Integrated assembly platform for iodine solution protective cap

Abstract

The utility model relates to the technical field of medical supply processing, in particular to an integrated assembly platform for an iodine solution protective cap. The device comprises a rotating platform, wherein a cap body adding mechanism, an iodine liquid filling mechanism, a sponge block adding mechanism and an assembly body discharging mechanism are sequentially arranged on the periphery of the rotating platform; the assembly discharging mechanism comprises a manipulator III and a transfer box; the transfer box conveys the assembled iodine solution protective caps to the falling slide way, and the falling slide way comprises a plurality of slide ways and blowing mechanisms arranged at the bottoms of the slide ways; a bottom shell stamping channel is arranged at the bottom of the falling slide way, and the falling slide way and the bottom shell stamping channel are converged and then enter the boxing assembly line through the pressing and cutting device. The iodine solution protection cap production line is compact in layout, all the mechanisms are orderly arranged around the rotating platform, space is fully utilized, the whole production line is small in occupied area and suitable for being arranged in a limited production environment, and the production speed and yield of iodine solution protection caps are remarkably improved.

Description

Technical Field

[0001] The utility model relates to the technical field of medical product processing, in particular to an integrated assembly platform for an iodine liquid protective cap. Background Art

[0002] In the precision production chain of medical supplies, iodine liquid protective caps are indispensable protective consumables. The excellence and efficiency of their production directly reflect the effectiveness and quality of medical services. However, traditional manual or semi-automated production models have long been limited by the volatility of manual operation and the limitations of mechanical efficiency, often resulting in low production efficiency and difficulty in stably controlling product quality, becoming a bottleneck restricting the development of the industry. To address this problem, innovators in this field have been tireless in their exploration and have made a series of significant progress. For example, the authorized Chinese patent CN213351480U is an innovative achievement aimed at improving the precision and automation level of iodine liquid protective cap production. By introducing a solenoid valve to precisely control the movement of the cylinder, this patent not only significantly improves the accuracy and fill rate of iodine liquid filling, but also fully automates the feeding process, effectively reducing labor costs. Despite this, while promoting industry progress, this solution also exposes the drawbacks of a large footprint and a less compact overall structure. More importantly, it does not yet cover the full automation process of iodine liquid protective cap production, and still requires manual intervention in certain links, thus limiting further improvements in production efficiency. Utility Model Content

[0003] The technical problem to be solved by the utility model is to overcome the deficiencies of the prior art and provide an integrated assembly platform for an iodine liquid protective cap.

[0004] The technical solutions adopted in this utility model are as follows:

[0005] An integrated assembly platform for iodine liquid protective caps comprises a rotating platform, with a cap body adding mechanism, an iodine liquid filling mechanism, a sponge block adding mechanism, and an assembly body unloading mechanism sequentially arranged around the rotating platform; the cap body adding mechanism comprises a vibrating screen I and a manipulator I, the iodine liquid filling mechanism comprises an iodine liquid bottle and a titration mechanism, the sponge block adding mechanism comprises a vibrating screen II and a manipulator II, and the assembly body unloading mechanism comprises a manipulator III and a transfer box; the transfer box delivers the assembled iodine liquid protective caps to a drop chute, which comprises a plurality of chute sections and an air blowing mechanism arranged at the bottom of the chute; a bottom shell punching channel is provided at the bottom of the drop chute, which comprises aluminum foil and a punching mechanism; after the drop chute merges with the bottom shell punching channel, the bottom shell punching channel enters a boxing line via a pressing and cutting device; the pressing and cutting device comprises a cap body, a pressing mechanism, and a cutting mechanism; and the boxing line comprises a temporary storage bin, a loading elevator, a packaging box loading machine, a packaging box sealing machine, and a marking machine.

[0006] This technical solution provides a full range of automated processes from cap loading to final packaging, achieving efficient and high-quality production of iodine liquid protective caps. Specifically, the process starts with the cap body adding mechanism, which accurately places the cap bodies one by one at the designated positions on the rotating platform; the rotating platform serves as the core hub, carrying and guiding the cap bodies through key processes such as iodine liquid filling and sponge block addition in sequence, ensuring seamless connection of each step; the iodine liquid filling mechanism and the sponge block adding mechanism are respectively arranged on both sides of the rotating platform. When the cap body rotates to the corresponding position, the precise injection of iodine liquid and the accurate embedding of sponge blocks are quickly completed to form an assembly; then, the assembly unloading mechanism responds quickly and safely transfers the finished assembly to the transfer box, ready to enter the next stage; the assembly slides smoothly to the bottom shell stamping channel through the drop slide. At the same time, the stamping mechanism works synchronously to process the aluminum foil into The bowl-shaped bottom shell; the pressing and cutting device is then activated, ensuring the independence and integrity of each plastic-sealed product through the cutting process; the temporary storage warehouse serves as a buffer zone, storing the plastic-sealed products in an orderly manner, awaiting further processing, and the loading elevator efficiently lifts these products to an appropriate height to facilitate subsequent batch packaging operations; the packaging box loader intelligently feeds the packaging box into the production line and automatically opens it, providing a safe place for the plastic-sealed products; then, the packaging box sealing machine quickly completes the folding and tape sealing of the box lid to ensure the sealing and safety of the product; the marking machine, as the finishing link of the production line, accurately prints key information such as the production date and batch number on the packaging box, realizing product traceability and standardized management. The entire structure of this utility model is compact and the operation is smooth, which not only significantly improves the production efficiency of iodine liquid protective caps.

[0007] In addition, the integrated assembly platform of the iodine liquid protective cap proposed in the present invention also has the following additional technical features:

[0008] According to one embodiment of the present utility model, the cap body adding mechanism sends the cap body to the rotating platform, the iodine liquid filling mechanism fills the cap body on the rotating platform with iodine liquid, the sponge block adding mechanism inserts the sponge block into the cap body mouth to form an assembly, and the assembly unloading mechanism removes the assembly of the iodine liquid protective cap and places it into the transfer box.

[0009] In this technical solution, under the screening action of the vibrating screen I, the cap bodies will eventually gather at the bottom of the screen surface, and the orientation of the cap bodies will be consistent; the robot I accurately identifies and grasps the cap bodies, and transfers the cap bodies to the tooling of the rotating platform; while placing the cap body on the tooling, the robot I releases the negative pressure on the gripper, allowing the cap body to be placed stably on the tooling; the cap body is placed upward, with one end of the cavity facing upward, for iodine solution filling and sponge insertion. The titration mechanism has a built-in drive pump, which generates pressure or suction to extract iodine solution from the iodine solution bottle and prepare for filling; the infrared sensor can emit and receive infrared light, and determines whether there is a cap body on the rotating platform tooling by detecting the reflection or transmission of infrared light; if there is a cap body on the rotating platform tooling and iodine solution needs to be added, the drive pump is controlled to operate; otherwise, the tooling position without a cap body will not be titrated to prevent iodine solution from directly falling on the tooling and causing contamination of the tooling. Typically, if four caps are placed on a set of tooling, four infrared sensors are also set up, with each infrared sensor detecting one cap. Under the screening action of Vibrating Screen II, the sponge blocks will eventually gather at the bottom of the screen surface. Robot II will identify and locate the sponge blocks at the bottom of Vibrating Screen II. When Robot II moves to the bottom of Vibrating Screen II and positions itself above the sponge blocks, the gripper will activate and drive the gripper, firmly grasping the sponge blocks. Robot II will transfer the sponge blocks to the mouth of the cap. Robot II will adjust the angle and position to ensure that the sponge blocks completely cover the mouth of the cap, thereby preventing the leakage of iodine liquid. Once the sponge blocks are accurately inserted into the mouth of the cap, they can effectively absorb and fix the iodine liquid, maintaining a stable seal even under external forces, thereby preventing the leakage of iodine liquid. When Manipulator III moves above the assembly, the gripper will start and drive the gripper to grab the assembly as a whole from the tooling on the rotating platform. The transfer box is a container for temporarily storing the assembly, usually located on one side of Manipulator III, making it convenient for Manipulator III to place the assembly into it.

[0010] According to one embodiment of the present invention, the assembly in the transfer box slides down the falling slide, and the bottom shell stamping channel simultaneously sends the bottom shell into the assembly channel at the bottom of the falling slide. After the assembly falls into the bottom shell, it is sent to the pressing and cutting device through the combination channel for pressing to form a plastic-sealed product.

[0011] This technical solution utilizes an inclined slide design to achieve the natural descent and continuous conveying of materials. An air blowing mechanism provides auxiliary positioning and thrust, ensuring the assembly falls accurately into the bottom shell, thus achieving efficient and accurate material transfer. The air blowing mechanism generates airflow to assist in the positioning and dropping of the assembly, improving operational accuracy. It also removes impurities from the bottom of the slide, ensuring a clean bottom shell and enhancing product quality. A stamping mechanism forms aluminum foil, which is automatically fed through a feeding system. The formed bottom shell and assembly are then assembled, and a pressing and cutting device performs final fixation and cutting. Specifically, the aluminum foil is fed into the stamping mechanism via a guide wheel. The punched bowl-shaped bottom shell enters the assembly process, where the individual assemblies are assembled into a single bottom shell. The assembled bottom shell and lid are then fed into the pressing and cutting device, which presses the bottom shell and lid together to ensure a tight connection. The cutting device trims excess aluminum foil or performs edge trimming as needed to enhance the product's appearance. The cover is a single sheet of aluminum-plastic composite film, covering the bottom shell. The pressing mechanism is responsible for tightly pressing the cover onto the bottom shell, thus sealing the assembly into the plastic-encapsulated product. During this process, the plastic-encapsulated product can be marked as needed. The encapsulated plastic-encapsulated product is then cut into individual pieces by the cutting mechanism, which accurately identifies the boundaries of each plastic-encapsulated product and cuts it at the correct location.

[0012] According to one embodiment of the present invention, the temporary storage warehouse transports the produced plastic-sealed products in groups via a loading elevator; the packaging box loader opens the packaging box, and the groups of plastic-sealed products fall into the packaging box and are then folded and sealed by a packaging box sealing machine, and marked by a marking machine.

[0013] In this technical solution, the packaging box sealing machine includes a guide rib, a downward-pressing rotary folding machine and a rolling brush. The lid of the packaging box is guided by the guide rib, sent into the downward-pressing rotary folding machine to fold the lid and seal it with tape, and the rolling brush presses the top and sides of the packaging box. The main function of the guide sidewall is to ensure that the box lid enters the sealing machine according to the predetermined path and posture. The downward-pressing rotary folding machine is responsible for folding the box lid according to the preset creases so that it is tightly combined with the box body; the downward-pressing rotary folding machine includes adjustable folding plates and downward-pressing mechanisms to adapt to boxes of different sizes and types; during the folding process, the folding plates will rotate according to the preset trajectory, and the downward-pressing mechanism will apply appropriate pressure to the box lid to fold it according to the creases; after the box lid is folded, the sealing machine will automatically or manually apply tape to the joint between the box lid and the box body to achieve the purpose of sealing; the main function of the rolling brush is to press the top and sides of the box to ensure that the box lid is tightly combined with the box body without gaps or protrusions; the rolling brush is made of soft sponge material, which can avoid damage to the box during the pressing process to ensure that the tape can fit tightly at the joint between the box lid and the box body, enhancing the sealing and stability of the seal.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] (1) The integrated assembly platform has a compact layout, and the various mechanisms are arranged in an orderly manner around the rotating platform, making full use of the space. This makes the entire production line occupy a small area and is suitable for installation in a limited production environment;

[0016] (2) The integrated assembly platform can carry out production operations continuously, and tasks such as transportation, filling, and assembly in the production process can be completed automatically, reducing the labor intensity of workers and significantly improving the production speed and output of iodine solution protective caps. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a structural diagram of the present utility model.

[0018] In the figure: 11. Vibrating screen I; 12. Robot I; 13. Iodine solution bottle; 14. Titration mechanism; 15. Vibrating screen II; 16. Robot II; 17. Rotating platform; 18. Robot III; 19. Transfer box; 21. Drop slide; 22. Bottom shell punching channel; 23. Combination channel; 24. Pressing and cutting device; 31. Temporary storage bin; 32. Loading elevator; 41. Packing box loader; 42. Packing box sealing machine; 43. Marking machine. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0020] Example 1

[0021] like Figure 1 As shown, this embodiment provides an integrated assembly platform for an iodine liquid protective cap, including a rotating platform 17. A cap body adding mechanism, an iodine liquid filling mechanism, a sponge block adding mechanism, and an assembly unloading mechanism are sequentially arranged around the rotating platform 17; the cap body adding mechanism includes a vibrating screen I 11 and a manipulator I 12, the iodine liquid filling mechanism includes an iodine liquid bottle 13 and a titration mechanism 14, the sponge block adding mechanism includes a vibrating screen II 15 and a manipulator II 16, and the assembly unloading mechanism includes a manipulator III 18 and a transfer box 19; the transfer box 19 will assemble the iodine liquid protective cap. It is sent to the falling chute 21, which includes several chutes and a blowing mechanism arranged at the bottom of the chute; a bottom shell stamping channel 22 is provided at the bottom of the falling chute 21, and the bottom shell stamping channel 22 includes aluminum foil and a stamping mechanism; after the falling chute 21 merges with the bottom shell stamping channel 22, it enters the packing line through the pressing and cutting device 24; the pressing and cutting device 24 includes a cover body, a pressing mechanism and a cutting mechanism, and the packing line includes a temporary storage bin 31, a loading elevator 32, a packaging box loader 41, a packaging box sealing machine 42 and a marking machine 43.

[0022] This technical solution provides a full range of automated processes from cap loading to final packaging, achieving efficient and high-quality iodine liquid protective cap production. Specifically, the process starts with the cap body adding mechanism, which accurately places the cap bodies one by one at the designated positions of the rotating platform 17; the rotating platform 17 serves as the core hub, carrying and guiding the cap body through key processes such as iodine liquid filling and sponge block addition in sequence, ensuring seamless connection of each step; the iodine liquid filling mechanism and the sponge block adding mechanism are respectively arranged on both sides of the rotating platform 17. When the cap body rotates to the corresponding position, the precise injection of iodine liquid and the accurate embedding of sponge blocks are quickly completed to form an assembly; then, the assembly unloading mechanism responds quickly and safely transfers the finished assembly to the transfer box 19, ready to enter the next stage; the assembly slides smoothly through the drop slide 21 to the bottom shell stamping channel 22. At the same time, the stamping mechanism works synchronously to process the aluminum foil into Bowl-shaped bottom shell; the pressing and cutting device 24 is immediately started, and the independence and integrity of each plastic-sealed product are ensured through the cutting process; the temporary storage warehouse 31 serves as a buffer zone, storing the plastic-sealed products in an orderly manner, waiting for further processing, and the loading elevator 32 efficiently lifts these products to a suitable height to facilitate subsequent batch packaging operations; the packaging box loader 41 intelligently feeds the packaging box into the production line and automatically opens it to provide a safe place for the plastic-sealed products; then, the packaging box sealing machine 42 quickly completes the folding and tape sealing of the box cover to ensure the sealing and safety of the product; the marking machine 43, as the finishing link of the production line, accurately prints key information such as the production date and batch number on the packaging box to achieve product traceability and standardized management. The entire structure of the utility model is compact and the operation is smooth, which not only significantly improves the production efficiency of the iodine liquid protective cap.

[0023] In addition, the integrated assembly platform of the iodine liquid protective cap proposed in the present invention also has the following additional technical features:

[0024] According to one embodiment of the present utility model, the cap body adding mechanism sends the cap body to the rotating platform 17, the iodine liquid filling mechanism fills the cap body on the rotating platform 17 with iodine liquid, the sponge block adding mechanism inserts the sponge block into the mouth of the cap body to form an assembly, and the assembly unloading mechanism removes the assembly of the iodine liquid protective cap and places it into the transfer box 19.

[0025] In this technical solution, under the screening action of the vibrating screen I 11, the caps eventually gather at the bottom of the screen surface, and the caps are all oriented in the same direction. Manipulator I 12 accurately identifies and grasps the caps, transferring them to the fixture on the rotating platform 17. While placing the caps on the fixture, manipulator I 12 releases the negative pressure on the gripper, allowing the caps to rest smoothly on the fixture. The caps are placed upward, with one end of the cavity facing upward, for iodine solution filling and sponge insertion. The titration mechanism 14 has a built-in drive pump that generates pressure or suction to extract iodine solution from the iodine solution bottle 13 and prepare for filling. An infrared sensor can emit and receive infrared light, detecting the reflection or transmission of infrared light to determine whether a cap is present on the fixture on the rotating platform 17. If a cap is present on the fixture on the rotating platform 17 and iodine solution needs to be added, the drive pump is activated. Otherwise, the fixture position without a cap is not titrated to prevent iodine solution from directly falling on the fixture and contaminating it. Typically, if four caps are placed on a set of tooling, four infrared sensors are also set up, with each infrared sensor detecting one cap. Under the screening action of the vibrating screen II 15, the sponge blocks will eventually gather at the bottom of the screen surface. Robot II 16 will identify and locate the sponge blocks at the bottom of the vibrating screen II 15. When the robot II 16 moves to the bottom of the vibrating screen II 15 and positions itself above the sponge blocks, the gripper will activate and drive the gripper, firmly grasping the sponge blocks on the gripper. Robot II 16 will transfer the sponge blocks to the mouth of the cap. Robot II 16 will adjust the angle and position to ensure that the sponge blocks can completely cover the mouth of the cap, thereby preventing the leakage of the iodine liquid. Once the sponge blocks are accurately inserted into the mouth of the cap, they can effectively absorb and fix the iodine liquid, maintaining a stable sealing state even under external forces, thereby preventing the leakage of the iodine liquid. When the robot III 18 moves above the assembly, the gripper will start and drive the gripper to grab the assembly as a whole from the tooling on the rotating platform 17. The transfer box 19 is a container for temporarily storing the assembly, usually located on one side of the robot III 18, to facilitate the robot III 18 to place the assembly into it.

[0026] According to one embodiment of the present invention, the assembly in the transfer box 19 slides down the falling slide 21, and the bottom shell stamping channel 22 simultaneously sends the bottom shell into the assembly channel at the bottom of the falling slide 21. After the assembly falls into the bottom shell, it is sent to the pressing and cutting device 24 through the combination channel 23 for pressing to form a plastic-sealed product.

[0027] This technical solution achieves the natural descent and continuous conveying of materials through an inclined slide design. An air blowing mechanism provides auxiliary positioning and thrust, ensuring the assembly falls accurately into the bottom shell, thus achieving efficient and accurate material transfer. The air blowing mechanism generates airflow to assist in the positioning and dropping of the assembly, improving operational accuracy. It also removes impurities from the bottom of the slide, ensuring a clean bottom shell and enhancing product quality. A stamping mechanism forms the aluminum foil, which is automatically fed through a feeding system. The formed bottom shell is then assembled with the assembly, and the final fixation and trimming are performed by a pressing and cutting device 24. Specifically, the aluminum foil is fed into the stamping mechanism via a guide wheel. The punched bowl-shaped bottom shell enters the assembly process, where the individual assemblies are assembled into a single bottom shell. The assembled bottom shell and lid are then fed into the pressing and cutting device 24, which presses the bottom shell and lid together to ensure a tight connection. The cutting device trims excess aluminum foil or performs edge trimming as needed to enhance the product's appearance. The cover is a single sheet of aluminum-plastic composite film, covering the bottom shell. The pressing mechanism is responsible for tightly pressing the cover onto the bottom shell, thus sealing the assembly into the plastic-encapsulated product. During this process, the plastic-encapsulated product can be marked as needed. The encapsulated plastic-encapsulated product is then cut into individual pieces by the cutting mechanism, which accurately identifies the boundaries of each plastic-encapsulated product and cuts it at the correct location.

[0028] According to one embodiment of the present invention, the temporary storage warehouse 31 transports the produced plastic-sealed products in groups via a loading elevator 32; the packaging box loader 41 opens the packaging box, and the groups of plastic-sealed products fall into the packaging box and are then folded and sealed by a packaging box sealing machine 42, and marked by a marking machine 43.

[0029] In this technical solution, the packaging box sealing machine 42 includes a guide rib, a downward-pressing rotary folding machine and a rolling brush. The lid of the packaging box is guided by the guide rib, sent into the downward-pressing rotary folding machine to fold the lid and seal it with tape, and the rolling brush presses the top and sides of the packaging box. The main function of the guide sidewall is to ensure that the box lid enters the sealing machine according to the predetermined path and posture. The downward-pressing rotary folding machine is responsible for folding the box lid according to the preset creases so that it is tightly combined with the box body; the downward-pressing rotary folding machine includes adjustable folding plates and downward-pressing mechanisms to adapt to boxes of different sizes and types; during the folding process, the folding plates will rotate according to the preset trajectory, and the downward-pressing mechanism will apply appropriate pressure to the box lid to fold it according to the creases; after the box lid is folded, the sealing machine will automatically or manually apply tape to the joint between the box lid and the box body to achieve the purpose of sealing; the main function of the rolling brush is to press the top and sides of the box to ensure that the box lid is tightly combined with the box body without gaps or protrusions; the rolling brush is made of soft sponge material, which can avoid damage to the box during the pressing process to ensure that the tape can fit tightly at the joint between the box lid and the box body, enhancing the sealing and stability of the seal.

[0030] The use process of this utility model is:

[0031] like Figure 1As shown, first, the cap body adding mechanism accurately screens and orients the cap bodies through the vibrating screen Ⅰ11, and the manipulator Ⅰ12 accurately grabs the cap bodies and places them on the tooling of the rotating platform 17 to prepare for subsequent processes; as the rotating platform 17 rotates, the cap bodies pass through the iodine solution filling and sponge block adding mechanisms in sequence; in the iodine solution filling stage, the titration mechanism 14, under the precise guidance of the infrared sensor, only fills the position where the cap body exists with iodine solution, effectively avoiding waste and pollution; then, the manipulator Ⅱ16 in the sponge block adding mechanism accurately grabs the sponge block, adjusts it to the optimal position, and then inserts it into the mouth of the cap body to form a preliminary assembly; after completing the above processes, the assembly unloading mechanism responds quickly, and the manipulator Ⅲ18 safely transfers the assembly to the transfer box 19 to wait for further processing; the assembly in the transfer box 19 then slides naturally through the drop slide 21. During this process, the blowing mechanism ensures that the assembly is accurately positioned and accelerates its fall. At the same time, the bottom shell stamping channel 22 processes the aluminum foil into a bowl-shaped bottom shell, and the two are precisely combined at the bottom of the drop slide 21. After entering the pressing and cutting device 24, the lid and bottom shell are pressed and sealed together, and the excess material is cut off, forming an independent and complete plastic-sealed product. The plastic-sealed product is sent to the temporary storage bin 31 for temporary storage, and then the loading elevator 32 is lifted to a suitable height for batch packaging. The packaging box loader 41 intelligently delivers the box and automatically opens it. The packaging box sealing machine 42 quickly completes the box lid folding and tape sealing. Finally, the marking machine 43 prints the key information. The entire process is compactly arranged, and the various mechanisms are arranged in an orderly manner around the rotating platform 17, making full use of space, so that the entire production line occupies a small area and is suitable for installation in a limited production environment.

[0032] Although the present invention has been described in detail with reference to the accompanying drawings and in conjunction with preferred embodiments, the present invention is not limited thereto. Without departing from the spirit and essence of the present invention, a person of ordinary skill in the art may make various equivalent modifications or substitutions to the embodiments of the present invention, and such modifications or substitutions shall fall within the scope of the present invention. Any changes or substitutions that can be easily conceived by a person of ordinary skill in the art within the technical scope disclosed in the present invention shall fall within the scope of protection of the present invention. Therefore, the scope of protection of the present invention shall be based on the scope of protection of the claims.

Claims

1. An integrated assembly platform for an iodine solution protective cap, characterized in that: The invention comprises a rotating platform (17), wherein a cap adding mechanism, an iodine solution adding mechanism, a sponge block adding mechanism, and an assembly unloading mechanism are sequentially arranged around the rotating platform (17); the cap adding mechanism comprises a vibrating screen I (11) and a manipulator I (12); the iodine solution adding mechanism comprises an iodine solution bottle (13) and a titration mechanism (14); the sponge block adding mechanism comprises a vibrating screen II (15) and a manipulator II (16); and the assembly unloading mechanism comprises a manipulator III (18) and a transfer box (19); the transfer box (19) delivers the assembled iodine solution protective cap to a drop slide (21), and drops The slideway (21) includes a plurality of slideways and an air blowing mechanism arranged at the bottom of the slideway; a bottom shell punching channel (22) is arranged at the bottom of the falling slideway (21), and the bottom shell punching channel (22) includes aluminum foil and a punching mechanism; after the falling slideway (21) merges with the bottom shell punching channel, the bottom shell enters the box assembly line through a pressing and cutting device (24); the pressing and cutting device (24) includes a cover body, a pressing mechanism and a cutting mechanism, and the box assembly line includes a temporary storage bin (31), a loading elevator (32), a packaging box loading machine (41), a packaging box sealing machine (42) and a marking machine (43).

2. The integrated assembly platform of the iodine solution protective cap according to claim 1, wherein: The cap body adding mechanism sends the cap body onto the rotating platform (17); the iodine liquid filling mechanism fills the cap body on the rotating platform (17) with iodine liquid; the sponge block adding mechanism inserts the sponge block into the cap body mouth to form an assembly; and the assembly body unloading mechanism removes the assembly of the iodine liquid protection cap and places it into a transport box (19).

3. The integrated assembly platform of the iodine solution protective cap according to claim 1, wherein: The assembly in the transfer box (19) slides down the falling slide (21), and the bottom shell punching channel (22) simultaneously sends the bottom shell into the assembly channel at the bottom of the falling slide (21). After the assembly falls into the bottom shell, it is sent to the pressing and cutting device (24) through the combination channel (23) for pressing to form a plastic-sealed product.

4. The integrated assembly platform of the iodine solution protective cap according to claim 1, wherein: The temporary storage warehouse (31) transports the produced plastic-sealed products in groups via a feeding elevator (32); a packaging box feeding machine (41) opens the packaging box, and the plastic-sealed products in groups fall into the packaging box, are folded and sealed by a packaging box sealing machine (42), and are marked by a marking machine (43).

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