Automatic production equipment for boxing of penicillin bottles

Abstract

The invention relates to the technical field of medicine packaging equipment, in particular to penicillin bottle cartoning automatic production equipment which comprises a blanking assembly, a feeding assembly, a discharging assembly and a control assembly. The cooling assembly comprises a cooling plate arranged on the feeding side of the upper mold piece, water cooling pieces arranged at the two ends of the interior of the cooling plate and rotating pieces arranged at the two ends of the top of the cooling plate; the supporting assembly comprises a vertical rod arranged at the top of the cooling plate, a pressing plate arranged on the outer surface of the vertical rod in a sliding mode and a connecting rod arranged between the pressing plate and the blanking part; the water cooling piece comprises fan blades rotationally arranged in the cooling plate; the rotating piece comprises a shaft column arranged at the top of the cooling plate and connected with the fan blades and a threaded sliding groove formed in the outer surface of the shaft column, and the shaft column penetrates through the limiting sliding groove; cooperative control over blanking and cooling is achieved, the material protection and cooling efficiency is improved, and therefore the blanking quality and the equipment operation stability are effectively improved.

Description

Technical Field

[0001] This invention relates to the field of pharmaceutical packaging equipment technology, and in particular to automated production equipment for vials. Background Technology

[0002] Vials, as common containers in pharmaceutical packaging, are widely used for the repackaging of injections, lyophilized preparations, and oral liquids. With the increasing demands for production capacity and cleanliness in pharmaceutical manufacturing, the packaging method for vials is gradually shifting from manual operation to automated cartoning. Currently, most commonly used vial cartoning equipment in the industry is a modification of traditional blister or pallet automatic packaging machines. The basic process includes: heating and shaping sheets to create pallets, then cutting them into individual packaging units through a punching process; placing the vials and instructions into the pallets; and finally, the cartoning machine pushes the materials into the boxes and seals them. While this type of equipment can achieve automated packaging and reduce manual intervention, it still has certain shortcomings.

[0003] In existing equipment, the punching process is usually completed by direct pressing and cutting of the upper and lower dies. Since the vial tray is still at a high temperature after forming, direct punching can easily cause burrs or warping on the edge of the tray, which in turn affects the positioning stability of the bottle in the tray. Summary of the Invention

[0004] In view of the problems in the above or existing technologies, where the vial tray is still at a high temperature after molding, direct punching can easily cause burrs or warping on the edges of the tray, thus affecting the positioning stability of the vial in the tray, this invention is proposed.

[0005] Therefore, the object of this invention is to provide an automated production equipment for vials bottling boxes.

[0006] To solve the above-mentioned technical problems, the present invention provides the following technical solution: An automatic production line for vials bottling boxes includes: a punching assembly, comprising an upper die and a punching component disposed above the upper die; a cooling assembly, comprising a cooling plate disposed on the feeding side of the upper die, water-cooling components disposed at both ends inside the cooling plate, and rotating components disposed at both ends of the top of the cooling plate; and a support assembly, comprising a vertical rod disposed on the top of the cooling plate, a pressure plate slidably disposed on the outer surface of the vertical rod, and a connecting rod disposed between the pressure plate and the punching component. The water-cooled component includes fan blades that are rotatably disposed inside the cooling plate; The rotating component includes a shaft post disposed on the top of the cooling plate and connected to the fan blade, and a threaded groove disposed on the outer surface of the shaft post, the shaft post penetrating the pressure plate.

[0007] As a preferred embodiment of the automatic production equipment for vials of the present invention, wherein: a fixing frame is provided on the outer wall of the feeding side of the upper mold, and an electrostatic brush is provided at the end of the fixing frame.

[0008] In a preferred embodiment of the automatic production equipment for vials of the present invention, a lower mold is provided directly below the upper mold, and a support platform located below the cooling plate is provided on the side wall of the lower mold.

[0009] As a preferred embodiment of the automatic production equipment for vials bottling of the present invention, the fixed frame is provided in two parts and located at both ends of the cooling plate. The end of the cooling plate is provided with a positioning slider. The opposite surfaces of the fixed frame are longitudinally provided with a limiting groove. The positioning slider is located inside the limiting groove and is slidably connected.

[0010] In a preferred embodiment of the automatic production equipment for vials bottling of the present invention, a spring is wound around the outer surface of the upright, one end of the spring is disposed on the top surface of the cooling plate, and the other end of the spring is disposed on the bottom surface of the pressure plate.

[0011] As a preferred embodiment of the automatic production equipment for vials of the present invention, wherein: a sleeve hole is provided in the middle of the pressure plate, the shaft penetrates through the sleeve hole, a guide block is provided on the inner wall of the sleeve hole, and the guide block is located inside the threaded groove and is slidably connected.

[0012] In a preferred embodiment of the automatic production equipment for vials of the present invention, the outer surface of the shaft column is provided with straight grooves at both ends of the threaded groove, and the straight grooves are connected to the threaded groove.

[0013] As a preferred embodiment of the automatic production equipment for vials of the present invention, the cooling plate has a water-cooling cavity on its top surface, the fan blades are rotatably disposed at the bottom of both ends of the water-cooling cavity, the opening of the water-cooling cavity is covered by a cover plate, and the top surface of the cover plate is arrayed with heat dissipation fins.

[0014] As a preferred embodiment of the automatic production equipment for vials of the present invention, wherein: a mounting shaft is provided at the top axis of the cover plate, the mounting shaft penetrates the cover plate and is rotatably connected to each other in a sealed manner, and a connecting sleeve is provided at the bottom end of the shaft column to connect with the end of the mounting shaft.

[0015] As a preferred embodiment of the automatic production equipment for vials of the present invention, wherein: a baffle is provided at the bottom of the water-cooling chamber on the opposite side of the fan blade, there is a gap between the end of the baffle and the inner wall of the water-cooling chamber, partitions are arranged in an array between the baffles, only the partition in the middle is connected to the baffle, and both the baffle and the partition abut against the bottom surface of the cover plate.

[0016] The beneficial effects of the automatic production equipment for vials bottling boxes of the present invention are as follows: The present invention achieves coordinated control of punching and cooling through the cooperation of punching components, cooling components and support components, thereby improving material protection and cooling efficiency, and thus effectively improving punching quality and equipment operation stability. The cooling components are in close contact with the material before and after punching, and the cooling water is circulated by the fan blades to further improve the efficiency of heat transfer and heat dissipation, so that the material maintains a stable temperature during the punching process, ensuring that the punching cut is neat. The cooperation between the support components and the cooling plate makes the cooling process and the punching process dynamically coupled, improving the coordination of the overall mechanical action. Attached Figure Description

[0017] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the following description of the embodiments will be briefly introduced. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the overall structure of an automated production line for bottling bottles.

[0019] Figure 2 This is a schematic diagram of the linkage structure of an automated production line for bottling bottles.

[0020] Figure 3 A schematic diagram of the fixed frame structure for an automated production line for vials.

[0021] Figure 4 This is a schematic diagram of the shaft and column structure of an automated production line for bottle packaging equipment.

[0022] Figure 5 This is a schematic diagram of the cooling plate structure of an automated production line for bottling bottles.

[0023] 1. Upper die; 2. Lower die; 3. Punching part; 4. Fixing frame; 5. Support platform; 6. Connecting rod; 7. Static brush; 8. Cooling plate; 9. Positioning slider; 10. Limiting groove; 11. Shaft column; 12. Connecting sleeve; 13. Threaded groove; 14. Straight groove; 15. Sleeve hole; 16. Guide block; 17. Vertical rod; 18. Spring; 19. Water cooling cavity; 20. Cover plate; 21. Heat sink; 22. Fan blade; 23. Mounting shaft; 24. Baffle; 25. Partition plate; 26. Pressure plate. Detailed Implementation

[0024] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, the specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0025] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and those skilled in the art can make similar extensions without departing from the spirit of the invention. Therefore, the invention is not limited to the specific embodiments disclosed below.

[0026] Secondly, the term "one embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The phrase "in one embodiment" appearing in different places in this specification does not necessarily refer to the same embodiment, nor is it a single or selective embodiment that is mutually exclusive with other embodiments.

[0027] Example 1: Refer to Figures 1 to 5 The first embodiment of the present invention provides an automatic production equipment for vials, which can achieve stable punching and cooling of vial material, improve punching accuracy and reduce the risk of material thermal damage. It includes a punching component, a cooling component and a support component.

[0028] Specifically, the blanking assembly includes an upper die 1 and a blanking part 3 disposed above the upper die 1. A lower die 2 is disposed directly below the upper die 1. A support platform 5 located below the cooling plate 8 is disposed on the side wall of the lower die 2. When the blanking part 3 is pressed down relative to the upper die 1, it not only acts directly on the vial carton material, but also drives the pressure plate 26 to move down synchronously through the connecting rod 6 connected to it.

[0029] The cooling assembly includes a cooling plate 8 disposed on the feeding side of the upper die 1, water-cooling components disposed at both ends inside the cooling plate 8, and rotating components disposed at both ends on the top of the cooling plate 8. When the punching part 3 is pressed down, it causes the cooling plate 8 to descend. The cooling plate 8 will fit tightly against the surface of the material to be punched, thereby achieving rapid heat conduction and diffusion, keeping the material at a stable temperature before punching, and avoiding punching deformation caused by thermal softening.

[0030] The support assembly includes a vertical rod 17 set on the top of the cooling plate 8, a pressure plate 26 slidably set on the outer surface of the vertical rod 17, and a connecting rod 6 set between the pressure plate 26 and the punching part 3. During the cutting process, when the cooling plate 8 is restricted to descend to the support platform 5, the pressure plate 26 continues to move down and compress the spring 18, thereby achieving flexible buffering, avoiding the direct action of rigid force on the material, ensuring that the cooling plate 8 and the material are kept in close contact, but without causing material damage due to excessive force.

[0031] The water-cooled component includes a fan blade 22 that is rotatably disposed inside the cooling plate 8. The cooling water inside the cooling plate 8 flows passively within the water-cooling cavity 19 under the rotation of the fan blade 22, forming a circulating cooling effect. The cooling water flows in an orderly manner in a restricted path, thereby improving heat exchange efficiency and avoiding local overcooling or overheating. This keeps the material to be punched stable before entering the punching station, thus ensuring the accuracy of the punched product.

[0032] The rotating component includes a shaft 11 disposed on the top of the cooling plate 8 and connected to the fan blade 22, and a threaded groove 13 disposed on the outer surface of the shaft 11. The shaft 11 penetrates the limiting groove 10, and the threaded groove 13 realizes the rotation control of the shaft 11, and transmits the rotation power to the fan blade 22, thereby driving the water flow to circulate.

[0033] Furthermore, a fixing frame 4 is provided on the outer wall of the feeding side of the upper mold 1, and an electrostatic brush 7 is provided at the end of the fixing frame 4. The electrostatic brush 7 removes static electricity and dust from the surface of the material to be punched before it enters the punching process. Static electricity and dust may cause bottle contamination or affect subsequent sealing.

[0034] When in use, the punching part 3 presses down relative to the upper die part 1 to punch, and the connecting rod 6 drives the pressure plate 26 to move downward. The pressure plate 26 moves downward through the upright 17 along with the cooling plate 8 until the cooling plate 8 is in contact with the material to be punched. The support table 5 supports the material to be punched and restricts the cooling plate 8 so that it cannot continue to move downward. At this time, the pressure plate 26 continues to be driven to move downward. The pressure plate 26 compresses the spring 18 and moves downward along the upright 17, avoiding the rigid force of the pressure plate 26 acting on the material to be punched, thus buffering and avoiding pressure damage. When the pressure plate 26 moves downward along the upright 17, the guide block 16 inside it moves along the linear slide groove 14 at the upper end of the shaft column 11. The shaft column 11 remains in a fixed state and does not rotate. At this time, the pushing force of the spring 18 keeps the cooling plate 8 in close contact with the material to be punched, which is conducive to heat transfer. The pressure plate 26 continues to move down along the upright 17 until the guide block 16 slides to the threaded groove 13. The guide block 16 drives the shaft column 11 to rotate through the threaded groove 13. The shaft column 11 drives the fan blade 22 to rotate through the connecting sleeve 12 and the mounting shaft 23. The water cooling cavity 19 of the cooling plate 8 is pre-filled with cooling water and is not full. The partition 25 and the baffle 24 divide the water cooling cavity 19 into two channels. The fan blade 22 rotates and drives the cooling water to flow through the channel to the other end. The cooling water carries away heat during the flow, improving the cooling efficiency of the cooling plate 8 for the material to be punched. After the blanking part 3 is blanked, it is lifted and the pressure plate 26 moves upward through the connecting rod 6. Since the elastic force of the spring 18 maintains the push of the cooling plate 8, the pressure plate 26 moves upward along the upright 17, so that the guide block 16 drives the shaft 11 to rotate in the opposite direction through the threaded groove 13, thereby realizing the reverse rotation of the fan blade 22 to push the cooling water to flow. The cooling water cools the cooling plate 8 itself, preparing for the next working cycle. The pressure plate 26 moves to the top of the upright 17, thereby pulling the cooling plate 8 upward. During the blanking completion stage, the cooling plate 8 remains suspended. At this time, the cooling plate 8 and the internal cooling water accelerate heat dissipation through the heat sink 21, which is beneficial to the next working cycle. The suspension of the cooling plate 8 will not cooperate with the support table 5 to clamp the material to be blanked, which is beneficial to the material transfer and facilitates the subsequent blanking of the material. When entering the subsequent blanking process, the above operation is repeated.

[0035] In summary, this embodiment achieves coordinated control of punching and cooling through the cooperation of the punching assembly, cooling assembly, and support assembly. This not only ensures the dimensional accuracy and integrity of the material during the punching process but also effectively avoids quality defects caused by overheating, static electricity, or rigid impact.

[0036] Example 2: Refer to Figures 3 to 5 This is the second embodiment of the present invention. Unlike the previous embodiment, this embodiment provides structural optimization of the support components of the automated production equipment for vials bottling.

[0037] Specifically, there are two fixing frames 4 located at both ends of the cooling plate 8. The ends of the cooling plate 8 are provided with positioning sliders 9. The opposite surfaces of the fixing frames 4 are longitudinally provided with limiting grooves 10. The positioning sliders 9 are located inside the limiting grooves 10 and are slidably connected. The limiting grooves 10 keep the cooling plate 8 balanced during its up and down movement, avoiding possible tilting of the cooling plate 8 during its movement. At the same time, the sliding cooperation of the positioning sliders 9 inside the limiting grooves 10 strictly limits the movement trajectory of the cooling plate 8, enabling it to maintain stable linear movement when subjected to the downward pressure of the punching part 3 and the reverse thrust of the spring 18.

[0038] Furthermore, a spring 18 is wound around the outer surface of the upright 17. One end of the spring 18 is located on the top surface of the cooling plate 8, and the other end of the spring 18 is located on the bottom surface of the pressure plate 26. The spring 18 not only buffers the instantaneous impact, but also provides a reset thrust after the punching is completed. The flexible force transmission method effectively avoids excessive force on the material and improves the safety and adaptability of the equipment.

[0039] Furthermore, a sleeve hole 15 is provided in the middle of the pressure plate 26, and the shaft 11 penetrates through the sleeve hole 15. A guide block 16 is provided on the inner wall of the sleeve hole 15. The guide block 16 is located inside the threaded groove 13 and is slidably connected. When the pressure plate 26 moves down along the upright 17 until the guide block 16 enters the threaded groove 13, the guide block 16 drives the shaft 11 to rotate under the guidance of the threaded path, thereby driving the fan blade 22 to rotate and circulate, realizing the flow of cooling water and heat exchange. In addition, by switching the rotation direction, the material cooling and the self-cooling of the cooling plate 8 are completed in the two stages of punching upward and downward respectively, ensuring that the equipment maintains a stable temperature during high-speed continuous operation.

[0040] Furthermore, the outer surface of the shaft column 11 is provided with straight grooves 14 at both ends of the threaded groove 13. The straight grooves 14 and the threaded groove 13 are interconnected. The cooperation between the straight grooves 14 and the threaded groove 13 enables the shaft column 11 to move in different ways at different stages: in the straight groove 14, the guide block 16 only moves in a straight line and the shaft column 11 remains stationary; in the threaded groove 13, the shaft column 11 is forced to rotate. The motion conversion makes the cooling process and the punching action synchronized.

[0041] The rest of the structure is the same as in Example 1.

[0042] During use, the positioning slider 9, in conjunction with the limiting groove 10 of the fixing frame 4, makes the cooling plate 8 move more smoothly up and down without deviation. During the pressing of the punching part 3, the pressure plate 26 moves down, causing the cooling plate 8 to descend. When the cooling plate 8 is in contact with the material, the spring 18 provides a buffering effect and keeps it in contact, thereby achieving effective cooling. When the guide block 16 enters the threaded groove 13, the shaft column 11 starts to rotate, driving the fan blade 22 to form a water flow circulation, improving cooling efficiency. After the punching is completed, the pressure plate 26 moves up. Under the switching action of the straight groove 14 and the threaded groove 13, the shaft column 11 rotates in the opposite direction, and the fan blade 22 pushes the cooling water to flow in the opposite direction, providing a guarantee for the self-cooling of the cooling plate 8.

[0043] In summary, this embodiment improves cooling efficiency and equipment stability by refining the rotation control direction of the fixed frame 4, pressure plate 26, and shaft column 11, and can maintain close contact and efficient heat exchange between the cooling plate 8 and the material during long-term operation.

[0044] Example 3: Reference Figures 4 to 5 This is the third embodiment of the present invention. Unlike the previous embodiment, this embodiment provides structural optimization of the cooling component of the automated production equipment for vials bottling.

[0045] Specifically, a water-cooling cavity 19 is provided on the top surface of the cooling plate 8. Fan blades 22 are rotatably disposed at the bottom of both ends of the water-cooling cavity 19. A cover plate 20 is provided to cover the opening of the water-cooling cavity 19. A heat sink 21 is arranged in an array on the top surface of the cover plate 20. Through the combination of the water-cooling cavity 19 and the heat sink 21, the cooling plate 8 can form a dynamic water flow inside to remove heat, and can also release the accumulated heat into the air quickly outside through the heat sink 21, achieving a dual heat dissipation effect. The array of heat sink 21 arranged on the top surface of the cover plate 20 can significantly expand the contact area with the air and form a convection channel, thereby improving the heat exchange efficiency. This allows the cooling plate 8 to maintain a stable temperature even under high-frequency stamping conditions, avoiding performance degradation caused by heat accumulation.

[0046] Furthermore, a mounting shaft 23 is provided at the top axis of the cover plate 20. The mounting shaft 23 penetrates the cover plate 20 and is rotatably connected to each other in a sealed manner. A connecting sleeve 12 is provided at the bottom end of the shaft column 11 and is connected to the end of the mounting shaft 23. This ensures that the rotational power of the shaft column 11 can be reliably transmitted to the fan blade 22. At the same time, the sealed rotatable connection prevents cooling water leakage and improves transmission efficiency.

[0047] Furthermore, a baffle 24 is provided at the bottom of the water-cooling cavity 19 on the opposite side of the fan blade 22. There is a gap between the end of the baffle 24 and the inner wall of the water-cooling cavity 19. Baffles 25 are arranged in an array between the baffles 24. Only the middle baffle 25 is connected to the baffle 24. Both the baffle 24 and the baffle 25 abut against the bottom surface of the cover plate 20. The baffle 25 and the baffle 24 form an orderly water flow channel, ensuring that the cooling water will not generate ineffective eddies or short-circuit flow inside the cavity. When the fan blade 22 rotates, the cooling water flows along the channel formed by the baffle 24 and the baffle 25, which can evenly remove the heat from different areas of the cooling plate 8 and achieve comprehensive cooling. In particular, the setting of the middle baffle 25 not only ensures the connectivity between the channels, but also avoids water flow chaos, improves heat exchange efficiency and the uniformity of temperature distribution of the cooling plate 8.

[0048] The rest of the structure is the same as in Example 2.

[0049] During use, when the punching part 3 is pressed down, it causes the cooling plate 8 to descend and come into contact with the material. The cooling water inside the water-cooled cavity 19 is driven to flow by the fan blades 22. Due to the presence of the baffles 24 and partitions 25, the water flow is forced to flow along the set channel, effectively removing the heat from the surface of the material. At the same time, the heat sink 21 on the top surface of the cover plate 20 exchanges heat with the ambient air through natural convection, allowing the excess heat inside the cooling plate 8 to be released quickly. After the punching is completed, the pressure plate 26 moves up, the shaft 11 rotates in the opposite direction, and the fan blades 22 drive the cooling water to flow in the opposite direction, thereby cooling the cooling plate 8 itself. The cooling plate 8 continues to dissipate heat from the air by relying on the heat sinks 21 in the suspended state, further accelerating the cooling speed and preparing for the next punching.

[0050] In summary, by designing a water-cooling cavity 19, heat sink 21, baffle 24 and partition 25 in the cooling plate 8, this embodiment enables the cooling plate 8 to have the dual capabilities of internal circulating cooling and external air heat dissipation, which greatly improves heat dissipation efficiency and temperature control accuracy.

[0051] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. An automatic production equipment for vials and bottling boxes, characterized in that, include: The blanking assembly includes an upper die (1) and a blanking part (3) disposed above the upper die (1). The cooling assembly includes a cooling plate (8) disposed on the feeding side of the upper mold (1), water-cooling components disposed at both ends inside the cooling plate (8), and rotating components disposed at both ends of the top of the cooling plate (8); The support assembly includes a vertical rod (17) disposed on the top of the cooling plate (8), a pressure plate (26) slidably disposed on the outer surface of the vertical rod (17), and a connecting rod (6) disposed between the pressure plate (26) and the punched part (3). The water-cooled component includes fan blades (22) that are rotatably disposed inside the cooling plate (8); The rotating component includes a shaft (11) disposed on the top of the cooling plate (8) and connected to the fan blade (22) and a threaded groove (13) disposed on the outer surface of the shaft (11), the shaft (11) penetrating the pressure plate (26).

2. The automatic production equipment for vials and carton as described in claim 1, characterized in that: The upper mold (1) has a fixing frame (4) on the outer wall of the feeding side, and an electrostatic brush (7) is provided at the end of the fixing frame (4).

3. The automatic production equipment for vials bottling as described in claim 2, characterized in that: A lower mold (2) is provided directly below the upper mold (1), and a support platform (5) located below the cooling plate (8) is provided on the side wall of the lower mold (2).

4. The automatic production equipment for vials bottling as described in claim 3, characterized in that: The fixing frame (4) has two parts and is located at both ends of the cooling plate (8). The end of the cooling plate (8) is provided with a positioning slider (9). The opposite surface of the fixing frame (4) is longitudinally provided with a limiting groove (10). The positioning slider (9) is located inside the limiting groove (10) and is slidably connected.

5. The automatic production equipment for vials bottling as described in claim 4, characterized in that: A spring (18) is wound around the outer surface of the upright (17). One end of the spring (18) is located on the top surface of the cooling plate (8), and the other end of the spring (18) is located on the bottom surface of the pressure plate (26).

6. The automatic production equipment for vials bottling as described in claim 5, characterized in that: The pressure plate (26) has a sleeve hole (15) in the middle, the shaft (11) penetrates the sleeve hole (15), and the inner wall of the sleeve hole (15) is provided with a guide block (16). The guide block (16) is located inside the threaded groove (13) and is slidably connected.

7. The automatic production equipment for vials bottling as described in claim 6, characterized in that: The outer surface of the shaft (11) is provided with straight grooves (14) at both ends of the threaded groove (13), and the straight grooves (14) are connected to the threaded groove (13).

8. The automatic production equipment for vials bottling as described in claim 7, characterized in that: The top surface of the cooling plate (8) is provided with a water cooling cavity (19), the fan blades (22) are rotatably disposed at the bottom of both ends of the water cooling cavity (19), the opening of the water cooling cavity (19) is covered by a cover plate (20), and the top surface of the cover plate (20) is provided with heat sinks (21).

9. The automatic production equipment for vials and carton as described in claim 8, characterized in that: The top axis of the cover plate (20) is provided with an installation shaft (23), which penetrates the cover plate (20) and is rotatably connected to each other in a sealed manner. The bottom end of the shaft column (11) is provided with a connecting sleeve (12) that is connected to the end of the installation shaft (23).

10. The automatic production equipment for vials bottling as described in claim 9, characterized in that: The bottom of the water-cooled cavity (19) is provided with a baffle (24) on the opposite side of the fan blade (22). There is a gap between the end of the baffle (24) and the inner wall of the water-cooled cavity (19). A partition (25) is arranged in an array between the baffles (24). Only the partition (25) in the middle is connected to the baffle (24). Both the baffle (24) and the partition (25) abut against the bottom surface of the cover plate (20).

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