CN117860576A - Post-treatment equipment for instant plaster - Google Patents

Abstract

The invention relates to a ready-to-use plaster post-processing device, comprising a chassis, an operating table installed on the chassis and a display screen adapted to the operating table, wherein a transmission rail is arranged inside the chassis, a transfer mechanism is arranged on the track of the transmission rail, a plaster loading station, a powder adding station and a plaster output station are arranged in sequence along the transmission direction of the transfer mechanism, and a powder adding mechanism is arranged on the powder adding station; the invention provides a powder adding mechanism, so that required powder can be added into the plaster during the assembly process of the plaster and the plaster, and the powder can be wrapped by the plaster, which can effectively prevent the precious powder from volatilizing on the one hand, and can evenly mix the powder at several points of the plaster on the other hand, and can ensure the consistency of the product, thereby solving the technical problems of the high-priced plaster being easy to volatilize in the traditional plaster.

Description

A kind of post-processing equipment for ready-to-use plaster

Technical Field

The invention relates to the technical field of plasters, and in particular to post-processing equipment for ready-to-use plasters.

Background technique

Plasters work through the skin. Plaster therapy is one of the commonly used external treatment methods in clinical Chinese medicine. It follows the principles of Chinese medicine's diagnosis and treatment and the efficacy, main indications and meridians of Chinese medicine, fully mobilizes the effectiveness of drugs in coordination with each other, and forms a compound prescription of multiple medicines to exert the good effects of drugs. Plasters, commonly known as dog skin plasters, began in the Ming and Qing Dynasties and were used by the people for symptoms such as promoting blood circulation and removing stasis, invigorating qi and nourishing blood, dredge meridians, strengthen tendons and bones, relax tendons and activate collaterals, open up the orifices and penetrate bones, and dispel wind and cold.

Patent document with patent number CN 114732850 A discloses a plaster for rheumatism, which is prepared by the following raw materials in parts by weight: 30-35 parts of vegetable oil, 80-90 parts of rosin, 30-40 parts of Notopterygium wilfordii, 40-50 parts of Cyathula capitata, 60-70 parts of raw Aconitum kusnezoffii, 6-9 parts of borneol, 10-13 parts of Pheretima wormwood, 14-18 parts of Millettia reticulata, 6-10 parts of Saposhnikovia divaricata, 2-8 parts of Black Snake, 10-20 parts of Angelica sinensis, 16-20 parts of Cynanchum chinense, 10-15 parts of Pittosporum tobira bark, and 13-20 parts of Atractylodes lancea.

However, in actual use, the inventors found that some existing plasters need to add some volatile and expensive medicinal materials in relatively small quantities during production. On the one hand, this material will evaporate and be wasted when mixed with other medicinal materials. On the other hand, due to its relatively small amount, it cannot be fully mixed with other medicinal materials, which may cause the problem that some ointments do not contain special medicinal materials.

Summary of the invention

The purpose of the present invention is to address the deficiencies of the prior art. By setting up a powder adding mechanism, the required medicine powder can be added to the plaster during the assembly process of the plaster and the plaster patch, and the powder can be wrapped by the plaster. On the one hand, the volatilization of precious medicine powder can be effectively prevented, and on the other hand, the medicine powder can be evenly mixed at several points of the plaster, while ensuring the consistency of the product, thereby solving the technical problems of the more expensive plasters in traditional plasters being easy to volatilize.

In view of the above technical problems, the following technical solutions are adopted: a ready-to-use plaster post-processing device, comprising a chassis, an operating table installed on the chassis, and a display screen adapted to the operating table, wherein a transmission rail is arranged inside the chassis, a transfer mechanism is arranged on the track of the transmission rail, and a plaster loading station, a powder adding station, and a plaster output station are arranged in sequence along the transmission direction of the transfer mechanism;

The powder adding station is provided with a powder adding mechanism, which includes a frame installed inside the chassis, a first driving unit installed above the frame, an upper mold assembly that moves in a vertical direction under the drive of the first driving unit, and a lower film assembly connected to the upper mold assembly through a first elastic unit;

The initial position of the transfer mechanism is located at the plaster loading station. When plaster processing is required, the required number of plasters is first input through the operating table and the display screen adapted to the operating table, and then the corresponding number of plasters are introduced into the transfer mechanism at the plaster loading station, and then the transfer mechanism is moved to the powder adding station. After arriving, the transfer mechanism is stopped and the first drive unit is driven to move the upper mold assembly and the lower membrane assembly downward, so that the lower membrane assembly contacts and penetrates the plaster in the transfer mechanism, and then the first drive unit is raised. At this time, the upper mold assembly will move the lower membrane assembly first and then the lower membrane assembly, and a speed difference will be formed, thereby increasing the distance between the upper mold assembly and the lower membrane assembly, opening the opening below the lower membrane assembly to allow the powder inside to be introduced into the plaster, and then the transfer mechanism is moved again to transfer to the plaster output station and stop, and the plaster in the transfer mechanism is output to the plaster output station.

Preferably, the transfer mechanism includes a transfer plate connected to the transmission rail, a plurality of through slots arranged on the transfer plate, a loading component installed in the through slots and used to store the plaster, and a cleaning component symmetrically installed on the transfer plate and used to filter the plaster.

Preferably, the loading assembly includes a filter bin installed in the through groove, a storage bin arranged parallel to and connected to the filter bin, a filter plate hung above the filter bin, an inclined plate installed inside the filter bin and with one end located at the connection between the filter bin and the storage bin, and a scraper installed inside the filter bin and with the bottom thereof in contact with the inclined plate.

Preferably, the cleaning assembly is arranged corresponding to the number of columns of the through slots, and the cleaning assembly comprises a bracket mounted on the transfer plate, and a rotating roller rotatably connected to the bracket via a rotating shaft.

Preferably, the two groups of rotating rollers are connected by filter cloths, a transmission gear rod rotating coaxially with the rotating shaft is provided between the cleaning components, a transmission gear matched with the transmission gear rod and a passive gear rotating coaxially with the transmission gear are rotatably connected on the transfer plate, and a driving rack matched with the passive gear is installed between the plaster loading station and the powder adding station.

Preferably, the upper mold assembly includes an upper plate connected to the output end of the first driving unit and a plurality of groups of penetration units installed below the upper plate, the penetration units are arranged corresponding to the storage bins, and the penetration units are composed of a plurality of thin rods arranged in a circular array.

Preferably, the lower membrane assembly includes a lower plate installed below the first elastic unit, an injection unit installed below the lower plate and corresponding to the penetration unit, and a ratchet bar installed on the front and rear sides of the lower plate. A ratchet gear matched with the ratchet bar is also provided on the powder adding station.

Preferably, the plaster loading station is provided with a discharging mechanism and a storage cylinder installed on and connected to the discharging mechanism, and the discharging mechanism is used to divide the storage cylinder into a plurality of discharging channels to control the discharging.

Preferably, the plaster output station is provided with a loading mechanism for storing the plaster base cloth, and a smearing mechanism for smearing the plaster in the transfer mechanism onto the plaster base cloth, and the chassis is provided with an opening adapted to the loading mechanism.

Preferably, the loading mechanism includes a discharge drawer slidably connected to one end of the transmission rail, a receiving groove opened on the discharge drawer and corresponding to the through groove, a slide plate slidably arranged in the receiving groove, a second elastic unit whose two ends are respectively connected to the slide plate and the receiving groove, and a limit frame installed above the receiving groove.

Beneficial effects of the present invention:

(1) In the present invention, by providing a powder adding mechanism, the required medicine powder can be added into the plaster during the assembly process of the plaster and the plaster patch, and the powder can be wrapped by the plaster. On the one hand, the precious medicine powder can be effectively prevented from volatilizing, and on the other hand, the medicine powder can be evenly mixed at several points of the plaster, and the consistency of the product can be ensured at the same time;

(2) In the present invention, a transfer mechanism is provided to sequentially pass through the plaster loading station, the powder adding station and the plaster output station. Through the cooperation between the stations, the assembly of the plaster treated with fire poison and the plaster base cloth can be automatically completed, and the production of the plaster patch is fully automated, which reduces the use of manual labor, improves work efficiency, and ensures the stability of the production process of the entire process, thereby improving the consistency of the product;

(3) In the present invention, an operating table and a display screen adapted to the operating table are used in conjunction with a discharging mechanism on the plaster loading station to produce the required plaster patches in a timely and accurate manner. On the one hand, the timely produced plaster patches will not volatilize the medicinal properties of the plaster. On the other hand, the device enables patients to take medicine by themselves. They only need to put the corresponding plaster into the corresponding medicine cartridge, and then operate on the operating table according to the required number of plaster patches to produce the plaster patches required by the patient, thereby saving the doctor's time in taking medicine.

In summary, the device has the advantages of simple operation, small footprint and easy use, and is particularly suitable for the field of plaster patch technology.

BRIEF DESCRIPTION OF THE DRAWINGS

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

FIG1 is a schematic diagram of the structure of a post-processing device for a ready-to-use plaster.

Figure 2 is a schematic diagram of the internal structure of the ready-to-use plaster post-processing equipment.

Figure 3 is a schematic diagram of the internal structure of the ready-to-use plaster post-processing equipment from another perspective.

FIG. 4 is a schematic diagram of the structure of the transmission rail.

FIG. 5 is a schematic structural diagram of the transfer mechanism.

FIG. 6 is a schematic diagram of the structure of the reprinting mechanism from another perspective.

FIG. 7 is a schematic diagram showing the structure of the powder adding mechanism and the transfer mechanism.

FIG8 is a schematic diagram showing the working state of the powder adding mechanism.

FIG. 9 is a schematic structural diagram of the powder adding mechanism.

FIG. 10 is a schematic diagram showing the motion state of the powder adding mechanism.

FIG. 11 is a schematic cross-sectional view of the structure of the loading mechanism.

Detailed ways

The technical solutions in the embodiments of the present invention are clearly and completely described below in conjunction with the accompanying drawings.

Embodiment 1

As shown in Fig. 1-10, a ready-to-use plaster post-processing device comprises a chassis 100, an operating table 101 mounted on the chassis 100, and a display screen 102 adapted to the operating table 101, wherein a transmission rail 200 is arranged inside the chassis 100, a transfer mechanism 1 is arranged on the track of the transmission rail 200, and a plaster loading station, a powder adding station, and a plaster output station are arranged in sequence along the transmission direction of the transfer mechanism 1;

The powder adding station is provided with a powder adding mechanism 2, which includes a frame 21 installed inside the chassis 100, a first driving unit 22 installed above the frame 21, an upper mold assembly 23 that moves in a vertical direction under the drive of the first driving unit 22, and a lower film assembly 24 connected to the upper mold assembly 23 through a first elastic unit;

The initial position of the transfer mechanism 1 is located at the plaster loading station. When plaster processing is required, the required number of plasters is first input through the operating table 101 and the display screen 102 adapted to the operating table 101, and then the corresponding number of plasters are introduced into the transfer mechanism 1 at the plaster loading station, and then it moves to the powder adding station. After arriving, the transfer mechanism 1 is stopped and the first driving unit 22 is driven to make the upper mold assembly 23 and the lower membrane assembly 24 move downward, so that the lower membrane assembly 24 contacts and penetrates the plaster in the transfer mechanism 1, and then the first driving unit 22 is raised. At this time, the upper mold assembly 23 will move the lower membrane assembly 24 first and then move, and a speed difference will be formed, so that the distance between the upper mold assembly 23 and the lower membrane assembly 24 is increased, and the opening below the lower membrane assembly 24 is opened to allow the powder inside to be introduced into the plaster, and then the transfer mechanism 1 is moved again to the plaster output station and stopped, and the plaster in the transfer mechanism 1 is output to the plaster output station.

In this embodiment, by setting up the transfer mechanism 1 to pass through the plaster feeding station, the powder adding station and the plaster output station in sequence, the assembly of the plaster treated with fire poison and the plaster base cloth can be automatically completed through the cooperation between the stations, and the production of the plaster patch is fully automated, reducing the use of manpower, improving work efficiency, and ensuring the stability of the production process of the entire process, improving the consistency of the product, and at the same time, through the operation table 101 and the display screen 102 adapted to the operation table 101 and cooperating with the discharging mechanism 3 on the plaster feeding station, the plaster patch can be produced in a timely and accurate quantity. On the one hand, the plaster patch produced in time will not volatilize the medicinal properties of the plaster. On the other hand, the device can realize the self-service medication of the patient. The patient only needs to put the corresponding plaster into the corresponding medicine cartridge, and the patient can operate on the operation table 101 according to the required number of plaster patches to produce the plaster patch required by the patient, which can save the doctor's time for taking medicine;

It is worth mentioning here that in the traditional plaster production, particularly precious medicines such as musk can be sprinkled on at the end, but this method can only be sprinkled on the surface of the plaster. By setting up the powder adding mechanism 2, the required medicine powder can be added to the plaster during the assembly process of the plaster and the plaster patch, and the powder can be wrapped by the plaster. On the one hand, it can effectively prevent the precious medicine powder from volatilizing. On the other hand, it can make the medicine powder evenly mixed at several points of the plaster, and at the same time ensure the consistency of the product.

Further, as shown in Figures 4-5, the transfer mechanism 1 includes a transfer plate 11 connected to the transmission rail 200, a plurality of groups of through grooves 12 arranged on the transfer plate 11, a loading component 13 installed in the through grooves 12 and used to store the plaster, and a cleaning component 14 symmetrically installed on the transfer plate 11 and used to filter the plaster.

In this embodiment, the plaster in a solution state is introduced into the loading assembly 13 below through the storage cylinder 500, and during this process, the possible residues of the plaster are filtered through the cleaning assembly 14, and then during the transfer to the next station, the cleaning assembly 14 completes self-replacement;

It should be noted that the transfer plate 11 moves under the operation of the transmission electric rail 200, and reciprocates between the plaster loading station, the powder adding station and the plaster output station.

Further, as shown in Figures 5-6, the loading assembly 13 includes a filter bin 131 installed in the through groove 12, a storage bin 132 arranged in parallel with and connected to the filter bin 131, a filter plate 133 hung above the filter bin 131, an inclined plate 134 installed in the filter bin 131 and with one end located at the connection between the filter bin 131 and the storage bin 132, and a scraper 135 installed in the filter bin 131 and with the bottom thereof in contact with the inclined plate 134.

In this embodiment, the storage cylinder 500 introduces the plaster in a solution state into the filter bin 131 in the lower through groove 12, and the plaster passes through the filter plate 133 and then falls onto the lower inclined plate 134, and first flows naturally into the storage bin 132 due to the fluidity of the plaster, and finally drives the scraper 135 to push the plaster on the inclined plate 134 and any remaining plaster into the storage bin 132;

It should be noted that the storage bin 132 has a rapid cooling function. When the plaster enters the storage bin 132 and then is transferred to the next workstation, the plaster is quickly cooled down and becomes the required molten state, so that the powder can heal itself after entering the opening of the plaster, wrapping the powder to prevent it from volatilizing. In addition, the scraper 135 works through the power of the rodless cylinder.

Further, as shown in FIGS. 4-6 , the cleaning assembly 14 is arranged corresponding to the number of columns of the through slots 12 , and the cleaning assembly 14 includes a bracket 141 mounted on the transfer plate 11 , and a rotating roller 142 rotatably connected to the bracket 141 via a rotating shaft;

The two groups of rotating rollers 142 are connected by a filter cloth 143, and a transmission gear rod 144 coaxially rotating with the rotating shaft is arranged between the cleaning components 14. A transmission gear 145 adapted to the transmission gear rod 144 and a passive gear 146 coaxially rotating with the transmission gear 145 are rotatably connected to the transfer plate 11, and a driving rack 300 adapted to the passive gear 146 is installed between the plaster loading station and the powder adding station.

In this embodiment, each two groups of rotating rollers 142 are matched with the filter cloth 143 and are placed on a column of filter bins 131. The plaster is filtered when it falls into the filter bin 131. Then, when it is transferred to the next workstation, it passes through the driving rack 300, thereby rotating the passive gear 146, and driving the transmission gear rod 144 to rotate through the transmission gear 145 rotating coaxially therewith, thereby driving the rotating rollers 142 to rotate in the same direction, thereby rolling up the used filter cloth 143 and unrolling the clean filter cloth 143 for the next use.

Further, as shown in Figures 7-10, the upper mold assembly 23 includes an upper plate 231 connected to the output end of the first driving unit 22 and a plurality of penetration units 232 installed below the upper plate 231. The penetration units 232 are arranged corresponding to the storage bins 132, and the penetration units 232 are composed of a plurality of thin rods arranged in a circular array.

The lower membrane assembly 24 includes a lower plate 241 installed below the first elastic unit, an injection unit 242 installed below the lower plate 241 and corresponding to the penetration unit 232, and a ratchet bar 243 installed on the front and rear sides of the lower plate 241. A ratchet gear 400 adapted to the ratchet bar 243 is also provided on the powder adding station.

In this embodiment, a corresponding amount of plaster is introduced into the transfer mechanism 1 at the plaster loading station, and then moved to the powder adding station. After arriving, the transfer mechanism 1 is stopped and the first driving unit 22 is driven to make the upper mold assembly 23 and the lower film assembly 24 move downward synchronously, so that the lower part of the injection unit 242 is inserted into the inside of the plaster and a slot is formed. Then, the upper mold assembly 23 and the lower film assembly 24 are raised by the first driving unit. In this process, the upper mold assembly 23 and the lower film assembly 24 are separated to inject the powder through the cooperation between the ratchet bar 243 and the ratchet gear 400. After completion, the injection unit 242 is closed again. During the upward lifting process, the slot formed by the plaster will slowly close, and the powder will be wrapped inside the plaster.

It should be noted that, since the lower diaphragm assembly 24 is connected to the upper mold assembly 23 through the first elastic unit, when it moves downward normally, the upper mold assembly 23 and the lower diaphragm assembly 24 both move synchronously, and when the upper mold assembly 23 and the lower diaphragm assembly 24 move upward, the ratchet gear 400 and the ratchet bar 243 cause the lower diaphragm assembly 24 to be subjected to resistance. At this time, the upper mold assembly 23 will continue to rise through the action of the first elastic unit, while the lower diaphragm assembly 24 will temporarily stop rising due to resistance. At this time, the distance between the upper mold assembly 23 and the lower diaphragm assembly 24 is increased, so the bottom of the penetration unit 232 is no longer flush with the bottom of the injection unit 242, that is, the opening below the injection unit 242 is opened, so the powder inside it begins to leak out, and in the process of continuing to rise, the elastic force of the first elastic unit will be greater than the resistance, thereby returning the upper mold assembly 23 and the lower diaphragm assembly 24 to their initial positions again, so that the injection unit 242 completes the sealing again;

In addition, as shown in the figure, the ratchet gear 400 and the ratchet bar 243 do not cooperate with each other when the first driving unit lowers the upper mold assembly 23 and the lower membrane assembly 24, and they will only work when the opposite work is performed.

Embodiment 2

As shown in Figures 1-11, the components that are the same or corresponding to those in the first embodiment are marked with the corresponding reference numerals in the first embodiment. For the sake of simplicity, only the differences from the first embodiment are described below. The second embodiment differs from the first embodiment in that:

Further, as shown in FIGS. 1-4 , the plaster loading station is provided with a discharging mechanism 3 and a storage cylinder 500 installed on and connected to the discharging mechanism 3 , and the discharging mechanism 3 is used to divide the storage cylinder 500 into a plurality of discharging channels to control the discharging.

In this embodiment, the storage cylinder 500 is provided to store the plaster, and the outlet of the discharging mechanism 3 is provided with a discharging port corresponding to the transfer mechanism 1, and both can be controlled separately, so that the corresponding amount of plaster can be discharged according to the demand;

It should be noted that the storage tube 500 itself has a heating function, so that the plaster inside it is kept in a solution state. In addition, the discharging mechanism 3 is compatible with the external operating table 101.

Further, as shown in Figures 1-4, the plaster output station is provided with a loading mechanism 4 for storing the plaster base cloth, and a smearing mechanism 5 for smearing the plaster in the transfer mechanism 1 on the plaster base cloth, and the chassis 100 is provided with an opening adapted to the loading mechanism 4.

In this embodiment, after the processed plaster is set, it is moved to the plaster output station, and then it is smeared to the loading mechanism 4 below through the smearing mechanism 5, and then the loading mechanism 4 is moved out through the opening opened on the chassis 100, and the patient or medical staff can take it;

It should be noted that the beach mechanism 5 is an existing perfect technology and will not be further described here. The part of the transfer mechanism 1 that stores the plaster can be modified by opening a discharge chute according to the corresponding beach mechanism 5.

Further, as shown in Figure 4 or 11, the loading mechanism 4 includes a discharge drawer 41 slidably connected to one end of the transmission rail 200, a receiving groove 42 opened on the discharge drawer 41 and corresponding to the through groove 12, a slide plate 43 slidably arranged in the receiving groove 42, a second elastic unit 44 whose two ends are respectively connected to the slide plate 43 and the receiving groove 42, and a limit frame 45 installed above the receiving groove 42.

In this embodiment, the plaster is applied to the loading mechanism 4 below through the application mechanism 5, and then the loading mechanism 4 is moved out through the opening provided on the chassis 100, and then the base cloth with the plaster applied on it, which is located at the top in the receiving groove 42 of the discharge drawer 41, is taken out. At this time, the next plaster base cloth is replaced to the top through the action of the second elastic unit 44, thereby ensuring the automatic assembly of the plaster and the plaster base cloth.

It is worth mentioning here that the slide plate 43 is used to support several groups of plaster base cloths and is slidably connected to the receiving groove 42. The height of the top layer of plaster base cloth is limited by the limit frame 45, and it can prevent it from leaving the receiving groove 42. At the same time, one side of the limit frame 45 is set to be open to facilitate people to take it.

work process:

When it is necessary to process the plaster, first input the required number of plasters through the operating table 101 and the display screen 102 adapted to the operating table 101, and the discharging mechanism 3 will output the corresponding number of plasters according to the demand and introduce them into the filter bin 131 in the lower through groove 12. The plaster passes through the filter plate 133 and then falls onto the inclined plate 134 below, and first flows naturally into the storage bin 132 due to the fluidity of the plaster, and finally drives the scraper 135 to push the plaster on the inclined plate 134 and any remaining plaster into the storage bin 132. In the process of the plaster falling into the filter bin 131, it is filtered by the cleaning component, and then when it is transferred to the next workstation, it passes through the driving rack 300, thereby rotating the passive gear 146, and driving the transmission gear 144 to rotate through the transmission gear 145 rotating coaxially therewith, thereby driving the rotating roller 142 to rotate in the same direction, thereby rolling up the used filter cloth 143, and unwinding the clean filter cloth 143. The upper mold assembly 23 and the lower membrane assembly 24 are inserted into the interior of the plaster to form a slot, and then the upper mold assembly 23 and the lower membrane assembly 24 are raised by the first driving unit. During this process, the ratchet bar 243 cooperates with the ratchet gear 400 to separate the upper mold assembly 23 and the lower membrane assembly 24 to inject the powder. After completion, the injection unit 242 is closed again. During the upward lifting process, the slot formed by the plaster will slowly close, wrapping the powder inside the plaster. Then the transfer mechanism 1 is moved again to the plaster output station and stopped. It is beached to the loading mechanism 4 below through the beaching mechanism 5, and then the loading mechanism 4 is moved out through the opening opened on the chassis 100. Then the base cloth located at the top and beached with the plaster in the receiving groove 42 of the discharge drawer 41 is taken out.

In the description of the present invention, it is necessary to understand that the directions or positional relationships indicated by the terms "front and back", "left and right", etc. are based on the directions or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or component referred to must have a specific direction, be constructed and operated in a specific direction, and therefore cannot be understood as a limitation on the invention.

Of course, in the present technical solution, those skilled in the art should understand that the term "one" should be understood as "at least one" or "one or more", that is, in one embodiment, the number of an element may be one, while in another embodiment, the number of the element may be multiple, and the term "one" should not be understood as a limitation on the quantity.

The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any changes or substitutions that can be easily thought of by a person skilled in the art under the technical prompts of the present invention should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims (10)

1. The utility model provides a processing apparatus after plaster subsides of ready-to-use is produced, includes quick-witted case, installs the operation panel on the quick-witted case and with the display screen of operation panel adaptation, the quick-witted incasement portion is provided with the transmission electric rail, its characterized in that, be provided with the transshipment mechanism on the track of transmission electric rail, set gradually plaster material loading station, powder adding station and plaster output station along the direction of transmission of transshipment mechanism;

the powder adding mechanism comprises a frame arranged in the machine case, a first driving unit arranged above the frame, an upper die assembly which moves vertically under the driving of the first driving unit, and a lower die assembly which is connected with the upper die assembly through a first elastic unit;

when the plaster is required to be pasted, the required plaster quantity is input through the operation table and the display screen matched with the operation table, then the plaster with the corresponding quantity is led into the plaster feeding mechanism on the plaster feeding station, then the plaster feeding mechanism moves on the medicine powder adding station, after the plaster feeding station arrives, the movement of the plaster feeding mechanism is stopped, the first driving unit is driven to enable the upper die assembly and the lower die assembly to move downwards, the lower die assembly is enabled to be in contact with the plaster in the plaster feeding mechanism and penetrate the plaster, then the first driving unit is enabled to rise, at the moment, the upper die assembly moves first and then moves again, a speed difference is formed, so that the distance between the upper die assembly and the lower die assembly is increased, the opening below the lower die assembly is opened, medicine powder in the lower die assembly is led into the plaster, then the plaster feeding mechanism is moved again to the plaster output station to stop, and the plaster in the plaster feeding mechanism is output to the plaster output station.

2. The post-treatment device for plaster patches of claim 1, wherein the transfer mechanism comprises a transfer plate connected with a transfer rail, a plurality of groups of through grooves arranged on the transfer plate, a loading assembly arranged in the through grooves and used for storing plaster, and a cleaning assembly symmetrically arranged on the transfer plate and used for filtering plaster.

3. The post-treatment device for the ready-to-use plaster according to claim 2, wherein the loading assembly comprises a filter bin arranged in the through groove, a Chu Nacang which is arranged in parallel with and communicated with the filter bin, a filter plate hung above the filter bin, an inclined plate arranged inside the filter bin and with one end at the communicating position of the filter bin and Chu Nacang, and a scraping plate arranged inside the filter bin and with the bottom in a collision manner with the inclined plate.

4. The post-treatment device for ready-to-use plasters according to claim 2, wherein the cleaning assembly is arranged corresponding to the number of columns of the through grooves, and comprises a bracket mounted on the transfer plate and a rotating roller rotatably connected with the bracket through a rotating shaft.

5. The post-treatment device for the ready-to-use plaster according to claim 4, wherein two groups of rotating rollers are connected through filter cloth, a transmission toothed bar coaxially rotating with a rotating shaft is arranged between the cleaning components, a transmission gear matched with the transmission toothed bar and a driven gear coaxially rotating with the transmission gear are rotatably connected on the transfer plate, and a driving rack matched with the driven gear is arranged between the plaster feeding station and the medicine powder adding station.

6. A post-treatment device for ready-to-use plasters according to claim 3, wherein the upper module comprises an upper plate connected to the output end of the first driving unit and a plurality of groups of penetrating units installed below the upper plate, the penetrating units are arranged corresponding to Chu Nacang, and the penetrating units are composed of a plurality of thin rods arranged in a circular array.

7. The post-treatment device for the ready-to-use plaster of claim 6, wherein the lower membrane assembly comprises a lower plate arranged below the first elastic unit, a material injection unit arranged below the lower plate and corresponding to the penetrating unit, and ratchet bars arranged on the front side and the rear side of the lower plate, and ratchet gears matched with the ratchet bars are further arranged on the medicine powder adding station.

8. The post-treatment device for the plaster post-treatment of the instant production type according to claim 2, wherein a discharging mechanism and a storage cylinder which is arranged on the discharging mechanism and communicated with the discharging mechanism are arranged on the plaster feeding station, and the discharging mechanism is used for dividing the storage cylinder into a plurality of discharging channels for controlling discharging.

9. The post-treatment device for the ready-to-use plaster of claim 2, wherein a loading mechanism for storing plaster base cloth and a beach mechanism for beaches of plaster in the transfer mechanism on the plaster base cloth are arranged on the plaster output station, and an opening matched with the loading mechanism is formed in the case.

10. The post-treatment device for ready-to-use plaster according to claim 9, wherein the loading mechanism comprises a discharging drawer slidably connected with one end of the transmission power rail, a containing groove arranged on the discharging drawer and corresponding to the through groove, a sliding plate slidably arranged in the containing groove, a second elastic unit with two ends respectively connected with the sliding plate and the containing groove, and a limiting frame arranged above the containing groove.