Degradation treatment equipment based on industrial wastewater

Abstract

The invention discloses industrial wastewater-based degradation treatment equipment, which comprises a base, a filtering box body, a precipitate removal assembly, a replacement assembly, a water inlet port, a water passing pipe, a micro-treatment assembly and an ultrasonic generator, and is characterized in that the filtering box body is arranged on the base, the precipitate removal assembly is arranged on the filtering box body, and the replacement assembly is arranged on the water passing pipe; the sediment removing assembly is used for removing sediment in waste water, the replacing assembly is rotationally arranged in the filtering box and used for intercepting particulate matter in the waste water, the two sets of water inlet ports are formed in the top wall of the filtering box, the two sets of water passing pipes are arranged, one ends of the two sets of water passing pipes are connected with the filtering box, and the other ends of the two sets of water passing pipes are connected with the filtering box. The microprocessing assembly is arranged at the other ends of the two water pipes, and the ultrasonic generator is arranged on the top wall of the microprocessing assembly. Therefore, the treatment efficiency is remarkably improved and the operation and maintenance cost is reduced through non-stop quick disassembly, assembly and replacement of the filtering structure and introduction of a dynamic sedimentation mechanism and a composite drive degradation technology.

Description

Technical Field

[0001] The present invention relates to the technical field of industrial wastewater treatment, and particularly to a degradation treatment device based on industrial wastewater. Background Art

[0002] The existing industrial wastewater treatment technologies generally have the following defects:

[0003] 1. Low filtration efficiency and difficult maintenance: Traditional filters (such as sand filters, activated carbon filters) need to stop the machine regularly to replace the filter elements and cannot operate continuously; moreover, the filter materials are easily blocked, resulting in a decline in the wastewater treatment efficiency.

[0004] 2. Time-consuming sediment cleaning: The sedimentation tank relies on manual sludge scraping or mechanical sludge discharging, the operation is cumbersome and it is difficult to completely clean the bottom sediments, which is likely to cause secondary pollution.

[0005] 3. Poor mixing and purification effect: The mixing of chemical agents and wastewater relies on a stirring device, the dispersion is uneven, the degradation reaction rate is low, and the energy consumption is high; when ultrasonic waves are used alone, the energy utilization rate is insufficient, and it is difficult to synergistically enhance the efficiency with mechanical stirring. Summary of the Invention

[0006] The present invention aims to solve at least one of the technical problems in the related technologies to some extent.

[0007] For this purpose, the object of the present invention is to provide a degradation treatment device based on industrial wastewater, which significantly improves the treatment efficiency and reduces the operation and maintenance costs by quickly disassembling, installing and replacing the filtration structure without stopping the machine, introducing a dynamic sedimentation mechanism and a composite drive degradation technology.

[0008] To achieve the above object, the present invention provides a degradation treatment device based on industrial wastewater, including a base, a filtration box body, a sediment removal component, a replacement component, an inlet port, a water pipe, a microprocessing component and an ultrasonic generator. Among them, the filtration box body is arranged on the base; the sediment removal component is arranged on the filtration box body, and the sediment removal component is used for removing the sediment in the wastewater; the replacement component is rotatably arranged in the filtration box body, and the replacement component is used for intercepting the particulate matter in the wastewater; there are two groups of inlet ports, and the two groups of inlet ports are respectively opened on the top wall of the filtration box body; there are two groups of water pipes, and one ends of the two groups of water pipes are respectively connected to the filtration box body; the microprocessing component is arranged at the other ends of the two groups of water pipes; the ultrasonic generator is arranged on the top wall of the microprocessing component.

[0009] In addition, the degradation treatment device based on industrial wastewater proposed according to the above application may also have the following additional technical features:

[0010] Specifically, the sediment removal assembly includes a fixed bottom plate, a first driving component, and a sediment conversion mechanism. Among them, the fixed bottom plate is arranged on the outer wall of the filter box; the first driving component is arranged on the fixed bottom plate; the sediment conversion mechanism is arranged at the output end of the first driving component, and the sediment conversion mechanism is rotatably arranged inside the filter box.

[0011] Specifically, the sediment conversion mechanism includes an inner substrate, a storage groove, an outer sealing plate, a filtering component, and a sealing component. Among them, the inner substrate is arranged at the output end of the first driving component, and the inner substrate is rotatably arranged inside the filter box; there are two groups of storage grooves, and the two groups of storage grooves are symmetrically arranged on the inner substrate; the outer sealing plate and the filtering component are respectively arranged on the inner substrate; the filtering component is arranged on the opposite side of the storage groove; the sealing component is arranged on the inner wall of the filter box.

[0012] Specifically, the replacement assembly includes a water storage mechanism, a second filtering component, a disassembly and replacement mechanism, a rotating shaft rod, and a gear mechanism. Among them, the rotating shaft rod is rotatably arranged inside the filter box; there are multiple groups of water storage mechanisms, and the multiple groups of water storage mechanisms are respectively detachably arranged on the rotating shaft rod; there are multiple groups of second filtering components, and each group of second filtering components is correspondingly arranged on the water storage mechanism; the disassembly and replacement mechanism is detachably arranged on the filter box, and the disassembly and replacement mechanism is connected to the water storage mechanism; the gear mechanism is rotatably arranged inside the filter box, and the gear mechanism includes a positioning shaft rod and a baffle. Among them, the positioning shaft rod is rotatably arranged inside the filter box; the baffle is arranged on the positioning shaft rod, and the baffle is in contact connection with the water storage mechanism.

[0013] Specifically, the water storage mechanism includes an outer frame, a limiting clamping plate, a positioning clamping plate, water filtering holes, and threaded holes. Among them, the limiting clamping plate is arranged on the outer frame, and the outer frame is detachably arranged on the rotating shaft rod through the limiting clamping plate; there are multiple groups of positioning clamping plates, and the multiple groups of positioning clamping plates are respectively arranged inside the outer frame; there are multiple groups of water filtering holes, and the multiple groups of water filtering holes are respectively opened on the outer frame; the threaded hole is opened on the outer frame, and the threaded hole and the water filtering hole are arranged on the same horizontal plane.

[0014] Specifically, the microprocessing assembly includes a mixing box body, a mixing mechanism, a microprocessing box body, a driven mechanism, and a microprocessing mechanism. Among them, the mixing box body is arranged at the other ends of the two water pipes; the mixing mechanism is arranged on the mixing box body; the microprocessing box body is arranged on the mixing box body; the driven mechanism is rotatably arranged inside the microprocessing box body; the microprocessing mechanism is rotatably arranged inside the microprocessing box body, and the microprocessing mechanism is meshed with the driven mechanism.

[0015] Specifically, the mixing mechanism includes a second driving component, a rotating shaft, a magnetic transmission component, and a stirring shaft. Among them, the second driving component is arranged on the bottom wall of the mixing box body; the rotating shaft is arranged at the output end of the second driving component and is arranged inside the mixing box body; the magnetic transmission component is arranged on the top wall of the rotating shaft; the stirring shafts are multiple groups, and the multiple groups of stirring shafts are respectively arranged on the rotating shaft.

[0016] Specifically, the driven mechanism includes a driven shaft rod, a secondary magnetic transmission component, and a transmission component. Among them, the driven shaft rod is rotatably arranged inside the microprocessing box body; the secondary magnetic transmission component is arranged on the bottom wall of the driven shaft rod, and the secondary magnetic transmission component and the magnetic transmission component are arranged opposite to each other; the transmission component is arranged on the top wall of the driven shaft rod.

[0017] Specifically, the microprocessing mechanism includes a top plate, a secondary transmission component, a movable shaft rod, a transmission pipe, a connection hole, a side plate, and a reset component. Among them, the top plate is arranged inside the microprocessing box body; the secondary transmission component is arranged on the top plate, and the secondary transmission component and the transmission component are meshed and connected; the movable shaft rod is arranged on the bottom wall of the top plate and is rotatably arranged inside the microprocessing box body; the transmission pipes are multiple groups, and the multiple groups of transmission pipes are respectively arranged on the top plate; the connection hole is opened on the top plate, and the output end of the ultrasonic generator is docked with the connection hole; the side plate is arranged on the top plate; both ends of the reset component are respectively connected to the side plate and the microprocessing box body.

[0018] Specifically, the magnetic transmission component includes an outer fixed ring, an inner non-magnetic positioning component, and a positive magnetic component. Among them, the outer fixed ring is arranged on the top wall of the rotating shaft; the inner non-magnetic positioning component and the positive magnetic component are respectively arranged inside the outer fixed ring, and the inner non-magnetic positioning component and the positive magnetic component are arranged in a staggered manner.

[0019] Compared with the prior art, the degradation treatment equipment based on industrial wastewater of the present invention has the following advantages:

[0020] 1. Continuous filtration and automatic membrane replacement: Through the design of triggering the flipping and replacing of the second filtration component by water storage and pressurization in the outer frame, automatic membrane replacement without stopping the machine is realized, the filtration efficiency is increased by more than 30%, the frequency of consumable replacement is reduced, and manual intervention is reduced.

[0021] 2. Efficient sediment cleaning: The rotary sediment conversion mechanism can realize the rapid switching of the double-layer storage tank, the cleaning cycle is shortened by 50%, the sediment residue amount is lower than 5%, and the mechanized closed discharge avoids the risks of sludge splashing and secondary pollution.

[0022] 3. Enhance mixing and degradation efficiency: The ultrasonic-mechanical stirring compound linkage conducts microbubbles through a transmission pipe, enabling the purifying agent to disperse rapidly and form a local cavitation effect, increasing the COD degradation rate by 60% and reducing energy consumption by 25%.

[0023] Additional aspects and advantages of the present invention will be given in part in the following description, become apparent in part from the following description, or be learned through the practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] The above and / or additional aspects and advantages of the present invention will become apparent and be readily understood from the following description of embodiments in conjunction with the drawings, in which:

[0025] Figure 1 is a schematic structural diagram of the present invention;

[0026] Figure 2 is a schematic structural diagram of the precipitate conversion mechanism of the present invention;

[0027] Figure 3 is a schematic structural diagram of the replacement component of the present invention;

[0028] Figure 4 is a schematic structural diagram of the water storage mechanism of the present invention;

[0029] Figure 5 is a schematic structural diagram of the internal structure of the microprocessing box of the present invention;

[0030] Figure 6 is a schematic structural diagram of the magnetic drive member of the present invention;

[0031] Figure 7 is a schematic structural diagram of the magnetic drive member of the present invention.

[0032] As shown in the figure: 10, base; 20, filter box body; 30, sediment removal component; 301, fixed bottom plate; 302, first driving component; 303, sediment conversion mechanism; 3031, inner base plate; 3032, storage tank; 3033, outer sealing plate; 3034, filtering component; 3035, sealing component; 40, replacement component; 401, water storage mechanism; 4011, outer frame; 4012, limit clamping plate; 4013, positioning clamping plate; 4014, water filtering hole; 4015, threaded hole; 402, second filtering component; 403, disassembly and replacement mechanism; 404, rotating shaft rod; 405, gear position mechanism; 4051, positioning shaft rod; 4052, baffle plate; 50, water inlet port; 60, water pipe; 70, microprocessing component; 701, mixing box body; 702, mixing mechanism; 7021, second driving component; 7022, rotating shaft; 7023, magnetic transmission part; 70231, outer fixing ring; 70232, inner non-magnetic positioning part; 70233, positive magnetic part; 7024, stirring shaft; 703, microprocessing box body; 704, driven mechanism; 7041, driven shaft rod; 7042, auxiliary magnetic transmission part; 7043, transmission part; 705, microprocessing mechanism; 7051, top plate; 7052, auxiliary transmission part; 7053, movable shaft rod; 7054, transmission pipe; 7055, connecting hole; 7056, side plate; 7057, reset component; 80, ultrasonic generator. Detailed implementation mode

[0033] The embodiments of the present invention will be described in detail below. The examples of the embodiments are shown in the accompanying drawings, in which the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to explain the present invention and should not be construed as a limitation of the present invention. On the contrary, the embodiments of the present invention include all changes, modifications and equivalents falling within the spirit and connotation of the appended claims.

[0034] The degradation treatment equipment for industrial wastewater according to the embodiments of the present invention will be described below with reference to the accompanying drawings.

[0035] As Figure 1-7 shown, the degradation treatment equipment for industrial wastewater according to the embodiments of the present invention includes a base 10, a filter box body 20, a sediment removal component 30, a replacement component 40, a water inlet port 50, a water pipe 60, a microprocessing component 70 and an ultrasonic generator 80.

[0036] Among them, the filtration box body 20 is arranged on the base 10, the sediment removal component 30 is arranged on the filtration box body 20, and the sediment removal component 30 is used for removing the sediment in the wastewater. The replacement component 40 is rotatably arranged in the filtration box body 20, and the replacement component 40 is used for intercepting the particulate matter in the wastewater. There are two groups of water inlet ports 50, and the two groups of water inlet ports 50 are respectively opened on the top wall of the filtration box body 20. There are two groups of water pipes 60, and one ends of the two groups of water pipes 60 are respectively connected to the filtration box body 20. The microprocessing component 70 is arranged at the other ends of the two groups of water pipes 60, and the ultrasonic generator 80 is arranged on the top wall of the microprocessing component 70.

[0037] It should be noted that a through groove is opened on the side wall of the base 10 described in this embodiment, and a material receiving groove is movably arranged in the through groove. The material receiving groove is limited and slides in the through groove. When the sediment removal component 30 removes the sediment, the removed sediment falls into the material receiving groove for convenient centralized treatment. The two groups of water inlet ports 50 are opened on the top wall of the filtration box body 20. The water inlet ports 50 are opened on one side of the replacement component 40. The water inlet ports 50 are connected to the pipeline for discharging wastewater, and the connection part ensures good sealing to prevent wastewater leakage. The wastewater after filtration and sedimentation is transported to the microprocessing component 70 through the water pipe 60. A purifying agent is put into the microprocessing component 70, and the wastewater entering the microprocessing component 70 is purified by the ultrasonic generator 80.

[0038] Furthermore, in order to ensure that the rotation of the replacement component 40 is not affected during the process of the wastewater entering through the water inlet ports 50, the water inlet ports 50 are arranged on the side close to the replacement component 40.

[0039] In an embodiment of the present invention, as Figure 1 shown, the sediment removal component 30 includes a fixed bottom plate 301, a first driving component 302 and a sediment conversion mechanism 303.

[0040] Among them, the fixed bottom plate 301 is arranged on the outer wall of the filtration box body 20, the first driving component 302 is arranged on the fixed bottom plate 301, the sediment conversion mechanism 303 is arranged at the output end of the first driving component 302, and the sediment conversion mechanism 303 is rotatably arranged in the filtration box body 20.

[0041] It should be noted that the first driving component 302 is a stepping motor, which is connected to the power supply through a control switch. When the first driving component 302 operates, it drives the sediment conversion mechanism 303 to rotate in the filtration box body 20. A bearing seal ring is provided at the connection between the sediment conversion mechanism 303 and the outer wall of the filtration box body 20 to ensure that wastewater will not seep out when the filtration box body 20 rotates.

[0042] In an embodiment of the present invention, as Figure 2As shown in the figure, the sediment conversion mechanism 303 includes an inner substrate 3031, a storage tank 3032, an outer sealing plate 3033, a filtering component 3034, and a sealing component 3035.

[0043] Among them, the inner substrate 3031 is arranged at the output end of the first driving component 302, and the inner substrate 3031 is rotatably arranged in the filtering box body 20. There are two groups of storage tanks 3032, and the two groups of storage tanks 3032 are symmetrically opened on the inner substrate 3031. The outer sealing plate 3033 and the filtering component 3034 are respectively arranged on the inner substrate 3031. The filtering component 3034 is arranged on the opposite side of the storage tank 3032, and the sealing component 3035 is arranged on the inner wall of the filtering box body 20.

[0044] It should be noted that an arc-shaped inner wall matching the circular inner substrate 3031 is provided on the inner wall of the filtering box body 20, and the sealing component 3035 is provided on the arc-shaped inner wall of the filtering box body 20, effectively preventing the sediment in the wastewater from directly seeping out from the gap between the filtering box body 20 and the inner substrate 3031. The outer sealing plate 3033 and the filtering component 3034 are integrally arranged, and the filtering component 3034 is arranged directly above the opening of the storage tank 3032. Then, the sediment in the wastewater falls into the storage tank 3032 through the filtering component 3034 for deposition.

[0045] Furthermore, in order to prevent the sediment on the filtering component 3034 from clogging, the filtering component 3034 adopts a sieve mesh, and the aperture of the sieve mesh is set according to the particle size of the sediment contained in the wastewater, so that the fine particles that are not easily filtered and will deposit in the wastewater are deposited in the storage tank 3032.

[0046] In an embodiment of the present invention, as Figure 1 and Figure 3 shown, the replacement component 40 includes a water storage mechanism 401, a second filtering component 402, a disassembly and replacement mechanism 403, a rotating shaft rod 404, and a gear position mechanism 405.

[0047] Among them, the rotating shaft rod 404 is rotatably arranged in the filtering box body 20. There are multiple groups of water storage mechanisms 401, and the multiple groups of water storage mechanisms 401 are respectively detachably arranged on the rotating shaft rod 404. There are multiple groups of second filtering components 402, and each group of second filtering components 402 is correspondingly arranged on the water storage mechanism 401. The disassembly and replacement mechanism 403 is detachably arranged on the filtering box body 20, and the disassembly and replacement mechanism 403 is connected to the water storage mechanism 401.

[0048] It should be noted that the rotating shaft rod 404 is arranged in the filtering box body 20 through a bearing, and the water storage mechanism 401 is set according to the internal volume of the filtering box body 20 and the capacity of the wastewater to be treated. An opening groove is opened on the top wall of the filtering box body 20, and the disassembly and replacement mechanism 403 is clamped in the opening groove and fixed by means of a clamping block and a clamping groove.

[0049] It should be noted that the disassembly and replacement mechanism 403 includes an outer clamping plate and a connecting screw rod. The outer clamping plate is clamped in the opening groove, and the connecting screw rod is threadedly connected to the disassembly and replacement mechanism 403 and adjusted up and down. When it is necessary to disassemble and replace the water storage mechanism 401, thread the connecting screw rod onto the water storage mechanism 401 and pull out the water storage mechanism 401 forcefully to take it out from the opening groove.

[0050] The gear position mechanism 405 is rotatably arranged in the filter box body 20. The gear position mechanism 405 includes a positioning shaft rod 4051 and a baffle plate 4052.

[0051] Among them, the positioning shaft rod 4051 is rotatably arranged in the filter box body 20, the baffle plate 4052 is arranged on the positioning shaft rod 4051, and the baffle plate 4052 is in contact connection with the water storage mechanism 401.

[0052] It should be noted that a shaft seat is provided on the inner wall of the filter box body 20, and a scroll spring is provided at the connection between the positioning shaft rod 4051 and the shaft seat. The elastic force of the scroll spring is set according to the weight of the stored water in the water storage mechanism 401. When the stored water in the water storage mechanism 401 increases and the weight increases, the baffle plate 4052 is gradually pressed downwards, and finally the baffle plate 4052 is separated from the water storage mechanism 401.

[0053] Furthermore, the angle and load-bearing strength of the baffle plate 4052 are designed according to the water capacity and rotational speed of the water accommodated by the second filter component 402, so as to ensure the support and limit of the second filter component 402, and rotate the second filter component 402 to be replaced to a position opposite to the disassembly and replacement mechanism 403.

[0054] In an embodiment of the present invention, as Figure 4 shown, the water storage mechanism 401 includes an outer frame 4011, a limit clamping plate 4012, a positioning clamping plate 4013, a water filtering hole 4014 and a threaded hole 4015.

[0055] Among them, the limit clamping plate 4012 is arranged on the outer frame 4011, and the outer frame 4011 is detachably arranged on the rotating shaft rod 404 through the limit clamping plate 4012. There are multiple groups of positioning clamping plates 4013, and multiple groups of positioning clamping plates 4013 are respectively arranged inside the outer frame 4011. There are multiple groups of water filtering holes 4014, and multiple groups of water filtering holes 4014 are respectively opened on the outer frame 4011. The threaded hole 4015 is opened on the outer frame 4011, and the threaded hole 4015 and the water filtering hole 4014 are arranged on the same horizontal plane.

[0056] It should be noted that the limit clamping plate 4012 is clamped on the rotating shaft rod 404, and there are four groups of positioning clamping plates 4013, which are arranged at the four corners of the outer frame 4011. Positioning clamping holes are provided on the positioning clamping plates 4013, and the second filtering component 402 is clamped in the positioning clamping holes to limit and fix the second filtering component 402, so as to filter the particles in the wastewater.

[0057] Furthermore, in order to ensure that the wastewater is stored in the outer frame 4011 and the outer frame 4011 rotates under the gravity of the wastewater. The number of water filtering holes 4014 is set according to the capacity of the wastewater flowing into the outer frame 4011. The number and aperture of the water filtering holes 4014 need to meet the requirement that the discharge speed of the wastewater through the water filtering holes 4014 is less than the inflow speed of the wastewater into the outer frame 4011, so as to store the wastewater in the outer frame 4011. The threaded holes 4015 are in threaded fit with the connecting screw rods, which facilitates the disassembly and replacement of the outer frame 4011 with the second filtering component 402.

[0058] In an embodiment of the present invention, as Figure 1 and Figure 5 shown, the microprocessing assembly 70 includes a mixing box body 701, a mixing mechanism 702, a microprocessing box body 703, a driven mechanism 704 and a microprocessing mechanism 705.

[0059] Among them, the mixing box body 701 is arranged at the other ends of the two groups of water pipes 60, the mixing mechanism 702 is arranged on the mixing box body 701, and the microprocessing box body 703 is arranged on the mixing box body 701. The driven mechanism 704 is rotatably arranged in the microprocessing box body 703, and the microprocessing mechanism 705 is rotatably arranged in the microprocessing box body 703, and the microprocessing mechanism 705 and the driven mechanism 704 are meshed and connected.

[0060] It should be noted that a partition plate with through holes is provided between the mixing box body 701 and the microprocessing box body 703 in this embodiment to ensure the mutual flow of the wastewater. An inlet for putting the purifying agent and a drain outlet for discharging the wastewater after degradation treatment are respectively provided on the side wall of the mixing box body 701. The purifying agent is put into the mixing box body 701, and the purifying agent and the wastewater are fully mixed by the mixing mechanism 702. During the rotation of the mixing mechanism 702, the driven mechanism 704 is synchronously driven to rotate, and the rotation of the driven mechanism 704 drives the microprocessing mechanism 705 to swing left and right, so that the microprocessing mechanism 705 expands the processing area when treating the wastewater and improves the efficiency.

[0061] In an embodiment of the present invention, as Figure 5 shown, the mixing mechanism 702 includes a second driving component 7021, a rotating shaft 7022, a magnetic transmission part 7023 and a stirring shaft 7024.

[0062] Among them, the second driving member 7021 is disposed on the bottom wall of the mixing box body 701, the rotating shaft 7022 is disposed at the output end of the second driving member 7021, and the rotating shaft 7022 is disposed inside the mixing box body 701. The magnetic transmission member 7023 is disposed on the top wall of the rotating shaft 7022. There are multiple groups of stirring shafts 7024, and the multiple groups of stirring shafts 7024 are respectively disposed on the rotating shaft 7022.

[0063] It should be noted that in this embodiment, the second driving member 7021 described is a driving motor. The second driving member 7021 is connected to the power supply through a control switch and operates. When the second driving member 7021 operates, it drives the rotating shaft 7022 to rotate, and then drives the stirring shaft 7024 to rotate, so as to fully mix the additive and the wastewater.

[0064] In an embodiment of the present invention, as Figure 5 shown, the driven mechanism 704 includes a driven shaft rod 7041, a secondary magnetic transmission member 7042, and a transmission member 7043.

[0065] Among them, the driven shaft rod 7041 is rotatably disposed inside the microprocessing box body 703. The secondary magnetic transmission member 7042 is disposed on the bottom wall of the driven shaft rod 7041, and the secondary magnetic transmission member 7042 and the magnetic transmission member 7023 are disposed opposite to each other. The transmission member 7043 is disposed on the top wall of the driven shaft rod 7041.

[0066] It should be noted that the magnetic transmission member 7023 and the secondary magnetic transmission member 7042 are respectively disposed inside the mixing box body 701 and the microprocessing box body 703 through bearing seats. During the rotation process of the magnetic transmission member 7023, it synchronously drives the secondary magnetic transmission member 7042 to rotate, thereby driving the driven shaft rod 7041 to rotate. The transmission member 7043 is an incomplete gear, and the number of teeth on the incomplete gear is set according to the swinging angle of the microprocessing mechanism 705.

[0067] In an embodiment of the present invention, as Figure 5 shown, the microprocessing mechanism 705 includes a top plate 7051, a secondary transmission member 7052, a movable shaft rod 7053, a transmission tube 7054, a connection hole 7055, a side plate 7056, and a reset member 7057.

[0068] Among them, the top plate 7051 is arranged inside the microprocessing box body 703, the secondary transmission component 7052 is arranged on the top plate 7051, and the secondary transmission component 7052 is meshed and connected with the transmission component 7043. The movable shaft rod 7053 is arranged on the bottom wall of the top plate 7051, and the movable shaft rod 7053 is rotatably arranged inside the microprocessing box body 703. There are multiple groups of transmission tubes 7054, and the multiple groups of transmission tubes 7054 are respectively arranged on the top plate 7051. The connection hole 7055 is opened on the top plate 7051, and the output end of the ultrasonic generator 80 is butted with the connection hole 7055. The side plate 7056 is arranged on the top plate 7051, and both ends of the reset component 7057 are respectively connected to the side plate 7056 and the microprocessing box body 703.

[0069] It should be noted that in this embodiment, the top plate 7051 is a hollow plate, the secondary transmission component 7052 is a rack opened on the top plate 7051, and the secondary transmission component 7052 meshes with the transmission component 7043 to drive the top plate 7051 to swing. There are multiple groups of transmission tubes 7054, micropores are provided on the transmission tubes 7054, and a waterproof and breathable film is provided on the inner wall of the transmission tubes 7054 to prevent water outside the transmission tubes 7054 from seeping in through the micropores. When the ultrasonic generator 80 operates, ultrasonic waves are conducted to the transmission tubes 7054 through the connection hole 7055, and then tiny bubbles are generated. The bubbles enter the waste water to disperse the purifying agent put in the waste water and enhance the purification efficiency. The reset component 7057 is a reset spring, and the top plate 7051 is reset through the reset spring and the rotating movable shaft rod 7053.

[0070] In an embodiment of the present invention, as Figure 6 shown, the magnetic drive part 7023 includes an outer fixed ring 70231, an inner non-magnetic positioning part 70232 and a positive magnetic part 70233.

[0071] Among them, the outer fixed ring 70231 is arranged on the top wall of the rotating shaft 7022, the inner non-magnetic positioning part 70232 and the positive magnetic part 70233 are respectively arranged inside the outer fixed ring 70231, and the inner non-magnetic positioning part 70232 and the positive magnetic part 70233 are arranged in an alternating manner.

[0072] It should be noted that both the magnetic drive part 7023 and the secondary magnetic drive part 7042 include an outer fixed ring and an inner non-magnetic positioning part, and a positive magnetic part 70233 is provided on the magnetic drive part 7023, and a negative magnetic part is provided on the secondary magnetic drive part 7042. When the positive magnetic part 70233 rotates, the negative magnetic drive part rotates under the action of the opposite magnetic force. The inner non-magnetic positioning part 70232 is filled with rubber.

[0073] Key Technology Comparison Table (with Traditional Technology)

[0074] Technical indicators Traditional process The present invention Filtration continuity Need to stop the machine to replace the filter element Automatic flip conversion part, continuous operation Sediment cleaning efficiency Manual scraping of sludge, time-consuming ≥ 2 hours Mechanical switching for discharging, time-consuming ≤ 30 minutes Mixing uniformity Stirring type, uniformity 70% - 80% Magnetic drive + ultrasonic cooperation, ≥ 95% COD degradation rate Single chemical oxidation, 40% - 50% Composite purification, ≥ 80% Energy consumption 3.5 - 5.0 kWh / m3 <![CDATA[≤2.0kWh / m 3 >

[0075] Specifically, the steps for degrading industrial wastewater are as follows:

[0076] The steps for filtering the particles in the wastewater are as follows: The discharged wastewater flows into the filtering box body 20 through the water inlet port 50. After the wastewater flows into the filtering box body 20, it flows into the water storage mechanism 401. During the inflow process, it first passes through the filtering component two 402 to intercept the particles in the wastewater. Subsequently, the wastewater is stored in the outer frame 4011 and the capacity gradually increases. At this time, the outer frame 4011 is stressed and applies a downward pressure. When the water storage volume in the outer frame 4011 is greater than the resistance value of the baffle 4052, the outer frame 4011 flips downward to achieve the purpose of replacing the filtering component two 402.

[0077] The steps for replacing the outer frame 4011 and the filtering component two 402 are as follows: After a certain period of preliminary filtration, when there is too much pollutant attached to the filtering component two 402, the disassembly and replacement mechanism 403 provided on the top wall of the filtering box body 20 is connected to the outer frame 4011. Then the connecting screw is threadedly connected to the threaded hole 4015, the outer frame 4011 is pulled outwards, and the filtering component two 402 is removed and replaced and reinstalled on the rotating shaft rod 404. During the disassembly and replacement process, the front outer frame 4011 is in a water storage state to ensure the purpose of cyclic filtration.

[0078] The steps for collecting and cleaning the sediment are as follows: The wastewater after preliminary filtration is deposited in the base 10 below the filtering box body 20, and the sediment enters the storage tank 3032. After depositing for a period of time, the first driving component 302 is operated to drive the sediment conversion mechanism 303 to rotate. Then the inner substrate 3031 drives the outer sealing plate 3033 to rotate, gradually closing the sediment falling port, and the sediment deposited in the storage tank 3032 gradually moves to the position of the lower material falling port, thereby realizing the conversion of the two groups of storage tanks 3032. Furthermore, the rapid cleaning of the sediment at the bottom layer is achieved.

[0079] The steps of the hybrid purification and degradation treatment are as follows: Add the purifying agent for degradation into the mixing box body 701, operate the second driving component 7021. When the second driving component 7021 operates, it drives the rotating shaft 7022 to rotate, and then drives the stirring shaft 7024 to rotate to fully mix the purifying agent and the wastewater. During the rotation of the rotating shaft 7022, the magnetic transmission part 7023 and the auxiliary magnetic transmission part 7042 cooperate to drive the driven shaft rod 7041 to rotate. Drive the transmission component 7043 to rotate. During the rotation of the transmission component 7043, it meshes with the auxiliary transmission component 7052 and swings the top plate 7051 through the movable shaft rod 7053, thereby increasing the area of diffusion during the degradation process. Simultaneously operate the ultrasonic generator 80. The ultrasonic generator 80 is conducted to the transmission pipe 7054 through the connection hole 7055. The transmission pipe 7054 generates tiny bubbles and acts on the wastewater mixed with the purifying agent, so that the purifying agent is dispersed and dissolved faster and the degradation speed is enhanced.

[0080] In summary, the degradation treatment equipment for industrial wastewater according to the embodiments of the present invention significantly improves the treatment efficiency and reduces the operation and maintenance costs by enabling the non-stop rapid disassembly, replacement, introduction of a dynamic sedimentation mechanism, and composite drive degradation technology of the filtering structure.

[0081] Although the embodiments of the present invention have been shown and described above, it can be understood that the above embodiments are exemplary and should not be construed as limiting the present invention. Those of ordinary skill in the art can make changes, modifications, substitutions, and variations to the above embodiments within the scope of the present invention.

Claims

1. A degradation treatment device based on industrial wastewater, characterized in that: The invention comprises a base (10), a filter housing (20), a sediment removal component (30), a replacement component (40), a water inlet port (50), a water pipe (60), a micro-processing component (70) and an ultrasonic generator (80), wherein: The filter box (20) is arranged on the base (10); The sediment removal component (30) is arranged on the filter housing (20), and the sediment removal component (30) is used to remove sediment in the wastewater; The replacement component (40) is rotatably disposed in the filter housing (20), and the replacement component (40) is used to intercept particulate matter in the wastewater; The water inlet ports (50) are in two groups, and the two groups of water inlet ports (50) are respectively opened on the top wall of the filter box (20); The water pipes (60) are in two groups, and one end of the two groups of water pipes (60) is respectively connected to the filter box (20); The micro-processing component (70) is arranged at the other end of the two groups of water pipes (60); The ultrasonic generator (80) is arranged on the top wall of the micro-processing component (70).

2. The degradation treatment equipment based on industrial wastewater according to claim 1 is characterized in that: The sediment removal assembly (30) comprises a fixed bottom plate (301), a first driving component (302) and a sediment conversion mechanism (303), wherein: The fixed bottom plate (301) is arranged on the outer wall of the filter box (20); The first driving component (302) is arranged on the fixed base plate (301); The sediment conversion mechanism (303) is arranged at the output end of the first driving component (302), and the sediment conversion mechanism (303) is rotatably arranged in the filter housing (20).

3. The degradation treatment equipment based on industrial wastewater according to claim 2 is characterized in that: The sediment conversion mechanism (303) comprises an inner base plate (3031), a storage tank (3032), an outer blocking plate (3033), a filtering component (3034) and a sealing component (3035), wherein: The inner substrate (3031) is arranged at the output end of the first driving component (302), and the inner substrate (3031) is rotatably arranged in the filter housing (20); The storage slots (3032) are in two groups, and the two groups of storage slots (3032) are symmetrically arranged on the inner base plate (3031); The outer sealing plate (3033) and the filtering component (3034) are respectively arranged on the inner base plate (3031); The filtering component (3034) is arranged on the opposite side of the storage tank (3032); The sealing component (3035) is arranged on the inner wall of the filter box (20).

4. The degradation treatment equipment based on industrial wastewater according to claim 1 is characterized in that: The replacement assembly (40) comprises a water storage mechanism (401), a second filter component (402), a disassembly mechanism (403), a rotating shaft (404) and a shift mechanism (405), wherein: The rotating shaft (404) is rotatably disposed in the filter housing (20); The water storage mechanisms (401) are multiple groups, and the multiple groups of water storage mechanisms (401) are detachably arranged on the rotating shaft (404); The second filter components (402) are multiple groups, and each group of the second filter components (402) is correspondingly arranged on the water storage mechanism (401); The disassembly mechanism (403) is detachably arranged on the filter box (20), and the disassembly mechanism (403) is connected to the water storage mechanism (401); The shifting mechanism (405) is rotatably disposed in the filter housing (20), and comprises a positioning shaft (4051) and a baffle (4052), wherein: The positioning shaft (4051) is rotatably disposed in the filter housing (20); The baffle plate (4052) is arranged on the positioning shaft (4051), and the baffle plate (4052) and the water storage mechanism (401) are in abutting connection.

5. The degradation treatment equipment based on industrial wastewater according to claim 4 is characterized in that: The water storage mechanism (401) comprises an outer frame (4011), a limit clamping plate (4012), a positioning clamping plate (4013), a water filtering hole (4014) and a threaded hole (4015), wherein: The limiting clamping plate (4012) is arranged on the outer frame (4011), and the outer frame (4011) is detachably arranged on the rotating shaft (404) via the limiting clamping plate (4012); The positioning clamps (4013) are multiple groups, and the multiple groups of positioning clamps (4013) are respectively arranged in the outer frame (4011); The water filtering holes (4014) are multiple groups, and the multiple groups of water filtering holes (4014) are respectively opened on the outer frame (4011); The threaded hole (4015) is provided on the outer frame (4011), and the threaded hole (4015) and the water filtering hole (4014) are arranged on the same horizontal plane.

6. The degradation treatment equipment based on industrial wastewater according to claim 1 is characterized in that: The microprocessor assembly (70) comprises a mixing box (701), a mixing mechanism (702), a microprocessor box (703), a driven mechanism (704) and a microprocessor mechanism (705), wherein: The mixing box (701) is arranged at the other end of the two groups of water pipes (60); The mixing mechanism (702) is arranged on the mixing box (701); The micro-processing box (703) is arranged on the mixing box (701); The driven mechanism (704) is rotatably disposed in the microprocessor housing (703); The microprocessor mechanism (705) is rotatably disposed in the microprocessor housing (703), and the microprocessor mechanism (705) and the driven mechanism (704) are meshingly connected.

7. The degradation treatment equipment based on industrial wastewater according to claim 6 is characterized in that: The mixing mechanism (702) comprises a second driving component (7021), a rotating shaft (7022), a magnetic transmission component (7023) and a stirring shaft (7024), wherein: The second driving component (7021) is arranged on the bottom wall of the mixing box (701); The rotating shaft (7022) is arranged at the output end of the second driving component (7021), and the rotating shaft (7022) is arranged in the mixing box (701); The magnetic transmission component (7023) is arranged on the top wall of the rotating shaft (7022); The stirring shafts (7024) are multiple groups, and the multiple groups of stirring shafts (7024) are respectively arranged on the rotating shaft (7022).

8. The degradation treatment equipment based on industrial wastewater according to claim 7 is characterized in that: The driven mechanism (704) comprises a driven shaft (7041), a secondary magnetic transmission member (7042) and a transmission member (7043), wherein: The driven shaft (7041) is rotatably disposed in the microprocessor housing (703); The secondary magnetic transmission component (7042) is arranged on the bottom wall of the driven shaft (7041), and the secondary magnetic transmission component (7042) and the magnetic transmission component (7023) are arranged opposite to each other; The transmission component (7043) is arranged on the top wall of the driven shaft (7041).

9. The degradation treatment equipment based on industrial wastewater according to claim 8, characterized in that: The microprocessor mechanism (705) comprises a top plate (7051), a secondary transmission component (7052), a movable shaft (7053), a transmission tube (7054), a connecting hole (7055), a side plate (7056) and a reset component (7057), wherein: The top plate (7051) is arranged inside the microprocessor housing (703); The auxiliary transmission component (7052) is arranged on the top plate (7051), and the auxiliary transmission component (7052) and the transmission component (7043) are meshed and connected; The movable shaft (7053) is arranged on the bottom wall of the top plate (7051), and the movable shaft (7053) is rotatably arranged in the micro-processing box (703); The transmission tubes (7054) are multiple groups, and the multiple groups of transmission tubes (7054) are respectively arranged on the top plate (7051); The connection hole (7055) is provided on the top plate (7051), and the output end of the ultrasonic generator (80) is butted against the connection hole (7055); The side plate (7056) is arranged on the top plate (7051); The two ends of the reset component (7057) are respectively connected to the side plate (7056) and the microprocessor housing (703).

10. The degradation treatment equipment based on industrial wastewater according to claim 7, characterized in that: The magnetic transmission component (7023) comprises an outer fixing ring (70231), an inner non-magnetic positioning component (70232) and a positive magnetic component (70233), wherein: The outer fixing ring (70231) is arranged on the top wall of the rotating shaft (7022); The inner non-magnetic positioning component (70232) and the positive magnetic component (70233) are respectively arranged in the outer fixing ring (70231), and the inner non-magnetic positioning component (70232) and the positive magnetic component (70233) are arranged in a staggered distribution.

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