Protective wing type hot compress moxibustion patch composite equipment

Abstract

The utility model discloses a protective wing type hot compress moxibustion patch compound device which comprises a material conveying belt with a push pawl and a rotatable roller cutter, a material transfer station is connected between the material conveying belt and the roller cutter, and the material transfer station is composed of a static working plane and a variable speed conveying plane connected in front of the static working plane. The static working plane is flush with the variable-speed conveying plane, a bottom-layer roll material generating movement is arranged in front of the variable-speed conveying plane, a push plate for pushing the materials to the variable-speed conveying plane is arranged at the position of the static working plane, and the variable-speed conveying plane conveys the materials to the bottom-layer roll material through speed change to achieve equal-interval arrangement. A sensor for receiving the material coming time is arranged on a material conveying path, after receiving a signal of the material coming time, the sensor sends an instruction to a transmission motor through a controller to achieve rotation speed change, the transmission motor is in transmission connection with a variable-speed conveying plane, and a bottom-layer roll material, the material and a top-layer roll material enter a roller cutter to be split after being compounded. And by arranging the transfer station and the push plate, the materials are arranged on the bottom-layer coil stock at equal intervals.

Description

Technical Field

[0001] The utility model relates to the field of wing-type hot compress moxibustion patch compounding, in particular to a wing-type hot compress moxibustion patch compounding device. Background Art

[0002] The wing-protected hot compress moxibustion patch features an adhesive layer on a long strip of bottom surface. The heating inner layer is centered on the strip, with the top and bottom surfaces adhering to the heating inner layer. Adhesive wings are located on either side of the strip. For wing-protected hot compress moxibustion patches, the heating inner layer must be precisely applied to the center of the strip, minimizing the tolerance for error.

[0003] However, the existing technology has the following problems:

[0004] Wing-type hot compress moxibustion patch equipment usually uses a material conveyor belt with push claws to directly deliver the heating inner material to the bottom coil. However, the edge of the material is soft. During the pushing process, the push block of the chain hook acts on the edge of the material, causing the edge to warp up, causing the material to shift left and right, making it impossible for the material to enter the bottom coil properly, affecting the yield rate.

[0005] The push claws on the material conveyor belt need to have a certain distance for the material to enter, which results in the material distance being too long, causing waste of the bottom coil;

[0006] The front and rear spacing of the heated material is unstable when it enters the push claws, and the material enters the roller cutter with uneven spacing, resulting in the material being offset front and back and / or left and right on the bottom surface of the long strip after cutting (see Figure 9 ), which makes one side of the bottom surface more exposed and the other side less exposed. The exposed part is easy to overlap and stick after packaging, resulting in the finished product not being able to be smoothly unfolded during use, reducing the user experience, and even causing problems such as roller cutting and leakage of heating materials during the production process, resulting in a low yield. Utility Model Content

[0007] The utility model aims to solve the shortcomings of the existing technology and provides a wing-guard type hot compress moxibustion patch composite device, which ensures that the material is in a correct posture when entering the feeding station and ensures that the material is transported at equal intervals by adjusting the conveying speed when the material enters the moxibustion patch composite device.

[0008] The above technical problems are solved by the present invention through the following technical solutions: a wing-type hot compress and moxibustion patch composite device, comprising a material conveyor belt with a push claw and a rotatable roller cutter, characterized in that a material transfer station is connected between the material conveyor belt and the roller cutter, and the material transfer station is composed of a stationary working plane and a variable speed conveying plane connected in front of the stationary working plane, the stationary working plane and the variable speed conveying plane are level, and there is a bottom coil that moves in front of the variable speed conveying plane, and the stationary working plane is provided with a push plate for pushing the material onto the variable speed conveying plane, and the variable speed conveying plane conveys the material to the bottom coil by changing the speed to achieve equal spacing. A sensor is provided on the material conveying path to receive the incoming material, and after receiving the signal when the material comes, the sensor sends an instruction to the transmission motor through the controller to achieve speed change, and the transmission motor is connected to the variable speed conveying plane to achieve transmission connection, and the bottom coil, material and top coil are compounded and enter the roller cutter for cutting.

[0009] The stationary working plane of the utility model is connected between the material conveyor belt and the variable speed conveying plane. The stationary working plane provides a place for the material to stay, shortening the distance between the materials. In addition, the push plate can correct the material posture in the process of pushing the material to the variable speed conveying plane to meet the feeding requirements of the conveying plane. Finally, the conveying speed of the variable speed conveying plane is controlled by the controller according to the sensor, so that the materials conveyed to the bottom coil are arranged at equal intervals, thereby improving the yield.

[0010] Preferably, the push plate is in transmission connection with a push power source, which is electrically connected to a controller; the sensor is disposed opposite the variable-speed conveying plane; the variable-speed conveying plane includes an initial first speed and a second speed determined by a signal sent by the sensor; the controller controls the push power source to adapt the push plate's pushing speed to the first speed; and after the sensor receives a signal indicating the arrival of material on the variable-speed conveying plane, the controller sends a command to the transmission motor to cause the variable-speed conveying plane to change speed at the second speed. This reduces the speed difference before the material enters the variable-speed conveying plane, thereby further improving the yield rate.

[0011] Preferably, the sensor is a photoelectric eye.

[0012] Preferably, when pushing materials, the bottom of the push plate is lower than the static working plane, and a slot for the push plate to be inserted and moved is provided on the static working plane. The pushing gap allows the correction push plate to extend into, ensuring stable pushing of materials.

[0013] Preferably, the push plate realizes lifting and horizontal back-and-forth circulation movements, and the push plate moves back and forth on a horizontal slide rail through a translational power source, and the horizontal slide rail realizes lifting and lowering through a lifting power source.

[0014] Furthermore, the push plate is provided with a pressing sheet for flattening the upturned edges of the material. The pressing sheet can bend upward to flatten the edges of the material, further ensuring the yield of the finished product.

[0015] Preferably, a clamping conveyor belt is provided above the variable speed conveying plane and can cooperate with the variable speed conveying plane to clamp and convey the material in cooperation with the conveying plane, thereby ensuring the conveying accuracy of the material.

[0016] Preferably, a gluing component is arranged on the moving path before the bottom coil material contacts the material, the gluing component is provided with a glue outlet, and the glue outlet is arranged toward the guide roller that pulls the bottom coil material, the gluing component is arranged opposite to the guide roller that pulls the bottom coil material, the gluing component is transmission-connected with the telescopic driving component, and the telescopic driving component is used to drive the gluing component to approach the guide roller to gluing the bottom coil material or to move away from the guide roller to stop working.

[0017] Preferably, a material conveyor belt is staggered at the feeding end of the material conveyor belt, and the staggering is a drop-type staggering. The material conveyor belt is connected to the inner package molding equipment to realize automatic feeding of the wing-type hot compress moxibustion patch composite equipment.

[0018] Furthermore, a stacking silo is provided between the material conveyor belt and the material conveyor belt. A lifting and suction component is disposed below the stacking silo to transfer material from the stacking silo to the material conveyor belt. The lifting and suction component delivers the material in the stacking silo one by one between the push claws, thereby matching the conveying speed between the material conveyor belt and the material conveyor belt.

[0019] Furthermore, the inlet end of the material conveyor belt is connected to a connecting conveyor belt for conveying material row by row. The conveying path of the connecting conveyor belt is perpendicular to the conveying path of the material conveyor belt. The connecting conveyor belt can be used to deliver material produced by the inner package molding equipment to the material conveyor belt, thereby realizing the connection between the inner package molding equipment and the wing-guard hot compress moxibustion patch composite equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a structural diagram of the present utility model.

[0021] Figure 2 This utility model Figure 1 A magnified view of the local area A.

[0022] Figure 3 It is a structural diagram of the variable speed conveying plane of the utility model.

[0023] Figure 4 It is a structural diagram of this practical material transfer station.

[0024] Figure 5 It is a three-dimensional diagram of the present utility model.

[0025] Figure 6 This utility model Figure 5 Enlarged view of the gluing part of part B.

[0026] Figure 7 It is a top view of the online state of the utility model.

[0027] Figure 8 This utility model Figure 7 A magnified view of the local area C.

[0028] Figure 9 It is a schematic diagram of the finished product of the utility model with internal packaging offset.

[0029] The parts indicated by the numbers in the above drawings are as follows:

[0030] Among them, 1. Frame; 2. Material conveyor belt; 21. Push claw; 3. Roller knife; 4. Traction assembly; 5. Material transfer station; 51. Stationary working plane; 52. Variable speed conveying plane; 6. Push plate; 7. Sensor; 8. Drive motor; 9. Groove; 10. Horizontal slide rail; 11. Pressing sheet; 12. Clamping conveyor belt; 13. Gluing component; 14. Guide roller; 15. Telescopic drive component; 16. Material conveyor belt; 17. Stacking silo; 18. Lifting and lowering suction component; 19. Connecting conveyor belt; 20. Bottom coil unwinding shaft; 201. Top coil unwinding shaft; 22. Material; 23. Bottom surface; 231. Exposure position. DETAILED DESCRIPTION

[0031] The present invention is described in further detail below with reference to the accompanying drawings and embodiments.

[0032] See also Figure 1 and Figure 7 A wing-type hot compress and moxibustion patch composite device includes a material conveyor belt 2 with a push claw 21 and a rotatable roller cutter 3. The material conveyor belt 2 with the push claw 21 is used to convey materials (to the inner package). A material transfer station is connected between the material conveyor belt and the roller cutter. The material transfer station 5 arranges the materials at equal intervals on the bottom coil and can convey the materials at small intervals. The material transfer station 5 is composed of a stationary working plane 51 and a variable speed conveying plane 52 connected in front of the stationary working plane 51. The stationary working plane 51 can reduce the moving speed of the material in front, and the material in the rear is pushed by the push claw 21, so that the front and rear distances between the materials are shortened, thereby improving the utilization rate of the bottom coil. There are many ways to set the stationary working plane 51. For example, the stationary working plane 51 is set on a support plate, and the support plate is fixed on the frame 1. The stationary working plane 51 is level with the variable speed conveying plane to ensure that the material enters the variable speed conveying plane 52 smoothly.

[0033] The wing-type hot compress moxibustion patch composite device also includes a traction component 4, a bottom coil unwinding shaft 20, a top coil unwinding shaft 201 and a waste reel. The top coil unwinding shaft 201 is used to unwind the top coil, the bottom coil unwinding shaft 20 is used to unwind the bottom coil, and the waste reel is used to rewind the composite waste material after cutting (the excess part after the top coil and the bottom coil are compositely cut is waste). The conveying path of the bottom coil and the conveying path of the top coil pass in front of the material transfer station 5 and intersect at the traction component 4. Among them, the material passes through the material conveyor belt 2, the static working plane 51 and the variable speed conveying plane 52 in sequence and moves to the bottom coil to be arranged at equal intervals. Then the bottom coil carries the material and is composited with the top coil in the traction component. Finally, the composited material enters the roller cutter for slitting and delivery. The above-mentioned traction component 4, bottom coil unwinding shaft 20, top coil unwinding shaft 201 and roller cutter 3 can adopt existing technology. In front of the variable speed conveying plane 52, there is a bottom coil that is moving. The bottom coil unwinding shaft 20, the traction assembly 4 and the waste material rewinding shaft cooperate to move the bottom coil.

[0034] The contact area between the push claw 21 and the material is small, so the push claw 21 can easily cause the edge of the material to curl up during the pushing process, causing the material to gradually shift during the movement, affecting the yield rate. In order to ensure the straightness of the material, the static working plane 51 is equipped with a push plate 6 to push the material to the variable speed conveying plane. The push plate 6 increases the contact area with the material, so that the material is evenly stressed and avoids deviation during the movement of the material. The push plate 6 can also correct the material posture during the pushing process to ensure that the material enters the variable speed conveying plane 52 straight, ensuring the yield rate. Among them, the push plate 6 has a pushing plane perpendicular to the static supporting plane. The push plate 6 can be perpendicular to the static supporting plane in the initial state, or perpendicular to the static supporting plane during the pushing process.

[0035] The variable-speed conveyor plane conveys material onto the bottom coil by varying its speed, achieving evenly spaced arrangement. A sensor 7 is located along the material conveying path to detect incoming material. Material before entering the variable-speed conveyor plane 52 or on the variable-speed conveyor plane is considered incoming material. Upon receiving the incoming material signal, the sensor 7 sends a command to the drive motor 8 via a controller to change its speed. The drive motor 8 is in transmission connection with the variable-speed conveyor plane. After the bottom coil, material, and top coil are combined, they enter the roller cutter 3 for slitting. The evenly spaced material is arranged on the bottom coil, then combined with the top coil. The combined material is then slid by the roller cutter 3. The sensor 7 is preferably a photoelectric eye. In this embodiment, the sensor 7 is located above the variable-speed conveyor plane 52 to detect the material position on the variable-speed conveyor plane 52. A controller is located on the frame 1 and is electrically connected to the sensor 7 and the drive motor 8. The controller controls the output speed of the drive motor 8 based on the incoming material position signal from the sensor 7, the actual distance between the set position, and the deviation between the set distance and the set position. For example, the distance between the front end of the material and the roller cutter (i.e., the roller cutter position is set to the set position) is a fixed value (this fixed value is the set distance). The controller uses the actual distance between the material's actual position signal transmitted by sensor 7 and the set position as the actual distance. When the actual distance is greater than the set distance, the controller controls transmission motor 8 to drive the variable speed conveyor plane 52 to increase the output speed accordingly. If the actual distance is less than the original distance, the controller controls transmission motor 8 to drive the variable speed conveyor plane 52 to decrease the output speed accordingly. The set position can be set manually, and setting the set position is a conventional technical means for those skilled in the art and will not be elaborated here. Furthermore, transmission motor 8 is preferably a servo motor.

[0036] There are many ways to set up the variable speed conveying surface. For example, the variable speed conveying surface is set on a mobile platform or a transmission conveyor belt. In order to improve the transmission efficiency and ensure stable material transportation, a clamping conveyor belt 12 that can cooperate with the variable speed conveying surface is provided above the variable speed conveying surface 52. The clamping conveyor belt 12 cooperates with the variable speed conveying surface 52 to clamp and convey the material, thereby improving the transmission efficiency. In this embodiment, see the attached Figure 3 and Figure 4The variable speed conveying surface is provided on a transmission conveyor belt, which is provided on a first driving shaft and a first driven shaft. The first driving shaft and the first driven shaft are arranged horizontally and parallel to each other. A first main synchronous wheel is fixedly provided on the first driving shaft, a first passive synchronous wheel is fixedly provided on the first driven shaft, and the transmission conveyor belt is wound between the first main synchronous wheel and the first passive synchronous wheel. The clamping conveyor belt 12 is provided on a second driving shaft and a second driven shaft. The second driving shaft and the second driven shaft are arranged horizontally and parallel to each other. A second main synchronous wheel is fixedly provided on the second driving shaft, a second passive synchronous wheel is fixedly provided on the second driven shaft, and the second synchronous belt is wound between the second main synchronous wheel and the second passive synchronous wheel. The horizontal and parallel arrangement of the driving shaft and the driven shaft allows the length of the variable speed conveying surface 52 to be adapted to the material specifications, ensuring that the material has sufficient time to accelerate or decelerate. A first synchronous wheel is provided at the end of the first driving shaft 511a, and a second synchronous wheel is provided on the same side of the second driving shaft. The first and second synchronous wheels are connected to the transmission motor 8 via a synchronous transmission belt.

[0037] Working principle: The material conveyor belt 2 pushes the material to the stationary material supporting plane through the pushing claw 21, and the pushing plate 6 moves to the rear of the material to contact the material, and pushes the material to the variable speed conveying plane 52. The sensor 7 detects the actual position of the incoming material. After receiving the signal when the material arrives, the sensor 7 sends an instruction to the transmission motor 8 through the controller to realize the speed change. By controlling the increase or decrease of the speed of the transmission motor 8, the material is transported to the bottom coil to be arranged at equal intervals, thereby ensuring the finished product rate of the wing-type hot compress moxibustion patch composite equipment.

[0038] The following optimization or further explanation may be performed based on the above embodiments.

[0039] For example, the push plate 6 is transmission-connected to the pushing power source, and the pushing power source is electrically connected to the controller; the sensor 7 is arranged opposite to the variable speed conveying plane 52, and the variable speed conveying plane 52 includes an initial first speed and a second speed determined by the signal sent by the sensor 7. The first speed is the initial speed before the material enters the variable speed conveying plane 52, and the second speed is an increase or decrease in the first speed. The controller controls the pushing power source to drive the pushing speed of the push plate 6 to adapt to the first speed, and the push plate 6 pushes the material forward at the first speed, so that the speed difference between the material before entering the variable speed conveying plane 52 and the variable speed conveying plane 52 is reduced to or even 0, thereby avoiding the effects of slipping or shifting of the material due to sudden acceleration or deceleration, and further improving the yield rate. After the sensor 7 receives the signal when the material is on the variable speed conveying plane 52, it sends an instruction to the transmission motor 8 through the controller to realize the speed change of the variable speed conveying plane 52 at the second speed. The sensor 7 senses that the material has entered the variable speed conveying plane, and the controller controls the transmission motor 8 to stably drive the material to be sent out at the changed second speed to ensure that the material is arranged at equal intervals on the bottom coil.

[0040] In order to ensure that the push plate 6 is in stable contact with the edge of the material, see Figure 2 When pushing the material, the bottom of the push plate 6 is lower than the static working plane 51. A slot 9 for inserting and moving the push plate 6 is provided on the static working plane 51. In order to achieve the insertion and horizontal movement of the push plate 6, the push plate 6 in this embodiment realizes lifting and horizontal back-and-forth circulation. The push plate 6 moves back and forth on a horizontal slide rail 10 through a translational power source. The horizontal slide rail 10 is fixedly set on the frame 1. The setting of the horizontal slide rail 10 ensures stable pushing of the push plate 6. The horizontal slide rail 10 is lifted and lowered by the lifting power source, and the push plate 6 is inserted into the slot 9 by lifting. The horizontal power source and the lifting power source are preferably servo motors.

[0041] Because the edge of the material is soft, it is easy to bend up under the force. In order to further ensure that the material enters the bottom coil smoothly, see Figure 4 The push plate 6 is equipped with a pressure plate 11, which is used to flatten the upturned edges of the material. Specifically, the pressure plate 11 is fixed to the push plate 6. During the downward movement of the push plate 6, the pressure plate 11 flattens the edges of the material, ensuring that the material contacts the push plate smoothly. The pressure plate 11 can be arranged at an angle, with the front higher and the back lower, along the material conveying direction, or it can be arranged parallel to the stationary support plane.

[0042] The bottom coil material is divided into non-woven fabric or elastic fabric with stickiness. In order to make the wing-type hot compress moxibustion patch composite device adaptable to different bottom coil materials, see Figure 5, a gluing component 13 is arranged on the moving path before the bottom coil material contacts the material, and the gluing component is realized by spraying glue, rolling glue or scraping glue. The gluing component 13 is arranged opposite to the guide roller 14 that pulls the bottom coil material. The bottom coil material passes between the guide roller 14 and the gluing component 13, and the gluing component 13 is connected to the telescopic driving component 15 for transmission. The telescopic driving component 15 is used to drive the gluing component 13 close to the guide roller 14 to gluing the bottom coil material or away from the guide roller 14 to stop working. When targeting non-sticky bottom coil materials such as non-woven fabrics, the telescopic transmission component drives the gluing component 13 close to the guide roller 14, contacts the surface of the bottom coil material and applies glue to the bottom coil material. When targeting sticky elastic fabrics as the bottom coil material, the telescopic transmission component drives the gluing component 13 away from the guide roller 14, does not contact the bottom coil material, and the gluing component 13 is in standby state and does not participate in work, so that the wing-type hot compress and moxibustion patch composite equipment of the present invention can adapt to different types of bottom coil materials. See Figure 6 In this embodiment, the telescopic transmission component includes a moving seat and a cylinder or servo motor that drives the moving seat to move horizontally. A guide rod is provided on the frame 1, and the axis of the guide rod is arranged in the horizontal direction. The moving seat sleeve is arranged on the guide rod, and the rubber component 13 is fixedly set on the moving seat. The cylinder or servo motor drives the moving seat to move horizontally on the guide rod. Of course, the telescopic transmission component can also adopt other existing linear drive structures.

[0043] See also Figure 7 The material conveyor belt 16 is staggered at the infeed end of the material conveyor belt 2. This staggered arrangement is a drop-type stagger. That is, the material conveyor belt 16 is positioned above the material conveyor belt 2, with the infeed end connected below the outfeed end of the material conveyor belt 16. The materials on the material conveyor belt 16 are arranged in a single file and delivered one by one between the push claws 21 of the material conveyor belt 2.

[0044] See also Figure 1 and Figure 8 A stacking bin 17 is provided between the material conveyor belt 16 and the material conveyor belt 2. The stacking bin 17 is used to store the material delivered by the material conveyor belt 16. A lifting and sucking component 18 is provided below the stacking bin to transfer the material from the stacking bin to the material conveyor belt 2. The discharge port of the stacking bin 17 corresponds to the lifting and sucking component 18. Specifically, the lifting and sucking component 18 is provided below the stacking bin 17 and is connected to a material discharge transmission mechanism. The power source of the material discharge transmission mechanism can be a cylinder or a servo motor. The material discharge transmission mechanism drives the lifting and sucking component 18 to move upward to absorb the material at the bottom of the stacking bin 17. The lifting and sucking component 18 then moves downward to deliver the material to between the pushing claws 21 of the material conveyor belt 2, thereby preventing the material delivered by the material conveyor belt 16 from accumulating at the inlet end of the material conveyor belt 2 due to the high conveying speed, thereby ensuring a smooth connection between the two. The lifting and sucking component 18 can adopt a suction cup type suction or a magnetic suction type.

[0045] In order to realize the connection between the inner package molding equipment and the wing-type hot compress moxibustion patch composite equipment, the feeding end of the material conveyor belt 16 is connected with a connecting conveyor belt 19 for conveying materials row by row, and the number of materials in each row is not less than two. The conveying path of the connecting conveyor belt 19 is perpendicular to the conveying path of the material conveyor belt 16, so that the materials sent out row by row by the connecting conveyor belt 19 are sorted in a single row after entering the material conveyor belt 16 (see Figure 7 ), the feeding end of the connecting conveyor belt 19 is connected to the inner package forming equipment to form a complete production line.

[0046] In the description of the present invention, it should be understood that the terms "center", "length", "width", "thickness", "up", "down", "vertical", "horizontal", "top", "bottom", "inside", "outside" and the like indicate orientations or positional relationships based on the orientations 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 element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first" and "second" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Thus, the features defined as "first" and "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, "multiple" means two or more, unless otherwise clearly and specifically defined.

[0047] In short, the above description is only a preferred embodiment of the present invention. All equivalent changes and modifications made according to the scope of the patent application of the present invention should fall within the scope of the present invention patent.

Claims

1. A wing-type hot compress moxibustion patch composite device, comprising a material conveyor belt (2) with a push claw (21) and a rotatable roller knife (3), characterized in that: A material transfer station (5) is connected between the material conveyor belt (2) and the roller cutter (3). The material transfer station (5) is composed of a stationary working plane (51) and a variable speed conveying plane (52) connected in front of the stationary working plane (51). The stationary working plane (51) and the variable speed conveying plane are level. In front of the variable speed conveying plane (52), there is a bottom coil that moves. The stationary working plane (51) is provided with a push plate (6) for pushing the material onto the variable speed conveying plane (52). The variable speed conveying plane (52) conveys the material to the bottom coil by changing the speed to achieve equal spacing. A sensor (7) is provided on the material conveying path to receive the incoming material. After receiving the signal of the incoming material, the sensor (7) sends a command to the transmission motor (8) through the controller to achieve speed change. The transmission motor (8) is connected to the variable speed conveying plane. The bottom coil, the material and the top coil are compounded and enter the roller cutter (3) for slitting.

2. The wing-guard type hot compress moxibustion patch composite device according to claim 1, characterized in that: The push plate (6) is in transmission connection with a material pushing power source, and the material pushing power source is electrically connected to a controller; The sensor (7) is arranged opposite to the speed-changing conveying plane (52); The variable speed conveying plane (52) includes an initial first speed and a second speed determined by a signal sent by a sensor; The controller controls the pushing power source to drive the pushing speed of the push plate (6) to adapt to the first speed. After the sensor (7) receives the signal when the material is on the variable speed conveying plane, it sends a command to the transmission motor through the controller to realize the speed change of the variable speed conveying plane (52) at the second speed.

3. The wing-guard type hot compress moxibustion patch composite device according to claim 1 or 2, characterized in that: The sensor (7) is a photoelectric eye.

4. The wing-guard type hot compress moxibustion patch composite device according to claim 1, characterized in that: When the push plate (6) pushes the material, the bottom of the push plate (6) is lower than the static working plane (51), and a slot (9) for the push plate (6) to be inserted and moved is provided on the static working plane (51).

5. The wing-guard type hot compress moxibustion patch composite device according to any one of claims 1 or 4, characterized in that: The push plate (6) realizes lifting and horizontal back-and-forth circulation. The push plate (6) moves back and forth on the horizontal slide rail (10) through the translational power source. The horizontal slide rail (10) realizes lifting and lowering through the lifting power source.

6. The wing-guard type hot compress moxibustion patch composite device according to claim 5, characterized in that: The push plate (6) is provided with a pressing sheet (11), and the pressing sheet (11) is used to flatten the upturned edge of the material.

7. The wing-guard type hot compress moxibustion patch composite device according to claim 1, characterized in that: A clamping conveyor belt (12) capable of cooperating with the speed-changing conveying plane is provided above the speed-changing conveying plane (52).

8. The wing-guard type hot compress moxibustion patch composite device according to claim 1, characterized in that: A gluing component (13) is arranged on the moving path of the bottom coil before it contacts the material. The gluing component (13) is arranged opposite to the guide roller (14) that pulls the bottom coil. The gluing component (13) is connected to the telescopic driving component (15) in a transmission manner. The telescopic driving component (15) is used to drive the gluing component (13) to approach the guide roller (14) to apply glue to the bottom coil or to move away from the guide roller (14) to stop working.

9. The wing-guard type hot compress moxibustion patch composite device according to claim 1, characterized in that: A material conveyor belt (16) is staggeredly connected to the feed end of the material conveyor belt (2), and the staggering is a drop-type staggering.

10. The wing-protecting hot compress moxibustion patch composite device according to claim 9, characterized in that: A stacking bin (17) is provided between the material conveyor belt (16) and the material conveyor belt (2), and a lifting and sucking component (18) for transferring materials from the stacking bin (17) to the material conveyor belt (2) is provided below the stacking bin.

11. The wing-protecting hot compress moxibustion patch composite device according to claim 10, characterized in that: The feeding end of the material conveyor belt (16) is connected to a connecting conveyor belt (19) for conveying materials row by row, and the conveying path of the connecting conveyor belt (19) is perpendicular to the conveying path of the material conveyor belt (16).

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