Ginger paste auxiliary shaping du-moxibustion suite

Abstract

The invention discloses a ginger paste auxiliary shaping du-moxibustion kit, and relates to the technical field of du-moxibustion. The ginger paste auxiliary shaping du-moxibustion suite comprises a moxibustion spreading device, a heat insulation cover and a shaping mold, the shaping mold comprises a shaping shell, two partition plates are arranged on the front side and the rear side of the shaping shell, and sliding through grooves communicating with the interior of the shaping shell are formed in the surfaces of the front side and the rear side of the shaping shell; the side, close to the shaping shell, of the partition plate extends into the shaping mold through the sliding through groove, the top of the shaping shell is covered with a cover plate, the lower surface of the cover plate is fixedly connected with a pressing plate attached to the top wall of the shaping shell, and the shaping shell is full of ginger paste and matched with the cover plate to press out trapezoidal ginger paste. According to the ginger paste auxiliary shaping du-moxibustion suite, the ginger paste can be subjected to compression molding at a time to form a trapezoid shape, the length, width and height of the shaped ginger paste are standardized, the du-moxibustion effect is ensured, and the du-moxibustion efficiency and speed are further improved.

Description

Technical Field

[0001] This invention relates to the field of moxibustion technology, and in particular to a ginger paste-assisted shaping moxibustion kit. Background Technology

[0002] Du moxibustion is a traditional external treatment method in Chinese medicine, also known as Du meridian moxibustion or long snake moxibustion. It belongs to the category of indirect moxibustion therapy. This method uses the Du meridian as the moxibustion site and combines moxibustion, ginger, and Chinese herbal powder. It regulates the body's Yang energy through warm stimulation. Based on the theory of "Huangdi Neijing", this therapy has the effects of warming Yang and dispelling cold, benefiting the kidneys and unblocking the Du meridian. It is suitable for diseases such as ankylosing spondylitis, dysmenorrhea due to cold in the uterus, and chronic gastroenteritis, and also has a conditioning effect on sub-health conditions.

[0003] However, existing Du moxibustion procedures have the following problems: The current routine procedure requires applying ginger juice and sprinkling Du moxibustion powder along the spine, covering it with mulberry paper and trapezoidal ginger paste, and then placing moxa cones for continuous moxibustion. After blisters form, they are treated according to the standard time. However, when applying ginger paste to the back, medical staff need to manually scrape the ginger paste into a trapezoidal shape, which relies entirely on the operator's personal feel, experience, and condition at the time. This results in slight differences in the thickness, density, and shape of the ginger paste even when performed by the same doctor at different times. Furthermore, no matter how experienced the doctor is, there is a risk of slight collapse due to uneven internal density or poor adhesion when the ginger paste is applied manually. This is an inherent risk of manual operation that is difficult to avoid 100%. Summary of the Invention

[0004] The purpose of this invention is to at least solve one of the technical problems existing in the prior art, and to provide a ginger paste-assisted shaping moxibustion kit that can solve the problem that manually applied ginger paste has the risk of slight collapse due to uneven internal density or poor adhesion.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a ginger paste-assisted shaping moxibustion kit, comprising a moxibustion applicator, a heat insulation cover, and a shaping mold. The heat insulation cover is disposed on the moxibustion applicator, and the shaping mold is placed on the moxibustion applicator and located inside the heat insulation cover. The shaping mold includes a shaping shell, which is an isosceles trapezoid with a hollow interior and openings at the top and bottom. Two partitions are provided on the front and rear sides of the shaping shell. Sliding grooves communicating with the interior are provided on the front and rear surfaces of the shaping shell. The bottom of the sliding grooves extends out of the lower surface of the shaping shell. The partitions are connected to the shaping shell by sliding grooves. The moving channel extends into the molding mold. Two partitions are close to each other with a certain distance between them to serve as a moxibustion powder trough. The top of the molding shell is covered with a cover plate. A second handle is fixedly connected to the upper surface of the cover plate. A rectangular frame extends integrally upward from the top of the molding shell. A pressing plate is provided on the lower surface of the cover plate to press down the ginger paste. A pushing mechanism is provided on the cover plate to control the pressing plate to press down the ginger paste. The molding shell is filled with ginger paste and cooperates with the pressing plate to press out a trapezoidal shape of ginger paste. A molding strip is fixedly connected to the lower surface of the pressing plate to press out the moxa stick indentation on the top of the ginger paste. A vibration mechanism is provided at the bottom of the pressing plate to further compact the ginger paste.

[0006] Preferably, the moxibustion device includes a flexible metal mesh, with gauze placed between the bottom of the flexible metal mesh and the back of the human body. Both the flexible metal mesh and the gauze have drop grooves on their axes, and the moxibustion powder trough is connected to the drop grooves.

[0007] Preferably, two symmetrically arranged fixing plates are fixedly installed on the surface of the flexible metal mesh, with the two fixing plates respectively located on the left and right sides of the flexible metal mesh, and a first handle is fixedly installed on the upper side of each fixing plate.

[0008] Preferably, the heat insulation cover includes two main heat insulation fabrics, which are respectively fixedly installed on the opposite surfaces of two fixed plates. Two wrapping strips, which respectively wrap the front and rear sides of the flexible metal mesh, are fixedly connected between the two main heat insulation fabrics. Side heat insulation fabrics are provided on both the front and rear sides of the two main heat insulation fabrics. U-shaped Velcro closures are sewn onto the surfaces of the main heat insulation fabrics and wrapping strips facing the side heat insulation fabrics. Velcro closures that are bonded to the Velcro closures are sewn onto the surfaces of the side heat insulation fabrics near the Velcro closures. The side heat insulation fabrics are bonded to the Velcro closures of the main heat insulation fabrics through the Velcro closures. Right-angled triangular extension insulation strips are sewn onto the surfaces of the side heat insulation fabrics facing the flexible metal mesh.

[0009] Preferably, the outer surface of the partition is in contact with the inner wall of the sliding groove and slides within the sliding groove. The left and right sides of the partition are respectively in contact with the inner walls of the left and right sides of the molded shell and slide together. A baffle is fixedly installed on the front side surface of the rear partition. An insertion groove adapted to the baffle is opened on the rear side surface of the front partition. The insertion groove extends out of the lower surface of the front partition. When the front side of the baffle is inserted into the insertion groove, it blocks the bottom of the moxibustion powder trough. Limiting grooves are opened on the inner walls of the left and right sides of the sliding groove. The shape of the limiting groove is an isosceles trapezoid. A limiting slide plate that slides within the limiting groove is fixedly connected to the surface of the partition near the limiting groove. A pulling plate for pulling is fixedly connected to the outer surface of the partition.

[0010] Preferably, the inner walls of the four sides of the shaped shell are provided with vertically equidistant scale lines.

[0011] Preferably, the length of the bottom of the trapezoidal ginger paste after compression molding is 5cm, the length of the top is 4cm, the height is 3cm, and the width and height of the moxa stick indentation are both 0.8cm.

[0012] Preferably, the pushing mechanism includes multiple pressing parts, all of which are disposed on the upper surface of the cover plate and located on the left and right sides of the second handle respectively. A pressure rod is fixedly connected to the lower surface of the pressing parts, and the lower end of the pressure rod slides through the lower surface of the cover plate and is fixedly installed on the pressing plate. A first spring is fixedly connected between the pressing parts and the upper surface of the cover plate and is movably sleeved on the outer surface of the pressure rod.

[0013] Preferably, the vibration mechanism includes two compaction plates, both located below the clamping plate and on the front and rear sides of the forming strip, respectively. The bottom of the clamping plate has notches located on the front and rear sides of the forming strip, allowing the compaction plates to slide up and down within these notches, with their outer surfaces matching the notches. The opposite surfaces of the two compaction plates are flush with the front and rear surfaces of the clamping plate, respectively. Two triggering chambers are formed within the clamping plate, located above the two notches. A rotating column is installed within each triggering chamber, with its upper end extending through the upper surface of the clamping plate. A connecting groove is formed on the lower surface of the cover plate near the rotating column, with the upper end of the rotating column extending into the connecting groove. A twisted rod is fixedly connected to the top wall of the connecting groove. A twisted groove, threaded onto the outer surface of the twisted rod, is formed on the upper surface of the rotating column. A rotating disk is fixedly connected to the lower end of the rotating column. Multiple downward pressing protrusions with adjustable length are provided at the lower end of the rotating disk. The multiple downward pressing protrusions are arranged in a circular array on the lower surface of the rotating disk with the axis of rotation as the rotation point, and all of them are isosceles triangles. A control mechanism for controlling the vertical displacement of the downward pressing protrusions is provided in the trigger cavity. A movable rod is fixedly connected to the center position of the upper surface of the compaction plate. The upper end of the movable rod slides through into the trigger cavity. A first sleeve plate is fixedly fitted on the outer surface of the upper end of the movable rod. A second spring is fixedly connected between the lower surface of the first sleeve plate and the bottom wall of the trigger cavity and is movably fitted on the outer surface of the movable rod. When the second spring is in the free state, the movable rod pulls the compaction plate to fully retract into the notch. During the rotation of the rotating disk, the upper end of the movable rod slides into contact with the inclined surface of the downward pressing protrusion.

[0014] Preferably, the control mechanism includes a compression ring, which is disposed in the trigger cavity and movably sleeved on the outside of the rotating disk. The vertical cross-section of the compression ring is also a right-angled trapezoid. Multiple control cavities are opened in the rotating disk. The upper side of the pressing protrusion slides through into the control cavity. A connecting slide rod is fixedly connected to the upper surface of the pressing protrusion. A sleeve plate fixedly installed on one side of the outer surface of the connecting slide rod is slidably sleeved. A first tension spring is fixedly connected between the upper surface of the pressing protrusion and the lower surface of the sleeve plate and movably sleeved on the outer surface of the connecting slide rod. A second rotating plate is hinged to the upper end of the connecting slide rod. A trigger push rod is hinged to the other side of the second rotating plate. The other end of the trigger push rod slides through the outer surface of the rotating disk and slides in contact with the inclined surface of the compression ring. A transmission cavity is opened in the side of the pressing plate near the notch. A lifting slide rod is provided in the transmission cavity. The other end of the lifting slide rod slides through... Inside the triggering chamber, a third rotating plate is hinged between one end of the lifting slide rod located inside the triggering chamber and the lower surface of the compression ring. A limiting ring is fitted onto one end of the lifting slide rod located inside the triggering chamber. A second sleeve plate is fitted onto the outer surface of one end of the lifting slide rod located in the transmission chamber. A third spring, which is movably fitted onto the outer surface of the lifting slide rod, is fixedly connected between the second sleeve plate and the inner wall of the transmission chamber. A fixed rod is provided inside the transmission chamber. The upper end of the fixed rod slides through the upper surface of the pressing plate and is fixedly installed on the lower surface of the cover plate. A limiting slide rod is fixedly connected between the inner walls of opposite sides of the transmission chamber. A trigger push plate is slidably fitted onto the outer surface of the limiting slide rod. A first rotating plate is hinged between the lower end of the fixed rod and the upper surface of the trigger push plate. A push plate is fixedly connected to the upper surface of the trigger push plate near the lifting slide rod. The trigger push plate moves toward the lifting slide rod and contacts the end of the lifting slide rod located inside the transmission chamber.

[0015] Preferably, a plurality of limiting slide rods are fixedly connected to the bottom wall of the trigger cavity, and a limiting slide groove is provided on the lower surface of the extrusion ring near the limiting slide rod, which is slidably sleeved on the outer surface of the limiting slide rod.

[0016] Preferably, the molded shell, cover plate, two partitions, baffles, pressing plate, two compacting plates, and forming strip are all divided into three sections. A first extension plate is provided between the two vertical plates of two adjacent molded shell sections; a second extension plate is provided between two adjacent partition sections; a third extension plate is provided between two adjacent baffle sections; a fourth extension plate is provided between two adjacent cover sections; a fifth extension plate is provided between two adjacent pressing plate sections; a sixth extension plate is provided between two adjacent compacting plate sections; and a seventh extension plate is provided between two adjacent forming strip sections. The interior of one side of the vertical plate of an adjacent molded shell section, the interior of the partition section, the interior of the baffle section, the interior of the cover section, and the pressing strip are all extended. Cavities are provided inside the clamping plate section, the compacting plate section, and the forming strip section. The first extension plate slides through the cavity of the forming shell vertical plate near the side of the molding shell section. The second extension plate slides through the cavity of the partition section near the side of the partition plate section. The third extension plate slides through the cavity of the baffle section near the side of the baffle plate section. The fourth extension plate slides through the cavity of the cover plate section near the side of the cover plate section. The fifth extension plate slides through the cavity of the clamping plate section near the side of the clamping plate section. The sixth extension plate slides through the cavity of the compacting plate section near the side of the clamping plate section. The seventh extension plate slides through the cavity of the forming strip section near the side of the forming strip section.

[0017] Preferably, the top wall of the cavity is provided with a limiting groove, and the upper surface of the first extension plate, second extension plate, third extension plate, fourth extension plate, fifth extension plate, sixth extension plate and seventh extension plate located in the cavity are all fixedly connected with a stop block that slides in the limiting groove.

[0018] Compared with the prior art, the beneficial effects of the present invention are: Firstly, this invention can mold ginger paste into a trapezoidal shape in one go. The length, width, and height of the molded ginger paste are standardized, eliminating variables caused by different operator skills or fluctuations in state. This ensures that the physical parameters are exactly the same for each moxibustion treatment, which is beneficial to the stability and repeatability of clinical efficacy studies. At the same time, the density inside the ginger paste is uniform through molding, which ensures the uniformity of heat conduction and avoids the problem of some parts being tight and some parts being loose that may occur when spreading it by hand. This allows the heat to penetrate evenly and stably, minimizing local overheating (scalding) or insufficient heat caused by uneven density.

[0019] Secondly, by setting up a vibrating mechanism that can move up and down, the present invention dynamically compacts the ginger paste during the pressing process of the pressing plate. Through high-frequency vibration, air bubbles in the ginger paste are expelled, allowing the material to flow and become dense, ultimately forming a solid, uniform, and defect-free whole. This produces trapezoidal ginger paste strips with extremely uniform density, incredibly stable structure, and perfect skin adhesion, which directly elevates the safety and efficacy stability of moxibustion to a whole new level.

[0020] Thirdly, this invention, by setting a control mechanism to control the displacement of the pressing protrusion, allows for small-amplitude up-and-down displacement of the compaction plate in the initial stage of downward movement. After moving a certain distance downward, the compaction plate can be controlled to move up and down significantly. Initially, the ginger paste structure is loose with many gaps between particles. At this time, the compaction plate vibrates at a small amplitude and high frequency, which is equivalent to giving the ginger paste particles a gentle and continuous "micro-disturbance". The gentle vibration allows the ginger paste particles to overcome static friction, begin to slide and rearrange, find a tighter position, and achieve initial compaction. When most of the air has been expelled and the ginger paste has achieved initial compaction, the friction between the internal particles will become the main resistance to further compression. At this time, the energy of small-amplitude vibration is not enough to overcome this resistance. Therefore, the large-amplitude vibration in the later stage provides a stronger impact force, which can break the final "locked" state between the particles and force them into a deeper level of interlocking. This ensures that the final ginger paste strips have extremely low porosity and extremely high overall density. Attached Figure Description

[0021] The present invention will be further described below with reference to the accompanying drawings and embodiments: Figure 1 This is a schematic diagram of the structure of a ginger paste-assisted shaping moxibustion kit according to the present invention; Figure 2 This is a schematic diagram of the structure of the moxibustion device of the present invention; Figure 3 This is a schematic diagram of the structure of the heat insulation cover of the present invention; Figure 4 This is a schematic diagram of the molding die of the present invention; Figure 5 This is a cross-sectional schematic diagram of the shaped housing of the present invention; Figure 6 for Figure 5 Enlarged view of point A in the middle; Figure 7 This is a side view of the ginger paste molding process of the present invention; Figure 8 This is a cross-sectional schematic diagram of the cover plate of the present invention; Figure 9 This is a cross-sectional schematic diagram of the cover plate and the clamping plate of the present invention; Figure 10 for Figure 9 Enlarged view at point B in the middle; Figure 11 for Figure 9 Enlarged view at point C; Figure 12 for Figure 9 Enlarged view at point D; Figure 13 for Figure 5 Enlarged view at point E in the middle; Figure 14 This is a schematic cross-sectional view of the shaped housing and cover plate of the present invention; Figure 15 This is a side view of the extended structure of the present invention.

[0022] Attached reference numerals: 1. Moxibustion applicator; 11. Flexible metal mesh; 12. Gauze; 13. Fixing plate; 14. First handle; 2. Heat insulation cover; 21. Main heat insulation cloth; 22. Side heat insulation cloth; 23. Velcro; 24. Velcro 3. Molding mold; 31. Molding shell; 32. Cover plate; 321. Pressing element; 322. First spring; 323. Pressure rod; 33. Second handle; 34. Pressure plate; 341. Notch; 342. Compactor plate; 343. Trigger chamber; 344. Connecting groove; 345. Rotating column; 346. Twisted rod; 347. Rotating disk; 348. Pressing protrusion; 3481. Control cavity; 3482. Sleeve plate; 3483. Connecting slide rod; 3484. First tension spring; 3485. Compression ring; 34851. Limiting slide rod; 34852. Limiting slide groove; 3486. Trigger push rod; 3487. Second rotating plate; 3488. Lifting slide rod; 3489. Third rotating plate; 34810. Second sleeve plate; 34811. Third spring; 34812. Push plate; 34813. Fixing rod; 34814. Transmission cavity; 34815. First rotating plate; 34816. Trigger push plate; 34817. Push plate; 349. Movable rod; 3410. First sleeve plate; 3411. Second spring; 35. Forming strip; 36. Scale line; 37. Partition; 38. Sliding groove; 39. Pull plate; 310. Baffle; 311. Insertion groove; 312. Limiting slide plate; 313. Limiting slide groove; 314. First extension plate; 315. Second extension plate; 316. Third extension plate; 317. Limiting slide groove; 318. Stop block; 319. Fourth extension plate; 3110. Fifth extension plate; 3111. Sixth extension plate; 3112. Seventh extension plate. Detailed Implementation

[0023] Example 1, as Figure 1 As shown, the present invention provides a technical solution: a ginger paste-assisted shaping moxibustion kit, including a moxibustion applicator 1, a heat insulation cover 2, and a shaping mold 3. The heat insulation cover 2 is placed on the moxibustion applicator 1, and the shaping mold 3 is placed on the moxibustion applicator 1 and located inside the heat insulation cover 2. Therefore, the ginger paste shaped by the shaping mold 3 is spread evenly on the surface of the moxibustion applicator 1.

[0024] like Figure 2As shown, the moxibustion device 1 includes a flexible metal mesh 11, which can be made of copper or stainless steel. A gauze 12 is provided at the bottom of the flexible metal mesh 11. In use, the gauze 12 is first laid flat on the patient's back, and then the flexible metal mesh 11 is placed on top of the gauze 12. Two symmetrically arranged fixing plates 13 are fixedly installed on the surface of the flexible metal mesh 11. The two fixing plates 13 are respectively located on the left and right sides of the flexible metal mesh 11. A first handle 14 is fixedly installed on the upper side of each of the two fixing plates 13.

[0025] When using it, hold the two first handles 14 with both hands to lift the entire moxibustion device 1 and finally place it on the patient's back. The shaped ginger paste can also be spread flat on the patient's back.

[0026] like Figure 3 As shown, the heat insulation cover 2 includes two main heat insulation fabrics 21, which are respectively fixedly installed on the opposite surfaces of two fixed plates 13. Two wrapping strips, which respectively wrap the front and rear sides of the flexible metal mesh 11, are fixedly connected between the two main heat insulation fabrics 21. Side heat insulation fabrics 22 are provided on both the front and rear sides of the two main heat insulation fabrics 21. U-shaped Velcro fasteners 23 are sewn onto the surfaces of the main heat insulation fabrics 21 and the wrapping strips facing the side heat insulation fabrics 22 (see attached diagram). Figure 3 The side insulation cloth 22 has a Velcro 24 sewn onto the surface of the Velcro 23 near the Velcro 23. The side insulation cloth 22 is attached to the Velcro 23 of the main insulation cloth 21 through the Velcro 24. A right-angled triangular extension insulation strip is sewn onto the surface of the side insulation cloth 22 facing the flexible metal mesh 11. When the side insulation cloth 22 is attached to the main insulation cloth 21, the extension insulation strip is inserted between the two main insulation cloths 21, thereby forming a wrapping effect on the ginger paste on the flexible metal mesh 11.

[0027] The shaped ginger paste is wrapped by the main heat insulation cloth 21 and the side heat insulation cloth 22. After being wrapped, the heat continues to accumulate, forming a stable and continuous high-temperature environment. This is similar to the "simmering" effect, which allows the heat to not only act on the body surface, but also to penetrate the meridians, bones and even internal organs, truly achieving the effects of "heat penetration" and "heat transfer". At the same time, it greatly reduces the rapid loss of moxibustion heat to the surrounding air, so that the heat is "locked" in the treatment area.

[0028] In this invention, the main insulation cloth 21, the side insulation cloth 22, the wrapping strip, and the extension insulation strip are all made of insulation cotton.

[0029] like Figure 4-7 As shown, the molding mold 3 includes a molding shell 31, which is an isosceles trapezoid in shape and hollow inside, with openings at the top and bottom (see attached diagram). Figure 4The molding shell 31 has two partitions 37 on its front and rear sides. Each of the front and rear surfaces of the molding shell 31 has a sliding groove 38 communicating with its interior. The bottom of the sliding groove 38 extends out of the lower surface of the molding shell 31. The side of the partition 37 closest to the molding shell 31 extends into the molding mold 3 through the sliding groove 38. The outer surface of the partition 37 is in contact with the inner wall of the sliding groove 38 and slides within the sliding groove 38. The left and right sides of the partition 37 are in contact with the left and right inner walls of the molding shell 31, respectively. The two partitions 37 are slidably fitted together, with a certain distance between them to serve as a moxibustion powder trough. The flexible metal mesh 11 and the gauze 12 are both provided with a drop channel on their axes. The moxibustion powder trough is connected to the drop channel. A baffle 310 is fixedly installed on the front surface of the rear partition 37. An insertion groove 311 adapted to the baffle 310 is provided on the rear surface of the front partition 37. The insertion groove 311 extends out of the lower surface of the front partition 37. When the front side of the baffle 310 is inserted into the insertion groove 311, it blocks the bottom of the moxibustion powder trough.

[0030] When in use, when the two partitions 37 slide into the molded housing 31 on the adjacent side and come close together, the baffle 310 is inserted into the insertion slot 311, thereby blocking the bottom of the moxibustion powder trough. In this way, when the moxibustion powder is poured into the moxibustion powder trough, the moxibustion powder is spread flat on the baffle 310.

[0031] Limiting grooves 313 are provided on the inner walls of both the left and right sides of the sliding channel 38. The limiting grooves 313 are isosceles trapezoids in shape. A limiting slide plate 312 that slides within the limiting groove 313 is fixedly connected to the surface of the partition plate 37 near the limiting groove 313 (see attached). Figure 6 The limiting slide plate 312 slides within the limiting slide groove 313, preventing the partition plate 37 from tilting during sliding.

[0032] A tension plate 39 for pulling is fixedly connected to the outer surface of the partition 37.

[0033] The inner walls of the four sides of the molded shell 31 are provided with vertically equidistant scale lines 36. The scale lines 36 are provided to level the surface of the ginger paste during the process of laying the ginger paste, ensuring the flatness of the surface of the ginger paste when it is laid.

[0034] The top of the molded housing 31 has an integrally extended rectangular frame (see attached). Figure 5 The top of the molded shell 31 is covered with a cover plate 32. A second handle 33 is fixedly connected to the upper surface of the cover plate 32. A pressing plate 34 for pressing down ginger paste is provided on the lower surface of the cover plate 32. The outer surface of the pressing plate 34 matches the inner walls of the four sides of the rectangular frame of the molded shell 31. A forming strip 35 is fixedly connected to the lower surface of the pressing plate 34. The forming strip 35 is located on the center line of the pressing plate 34, and its left and right side surfaces are flush with the left and right side surfaces of the pressing plate 34.

[0035] After the ginger paste inside the molding shell 31 is filled, the cover plate 32 is closed, and the clamping plate 34 is inserted into the rectangular frame of the molding shell 31. The clamping plate 34 can mold and press the ginger paste inside the molding shell 31, while the molding strip 35 presses out the moxa stick indentation on the surface of the ginger paste for placing the moxa stick (see attached). Figure 7 After the ginger paste is shaped, the cover plate 32 is removed, and the two partitions 37 are pulled outward. At this time, the baffle 310 no longer blocks the moxibustion powder, allowing the moxibustion powder to fall and drop onto the patient's back through the flexible metal mesh 11 and the drop channel on the gauze 12. Finally, the entire shaping shell 31 is lifted upward. The shaped ginger paste is left on the flexible metal mesh 11. By shaping the ginger paste into a trapezoidal shape in one go, the length, width, and height of the shaped ginger paste are standardized, eliminating the variables caused by different operator skills or state fluctuations. This ensures that the physical parameters are exactly the same for each moxibustion treatment, which is conducive to the stability and repeatability of clinical efficacy studies. At the same time, the density inside the ginger paste is uniform due to the molding mold, which ensures the uniformity of heat conduction and avoids the problem of some parts being tight and some parts being loose when laid by hand. This allows the heat to penetrate evenly and stably, minimizing local overheating (scalding) or insufficient heat caused by uneven density.

[0036] like Figure 8-9 As shown, the cover plate 32 is provided with a pushing mechanism that controls the pressing plate 34 to press the ginger paste downward. The pushing mechanism includes multiple pressing parts 321, which are all located on the upper surface of the cover plate 32. A pressure rod 323 is fixedly connected to the lower surface of the pressing part 321. The lower end of the pressure rod 323 slides through the lower surface of the cover plate 32 and is fixedly installed on the pressing plate 34. A first spring 322 is fixedly connected between the pressing part 321 and the upper surface of the cover plate 32 and is movably sleeved on the outer surface of the pressure rod 323.

[0037] When the first spring 322 is in a free state, it exerts a pushing force on the pressing member 321, which is located away from the cover plate 32. At the same time, the pressure rod 323 pulls the pressing plate 34 to its initial position, which is close to the lower surface of the cover plate 32. When the cover plate 32 is closed on the plastic shell 31, it presses down on the pressing member 321, causing the pressure rod 323 to push the pressing plate 34 downward into the plastic shell 31. At the same time, the first spring 322 is stressed and contracts. During the downward movement of the pressing plate 34, the ginger paste inside the plastic shell 31 is compacted, creating a stable platform for the moxa stick and preventing collapse during moxibustion. The compacted ginger paste also ensures that the heat penetrates evenly and prevents burns.

[0038] like Figure 9-10As shown, the present invention provides a vibration mechanism for further compacting ginger paste at the bottom of the pressing plate 34. The vibration mechanism includes two compaction plates 342, both of which are located on the lower side of the pressing plate 34 and respectively on the front and rear sides of the forming strip 35. The bottom of the pressing plate 34 has notches 341 located on the front and rear sides of the forming strip 35 (see attached diagram). Figure 9 The compaction plate 342 slides up and down within the notch 341, and its outer surface matches the notch 341. At the same time, the opposite side surfaces of the two compaction plates 342 are flush with the front and rear surfaces of the clamping plate 34, respectively. The clamping plate 34 has two trigger chambers 343, which are located above the two notches 341. A rotating column 345 is provided in the trigger chamber 343. The upper end of the rotating column 345 rotates through the upper surface of the clamping plate 34. A connecting groove 344 is provided on the lower surface of the cover plate 32 near the rotating column 345. The upper end of the rotating column 345 extends into the connecting groove 344. A twisted rod 346 is fixedly connected to the top wall of the connecting groove 344. A twisted groove is threaded onto the outer surface of the twisted rod 346 on the upper surface of the rotating column 345. A rotating disk 347 is fixedly connected to the lower end of the rotating column 345.

[0039] When in use, the pressure rod 323 pushes the pressure plate 34 downward, and the rotating column 345 moves downward on the surface of the twisted rod 346 along with the pressure plate 34. Therefore, the rotating column 345 rotates under the drive of the spiral of the twisted rod 346, and the lower end of the rotating column 345 drives the rotating disk 347 to rotate in the trigger cavity 343.

[0040] The lower end of the rotating disk 347 is provided with multiple downward pressing protrusions 348 whose length can be adjusted up and down. The multiple downward pressing protrusions 348 are arranged in a circular array around the axis of the rotating disk 347 on the lower surface of the rotating disk 347, and all of them are isosceles triangles. A movable rod 349 is fixedly connected to the center of the upper surface of the compaction plate 342. The upper end of the movable rod 349 slides through into the trigger cavity 343. A first sleeve plate 3410 is fixedly sleeved on the outer surface of the upper end of the movable rod 349. A second spring 3411 is movably sleeved on the outer surface of the movable rod 349 and fixedly connected between the lower surface of the first sleeve plate 3410 and the bottom wall of the trigger cavity 343. When the second spring 3411 is in a free state, the movable rod 349 pulls the compaction plate 342 to fully retract into the notch 341. During the rotation of the rotating disk 347, the upper end of the movable rod 349 slides in contact with the inclined surface of the downward pressing protrusions 348.

[0041] During use, when the upper end of the movable rod 349 contacts the inclined surface of the pressing protrusion 348, the pressing protrusion 348 exerts a pushing force on the movable rod 349, causing the movable rod 349 to push the compaction plate 342 downward. At the same time, the second spring 3411 is stressed and contracts. When the upper end of the movable rod 349 no longer contacts the pressing protrusion 348, the second spring 3411 pushes the compaction plate 342 upward and back to its initial position. Since the bottom of the rotating disk 347 is equipped with multiple pressing protrusions 348, the compaction plate 342 can be repeatedly controlled to move up and down. Therefore, during the pressing process of the pressing plate 34, the up-and-down displacement of the compaction plate 342 forms dynamic vibration compaction of the ginger paste. Through high-frequency vibration, air bubbles in the ginger paste are expelled, and the material flows and becomes dense, ultimately forming a solid, uniform, and defect-free whole. This produces trapezoidal ginger paste strips with extremely uniform density, incredibly stable structure, and perfect skin adhesion, which directly elevates the safety and efficacy stability of moxibustion to a new level.

[0042] like Figure 10-12 As shown, the trigger cavity 343 is equipped with a control mechanism for controlling the vertical displacement of the pressing protrusion 348. The control mechanism includes a compression ring 3485, which is located inside the trigger cavity 343 and movably sleeved on the outside of the rotating disk 347. The vertical cross-section of the compression ring 3485 is also a right trapezoid. The rotating disk 347 has multiple control cavities 3481. The upper side of the pressing protrusion 348 slides through into the control cavity 3481. A connecting slide rod 3483 is fixedly connected to the upper surface of the pressing protrusion 348. The outer surface of the connecting slide rod 3483 is slidably sleeved with a control rod fixedly mounted on one side. The upper surface of the sleeve plate 3482 on the inner wall of the cavity 3481 and the lower surface of the sleeve plate 3482 are fixedly connected to the upper surface of the sleeve plate 3482. The first tension spring 3484 is movably sleeved on the outer surface of the connecting slide rod 3483. When the first tension spring 3484 is in a free state, the first tension spring 3484 exerts a pulling force on the lower pressure protrusion 348, so that the initial position of the lower pressure protrusion 348 is that most of the upper side is retracted into the control cavity 3481. At this time, when the upper end of the movable rod 349 contacts the inclined surface of the lower pressure protrusion 348, the lower pressure protrusion 348 pushes the movable rod 349 to move down a shorter distance.

[0043] A second rotating plate 3487 is hinged to the upper end of the connecting slide rod 3483. A trigger push rod 3486 is hinged to the other side of the second rotating plate 3487. The other end of the trigger push rod 3486 slides through the outer surface of the rotating disk 347 and slides in contact with the inclined surface of the compression ring 3485. A transmission cavity 34814 is provided inside the clamping plate 34 near the notch 341. A lifting slide rod 3488 is provided in the transmission cavity 34814. The other end of the lifting slide rod 3488 slides into the trigger cavity 343. The lifting slide rod 3488 is located at the touch... A third rotating plate 3489 is hinged between one end of the firing cavity 343 and the lower surface of the compression ring 3485. A limiting ring is sleeved on one end of the lifting slide rod 3488 located in the trigger cavity 343. A second sleeve plate 34810 is sleeved on the outer surface of the end of the lifting slide rod 3488 located in the transmission cavity 34814. A third spring 34811 is movably sleeved on the outer surface of the lifting slide rod 3488 and is fixedly connected between the second sleeve plate 34810 and the inner wall of the transmission cavity 34814. When the third spring 34811 is in a free state, the third spring 34811... 4811 exerts a thrust on the second sleeve plate 34810, causing the second sleeve plate 34810 to initially be positioned away from the trigger cavity 343. Simultaneously, the limiting ring contacts the inner wall of the trigger cavity 343, preventing the pressing protrusion 348 from initially moving upwards when it contacts the movable rod 349. A fixing rod 34813 is provided inside the transmission cavity 34814. The upper end of the fixing rod 34813 slides through the upper surface of the pressing plate 34 and is fixedly installed on the lower surface of the cover plate 32. The transmission cavity 34814... A limiting slide rod is fixedly connected between the inner walls on opposite sides. A trigger push plate 34816 is slidably sleeved on the outer surface of the limiting slide rod. A first rotating plate 34815 is hinged between the lower end of the fixed rod 34813 and the upper surface of the trigger push plate 34816. A push plate 34817 is fixedly connected to the upper surface of the trigger push plate 34816 near the side of the lifting slide rod 3488. The trigger push plate 34816 moves toward the side of the lifting slide rod 3488, and the push plate 34817 contacts the end of the lifting slide rod 3488 located in the transmission cavity 34814.

[0044] When the push plate 34817 contacts the lifting slide rod 3488, the trigger push plate 34816 continuously moves to one side of the forming strip 35. The push plate 34817 compresses the lifting slide rod 3488, causing the lifting slide rod 3488 to move to one side into the trigger cavity 343. At the same time, the third spring 34811 is stressed and contracts, thereby the third rotating plate 3489 exerts a pushing force on the extrusion ring 3485, causing the extrusion ring 3485 to move upward. At this time, the inclined surface of the extrusion ring 3485... The trigger push rod 3486 is squeezed, causing it to move closer to the control cavity 3481. The second rotating plate 3487 exerts a downward pushing force on the connecting slide rod 3483, thereby pushing the pressing protrusion 348 downward. At the same time, the first tension spring 3484 is stretched. As the pressing protrusion 348 moves downward a longer distance from the lower surface of the rotating disk 347, the movable rod 349 moves downward a longer distance, and the compaction plate 342 moves downward a longer distance. Therefore, during compaction... In the ginger paste production process, the compaction plate 342 employs a strategy of initial small-amplitude vibration followed by large-amplitude vibration. Initially, the ginger paste structure is loose with many gaps between particles. At this stage, the compaction plate 342's small-amplitude, high-frequency vibration provides a gentle and continuous "micro-disturbance" to the ginger paste particles. This gentle vibration allows the ginger paste particles to overcome static friction, begin to slide and rearrange, and find a tighter position, achieving initial compaction. Once most of the air has been expelled and the ginger paste has achieved initial compaction, the friction between the internal particles becomes the main resistance to further compression. At this point, the energy of the small-amplitude vibration is insufficient to overcome this resistance. Therefore, the large-amplitude vibration in the later stage provides a stronger impact force, which can break the final "locked" state between the particles, forcing them into a deeper level of interlocking. This ensures that the final ginger paste strips have extremely low porosity (no internal air bubbles, uniform heat conduction, and protection against burns) and extremely high overall density (strong structure, not easy to collapse).

[0045] Multiple limiting slide rods 34851 are fixedly connected to the bottom wall of the trigger cavity 343. The lower surface of the compression ring 3485 near the limiting slide rod 34851 is provided with a limiting slide groove 34852 that is slidably sleeved on the outer surface of the limiting slide rod 34851. By setting the limiting slide rod 34851, the compression ring 3485 can only move up and down, and at the same time, the problem of the compression ring 3485 tilting is avoided as much as possible.

[0046] In this invention, the bottom length of the compressed ginger paste is preferably 5cm, the top length is preferably 4cm, and the height is preferably 3cm. The width and height of the moxa stick indentation are both preferably 0.8cm. The ginger paste is compressed into a trapezoidal shape by the cooperation of the molding shell 31 and the cover plate 32. Due to the trapezoidal structure being "narrow at the top and wide at the bottom", a stable base is formed. When the ginger paste is placed on the Du meridian on the back of the patient, the wide bottom has a larger contact area with the back skin, and can "sit" on the skin very stably. At the same time, the sloping structure of the trapezoid forms a "conical channel" that narrows from the bottom to the top. When the moxa stick burns at the top, the heat, medicinal effect and moxa smoke generated will be concentrated and guided downward along this sloping surface, acting more efficiently on the Du meridian, the "sea of ​​yang meridians".

[0047] Furthermore, the diameter of the movable rod 349 is greater than the thickness of the pressing protrusion 348. Therefore, when the upper side of the pressing protrusion 348 is retracted into the control cavity 3481, during the rotation of the rotating disk 347, the movable rod 349 slides to the lower surface of the rotating disk 347 near the pressing protrusion 348. The upper end of the movable rod 349 will not slide into the control cavity 3481, but can only slide along the lower surface of the rotating disk 347 to the inclined surface of the pressing protrusion 348.

[0048] Example 2: The present invention is improved based on Example 1, such as... Figure 1 , Figure 4 , Figure 5 , Figure 8 and Figure 13-15 As shown, the molded shell 31, cover plate 32, two partitions 37, baffle 310, pressing plate 34, two compacting plates 342, and forming strip 35 are all divided into three sections. A first extension plate 314 is provided between the two vertical plates of two adjacent molded shell sections, a second extension plate 315 is provided between two adjacent partition sections, a third extension plate 316 is provided between two adjacent baffle sections, a fourth extension plate 319 is provided between two adjacent cover sections, a fifth extension plate 3110 is provided between two adjacent pressing plate sections, a sixth extension plate 3111 is provided between two adjacent compacting plate sections, and a seventh extension plate 3112 is provided between two adjacent forming strip sections.

[0049] Furthermore, cavities are provided inside the vertical plate of the adjacent molding shell section, the partition section, the baffle section, the cover plate section, the pressing plate section, the compacting plate section, and the forming strip section. The first extension plate 314 slides through the cavity of the vertical plate of the molding shell 31 near the molding shell section. The second extension plate 315 slides through the cavity of the partition section near the partition section. The third extension plate 315 slides through the cavity of the baffle section near the baffle section. The fourth extension plate 319 slides through the cavity of the cover plate section near the cover plate section. The fifth extension plate 3110 slides through the cavity of the pressing plate section near the pressing plate section. The sixth extension plate 3111 slides through the cavity of the compacting plate section near the compacting plate section. The seventh extension plate 3112 slides through the cavity of the forming strip section near the forming strip section.

[0050] When in use, the molding shell 1, partition 37, baffle 310, cover 32, pressing plate 34, compacting plate 342 and molding strip 35 are pulled outward. At the same time, the first extension plate 314, second extension plate 315, third extension plate 316, fourth extension plate 319, fifth extension plate 3110, sixth extension plate 3111 and seventh extension plate 3112 slide in the cavity, thereby adjusting the length of the molding mold 3. Through the above structural settings, ginger paste of different lengths can be pressed out, so that it can be used by different patients.

[0051] Furthermore, the lengths of the moxibustion device 1 and the heat insulation cover 2 are the same as the longest stretching length of the molding mold 3 (see attached diagram). Figure 1 ).

[0052] Furthermore, each of the top walls of the cavity is provided with a limiting groove 317. The upper surface of the first extension plate 314, the second extension plate 315, the third extension plate 316, the fourth extension plate 319, the fifth extension plate 3110, the sixth extension plate 3111, and the seventh extension plate 3112 located inside the cavity is fixedly connected with a stop block 318 that slides within the limiting groove 317. During the sliding process of the first extension plate 314, the second extension plate 315, the third extension plate 316, the fourth extension plate 319, the fifth extension plate 3110, the sixth extension plate 3111, and the seventh extension plate 3112, the stop block 318 slides synchronously within the limiting groove 317. The setting of the stop block 318 can prevent the first extension plate 314, the second extension plate 315, the third extension plate 316, the fourth extension plate 319, the fifth extension plate 3110, the sixth extension plate 3111, and the seventh extension plate 3112 from being pulled out of the cavity.

[0053] Working principle: First, place the shaping mold 3 on the moxibustion device 1, and at the same time remove the two side heat insulation cloths 22. The adjacent side of the two partitions 37 slides into the shaping shell 31. By controlling the distance of the partitions 37 sliding into the shaping shell 31, the width of the moxibustion powder trough is adjusted. The moxibustion powder is poured into the moxibustion powder trough. After pouring, pull the two partitions 37 outward until the limiting strip 310 slides into the embedded groove 311. Next, evenly spread the ginger paste inside the molding shell 31. After the ginger paste covers the inner wall of the molding shell 31, close the cover plate 32, insert the clamping plate 34 into the molding shell 31, and press it down on the pressing member 321. This causes the pressure rod 323 to push the clamping plate 34 downward into the molding shell 31. At the same time, the first spring 322 is stressed and contracts. As the clamping plate 34 moves downward, it compacts the ginger paste inside the molding shell 31. Meanwhile, the rotating column 345 moves downward along with the clamping plate 34 on the surface of the twisted rod 346. Therefore, the rotating column 345 rotates under the drive of the spiral pattern of the twisted rod 346. The lower end of the rotating column 345 drives the rotating disk 347 to rotate in the trigger cavity 343. When the upper end of the movable rod 349 contacts the inclined surface of the pressing protrusion 348, the pressing protrusion 348 exerts a pushing force on the movable rod 349, causing the movable rod 349 to push the compaction plate 342 downward. At the same time, the second spring 3411 is stressed and contracts. When the upper end of the movable rod 349 no longer contacts the pressing protrusion 348, the second spring 3411 pushes the compaction plate 342 upward and moves it to the initial position. Since the bottom of the rotating disk 347 is provided with multiple pressing protrusions 348, the compaction plate 342 can be repeatedly controlled to move up and down in small amplitudes. Therefore, during the process of the pressing plate 34 pressing the ginger paste, the compaction plate 342 dynamically vibrates the ginger paste in small amplitudes. When the pressure plate 34 moves downward, the fixing rod 34813 remains stationary. Therefore, relative to the pressure plate 34, the lower end of the fixing rod 34813 moves upward within the transmission cavity 34814. Consequently, the first rotating plate 34815 pulls the trigger push plate 34816 to move closer to the forming strip 35. After the pressure plate 34 moves downward a certain distance, the push plate 34817 contacts the lifting slide rod 3488. The trigger push plate 34816 continues to move towards the forming strip 35, and the push plate 34817 presses against the lifting slide rod 3488, causing the lifting slide rod 3488 to move towards one side within the trigger cavity 343. Simultaneously, the third spring 3... 4811 is subjected to force and contracts, thereby the third rotating plate 3489 exerts a thrust on the extrusion ring 3485, causing the extrusion ring 3485 to move upward. At this time, the extrusion ring 3485 presses against the trigger push rod 3486 at an angle, causing the trigger push rod 3486 to move closer to the control cavity 3481. The second rotating plate 3487 exerts a downward thrust on the connecting slide rod 3483, thereby pushing the pressing protrusion 348 to move downward. At the same time, the first tension spring 3484 is stretched. As the distance of the pressing protrusion 348 from the lower surface of the rotating disk 347 becomes longer, the moving rod 349 is pushed to move downward a longer distance. At the same time, the compaction plate 342 moves downward a longer distance, greatly compacting the ginger paste. Simultaneously, the molding strip 35 presses out moxa stick indentations on the surface of the ginger paste for placing the moxa sticks. After the ginger paste is shaped, the practitioner holds the two first handles 14 with both hands, which can lift the moxibustion device 1, heat insulation cover 2, molding mold 3, and the shaped ginger paste and place them on the patient's back. The front and back side heat insulation cloths 22 are opened, and the two partitions 37 are pulled outward. At this time, the baffle 310 no longer blocks the moxibustion powder, allowing the moxibustion powder to fall and drop onto the patient's back through the flexible metal mesh 11 and the drop channel on the gauze 12. The ginger paste falls onto the flexible metal mesh 11. The cover plate 32 is removed, and the entire molding shell 31 is lifted upward. The two side heat insulation cloths 22 are attached to the two main heat insulation cloths 21. Finally, the ginger paste is wrapped in the heat insulation cover 2, and the lit moxa stick is placed in the moxa stick indentation. Moxibustion can then be performed on the patient.

Claims

1. A ginger paste assisted shaping direct moxibustion kit, comprising a moxa laying device (1), a heat shield (2) and a shaping mold (3), characterized in that: The heat shield (2) is arranged on the moxibustion device (1), the shaping mold (3) is placed on the moxibustion device (1) and located at the inner side of the heat shield (2), the shaping mold (3) comprises a shaping shell (31), the shaping shell (31) is shaped as an isosceles trapezoid, and the inside of the shaping shell (31) is hollow, the shaping shell (31) is provided with an opening at the top and bottom, the front and back sides of the shaping shell (31) are provided with two partitions (37), the front and back side surfaces of the shaping shell (31) are provided with sliding grooves (38) in communication with the inside of the shaping shell (31), the bottom of the sliding groove (38) extends out of the lower surface of the shaping shell (31), the partition (37) close to the shaping shell (31) extends into the shaping mold (3) through the sliding groove (38), the two partitions (37) are close to each other and leave a certain distance as a moxibustion powder groove, the top of the shaping shell (31) is covered with a cover plate (32), the upper surface of the cover plate (32) is fixedly connected with a second handle (33), the top of the shaping shell (31) integrally extends upwardly with a rectangular frame, the lower surface of the cover plate (32) is provided with a pressing plate (34) for compacting ginger mud downwardly, the cover plate (32) is provided with a pushing mechanism for controlling the pressing plate (34) to press the ginger mud downwardly, the shaping shell (31) is filled with ginger mud, and the ginger mud is pressed into a trapezoidal shape in cooperation with the pressing plate (34), the lower surface of the pressing plate (34) is fixedly connected with a pressing strip (35) for pressing a notch of an ai strip on the top of the ginger mud, and the bottom of the pressing plate (34) is provided with a vibrating mechanism for further compacting the ginger mud.

2. The ginger paste assisted shaping moxibustion kit according to claim 1, characterized in that: The moxibustion device (1) comprises a flexible metal mesh (11), gauze (12) is arranged between the bottom of the flexible metal mesh (11) and the back of the human body, and the axis of the flexible metal mesh (11) and the gauze (12) is provided with a falling groove, the moxibustion powder groove is in communication with the falling groove, the surface of the flexible metal mesh (11) is fixedly provided with two symmetrical fixed plates (13), the two fixed plates (13) are arranged on the left and right sides of the flexible metal mesh (11) respectively, and the upper sides of the two fixed plates (13) are fixedly provided with first handles (14).

3. The ginger paste assisted shaping of the DU Meridian moxibustion kit according to claim 2, characterized in that: The heat shield (2) comprises two main heat insulation cloths (21), the two main heat insulation cloths (21) are fixedly arranged on the opposite surfaces of the two fixed plates (13) respectively, two wrapping strips wrapping the front and back sides of the flexible metal mesh (11) are fixedly connected between the two main heat insulation cloths (21), the front and back sides of the two main heat insulation cloths (21) are provided with side heat insulation cloths (22), the surfaces of the main heat insulation cloths (21) and the wrapping strips facing the side heat insulation cloths (22) are sewn with magic mother stickers (23) combined into a U shape, the surfaces of the side heat insulation cloths (22) close to the magic mother stickers (23) are sewn with magic son stickers (24) bonded with the magic mother stickers (23), the side heat insulation cloths (22) are bonded on the magic mother stickers (23) of the main heat insulation cloths (21) through the magic son stickers (24), and the surfaces of the side heat insulation cloths (22) facing the flexible metal mesh (11) are sewn with right-angled triangular extension heat preservation strips.

4. The ginger paste assisted shaping moxibustion kit according to claim 1, characterized in that: The outer surface of the partition plate (37) is attached to the inner wall of the sliding channel (38) and slides in the sliding channel (38), the left and right side surfaces of the partition plate (37) are respectively attached to the left and right side inner walls of the plastic shell (31) and are in sliding fit, the front side surface of the rear partition plate (37) is fixedly installed with a baffle (310), the rear side surface of the front partition plate (37) is provided with an insertion slot (311) matched with the baffle (310), the insertion slot (311) extends out of the lower surface of the front partition plate (37), the baffle (310) blocks the bottom of the moxa powder groove when the front side of the baffle (310) is inserted into the insertion slot (311), the left and right side inner walls of the sliding channel (38) are both provided with a limiting sliding groove (313), the limiting sliding groove (313) is isosceles trapezoidal in shape, the surface of the partition plate (37) close to the limiting sliding groove (313) is fixedly connected with a limiting sliding plate (312) sliding in the limiting sliding groove (313), the outer surface of the partition plate (37) is fixedly connected with a pulling plate (39) for pulling, and the four side inner walls of the plastic shell (31) are all provided with vertically and equidistantly arranged scale lines (36).

5. The ginger paste assisted shaping moxibustion kit according to claim 1, characterized in that: The pushing mechanism comprises a plurality of pressing pieces (321), the plurality of pressing pieces (321) are arranged on the upper surface of the cover plate (32), the lower surface of the pressing piece (321) is fixedly connected with a pressing rod (323), the lower end of the pressing rod (323) slides through the lower surface of the cover plate (32) and is fixedly installed on the pressing plate (34), and the first spring (322) movably sleeved on the outer surface of the pressing rod (323) is fixedly connected between the pressing piece (321) and the upper surface of the cover plate (32).

6. The ginger paste assisted shaping of the DU Meridian moxibustion kit according to claim 5, characterized in that: The vibrating mechanism comprises two compacting plates (342), which are arranged on the lower side of the pressing plate (34) and on the front and rear sides of the profiled strip (35) respectively, the bottom of the pressing plate (34) is provided with notches (341) on the front and rear sides of the profiled strip (35) respectively, the compacting plates (342) slide up and down in the notches (341) and the outer surfaces thereof are in conformity with the notches (341), the opposite side surfaces of the two compacting plates (342) are flush with the front and rear surfaces of the pressing plate (34) respectively, two trigger cavities (343) are arranged in the pressing plate (34) and are located on the upper sides of the two notches (341) respectively, a rotating column (345) is arranged in the trigger cavity (343), the upper end of the rotating column (345) rotates and penetrates out of the upper surface of the pressing plate (34), a connecting groove (344) is arranged on the lower surface of the cover plate (32) close to the rotating column (345), the upper end of the rotating column (345) extends into the connecting groove (344), the top wall of the connecting groove (344) is fixedly connected with a twisted rod (346), a twisted groove is arranged on the upper surface of the rotating column (345) and is screwed on the outer surface of the twisted rod (346), the lower end of the rotating column (345) is fixedly connected with a rotating disc (347), a plurality of lower pressing protrusions (348) with adjustable length are arranged on the lower surface of the rotating disc (347) in a circumferential array mode with the rotating disc (347) as the rotating point, the shapes of the lower pressing protrusions (348) are all isosceles triangles, a control mechanism for controlling the up-and-down displacement of the lower pressing protrusions (348) is arranged in the trigger cavity (343), a movable rod (349) is fixedly connected to the center position of the upper surface of the compacting plate (342), the upper end of the movable rod (349) slides and penetrates into the trigger cavity (343), a first sleeve plate (3410) is fixedly sleeved on the outer surface of the upper end of the movable rod (349), a second spring (3411) is fixedly connected between the lower surface of the first sleeve plate (3410) and the bottom wall of the trigger cavity (343) and is movably sleeved on the outer surface of the movable rod (349), when the second spring (3411) is in the free state, the movable rod (349) pulls the compacting plate (342) to completely retract into the notch (341), and the upper end of the movable rod (349) is in sliding contact with the inclined surface of the lower pressing protrusion (348) during the rotation of the rotating disc (347).

7. The ginger paste assisted shaping of the DU Meridian moxibustion kit according to claim 6, characterized in that: The control mechanism comprises a pressing ring (3485) arranged in the trigger cavity (343) and movably sleeved outside the rotating disc (347), the vertical section of the pressing ring (3485) is also a right-angled trapezoid, a plurality of control cavities (3481) are formed in the rotating disc (347), the upper side of the pressing convex block (348) is slidably penetrated into the control cavity (3481), the upper surface of the pressing convex block (348) is fixedly connected with a connecting slide rod (3483), the outer surface of the connecting slide rod (3483) is slidably sleeved with a sleeving plate (3482) fixedly installed on the inner wall of the control cavity (3481), the first tension spring (3484) movably sleeved on the outer surface of the connecting slide rod (3483) is fixedly connected between the upper surface of the pressing convex block (348) and the lower surface of the sleeving plate (3482), the upper end of the connecting slide rod (3483) is hingedly connected with a second rotating plate (3487), the other side of the second rotating plate (3487) is hingedly connected with a trigger push rod (3486), the other end of the trigger push rod (3486) is slidably penetrated out of the outer surface of the rotating disc (347) and slidably contacted with the inclined surface of the pressing ring (3485), a transmission cavity (34814) is formed in the inner side of the side of the pressing plate (34) close to the gap (341), a lifting slide rod (3488) is arranged in the transmission cavity (34814), the other end of the lifting slide rod (3488) is slidably penetrated into the trigger cavity (343), the end of the lifting slide rod (3488) in the trigger cavity (343) is hingedly connected with a third rotating plate (3489) between the lower surface of the pressing ring (3485), the end of the lifting slide rod (3488) in the transmission cavity (34814) is sleeved with a limiting ring, the outer surface of the end of the lifting slide rod (3488) in the transmission cavity (34814) is sleeved with a second sleeving plate (34810), the third spring (34811) movably sleeved on the outer surface of the lifting slide rod (3488) is fixedly connected between the second sleeving plate (34810) and the inner wall of the transmission cavity (34814), a fixed rod (34813) is arranged in the transmission cavity (34814), the upper end of the fixed rod (34813) is slidably penetrated out of the upper surface of the pressing plate (34) and fixedly installed on the lower surface of the cover plate (32), a limiting slide rod is fixedly connected between the inner walls of the opposite sides of the transmission cavity (34814), the outer surface of the limiting slide rod is slidably sleeved with a trigger push plate (34816), the first rotating plate (34815) is hingedly connected between the lower end of the fixed rod (34813) and the upper surface of the trigger push plate (34816), the upper surface of the trigger push plate (34816) close to the side of the lifting slide rod (3488) is fixedly connected with a push plate (34817), the trigger push plate (34816) is displaced to the side of the lifting slide rod (3488), and the push plate (34817) is contacted with the end of the lifting slide rod (3488) in the transmission cavity (34814).

8. The ginger paste assisted shaping of the DU Meridian moxibustion kit according to claim 7, characterized in that: A plurality of limiting sliding rods (34851) are fixedly connected to the bottom wall of the trigger cavity (343), and a limiting sliding groove (34852) is formed in the lower surface of the extrusion ring (3485) close to the limiting sliding rods (34851) and is sleeved on the outer surface of the limiting sliding rods (34851).

9. The ginger paste assisted shaping of the DU Meridian moxibustion kit according to claim 8, characterized in that: The shaping shell (31), the cover plate (32), the two partition plates (37), the baffle (310), the pressing plate (34), the two compacting plates (342) and the profiled strip (35) are all divided into three sections, first extension plates (314) are arranged between the two vertical plates of adjacent shaping shell sections, second extension plates (315) are arranged between adjacent partition plate sections, third extension plates (316) are arranged between adjacent baffle sections, fourth extension plates (319) are arranged between adjacent cover plate sections, fifth extension plates (3110) are arranged between adjacent pressing plate sections, sixth extension plates (3111) are arranged between adjacent compacting plate sections, seventh extension plates (3112) are arranged between adjacent profiled strip sections, cavities are formed in the interior of one side of the vertical plates of the adjacent shaping shell sections, the interior of the partition plate sections, the interior of the baffle sections, the interior of the cover plate sections, the interior of the pressing plate sections, the interior of the compacting plate sections and the interior of the profiled strip sections, the first extension plates (314) slide through the cavities in the vertical plates of the shaping shell (31) on the side close to the shaping shell sections, the second extension plates (315) slide through the cavities in the partition plate sections on the side close to the partition plate sections, the third extension plates (315) slide through the cavities in the baffle sections on the side close to the baffle sections, the fourth extension plates (319) slide through the cavities in the cover plate sections on the side close to the cover plate sections, the fifth extension plates (3110) slide through the cavities in the pressing plate sections on the side close to the pressing plate sections, the sixth extension plates (3111) slide through the cavities in the compacting plate sections on the side close to the compacting plate sections, and the seventh extension plates (3112) slide through the cavities in the profiled strip sections on the side close to the profiled strip sections.

10. The ginger paste assisted shaping and moxibustion kit according to claim 9, characterized in that: Limiting sliding grooves (317) are formed in the top walls of the cavities, and the first extension plates (314), the second extension plates (315), the third extension plates (316), the fourth extension plates (319), the fifth extension plates (3110), the sixth extension plates (3111) and the seventh extension plates (3112) are all fixedly connected to the upper surfaces on the side in the cavities and are provided with stop blocks (318) that slide in the limiting sliding grooves (317).

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