Finished wet wipe roll conveying mechanism for wet wipe production

Abstract

The utility model discloses a finished product wet tissue roll conveying mechanism for wet tissue production, including conveyer, the upper side of conveyer both ends is equipped with guardrail, still include equidistance humidification mechanism, equidistance humidification mechanism: it includes top shell, pivot no.

Description

Technical Field

[0001] This utility model relates to the field of wet wipe production technology, specifically to a finished wet wipe roll conveying mechanism for wet wipe production. Background Technology

[0002] Wet wipe rolls are used for hand wiping, cleaning, and other purposes, and are mainly used in public places such as hotels, KTVs, and beauty salons. As a supporting product for wet wipe machines, they provide convenient wet wipe services. During the production process, the finished wet wipe rolls are transported by a conveyor device. In the prior art, patent CN 209988613 U discloses a finished wet wipe roll conveying mechanism for wet wipe production, including a conveyor belt, a storage box at the upper left end of the conveyor belt, through holes on the surface of the conveyor belt, a hydraulic rod at the lower end of the storage box, a baffle rotatably mounted at the upper end of the storage box, a sliding plate obliquely mounted between the lower end of the storage box and the upper end of the conveyor belt, a water tank at the lower side of the conveyor belt, and a laser device at the right side of the conveyor belt. This utility model has a novel design, simple structure, and is easy to use. The speed of the conveyor belt can be adjusted by controlling the speed of the first motor. The laser device located at the end of the conveyor belt emits an infrared laser. When it senses an unpackaged wet wipe at the end of the conveyor belt, the first motor stops, allowing the conveyor belt to move. The conveyor belt stops rotating, and the hydraulic rod on the left side is lowered to prevent the wet wipes from slipping onto the conveyor belt, thus preventing them from falling to the ground and causing waste. During the conveying of finished wet wipe rolls, the device uses nozzles to humidify the rolls. However, the nozzles are arranged longitudinally on the upper side of the conveyor belt, and the sprayed water mist acts on the finished wet wipe rolls from top to bottom, which can easily result in poor humidification of the lower sides and other parts of the finished wet wipe rolls. In addition, the device lacks adjustment elements for the conveying of finished wet wipe rolls, which can easily lead to the finished wet wipe rolls being randomly distributed on the conveyor belt. Therefore, we propose a finished wet wipe roll conveying mechanism for wet wipe production. Utility Model Content

[0003] The technical problem this invention aims to solve is to overcome existing defects and provide a finished wet wipe roll conveying mechanism for wet wipe production. This device, through transmission elements, can adjust the centering position of each finished wet wipe roll during conveying, reducing the probability of disordered distribution during the conveying process. Simultaneously, the device uses pipe elements to humidify the outer side of each finished wet wipe roll individually, and the humidification unit can automatically change position as the finished wet wipe roll moves, increasing the humidification coverage of the humidification unit on the finished wet wipe roll, thereby improving the conveying and humidification effect of the device on the finished wet wipe roll, effectively solving the problems in the background art.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a finished wet wipe roll conveying mechanism for wet wipe production, including a conveyor, with guardrails at both the front and rear ends of the upper side of the conveyor, and also including an equidistant humidification mechanism; The equidistant humidification mechanism includes a top shell, a rotating shaft, a rotary conveyor seat, a humidification component, a docking component, and a power component. The top shell is mounted on the upper center of the conveyor via a fixed frame. The bottom wall of the top shell is rotatably connected to two longitudinally symmetrically distributed rotating shafts via bearings. Rotary conveyor seats are provided at the lower outer ends of the rotating shafts. A humidification component is provided between the rotary conveyor seat, the rotating shaft, and the top shell. A docking component is provided inside the humidification component. A power component is provided between the rotating shaft and the top shell. This device can adjust the centering position of each finished wet wipe roll through transmission elements, reducing the probability of disordered distribution during the conveying process. At the same time, the device performs humidification operations on the outer side of each finished wet wipe roll through pipe elements. The humidification unit can automatically change position as the finished wet wipe roll moves, increasing the humidification coverage of the humidification unit on the finished wet wipe roll, thereby improving the conveying and humidification effect of the device on the finished wet wipe roll.

[0005] Furthermore, it also includes a microcontroller, which is located outside the conveyor. The input terminal of the microcontroller is electrically connected to an external power source, and the output terminal of the microcontroller is electrically connected to the input terminal of the conveyor, which facilitates the control of electrical components within the device.

[0006] Furthermore, the humidification component includes a water outlet pipe, an atomizing nozzle, an annular shell one, a circular ring, an annular shell two, an annular seat, and a water inlet pipe. The water outlet pipes are arranged in annular shapes on the outer arc surface of the rotating conveyor seat. The inner wall of each water outlet pipe is provided with vertically evenly distributed atomizing nozzles. The lower front and rear ends of the top shell are provided with an annular shell one through a fixing rod one. The bottom wall of the annular shell one is rotatably connected to two circular rings distributed inside and outside through a sealed bearing. An annular shell two is provided between the two circular rings distributed inside and outside. The inner arc surface of the annular shell two is fixedly connected to the adjacent rotating shaft one. The outer arc surface of the annular shell one is provided with an annular seat through symmetrically distributed fixing rod two. The annular seat is located below the adjacent annular shell two. The top wall of the annular shell one is provided with a water inlet pipe, which performs humidification operation on the outer side of each finished wet wipe roll.

[0007] Furthermore, the docking assembly includes a threaded tube, a fixing ring, a telescopic column, a conical ring, a spring, a conical seat, and a docking tube. The docking tubes are slidably connected to the upper inner end of the water outlet pipe. The bottom wall of the annular shell two is threaded with four annularly distributed threaded tubes. The inner wall of each threaded tube is provided with a fixing ring. The lower side of each fixing ring is provided with a conical ring through symmetrically distributed telescopic columns and springs. The springs are movably sleeved with the outer end of the adjacent telescopic columns. The inner wall of each threaded tube is provided with a conical seat through a fixing rod three. The conical seat and the docking tube are installed in conjunction with the vertically adjacent conical rings. The bottom wall opening of the threaded tube in the finished wet wipe roll conveying mechanism for wet wipe production is automatically sealed by an elastic element.

[0008] Furthermore, the docking assembly also includes guide posts and annular guide grooves. The annular guide grooves are respectively opened on the inner arc wall of the annular seat. Guide posts are provided on the upper outer side of the docking tube. The guide posts are in sliding contact with the adjacent annular guide grooves, so that the docking tubes in the finished wet wipe roll conveying mechanism for wet wipe production are at different heights at different positions.

[0009] Furthermore, the equidistant humidification mechanism also includes an arc-shaped guide plate and a photoelectric sensor. The arc-shaped guide plate is respectively set at the front and rear ends of the upper middle part of the conveyor through a fixing frame two. The arc-shaped guide plate is installed in conjunction with the rotating conveyor seat. The outer arc surface of the rear arc-shaped guide plate is provided with a photoelectric sensor. The photoelectric sensor is bidirectionally electrically connected to the microcontroller to perform preliminary gathering and guidance of the finished wet wipe roll and to detect the passing of the finished wet wipe roll.

[0010] Furthermore, the power assembly includes a worm gear, a second rotating shaft, a worm wheel, and a servo motor. The worm wheels are respectively disposed on the upper end of the first rotating shaft. The front and rear walls of the top shell are rotatably connected to the worm gears through the second bearing. The second rotating shaft is disposed between the worm gears. The worm wheels are meshed with the adjacent worm gears. A servo motor is disposed on the rear side of the top shell. The input end of the servo motor is electrically connected to the output end of the microcontroller. The output shaft of the servo motor is fixedly connected to the rear end of the worm gear on the rear side, providing power for the device to convey and center the finished wet wipe rolls.

[0011] Compared with the prior art, the beneficial effects of this utility model are as follows: This finished wet wipe roll conveying mechanism for wet wipe production has the following advantages: When using the finished wet wipe roll conveying mechanism for wet wipe production, the rotating conveyor seat, arc-shaped guide plate, and photoelectric sensors can adjust the centering position of each finished wet wipe roll, reducing the probability of disordered distribution during the conveying process. Simultaneously, the device uses humidification components to humidify the outer side of each finished wet wipe roll individually. The humidification unit automatically adjusts its position as the finished wet wipe roll moves, increasing the humidification coverage area and thus improving the conveying and humidification effect. Furthermore, the humidification unit automatically opens and closes via docking components as the finished wet wipe roll's position changes, saving on humidification liquid consumption. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a schematic diagram of the equidistant humidification mechanism of this utility model; Figure 3 This is a schematic cross-sectional view of the left side of the humidification component at the rear of this utility model. Figure 4 This is a schematic diagram of the structure of the annular seat of this utility model; Figure 5 This is an enlarged structural diagram of point A in this utility model; Figure 6 This is an enlarged structural diagram of section B of the present invention.

[0013] In the diagram: 1 Conveyor, 2 Microcontroller, 3 Guardrail, 4 Equidistant Humidification Mechanism, 41 Top Shell, 42 Rotating Shaft I, 43 Rotary Conveying Seat, 44 Humidification Component, 441 Water Outlet Pipe, 442 Atomizing Nozzle, 443 Annular Shell I, 444 Circular Ring, 445 Annular Shell II, 446 Annular Seat, 447 Water Inlet Pipe, 45 Connecting Component, 451 Threaded Pipe, 452 Fixing Ring, 453 Telescopic Column, 454 Conical Ring, 455 Spring, 456 Conical Seat, 457 Connecting Pipe, 458 Guide Column, 459 Annular Guide Groove, 46 Arc-shaped Guide Plate, 47 Power Component, 471 Worm Gear, 472 Rotating Shaft II, 473 Worm Gear, 474 Servo Motor, 48 Photoelectric Sensor. Detailed Implementation

[0014] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0015] Please see Figure 1-6This embodiment provides a technical solution: a finished wet wipe roll conveying mechanism for wet wipe production, including a conveyor 1, with guardrails 3 at both the front and rear ends of the upper side of the conveyor 1, and a microcontroller 2 located outside the conveyor 1. The input end of the microcontroller 2 is electrically connected to an external power supply, and the output end of the microcontroller 2 is electrically connected to the input end of the conveyor 1. When the device conveys the finished wet wipe roll, the water inlet pipe 447 is connected to an external water supply pipe, the microcontroller 2 starts the conveyor 1, and the finished wet wipe roll is conveyed from left to right by the contact friction between the belt inside the conveyor 1 and the finished wet wipe roll. The guardrails 3 limit the movement to prevent the finished wet wipe roll from falling off the belt of the conveyor 1. It also includes an equidistant humidification mechanism 4. The equidistant humidification mechanism 4 includes a top shell 41, a rotating shaft 42, a rotary conveyor seat 43, a humidification component 44, a docking component 45, and a power component 47. The top shell 41 is mounted on the upper middle part of the conveyor 1 via a fixed frame. The bottom wall of the top shell 41 is rotatably connected to two longitudinally symmetrically distributed rotating shafts 42 via bearings. The lower outer ends of the rotating shafts 42 are each provided with a rotary conveyor seat 43. The humidification component 44 is located between the rotary conveyor seat 43, the rotating shaft 42, and the top shell 41. The docking component 45 is located inside the humidification component 44. The power component 47 is located between the rotating shaft 42 and the top shell 41. The humidification component 44 includes a water outlet pipe 441, an atomizing nozzle 442, an annular shell 443, a circular ring 444, an annular shell 445, an annular seat 446, and a water inlet. Pipe 447 and water outlet pipe 441 are respectively arranged in a ring on the outer arc surface of the rotating conveyor seat 43. The inner wall of the water outlet pipe 441 is provided with vertically evenly distributed atomizing nozzles 442. The lower front and rear ends of the top shell 41 are provided with annular shell 443 through a fixing rod. The bottom wall of the annular shell 443 is rotatably connected with two inner and outer rings 444 through a sealed bearing. Annular shell 445 is provided between the two inner and outer rings 444. The inner arc surface of the annular shell 445 is fixedly connected to the adjacent rotating shaft 42. The outer arc surface of the annular shell 443 is provided with annular seat 446 through symmetrically distributed fixing rods. The annular seat 446 is located below the adjacent annular shell 445. The top wall of the annular shell 443 is provided with a water inlet pipe. 447. The docking assembly 45 includes a threaded pipe 451, a retaining ring 452, a telescopic column 453, a conical ring 454, a spring 455, a conical seat 456, and a connecting pipe 457. The connecting pipes 457 are slidably connected to the upper inner end of the outlet pipe 441. The bottom wall of the annular shell 445 is threaded with four evenly distributed annular threaded pipes 451. The inner wall of each threaded pipe 451 is provided with a retaining ring 452. The lower side of each retaining ring 452 is provided with a conical ring 454 through symmetrically distributed telescopic columns 453 and springs 455. The springs 455 are movably sleeved with the outer end of the adjacent telescopic columns 453. The inner wall of each threaded pipe 451 is provided with a conical seat 456 through a retaining rod. The conical seat 456 and the connecting pipe 457 are installed in conjunction with the vertically adjacent conical rings 454. The docking assembly 45 also includes guide posts 458 and annular guide grooves 459. The annular guide grooves 459 are respectively opened on the inner arc wall of the annular seat 446. The upper outer side of the docking pipe 457 is provided with guide posts 458. The guide posts 458 are in sliding contact with the adjacent annular guide grooves 459. The equidistant humidification mechanism 4 also includes an arc-shaped guide plate 46 and a photoelectric sensor 48. The arc-shaped guide plate 46 is respectively set at the front and rear ends of the upper middle part of the conveyor 1 through the fixing frame 2. The arc-shaped guide plate 46 is installed in conjunction with the rotating conveyor seat 43. The outer arc surface of the rear arc-shaped guide plate 46 is provided with a photoelectric sensor 48. The photoelectric sensor 48 is bidirectionally electrically connected to the single-chip microcomputer 2. The power assembly 47 includes a worm gear 471, a rotating shaft 472, a worm wheel 473, and a servo motor 474.Worm gears 473 are respectively set on the upper end of the rotating shaft 42. Worms 471 are rotatably connected to the front and rear walls of the top shell 41 via bearings 2. A rotating shaft 472 is provided between the worm gears 471. Worm gears 473 are meshed with adjacent worm gears 471. A servo motor 474 is provided on the rear side of the top shell 41. The input ends of the servo motors 474 are electrically connected to the output ends of the microcontroller 2. The output shaft of the servo motor 474 is fixedly connected to the rear end of the worm gears 471 on the rear side. Finished wet wipe rolls move to the right along the conveyor belt 1 and gather to the left side of the two arc-shaped guide plates 46. The arc-shaped guide plates 46 are arc-shaped. Through the cooperation of the two arc-shaped guide plates 46, the finished wet wipe rolls can only pass through the two arc-shaped guide plates 46 one by one in a single row. Two arc-shaped guide plates 46 ensure that the finished wet wipe rolls on the right end of the conveyor belt 1 are spaced at a certain lateral distance and located in the center of the belt, preventing the finished wet wipe rolls from being placed haphazardly on the conveyor belt 1. Simultaneously, the microcontroller 2 starts the servo motor 474, causing its output shaft to drive the rear worm 471 to rotate. The rear worm 471 drives the front worm 471 to rotate synchronously via the second rotating shaft 472. The spiral directions of the two worms 471 are opposite. Through the meshing connection between the worm 471 and the corresponding worm wheel 473, the first rotating shaft 42 on the front drives the corresponding rotating conveyor seat 43 to rotate in the forward direction, and the first rotating shaft 42 on the rear drives the corresponding rotating conveyor seat 43 to rotate in the reverse direction. The rotation of the two rotating conveyor seats 43 during their respective rotations... The rotating plates work together, and in conjunction with the curved structure of the finished wet wipe rolls, they sequentially convey the finished wet wipe rolls at the left end of the curved guide plate 46. During this process, the microcontroller 2 activates the photoelectric sensor 48, which emits a light signal that illuminates the curved guide plate 46 in front and reflects back to its initial position. Based on the propagation time and speed of the light signal, the distance between the two curved guide plates 46 is measured, and the measurement is transmitted to the microcontroller 2 as an electrical signal. When the finished wet wipe roll passes the photoelectric sensor 48, the uploaded result of the photoelectric sensor 48 changes. Based on the change in the detection result, the microcontroller 2 activates the servo motor 474, and thus, through the above principle, sequentially conveys the finished wet wipe rolls one by one. During the feeding process, as the rotating conveyor seat 43 rotates, it drives the corresponding water outlet pipe 441 and the connecting pipe 457 inside the water outlet pipe 441 to rotate synchronously. The rotating shaft 42 inside the rotating conveyor seat 43 drives the corresponding annular shell 445 to rotate synchronously. During this process, the connecting pipe 457 drives the corresponding guide column 458 to slide adaptively along the corresponding annular guide groove 459. The annular guide groove 459 consists of two horizontal arc-shaped grooves with different heights and two inclined grooves. The horizontal arc-shaped grooves at the higher position are all located at the end of the annular seat 446 near the longitudinal center of the device, and the horizontal arc-shaped grooves at the lower position are all located at the end of the annular seat 446 away from the longitudinal center of the device. The two horizontal arc-shaped grooves with different heights are connected by two inclined grooves.Therefore, the guide post 458 moves up and down as it slides along the corresponding annular guide groove 459. As the rotating conveyor seat 43 rotates, the guide post 458 on the water outlet pipe 441, which is close to the finished wet wipe roll conveyed between the two rotating conveyor seats 43, is located in a horizontal arc-shaped groove at the high position of the annular guide groove 459. At this time, the guide post 458, through sliding contact with the annular guide groove 459, drives the connecting pipe 457 at the upper end of the water outlet pipe 441 to move upward and penetrate into the lower end of the corresponding threaded pipe 451. The upward movement of the connecting pipe 457 presses the corresponding conical ring 454 upward, causing the conical ring 454 to vertically separate from the adjacent conical seat 456. The telescopic end of the telescopic post 453 and the spring 455 retract, thereby releasing the conical ring 454 from the conical seat 456. The vertical compression of seat 456 causes a blockage at the lower opening of the threaded pipe 451, allowing water from the external water supply pipe to pass through the channel formed by the first annular shell 443, the inner and outer rings 444, the second annular shell 445, the threaded pipe 451, and the connecting pipe 457, and then be sprayed from the atomizing nozzle 442 of the outlet pipe 441. This sprays humidify the outer arc surface of a single finished wet wipe roll passing between the arc-shaped guide plates 46. Simultaneously, the atomizing nozzle 442 of the outlet pipe 441 adaptively rotates around the axis of the corresponding rotating shaft 42 as the finished wet wipe roll is conveyed, causing the spray from the atomizing nozzle 442 to move along an arc-shaped trajectory along the outer arc surface of the finished wet wipe roll, thereby increasing the spray humidification coverage of the finished wet wipe roll by the atomizing nozzle 442. When pipe 441 rotates to a certain extent along the axis of shaft 42, the finished wet wipe roll moves out from between the arc-shaped guide plates 46. As the outlet pipe 441 continues to rotate, the guide post 458 above the outlet pipe 441 slides into the horizontal arc-shaped groove at the lower position of the annular guide groove 459. The guide post 458 drives the corresponding connecting pipe 457 to move down and out of the lower end of the corresponding threaded pipe 451. Then, through the compression and reset force of the spring 455, the cone ring 454 moves down and presses against the cone seat 456, thereby sealing the lower end of the threaded pipe 451 at that position. This allows the outlet pipe 441 at that position to separate from the corresponding finished wet wipe roll, and the atomizing nozzle 442 can automatically shut off the spray, reducing the amount of humidifying liquid in the finished wet wipe roll. For the consumption process, vertical guide grooves are provided on the outer side of the connecting pipe 457, and vertical guide strips are provided on the upper inner end of the outlet pipe 441. The guide strips are slidably connected to the adjacent guide grooves. This slidable connection prevents relative horizontal rotation between the connecting pipe 457 and the outlet pipe 441 during vertical movement. (Rubber sealing rings can be provided at the upper and lower outer ends of the connecting pipe 457 and the conical surface and outer arc surface of the conical ring 454 to reduce the contact gap between the connecting pipe 457 and the conical ring 454 and the corresponding components.) After the device has been used for a period of time, the threaded pipe 451 can be rotated to remove it from the corresponding annular shell 445 via the threaded connection, and the threaded pipe 451 and its internal components can be replaced as a whole.This avoids the aging of spring 455. Through transmission components, the device can individually adjust the centering position of each finished wet wipe roll during transport, reducing the probability of disordered distribution. Simultaneously, the device uses piping components to individually humidify the outer side of each wet wipe roll, and the humidification unit automatically adjusts its position as the wet wipe roll moves, increasing the humidification coverage area and thus improving the overall humidification effect of the device.

[0016] The working principle of the finished wet wipe roll conveying mechanism for wet wipe production provided by this utility model is as follows: When the device conveys the finished wet wipe rolls, the water inlet pipe 447 is connected to the external water supply pipe. The microcontroller 2 starts the conveyor 1. Through the contact friction between the belt inside the conveyor 1 and the finished wet wipe rolls, the finished wet wipe rolls are conveyed from left to right. The guardrail 3 limits the movement to prevent the finished wet wipe rolls from falling off the belt of the conveyor 1. At the same time, the finished wet wipe rolls move to the right with the belt of the conveyor 1 and gather to the left side of the two front and rear arc-shaped guide plates 46. The arc-shaped guide plates 46 adopt an arc design. Through the cooperation of the two front and rear arc-shaped guide plates 46, the finished wet wipe rolls can only pass through the two arc-shaped guide plates 46 one by one in a single row. Two arc-shaped guide plates 46 ensure that the finished wet wipe rolls on the right end of the conveyor belt 1 are spaced at a certain lateral distance and located in the center of the belt, preventing the finished wet wipe rolls from being placed haphazardly on the conveyor belt 1. Simultaneously, the microcontroller 2 starts the servo motor 474, causing its output shaft to drive the rear worm 471 to rotate. The rear worm 471 drives the front worm 471 to rotate synchronously via the second rotating shaft 472. The helical directions of the two worms 471 are opposite. Through the meshing connection between the worm 471 and the corresponding worm wheel 473, the first rotating shaft 42 on the front drives the corresponding rotating conveyor seat 43 to rotate in the forward direction, and the first rotating shaft 42 on the rear drives the corresponding rotating conveyor seat 43 to rotate in the reverse direction. The rotation of the two rotating conveyor seats 43 during their respective rotations... The plates work together and, combined with the curved structure of the finished wet wipe rolls, sequentially convey the finished wet wipe rolls at the left end of the curved guide plate 46. During this process, the microcontroller 2 activates the photoelectric sensor 48, which emits a light signal that illuminates the front curved guide plate 46 and reflects back to its initial position. Based on the propagation time and speed of the light signal, the distance between the two curved guide plates 46 is measured and transmitted to the microcontroller 2 as an electrical signal. When a finished wet wipe roll passes the photoelectric sensor 48, the uploaded result of the photoelectric sensor 48 changes. Based on the change in the detection result, the microcontroller 2 activates the servo motor 474, thereby performing a sequential centering conveying operation of the finished wet wipe rolls using the above principle. During the process, as the rotating conveyor seat 43 rotates, it drives the corresponding water outlet pipe 441 and the connecting pipe 457 inside the water outlet pipe 441 to rotate synchronously. The rotating shaft 42 inside the rotating conveyor seat 43 drives the corresponding annular shell 445 to rotate synchronously. During this process, the connecting pipe 457 drives the corresponding guide column 458 to slide adaptively along the corresponding annular guide groove 459. The annular guide groove 459 consists of two horizontal arc-shaped grooves with different heights and two inclined grooves. The horizontal arc-shaped grooves at the higher position are all located at the end of the annular seat 446 near the longitudinal center of the device, and the horizontal arc-shaped grooves at the lower position are all located at the end of the annular seat 446 away from the longitudinal center of the device. The two horizontal arc-shaped grooves with different heights are connected by two inclined grooves.Therefore, the guide post 458 moves up and down as it slides along the corresponding annular guide groove 459. As the rotating conveyor seat 43 rotates, the guide post 458 on the water outlet pipe 441, which is close to the finished wet wipe roll conveyed between the two rotating conveyor seats 43, is located in a horizontal arc-shaped groove at the high position of the annular guide groove 459. At this time, the guide post 458, through sliding contact with the annular guide groove 459, drives the connecting pipe 457 at the upper end of the water outlet pipe 441 to move upward and penetrate into the lower end of the corresponding threaded pipe 451. The upward movement of the connecting pipe 457 presses the corresponding conical ring 454 upward, causing the conical ring 454 to vertically separate from the adjacent conical seat 456. The telescopic end of the telescopic post 453 and the spring 455 retract, thereby releasing the conical ring 454 from the conical seat 456. The vertical compression of seat 456 causes a blockage at the lower opening of the threaded pipe 451, allowing water from the external water supply pipe to pass through the channel formed by the first annular shell 443, the inner and outer rings 444, the second annular shell 445, the threaded pipe 451, and the connecting pipe 457, and then be sprayed from the atomizing nozzle 442 of the outlet pipe 441. This sprays humidify the outer arc surface of a single finished wet wipe roll passing between the arc-shaped guide plates 46. Simultaneously, the atomizing nozzle 442 of the outlet pipe 441 adaptively rotates around the axis of the corresponding rotating shaft 42 as the finished wet wipe roll is conveyed, causing the spray from the atomizing nozzle 442 to move along an arc-shaped trajectory along the outer arc surface of the finished wet wipe roll, thereby increasing the spray humidification coverage of the finished wet wipe roll by the atomizing nozzle 442. When pipe 441 rotates to a certain extent along the axis of shaft 42, the finished wet wipe roll moves out from between the arc-shaped guide plates 46. As the outlet pipe 441 continues to rotate, the guide post 458 above the outlet pipe 441 slides into the horizontal arc-shaped groove at the lower position of the annular guide groove 459. The guide post 458 drives the corresponding connecting pipe 457 to move down and out of the lower end of the corresponding threaded pipe 451. Then, through the compression and reset force of the spring 455, the cone ring 454 moves down and presses against the cone seat 456, thereby sealing the lower end of the threaded pipe 451 at that position. This allows the outlet pipe 441 at that position to separate from the corresponding finished wet wipe roll, and the atomizing nozzle 442 can automatically shut off the spray, reducing the amount of humidifying liquid in the finished wet wipe roll. For the consumption process, vertical guide grooves are provided on the outer side of the connecting pipe 457, and vertical guide strips are provided on the upper inner end of the outlet pipe 441. The guide strips are slidably connected to the adjacent guide grooves. This slidable connection prevents relative horizontal rotation between the connecting pipe 457 and the outlet pipe 441 during vertical movement. (Rubber sealing rings can be provided at the upper and lower outer ends of the connecting pipe 457 and the conical surface and outer arc surface of the conical ring 454 to reduce the contact gap between the connecting pipe 457 and the conical ring 454 and the corresponding components.) After the device has been used for a period of time, the threaded pipe 451 can be rotated to remove it from the corresponding annular shell 445 via the threaded connection, and the threaded pipe 451 and its internal components can be replaced as a whole.This prevents the 455 spring from aging.

[0017] It is worth noting that the microcontroller 2 disclosed in the above embodiments can be a COP8CBE9, the conveyor 1 can be a TD-3 belt conveyor, the servo motor 474 can be an MHMF042L1U2M, and the photoelectric sensor 48 can be an EE-SB5-B reflective photoelectric sensor. The microcontroller 2 controls the operation of the conveyor 1, the photoelectric sensor 48, and the servo motor 474 using methods commonly used in the prior art.

[0018] The above description is merely an embodiment of this utility model and does not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the content of this utility model specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. A finished wet wipe roll conveying mechanism for wet wipe production, comprising a conveyor (1), wherein guardrails (3) are provided at both the front and rear ends of the upper side of the conveyor (1), characterized in that: It also includes an equidistant humidification mechanism (4); Equidistant humidification mechanism (4): It includes a top shell (41), a rotating shaft (42), a rotating conveyor seat (43), a humidification component (44), a docking component (45), and a power component (47). The top shell (41) is set on the upper middle part of the conveyor (1) through a fixed frame. The bottom wall of the top shell (41) is rotatably connected to two longitudinally symmetrically distributed rotating shafts (42) through a bearing. The lower outer side of each rotating shaft (42) is provided with a rotating conveyor seat (43). A humidification component (44) is provided between the rotating conveyor seat (43), the rotating shaft (42), and the top shell (41). A docking component (45) is provided inside the humidification component (44). A power component (47) is provided between the rotating shaft (42) and the top shell (41).

2. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 1, characterized in that: It also includes a microcontroller (2), which is located outside the conveyor (1). The input terminal of the microcontroller (2) is electrically connected to an external power supply, and the output terminal of the microcontroller (2) is electrically connected to the input terminal of the conveyor (1).

3. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 1, characterized in that: The humidification assembly (44) includes a water outlet pipe (441), an atomizing nozzle (442), an annular shell one (443), a ring (444), an annular shell two (445), an annular seat (446), and a water inlet pipe (447). The water outlet pipes (441) are arranged in annular shape on the outer arc surface of the rotating conveyor seat (43). The inner wall of the water outlet pipes (441) is provided with vertically evenly distributed atomizing nozzles (442). The lower front and rear ends of the top shell (41) are provided with an annular shell one (443) through a fixing rod one. The annular shell one (443) The bottom wall of 443 is rotatably connected by two inner and outer rings (444) through sealed bearings. An annular shell (445) is provided between the two inner and outer rings (444). The inner arc surface of the annular shell (445) is fixedly connected to the adjacent rotating shaft (42). The outer arc surface of the annular shell (443) is provided with an annular seat (446) through symmetrically distributed fixing rods. The annular seat (446) is located below the adjacent annular shell (445). The top wall of the annular shell (443) is provided with a water inlet pipe (447).

4. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 3, characterized in that: The docking assembly (45) includes a threaded pipe (451), a fixing ring (452), a telescopic column (453), a conical ring (454), a spring (455), a conical seat (456), and a connecting pipe (457). The connecting pipe (457) is slidably connected to the upper inner end of the outlet pipe (441). The bottom wall of the annular shell (445) is threaded with four annularly distributed threaded pipes (451). The inner wall of each threaded pipe (451) is provided with a fixing ring (452). The lower side of each fixing ring (452) is provided with a conical ring (454) through symmetrically distributed telescopic columns (453) and springs (455). Each spring (455) is movably sleeved with the outer end of the adjacent telescopic column (453). The inner wall of each threaded pipe (451) is provided with a conical seat (456) through a fixing rod. The conical seat (456) and the connecting pipe (457) are installed in conjunction with the vertically adjacent conical ring (454).

5. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 4, characterized in that: The docking assembly (45) also includes guide posts (458) and annular guide grooves (459). The annular guide grooves (459) are respectively opened on the inner arc wall of the annular seat (446). The upper outer side of the docking pipe (457) is provided with guide posts (458). The guide posts (458) are in sliding contact with the adjacent annular guide grooves (459).

6. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 2, characterized in that: The equidistant humidification mechanism (4) also includes an arc-shaped guide plate (46) and a photoelectric sensor (48). The arc-shaped guide plate (46) is respectively set at the front and rear ends of the upper middle part of the conveyor (1) through a fixing frame 2. The arc-shaped guide plate (46) is installed in conjunction with the rotating conveyor seat (43). The outer arc surface of the arc-shaped guide plate (46) on the rear side is provided with a photoelectric sensor (48). The photoelectric sensor (48) is bidirectionally electrically connected to the microcontroller (2).

7. The finished wet wipe roll conveying mechanism for wet wipe production according to claim 2, characterized in that: The power assembly (47) includes a worm (471), a second rotating shaft (472), a worm wheel (473), and a servo motor (474). The worm wheel (473) is respectively located at the upper end of the first rotating shaft (42). The front and rear walls of the top shell (41) are rotatably connected to the worm (471) through the second bearing. The second rotating shaft (472) is provided between the worms (471). The worm wheel (473) is meshed with the adjacent worm (471). The servo motor (474) is provided on the rear side of the top shell (41). The input end of the servo motor (474) is electrically connected to the output end of the microcontroller (2). The output shaft of the servo motor (474) is fixedly connected to the rear end of the worm (471) on the rear side.

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