Water-based ink sewage treatment equipment with waste cleaning structure and treatment method

Abstract

The invention relates to the technical field of water-based ink production, in particular to water-based ink sewage treatment equipment with a waste cleaning structure and a treatment method, and the water-based ink sewage treatment equipment comprises a rack, a mixed precipitation mechanism, a circulating transfer mechanism and a cleaning mechanism; the mixed precipitation mechanism comprises a precipitation barrel and a stirring mechanism; a feeding hole and a discharging hole are respectively formed in the top and the bottom of the precipitation barrel; the circulating transfer mechanism comprises a shell, a feeding port and a discharging port which are in butt joint with the discharging port are formed in the top and the bottom of the shell correspondingly, a transfer disc is arranged in the shell, a plurality of bearing ports are formed in the transfer disc around the axis of the transfer disc, and a first driving structure is arranged outside the shell; the cleaning mechanism is used for cleaning the interior of the bearing opening rotating to the discharging opening. According to the invention, the mixed precipitation mechanism, the circulating transfer mechanism and the cleaning mechanism are arranged, so that continuous collection and transfer of precipitates are realized, the problem that the treatment flow is interrupted due to accumulation and cleaning of the precipitates in the precipitation cylinder is avoided, and the treatment efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of water-based ink production, and specifically relates to a water-based ink sewage treatment device with a waste cleaning structure, and also relates to a treatment method for a water-based ink sewage treatment device with a waste cleaning structure. Background Art

[0002] As an environment-friendly printing material, water-based ink has been widely used in the printing industry due to its good printing effect and environmental protection characteristics. However, a certain amount of sewage is generated during the production and use of water-based ink. This sewage contains various components such as pigments, resins, and additives. If directly discharged without treatment, it will cause serious pollution to the environment. Traditional water-based ink sewage treatment equipment mostly uses methods such as physical precipitation, chemical flocculation, or biodegradation. Sediments are prone to accumulate inside the equipment and need to be cleaned regularly, which affects the continuous operation of the equipment.

[0003] The patent with the publication number CN221777620U discloses a sewage treatment device for water-based ink production. When filtering sewage, the motor is started to drive the screw to rotate between two support plates. The screw drives the nut block to move on the top of the treatment shell, thereby driving the driving plate to move on the inner top of the treatment shell, and then driving the cleaning brush to move on the top of the filter plate, so as to clean the impurities on the top of the filter plate, and part of the impurities are cleaned into the treatment shell, which can prevent excessive accumulation of impurities from blocking the filter plate and affecting the sewage filtration efficiency. When the sewage filtration is completed, the first opening and closing door is opened, the storage shell is pulled out, the sundries in the storage shell and the storage drawer are cleaned, and then the filter drawer is pulled out to replace the activated carbon layer in the filter drawer and clean the filter drawer at the same time. Then, the second opening and closing door is opened to replace the filter cotton.

[0004] Although the above solution continuously cleans the filter plate during the process of filtering and separating solids and liquids, enabling the water body to pass through the filter screen normally, however, it is necessary to pull out the storage shell and the filter drawer to clean the storage shell and the filter drawer. Since the storage shell and the filter drawer are not in the working position during the cleaning process, if sewage continues to pass through the filter screen at this time, the filtration effect of the sewage will be reduced. Therefore, the device needs to pause and wait for the storage shell and the filter drawer to be cleaned and reinstalled in place. Summary of the Invention

[0005] In view of the above problems, a water-based ink sewage treatment device with a waste cleaning structure is provided. By setting a mixing and precipitation mechanism, a circulating transfer mechanism, and a cleaning mechanism, continuous collection and transfer of sediments are achieved, avoiding the problem of interruption of the treatment process due to sediment accumulation and cleaning in the sedimentation cylinder, and improving the treatment efficiency.

[0006] To solve the problems of the prior art, the present invention provides a water-based ink sewage treatment device with a waste cleaning structure, which includes a frame and a mixing and precipitation mechanism, a circulating transfer mechanism, and a cleaning mechanism that are fixedly arranged on the frame from top to bottom in sequence; the mixing and precipitation mechanism includes a horizontally arranged precipitation cylinder and a stirring mechanism arranged inside the precipitation cylinder, and a feeding port and a discharging port are respectively arranged at the top and bottom of the precipitation cylinder; the circulating transfer mechanism includes a housing, an inlet and an outlet that are respectively connected to the discharging port are arranged at the top and bottom of the housing, a transfer disk parallel to the axis of the precipitation cylinder is arranged inside the housing, and the outer peripheral wall of the transfer disk fits with the inner cavity wall of the housing. A plurality of carrying ports are arranged at equal intervals around the axis of the transfer disk, and a first driving structure for driving the transfer disk to rotate around its own axis is arranged outside the housing; the cleaning mechanism is used to clean the inside of the carrying port that rotates to the outlet.

[0007] Preferably, the cross-section of the carrying port is in a tapered contraction shape facing the middle of the transfer disk.

[0008] Preferably, the circulating transfer mechanism further includes a plurality of auxiliary transfer structures respectively arranged in a plurality of carrying ports and a positioning driving structure for driving the auxiliary transfer structure at the lowest position; the auxiliary transfer structure includes a pushing component and a third driving structure for driving the pushing component to move along the diameter direction of the transfer disk in the carrying port.

[0009] Preferably, the pushing component includes a pushing plate laid flat at the bottom of the carrying port, and the third driving structure includes a synchronous plate, two first driving components, and a guiding and resetting component; the synchronous plate is connected to the pushing plate; the two first driving components are respectively arranged at both ends of the synchronous plate; the guiding and resetting component is used to guide the movement of the two first driving components.

[0010] Preferably, the guiding and resetting component includes a third guide rod and a second spring; the axis of the third guide rod is parallel to the movement direction of the synchronous plate, the third guide rod is connected to the transfer disk, and the two first driving components are respectively slidably arranged at both ends of the third guide rod; the second spring is sleeved in the middle of the third guide rod, and both ends of the second spring are respectively abutted against the two first driving components.

[0011] Preferably, the pushing plate includes two mirror-image arranged plate bodies, the sides of the two plate bodies are respectively attached to the two side walls of the carrying port, and a plurality of expansion components are arranged at equal intervals in the middle of the two plate bodies, and the expansion components are used to expand the area of the pushing plate.

[0012] Preferably, the circulating transfer mechanism further includes a discharging structure arranged at the inlet of the housing, and the discharging structure includes two discharging components and a second driving structure; the two discharging components are symmetrically arranged inside the inlet; the second driving structure is connected to the two discharging components and drives the two discharging components to move synchronously.

[0013] Preferably, the cleaning mechanism includes a cleaning component and a fourth driving structure; the cleaning component includes a cleaning roller and a second rotating component for driving the cleaning roller to rotate; the fourth driving structure is used to drive the cleaning component to move along the loading port.

[0014] Preferably, the fourth driving structure includes a guiding component and a second driving component arranged at both ends of the cleaning component; the guiding component is used to guide the movement of the cleaning component; the second driving component is used to drive the cleaning component to move along the guiding component.

[0015] A treatment method of a water-based ink sewage treatment device with a waste cleaning structure, which is applied to a water-based ink sewage treatment device with a waste cleaning structure, includes the following steps: S1. Put sewage and a flocculant into the precipitation cylinder, and the stirring mechanism stirs the sewage and the flocculant to make the flocculant and the sewage mix evenly. S2. After the flocculant combines with the impurities in the sewage, it gradually precipitates and accumulates at the bottom of the precipitation cylinder. S3. After precipitation in the precipitation cylinder for a period of time, the discharging structure opens the feeding port on the housing, the precipitate falls into the loading port, and then the discharging structure closes the feeding port and discharges the treated sewage in the precipitation cylinder. S4. The first driving structure drives the transfer disk to rotate, and transfers the loading port on the transfer disk without carrying the precipitate to directly below the feeding port. S5. When the loading port carrying the precipitate rotates to the discharging port, the precipitate is discharged from the discharging port, and then the cleaning mechanism cleans the loading port.

[0016] The beneficial effects of the present invention compared with the prior art are: 1. The present invention is provided with a mixing and precipitation mechanism, a circulating transfer mechanism and a cleaning mechanism. After the sewage in the precipitation cylinder is mixed with the flocculant, the precipitate can precipitate and be collected by the loading port of the transfer disk. As the first driving structure drives the rotation of the transfer disk, the precipitate is sequentially transferred to the discharging port for discharge. Then, new sewage and flocculant are continuously put into the precipitation cylinder for treatment. Through the coordinated work of the mixing and precipitation mechanism, the circulating transfer mechanism and the cleaning mechanism, the continuous collection and transfer of the precipitate are realized, avoiding the problem that the precipitation cylinder interrupts the treatment process due to the accumulation of the precipitate and the cleaning of the precipitate, and improving the treatment efficiency.

[0017] 2. The present invention designs the bearing port into a contracted shape that is concave towards the middle of the transfer tray. When the bearing port is docked with the feeding port, its cross-section shows a state of being larger at the top and smaller at the bottom, facilitating the smooth fall of the sediment into the bearing port and reducing the risk of blockage caused by improper shape. When the bearing port rotates to the position docked with the discharging port, the cross-section changes to a state of being smaller at the top and larger at the bottom. This design not only facilitates the rapid and smooth discharge of the sediment under the action of gravity but also significantly improves the discharge efficiency, avoiding the discharge difficulty caused by the accumulation of sediment, thereby enhancing the thoroughness and efficiency of cleaning the bearing port.

[0018] 3. The present invention is provided with an auxiliary transfer structure and a positioning drive structure. When the bearing port rotates to the position docked with the discharging port, the positioning drive structure drives the pushing component in the corresponding auxiliary transfer structure to move downward, pushing the sediment out of the bearing port, thereby realizing the effective pushing and discharging of the sediment and effectively reducing the adhesion phenomenon of the sediment inside the bearing port. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 is a three-dimensional view of an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0020] Figure 2 is a left view of an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0021] Figure 3 is Figure 2 a plan sectional view taken along line A-A in

[0022] Figure 4 is Figure 2 a three-dimensional sectional view taken along line A-A in

[0023] Figure 5 is a three-dimensional view of the transfer tray, the first drive structure, the auxiliary transfer structure, and the positioning drive structure in an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0024] Figure 6 is a three-dimensional view of the pushing component, the third drive structure, and the positioning drive structure in an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0025] Figure 7 is a three-dimensional view of the pushing component and the third drive structure in an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0026] Figure 8 is a three-dimensional view of the plate body, the expansion component, and the synchronous plate in an aqueous ink sewage treatment device with a waste cleaning structure according to the present invention.

[0027] Figure 9 This is a three-dimensional view of the housing and the feeding structure in a water-based ink sewage treatment device with a waste cleaning structure according to the present invention.

[0028] Figure 10 This is a three-dimensional view of the feeding assembly and the second driving structure in a water-based ink sewage treatment device with a waste cleaning structure according to the present invention.

[0029] Figure 11 This is a three-dimensional view of the cleaning assembly and the fourth driving structure in a water-based ink sewage treatment device with a waste cleaning structure according to the present invention.

[0030] Figure 12 This is a three-dimensional view of the cleaning assembly, the guiding assembly and the second driving assembly in a water-based ink sewage treatment device with a waste cleaning structure according to the present invention.

[0031] The reference numerals in the figure are: 1, frame; 2, mixing and precipitation mechanism; 21, precipitation cylinder; 22, stirring mechanism; 3, circulation and transfer mechanism; 31, housing; 32, transfer disk; 321, bearing opening; 33, first driving structure; 331, connecting plate; 332, first rotating shaft; 333, first rotating assembly; 34, feeding structure; 341, feeding assembly; 3411, second rotating shaft; 3412, feeding plate; 342, second driving structure; 3421, third rotating shaft; 3422, fourth rotating shaft; 3423, bevel gear transmission assembly; 3424, worm and gear transmission assembly; 35, pushing component; 351, pushing plate; 3511, plate body; 352, expanding component; 3521, first guide rod; 3522, second guide rod; 3523, first spring; 36, third driving structure; 361, synchronous plate; 362, first driving component; 3621, transmission plate; 3622, driving plate; 363, guiding and resetting component; 3631, third guide rod; 3632, second spring; 37, positioning driving structure; 371, connecting bracket; 372, linear driver; 4, cleaning mechanism; 41, cleaning component; 411, cleaning roller; 412, second rotating assembly; 42, fourth driving structure; 421, guiding component; 4211, fourth guide rod; 4212, first connecting block; 422, second driving component; 4221, screw rod; 4222, second connecting block. Detailed implementation manners

[0032] In order to further understand the features, technical means, specific purposes and functions achieved by the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific implementation manners.

[0033] Refer to Figures 1 to 12Shown: An aqueous ink sewage treatment device with a waste cleaning structure, including a frame 1, a mixing and precipitation mechanism 2, a circulating transfer mechanism 3, and a cleaning mechanism 4 that are fixedly arranged on the frame 1 from top to bottom in sequence; the mixing and precipitation mechanism 2 includes a horizontally arranged precipitation cylinder 21 and a stirring mechanism 22 arranged inside the precipitation cylinder 21. A feeding port and a discharging port are respectively arranged at the top and bottom of the precipitation cylinder 21; the circulating transfer mechanism 3 includes a housing 31. An inlet and an outlet that are docked with the discharging port are respectively arranged at the top and bottom of the housing 31. A transfer disk 32 parallel to the axis of the precipitation cylinder 21 is arranged inside the housing 31, and the outer peripheral wall of the transfer disk 32 fits with the inner cavity wall of the housing 31. A plurality of bearing ports 321 are arranged at equal intervals around the axis of the transfer disk 32. An external part of the housing 31 is provided with a first driving structure 33 for driving the transfer disk 32 to rotate around its own axis; the cleaning mechanism 4 is used to clean the inside of the bearing port 321 that rotates to the outlet.

[0034] Specifically, the first driving structure 33 includes two connecting plates 331, a first rotating shaft 332, and a first rotating component 333. The two connecting plates 331 are arranged in parallel on both sides of the transfer disk 32. The two ends of the first rotating shaft 332 are respectively connected to the two connecting plates 331 through bearings, and the first rotating shaft 332 is coaxial and fixedly connected to the transfer disk 32. The first rotating component 333 is used to drive the first rotating shaft 332 to rotate.

[0035] First, sewage and a flocculant are put into the precipitation cylinder 21, and then the stirring mechanism 22 is started to uniformly mix the sewage and the flocculant by using the prior art. After the flocculant combines with the impurities in the sewage, it gradually precipitates to the bottom of the precipitation cylinder 21. When a certain amount of sediment accumulates in the precipitation cylinder 21, the sediment falls into the bearing port 321 of the transfer disk 32 under the action of gravity. Then the first driving structure 33 is started to drive the transfer disk 32 to rotate, so that the bearing port 321 without sediment moves below the inlet. If there is still sediment in the precipitation cylinder 21, it will continue to fall into the bearing port 321, and at the same time, the treated sewage in the precipitation cylinder 21 is discharged. After all the sediment is transferred to the bearing port 321, sewage and a flocculant are put into the precipitation cylinder 21 again to repeat the precipitation process. When the initially sediment-bearing bearing port 321 rotates to the outlet, the sediment is discharged under the action of gravity, and then the cleaning mechanism 4 cleans the bearing port 321. The sediment is sequentially collected and transferred through the multiple bearing ports 321 on the transfer disk 32, thus realizing the continuous collection and transfer of the sediment, avoiding the problem that the precipitation cylinder 21 is interrupted in the treatment process due to sediment accumulation and sediment cleaning, and improving the treatment efficiency.

[0036] Refer to Figure 3 Shown: The cross-section of the bearing port 321 is in a tapered contraction shape facing the middle of the transfer disk 32.

[0037] If the cross-section of the loading port 321 is straight or diverging and concave towards the middle of the transfer tray 32, when the loading port 321 rotates to the lowest position, its cross-section presents a structure that is larger at the top and smaller at the bottom, causing all the sediment in the loading port 321 to accumulate towards the smaller outlet end. This accumulation state not only increases the extrusion between the sediments, making it difficult for the sediments to naturally discharge from the loading port 321, but also hinders the effective cleaning of the inside of the loading port 321 by the cleaning mechanism 4. Therefore, the loading port 321 is set to have a cross-section that is in a contracted state and concave towards the middle of the transfer tray 32. When the loading port 321 is docked with the feeding port, its cross-section presents a state that is larger at the top and smaller at the bottom, which facilitates the sediment to fall into the loading port 321 and reduces the possibility of blockage. When the loading port 321 rotates to the position docked with the discharging port, its cross-section changes to a state that is smaller at the top and larger at the bottom. This enlarged outlet is conducive to the rapid discharge of the sediment, significantly improving the discharge efficiency. In addition, the design of the loading port 321 with a contracted shape also facilitates the effective cleaning of the side wall of the loading port 321 by the cleaning mechanism 4. After the sediment is discharged, the cleaning mechanism 4 can more easily reach various positions inside the loading port 321, thereby improving the thoroughness and efficiency of the cleaning of the loading port 321.

[0038] Refer to Figure 3 , Figure 5 and Figure 6 As shown: The cyclic transfer mechanism 3 further includes a plurality of auxiliary transfer structures respectively arranged in a plurality of loading ports 321 and a positioning drive structure 37 for driving the auxiliary transfer structure located at the lowest position; The auxiliary transfer structure includes a pusher assembly 35 and a third drive structure 36 for driving the pusher assembly 35 to move along the diameter direction of the transfer tray 32 in the loading port 321.

[0039] Specifically, the positioning drive structure 37 includes two connecting brackets 371 and two linear drivers 372. The two connecting brackets 371 are respectively connected to the two connecting plates 331, and the two linear drivers 372 are respectively installed on the two connecting brackets 371. When the positioning drive structure 37 drives the pusher assembly 35 located at the lowermost end to work, the two linear drivers 372 are docked with the third drive structure 36.

[0040] Since the sediment contains a high moisture content, which causes the sediment to adhere to each other and to the side wall of the receiving port 321, it is difficult to achieve effective discharge solely by the gravity of the sediment itself. Therefore, a plurality of auxiliary transfer structures and a positioning drive structure 37 are provided. Each auxiliary transfer structure corresponds to a receiving port 321, and the positioning drive structure 37 only applies a driving force to the auxiliary transfer structure in the receiving port 321 that is docked with the discharge port. When a certain receiving port 321 rotates to the position docked with the discharge port, the positioning drive structure 37 applies a driving force to the auxiliary transfer structure in this receiving port 321. At this time, the third drive structure 36 in the auxiliary transfer structure pushes the pusher assembly 35 to move downward, thereby pushing out the sediment in the receiving port 321. Subsequently, the positioning drive structure 37 cancels the driving force on the auxiliary transfer structure, and the pusher assembly 35 returns to the initial position. When the next receiving port 321 rotates to the discharge port, the positioning drive structure 37 repeats the above process and applies a driving force to the auxiliary transfer structure in this receiving port 321. In this way, in addition to the action of its own gravity, the sediment in the receiving port 321 is also subjected to an additional downward acting force, thereby realizing the effective pushing and discharging of the sediment, and effectively reducing the adhesion phenomenon of the sediment inside the receiving port 321.

[0041] Refer to Figure 6 and Figure 7 As shown: The pusher assembly 35 includes a pusher plate 351 laid flat on the bottom of the receiving port 321. The third drive structure 36 includes a synchronous plate 361, two first drive assemblies 362, and a guiding and resetting assembly 363. The synchronous plate 361 is connected to the pusher plate 351. The two first drive assemblies 362 are respectively arranged at both ends of the synchronous plate 361. The guiding and resetting assembly 363 is used to guide the movement of the two first drive assemblies 362.

[0042] Specifically, the first drive assembly 362 includes a transmission plate 3621 and a plurality of drive plates 3622. The transmission plate 3621 is arranged parallel to the synchronous plate 361, and the transmission plate 3621 is connected to the guiding and resetting assembly 363. The plurality of drive plates 3622 are arranged parallel to each other, and both ends of the drive plate 3622 are respectively hinged to the transmission plate 3621 and the synchronous plate 361.

[0043] When the positioning drive structure 37 starts to work, two linear drivers 372 will apply a downward force to the two first drive components 362. This force will cause the two transmission plates 3621 to approach each other. However, since the transmission plates 3621 and the synchronization plate 361 form a parallelogram structure through a plurality of drive plates 3622, and the synchronization plate 361 will not move in the same direction as the transmission plates 3621. During the movement of the transmission plates 3621, the synchronization plate 361 moves away from the transmission plates 3621 under the action of the drive plates 3622. Since the synchronization plate 361 is connected to the pusher plate 351, the movement of the synchronization plate 361 will drive the pusher plate 351 to move together. The pusher assembly 35 moves outward toward the outside of the loading port 321 under the push of the synchronization plate 361, thereby pushing out the sediment in the loading port 321.

[0044] Refer to Figure 6 and Figure 7 As shown: The guiding and resetting assembly 363 includes a third guide rod 3631 and a second spring 3632; the axis of the third guide rod 3631 is parallel to the movement direction of the synchronization plate 361. The third guide rod 3631 is connected to the transfer disk 32, and the two first drive components 362 are respectively slidably arranged at both ends of the third guide rod 3631; the second spring 3632 is sleeved on the middle part of the third guide rod 3631, and both ends of the second spring 3632 are respectively abutted against the two first drive components 362.

[0045] When the positioning drive structure 37 drives the two first drive components 362 to move, the two transmission plates 3621 will move along the third guide rod 3631 toward the middle part of the third guide rod 3631. During this process, the second spring 3632 is compressed and stores elastic potential energy. When the sediment in the loading port 321 is pushed out, the positioning drive structure 37 will remove the driving force applied to the two first drive components 362. At this time, the second spring 3632 releases the previously stored elastic potential energy, pushing the two transmission plates 3621 to move in opposite directions along the third guide rod 3631. Since the transmission plates 3621 are connected to their respective drive plates 3622, the movement of the transmission plates 3621 will drive the synchronization plate 361 to move through the drive plates 3622, and will ultimately be converted into the movement of the pusher plate 351, so that the pusher plate 351 is reset to the initial position, thereby eliminating the need to add an additional drive source for each auxiliary transfer structure and reducing the maintenance complexity.

[0046] Refer to Figure 3 、 Figure 6 and Figure 8 As shown: The pusher plate 351 includes two mirror-image plate bodies 3511. The sides of the two plate bodies 3511 are respectively attached to the two side walls of the loading port 321. A plurality of expansion components 352 are equidistantly arranged in the middle of the two plate bodies 3511. The expansion components 352 are used to expand the area of the pusher plate 351.

[0047] Specifically, the expansion component 352 includes a first guide rod 3521, a second guide rod 3522, and two first springs 3523. The first guide rod 3521 is perpendicular to the synchronization plate 361 and connected to the synchronization plate 361. The second guide rod 3522 is perpendicularly intersecting with the first guide rod 3521, and the middle part of the second guide rod 3522 is connected to the first guide rod 3521. Two plate bodies 3511 are respectively slidably connected to the two ends of the second guide rod 3522. Two first springs 3523 are respectively sleeved on the two ends of the second guide rod 3522, and the two ends of the first spring 3523 are respectively connected to the first guide rod 3521 and the plate body 3511.

[0048] Since the cross-section of the loading port 321 is in a contracted shape that is concave towards the middle of the transfer disk 32, if the size of the pusher plate 351 is fixed, during the process of the pusher plate 351 moving from the bottom of the loading port 321 towards the opening end of the loading port 321, the two sides of the pusher plate 351 will be separated from the side wall of the loading port 321, resulting in the pusher plate 351 being unable to apply a driving force to the sediment on the side wall of the loading port 321. Therefore, the expansion component 352 is provided. During the working process, when the pusher plate 351 is in the initial position, the two plate bodies 3511 are in contact with each other and compress the multiple first springs 3523 therebetween, so that the multiple first springs 3523 are all in an energy storage state. At this time, the elastic force of the first spring 3523 urges one side of the plate body 3511 to closely fit the side wall of the loading port 321. As the third driving structure 36 is activated and pushes the pusher plate 351 to move outwards from the loading port 321, the multiple first springs 3523 synchronously release the stored elastic potential energy, pushing the two plate bodies 3511 to separate from each other along the direction of the second guide rod 3522, thereby ensuring that the edges of the plate bodies 3511 can continuously contact and fit the continuously changing side wall contour of the loading port 321, effectively avoiding the retention of sediment on the side wall of the loading port 321 and improving the cleaning efficiency.

[0049] Refer to Figure 3 、 Figure 9 and Figure 10 As shown in

[0050] The circulation transfer mechanism 3 further includes a feeding structure 34 provided at the feeding port of the housing 31. The feeding structure 34 includes two feeding components 341 and a second driving structure 342; the two feeding components 341 are symmetrically arranged inside the feeding port; the second driving structure 342 is connected to the two feeding components 341 and drives the two feeding components 341 to move synchronously.Specifically, the feeding assembly 341 includes a second rotating shaft 3411 and a feeding plate 3412. Both ends of the second rotating shaft 3411 extend to the outside of the housing 31. The feeding plate 3412 is connected to the second rotating shaft 3411. The second driving structure 342 includes a third rotating shaft 3421. The third rotating shaft 3421 is parallel to the second rotating shaft 3411. Fourth rotating shafts 3422 perpendicular to the third rotating shaft 3421 are provided at both ends of the third rotating shaft 3421. A bevel gear transmission assembly 3423 is provided between the third rotating shaft 3421 and the fourth rotating shaft 3422 for transmission connection. Two worm and gear transmission assemblies 3424 are provided on the fourth rotating shaft 3422. The worm and the gear in the worm and gear transmission assembly 3424 are respectively connected to the second rotating shaft 3411 and the fourth rotating shaft 3422.

[0051] In the stage of mixing the mixed sewage and the flocculant, due to the strong fluidity of the sewage, the sewage may flow into the gap between the housing 31 and the transfer tray 32. Therefore, the feeding structure 34 is provided. Before the sewage and the flocculant are put into the sedimentation cylinder 21, the two feeding plates 3412 in the two feeding assemblies 341 abut against each other to close the feeding port of the housing 31. After the sewage and the flocculant are mixed, the sediment accumulates on the upper ends of the two feeding plates 3412, and the sewage is above the sediment layer. After the sewage is discharged, the second driving structure 342 works, the third rotating shaft 3421 rotates, drives the two fourth rotating shafts 3422 to rotate through the two bevel gear transmission assemblies 3423, and the fourth rotating shafts 3422 drive the two second rotating shafts 3411 in the two feeding assemblies 341 to rotate simultaneously through the two worm and gear transmission assemblies 3424 on them, so that the two feeding plates 3412 open towards both sides, and the sediment on the feeding plates 3412 slides along the feeding plates 3412 into the bearing port 321. By controlling the opening and closing of the feeding port, sewage is prevented from flowing into the gap between the housing 31 and the transfer tray 32.

[0052] Refer to Figure 3 and Figure 11 As shown: The cleaning mechanism 4 includes a cleaning assembly 41 and a fourth driving structure 42; the cleaning assembly 41 includes a cleaning roller 411 and a second rotating assembly 412 for driving the cleaning roller 411 to rotate; the fourth driving structure 42 is used to drive the cleaning assembly 41 to move along the bearing port 321.

[0053] After the sediment in the loading port 321 is discharged under the action of the auxiliary transfer structure, there may still be some sediment sticking to the pusher plate 351. Therefore, a cleaning assembly 41 and a fourth driving structure 42 are provided. After the auxiliary transfer structure discharges most of the sediment in the loading port 321, the cleaning mechanism 4 is immediately started. The second rotating assembly 412 first drives the cleaning roller 411 to start rotating, and then the fourth driving structure 42 is started to drive the cleaning assembly 41 to move along the loading port 321. The rotating cleaning roller 411 contacts the pusher plate 351 with its surface, and uses friction to peel off the remaining sediment, thereby realizing the comprehensive cleaning of the remaining sediment in the loading port 321 and improving the cleanliness of the loading port 321.

[0054] Refer to Figure 3 、 Figure 11 and Figure 12 As shown: The fourth driving structure 42 includes a guiding component 421 and a second driving component 422 arranged at both ends of the cleaning assembly 41; the guiding component 421 is used to guide the movement of the cleaning assembly 41; the second driving component 422 is used to drive the cleaning assembly 41 to move along the guiding component 421.

[0055] Specifically, the guiding component 421 includes a fourth guide rod 4211 and a first connecting block 4212. The axis of the fourth guide rod 4211 is parallel to the axis of the transfer disk 32. The first connecting block 4212 is slidably arranged on the fourth guide rod 4211, and the first connecting block 4212 is connected to one end of the cleaning roller 411 through a bearing. The second driving component 422 includes a screw rod 4221 and a second connecting block 4222. The screw rod 4221 is arranged parallel to the fourth guide rod 4211. The second connecting block 4222 is threadedly connected to the screw rod 4221. The other end of the cleaning roller 411 is connected to the second connecting block 4222 through a bearing.

[0056] If the fourth driving structure 42 is arranged directly below the discharge port, during the cleaning process of the cleaning assembly 41, the sediment will fall onto the fourth driving structure 42, thereby affecting the operation of the fourth driving structure 42. Therefore, the guiding component 421 and the second driving component 422 are respectively arranged at both ends of the cleaning assembly 41. The guiding component 421 and the second driving component 422 can keep the cleaning assembly 41 in a stable state. When the fourth driving structure 42 is started, the screw rod 4221 rotates, and the second connecting block 4222 moves along the screw rod 4221. At the same time, the second connecting block 4222 drives the first connecting block 4212 to move along the fourth guide rod 4211 through the cleaning roller 411, so that the cleaning roller 411 can move along the loading port 321 to achieve effective cleaning of the entire loading port 321. By arranging the guiding component 421 and the second driving component 422 at both ends of the cleaning roller 411, the sediment is prevented from falling onto the fourth driving structure 42.

[0057] A treatment method of a water-based ink sewage treatment device with a waste cleaning structure, which is applied to a water-based ink sewage treatment device with a waste cleaning structure, includes the following steps: S1. Put sewage and a flocculant into the sedimentation cylinder 21, and the stirring mechanism 22 stirs the sewage and the flocculant to make the flocculant and the sewage mix evenly; S2. After the flocculant combines with the impurities in the sewage, it gradually precipitates and accumulates at the bottom of the sedimentation cylinder 21; S3. After sedimentation in the sedimentation cylinder 21 for a period of time, the feeding structure 34 opens the feeding port on the housing 31, the sediment falls into the bearing port 321, and then the feeding structure 34 closes the feeding port and discharges the treated sewage in the sedimentation cylinder 21; S4. The first driving structure 33 drives the transfer disk 32 to rotate, and transfers the bearing port 321 on the transfer disk 32 without sediment to directly below the feeding port; S5. When the bearing port 321 carrying sediment rotates to the discharge port, the sediment is discharged from the discharge port, and then the cleaning mechanism 4 cleans the bearing port 321.

[0058] The above embodiments only represent one or several implementation manners of the present invention. The description is relatively specific and detailed, but it should not be construed as a limitation on the scope of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention should be subject to the appended claims.

Claims

1. A water-based ink wastewater treatment device with a waste cleaning structure, characterized in that: It comprises a frame (1) and a mixing and settling mechanism (2), a circulating transfer mechanism (3) and a cleaning mechanism (4) which are fixed on the frame (1) in order from top to bottom; The mixing and settling mechanism (2) comprises a horizontally arranged settling cylinder (21) and a stirring mechanism (22) arranged inside the settling cylinder (21); a feeding port and a discharging port are respectively arranged at the top and bottom of the settling cylinder (21); The circulating transfer mechanism (3) comprises a shell (31), wherein the top and bottom of the shell (31) are respectively provided with an inlet and an outlet connected to the discharge port, wherein a transfer disk (32) parallel to the axis of the sedimentation cylinder (21) is provided inside the shell (31), and the outer peripheral wall of the transfer disk (32) is in contact with the inner cavity wall of the shell (31), and the transfer disk (32) is provided with a plurality of bearing ports (321) at equal intervals around its own axis, and a first driving structure (33) for driving the transfer disk (32) to rotate around its own axis is provided outside the shell (31), and the circulating transfer mechanism (3) further comprises a plurality of auxiliary transfer structures respectively arranged in the plurality of bearing ports (321) and a positioning driving structure (37) for driving the auxiliary transfer structure located at the lowest position, wherein the auxiliary transfer structure comprises a pushing assembly (35) and a third driving structure (36) for driving the pushing assembly (35) to move in the bearing port (321) along the diameter direction of the transfer disk (32); The cleaning mechanism (4) is used to clean the interior of the bearing port (321) that rotates to the discharge port.

2. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 1 is characterized in that: The cross section of the load-bearing opening (321) is in a conical contraction shape toward the middle of the transfer plate (32).

3. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 1 is characterized in that: The pusher assembly (35) comprises a pusher plate (351) laid flat on the bottom of the bearing opening (321); the third drive structure (36) comprises a synchronization plate (361), two first drive assemblies (362) and a guide reset assembly (363); The synchronous plate (361) is connected to the push plate (351); Two first driving components (362) are respectively arranged at two ends of the synchronization plate (361); The guide reset assembly (363) is used to guide the two first drive assemblies (362) to move.

4. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 3 is characterized in that: The guide reset assembly (363) comprises a third guide rod (3631) and a second spring (3632); The axis of the third guide rod (3631) is parallel to the movement direction of the synchronization plate (361), the third guide rod (3631) is connected to the transfer plate (32), and the two first drive components (362) are slidably arranged at both ends of the third guide rod (3631); The second spring (3632) is sleeved on the middle part of the third guide rod (3631), and two ends of the second spring (3632) are respectively in contact with the two first drive assemblies (362).

5. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 3 is characterized in that: The push plate (351) comprises two mirror-image plates (3511), the side surfaces of the two plates (3511) respectively fit with the two side walls of the bearing opening (321), and a plurality of expansion components (352) are arranged at equal intervals in the middle of the two plates (3511), and the expansion components (352) are used to expand the area of ​​the push plate (351).

6. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 1 is characterized in that: The cyclic transfer mechanism (3) further comprises a material discharge structure (34) arranged at the material inlet of the housing (31), wherein the material discharge structure (34) comprises two material discharge components (341) and a second driving structure (342); Two discharge components (341) are symmetrically arranged inside the feed inlet; The second driving structure (342) is connected to the two material discharging assemblies (341), and drives the two material discharging assemblies (341) to move synchronously.

7. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 1 is characterized in that: The cleaning mechanism (4) comprises a cleaning component (41) and a fourth driving structure (42); The cleaning component (41) comprises a cleaning roller (411) and a second rotating component (412) for driving the cleaning roller (411) to rotate; The fourth driving structure (42) is used to drive the cleaning component (41) to move along the carrying opening (321).

8. The water-based ink wastewater treatment equipment with a waste cleaning structure according to claim 7 is characterized in that: The fourth driving structure (42) comprises a guide assembly (421) and a second driving assembly (422) arranged at two ends of the cleaning assembly (41); The guide component (421) is used to guide the movement of the cleaning component (41); The second driving assembly (422) is used to drive the cleaning assembly (41) to move along the guide assembly (421).

9. A method for treating water-based ink wastewater with a waste cleaning structure, applied to a water-based ink wastewater with a waste cleaning structure as claimed in any one of claims 1 to 8, characterized in that: The following steps are involved: S1, putting sewage and flocculant into a sedimentation cylinder (21), and stirring the sewage and flocculant by a stirring mechanism (22) so that the flocculant and sewage are evenly mixed; S2, the flocculant combines with the impurities in the sewage and gradually precipitates and gathers at the bottom of the sedimentation cylinder (21); S3, after the sedimentation has occurred in the sedimentation cylinder (21) for a period of time, the discharge structure (34) opens the feed inlet on the housing (31), and the sediment falls into the bearing opening (321), and then the discharge structure (34) closes the feed inlet, and the treated sewage in the sedimentation cylinder (21) is discharged; S4, the first driving structure (33) drives the transfer plate (32) to rotate, and transfers the carrying port (321) on the transfer plate (32) that does not carry sediment to a position directly below the feed port; S5. When the carrying port (321) carrying the sediment rotates to the discharge port, the sediment is discharged from the discharge port, and then the cleaning mechanism (4) cleans the carrying port (321).

Images