way, during the use of the thermal moxibustion device 10, the hot air continuously rotates in the thermal moxibustion region, so that the overall temperature in the thermal moxibustion device 10 can be kept balanced, that is, local overheating or underheating of the thermal moxibustion device 10 is avoided.

Referring to fig. 2 to 4, the underside of the bed 20 has a first center line 201 and a second center line 202 orthogonal to each other along a horizontal plane, which is a plane formed by the length direction and the width direction of the bed 20 when the thermal moxibustion device 10 is in the shape of a rectangular parallelepiped. Of course, the horizontal plane may be the ground on which the bed 20 is located. Accordingly, the first centerline 201 may be a lengthwise extension of the bed 20 and the second centerline 202 may be a widthwise extension of the bed 20. It will be appreciated that the first centerline 201 and the second centerline 202 intersect and are perpendicular. At least two thermal moxibustion areas are sequentially arranged along the first center line 201, the partition structure 21 comprises two groups of switch structures 2111 which will be mentioned below, the two groups of switch structures 2111 are respectively positioned at two sides of the first center line 201, the blades 2133 of the two groups of switch structures 2111 synchronously move under the traction of a connecting rod 212 which will be mentioned below, and the air doors 211 of the two groups of switch structures 2111 in an open state are asymmetrically arranged relative to the first center line 201. In this way, the air doors in the open state are neither adjacent nor far apart, and a wider range of hot air can flow under the condition that the hot air generates circulating heat flow in the thermal moxibustion device 10, so that the overall temperature in the thermal moxibustion device 10 can be kept balanced, that is, local overheating or underheating of the thermal moxibustion device 10 is avoided.

Example two

Illustratively, in connection with fig. 3, the partition structure 21 may include a linkage 212 and at least two sets of switch structures 2111, the switch structures 2111 may be adapted to cooperate with the damper 211 on the partition structure 21 to permit or block the flow of hot gases between adjacent two thermal moxibustion areas, the linkage 212 being adapted to pull the switch structures 2111 into movement to effect the aforementioned permitting or blocking.

Further, with reference to fig. 3 and 4, fig. 4 is an exploded view of one embodiment of a partition structure 21 provided in the present application. Each set of switch structures 2111 may further include at least two sub-switch structures 2112, each sub-switch structure 2112 may include a retaining wall 2132 provided with a damper 211 and a vane 2133 disposed corresponding to the damper 211, for example, planes where the vanes 2133 of two adjacent sets of sub-switch structures 2112 may be disposed are orthogonal to each other, when the vane 2133 of one sub-switch structure 2112 closes the corresponding damper 211, the vane 2133 of the other sub-switch structure 2112 may open the corresponding damper 211 and the flow direction of the gas passing through the damper 211 may remain unchanged, so that the flow range of the hot gas in the thermal moxibustion device 10 is widened, and the balance of the overall temperature in the thermal moxibustion device 10 is further achieved, avoiding local overheating or heat loss. Accordingly, the vanes 2133 of the same set of switch structures 2111 move synchronously under the traction of the linkage 212 to allow the damper 211 of one sub-switch structure 2112 of the same set of switch structures 2111 to open while the damper 211 of the other sub-switch structure 2112 is closed. In this way, the switch structure 2111 and the sub-switch structure 2112 thereof can control the flow of hot air generated by burning moxibustion materials in the thermal moxibustion device 10, so that the human body can change the flow direction and flow area of the hot air according to the thermal moxibustion requirements, so as to satisfy different thermal moxibustion requirements of different people.

Further, in connection with fig. 1 and 3, the partition structure 21 may further comprise a cross beam 215. The connecting rod 212, the switch structure 2111 and other structural members can be connected with the cross beam 215, so that the partition structure 21 is connected with the moxibustion bed 20 as a whole, thereby facilitating the assembly of the partition structure 21 and the moxibustion bed 20. The cross beam 215 may be located above the partition structure 21 and toward the support plate 204, and the connecting rod 212 may be provided with a toggle portion 214 for a user to toggle the connecting rod 212, so that the user can toggle the connecting rod 212. The striking part 214 may be exposed to the moxibustion bed 20 through a through hole on the cross beam 215, and may be disposed at the middle of at least two sets of switch structures 2111, so as to strike the connecting rod 212.

Further, referring to fig. 3 and 4, the blade 2133 is pivotally connected to the retaining wall 2132, i.e. the blade 2133 can rotate relative to the retaining wall 2132. Accordingly, each sub-switching structure 2112 further includes a stem 2134 connecting the blade 2133 and the link 212, one end of the stem 2134 being secured to the blade 2133. The portion of the adapter rod 2134 that is not connected to the blade 2133 may be provided with a sliding groove 2135, such as a bar-shaped sliding groove 2135, and the connecting rod 212 may be provided with a sliding post 2121, such as a cylindrical sliding post 2121, that mates with the sliding groove 2135. At this time, the strut 2121 extends into the runner 2135 such that the strut 2121 moves along the runner 2135 under the traction of the link 212 and provides a rotational force for rotation of the adapter rod 2134 relative to the cross beam 215, thereby rotating the blade 2133 relative to the retaining wall 2132. Wherein the extending directions of the sliding grooves 2135 of two adjacent sub-switch structures 2112 intersect, e.g., are orthogonal, so that when the damper 211 of one sub-switch structure 2112 of the same group of switch structures 2111 is opened, the damper 211 of the other sub-switch structure 2112 is closed.

Further, referring to fig. 1 and 4, each sub-switch structure 2112 may further include a rotation rod 2136 fixed to the rotation rod 2134, and the blade 2133 is fixed to the rotation rod 2136. The rotation rod 2136 may be provided in a column shape, so that the blade 2133 connected thereto may rotate relative to the retaining wall 2132, and the blade 2133 may be light and thin. At this time, when the user slides the link 212, the strut 2121 on the link 212 moves along the sliding groove 2135 under the traction of the link 212, and provides a rotational force for the rotation of the adapting rod 2134 relative to the cross beam 215, so as to drive the vane 2133 on the rotating rod 2136 to rotate relative to the retaining wall 2132. The retaining wall 2132 includes a main plate 2137 and side plates 2138 connected to opposite ends of the main plate 2137, wherein the two side plates 2138 are bent and extend in the same direction relative to the main plate 2137, for example, the main plate 2137 is used for opening the air door 211 through multiple bending, the side plates 2138 are used for installing the blades 2133 to provide a space for installing and rotating the blades 2133, and simplify the structure of the switch structure 2111. Accordingly, the damper 211 is opened on the main plate 2137, the rotating rod 2136 is rotatably installed on the two side plates 2138, and the vane 2133 is located between the two side plates 2138 to open or close the corresponding damper 211. In this manner, the side panels 2138 may assist the vanes 2133 in blocking gas that leaks laterally from the vanes 2133, resulting in good sealing when the damper 211 is closed.

Further, referring to fig. 4, the retaining wall 2132 may further include a connecting plate 2141 connected to the moxibustion bed 20, wherein the connecting plate 2141 is connected to one of the two side plates 2138 in a bent manner, so that the retaining wall 2132 is connected to the cross beam 215 through the connecting plate 2141. Wherein the connecting rod 212, the transfer rod 2134 and the like can be positioned between the moxibustion bed 20 and the side plate 2138 connected with the connecting plate 2141, so that the partition structure 21 is more compact in structure. Further, the side plates 2138 of the adjacent two sets of sub-switch structures 2112 extend away from each other to allow the adjacent two sets of sub-switch structures 2112 to hang on two sides of the retaining wall 2132, i.e. the plurality of sub-switch structures 2112 are alternately located on two sides of the retaining wall 2132, thereby increasing the stability of the traction switch structure 2111 of the connecting rod 212.

Similarly, with reference to fig. 4, the main plate 2137 includes a main body portion 2139 and a bent portion 2140 integrally connected. The fold 2140 may be folded relative to the main body 2139 by a folding process such that the main plate 2137 forms the damper 211. Wherein the bent portion 2140 is used for guiding the gas passing through the damper 211. As an example, the number of the bending parts 2140 may be plural, and the same number of the air channels may be formed by the bending process, for example, the number of the bending parts 2140 and the air channels are five, respectively. Wherein, each of the bending portions 2140 may be perpendicular to the main body portion 2139. In this way, on the one hand, the bending portion 2140 perpendicular to the main body portion 2139 can guide the hot air to flow to a larger range, so as to keep the temperature of the thermal moxibustion device 10 balanced; on the other hand, the switch structure 2111 is more compact and more stable due to the arrangement of a plurality of air channels.

Based on the above detailed description, the partition structure 21 and the air door 211 thereof, the placement of the moxibustion device 22, etc. may be further reasonably set according to the actual thermal moxibustion requirements, which is not listed herein.

The foregoing description is only a partial embodiment of the present application, and is not intended to limit the scope of the present application, and all equivalent devices or equivalent process transformations made by using the descriptions and the drawings of the present application, or direct or indirect application to other related technical fields, are included in the patent protection scope of the present application.

Claims (10)

1. The utility model provides a hot moxibustion device, its characterized in that, hot moxibustion device includes moxibustion bed, cuts off the structure and places the moxibustion utensil of moxibustion material, it is in to cut off the structure the below of moxibustion bed, and will the moxibustion bed is divided into two at least hot moxibustion areas, at least one hot moxibustion area is provided with the moxibustion utensil, it is provided with two at least air doors to cut off the structure, two at least air doors intercommunication the moxibustion utensil place the hot moxibustion area with adjacent the hot moxibustion area.

2. The thermal moxibustion device according to claim 1, wherein the partition structure comprises a connecting rod and at least two groups of switch structures, each group of switch structures comprises at least two sub-switch structures, each sub-switch structure comprises a retaining wall provided with the air door and blades arranged corresponding to the air door, and the blades of the same group of switch structures synchronously move under the traction of the connecting rod so as to allow the air door of one sub-switch structure in the same group of switch structures to be closed when the air door of the other sub-switch structure is opened.

3. The thermal moxibustion device according to claim 2, wherein the blade is pivoted to the retaining wall, each of the sub-switch structures further comprises a switching rod, one end of the switching rod is fixed to the blade and provided with a sliding groove, a sliding column is arranged on the connecting rod and extends into the sliding groove, so that the sliding column moves along the sliding groove under the traction of the connecting rod, and the blade rotates relative to the retaining wall; wherein the extending directions of the sliding grooves of two adjacent sub-switch structures are intersected.

4. A thermal moxibustion device according to claim 3, wherein each of the sub-switch structures further comprises a rotating rod fixed to the transfer rod, the blades are fixed to the rotating rod, the retaining wall comprises a main plate and side plates respectively connected to opposite ends of the main plate, the two side plates are bent relative to the main plate and extend in the same direction, the damper is arranged on the main plate, the rotating rod is rotatably arranged on the two side plates, and the blades are located between the two side plates to open or close the corresponding damper.

5. The thermal moxibustion apparatus according to claim 4, wherein said retaining wall further comprises a connecting plate connected to said moxibustion bed, said connecting plate being connected to one of said two side plates by bending, said connecting rod being located between said moxibustion bed and said side plate connected to said connecting plate, said side plates of adjacent two sets of said sub-switch structures extending in opposite directions.

6. The thermal moxibustion apparatus according to claim 4, wherein the main plate comprises a main body portion and a bending portion integrally connected, the bending portion being bent with respect to the main body portion such that the main plate forms the damper; wherein the bend directs gas through the damper.

7. A thermal moxibustion device according to claim 2, wherein said moxibustion tool comprises a primary moxibustion tool and two sets of secondary moxibustion tools, said primary moxibustion tool being located between two sets of said secondary moxibustion tools.

8. The thermal moxibustion apparatus according to claim 7, wherein said main moxibustion tool is arranged in a circular shape, said auxiliary moxibustion tool is arranged in a strip shape, and a long side of said auxiliary moxibustion tool is adjacent to said main moxibustion tool.

9. The thermal moxibustion apparatus according to claim 7, further comprising a driving structure for driving said main moxibustion tool to rotate relative to said moxibustion bed and for driving hot air in said thermal moxibustion region, in which said moxibustion tool is located, to flow in a direction of rotation of said main moxibustion tool by said main moxibustion tool.

10. The thermal moxibustion apparatus according to claim 7, wherein the lower side of the moxibustion bed has a first center line and a second center line orthogonal to each other along a horizontal plane, the at least two thermal moxibustion areas are sequentially arranged along the first center line, the partition structure comprises two sets of switch structures, the two sets of switch structures are respectively located at two sides of the first center line, the blades of the two sets of switch structures move synchronously under the traction of the connecting rod, and the air doors of the two sets of switch structures in an open state are asymmetrically arranged with respect to the first center line.

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