Industrial wastewater reuse treatment device

Abstract

The present invention discloses an industrial wastewater reuse treatment device, including a wastewater reuse processor, which includes a loading base plate, a loading vertical plate fixedly connected to the top surface of the loading base plate, and a shielding horizontal plate fixedly installed on the top surface of the loading vertical plate; a rightward pulling force is applied to a target wastewater treatment component by a movement component, so that the target wastewater treatment component moves to the right; when the target wastewater treatment component finishes moving to the right, the water injection component stops the wastewater from entering the target wastewater treatment component, and at the same time, the conversion component connects the target wastewater treatment component with the boosting component, and the boosting component can draw purified water and reversely inject it into the target wastewater treatment component, which has a backflushing effect and is used to poke and block the target wastewater treatment component, does not require manual control, saves time and effort, is highly targeted, will not interfere with the normal working of the wastewater treatment component, will not delay the wastewater reuse, and improves the practicality of the industrial wastewater reuse treatment device.

Description

Technical Field

[0001] The present invention relates to the field of wastewater treatment equipment, and more particularly to an industrial wastewater reuse treatment device. Background Art

[0002] In recent years, the reuse of wastewater discharged from the factory to achieve zero wastewater discharge is more conducive to the long-term development of the enterprise. Reverse osmosis equipment is needed in the industrial wastewater reuse treatment system. The working principle of reverse osmosis equipment is to apply a certain pressure to the water so that water molecules and ionic mineral elements pass through a layer of reverse osmosis membrane, while most of the inorganic salts, organic matter, bacteria, viruses, etc. dissolved in the water cannot pass through the reverse osmosis membrane, so that the pure water that passes through and the concentrated water that cannot pass through are strictly separated.

[0003] The existing reverse osmosis equipment is composed of a bracket, multiple filter elements, a piping system, a booster pump, etc. When in use, wastewater passes through the filter element through the piping system under the action of the booster pump to achieve the purification effect. When the filter element is blocked, the valves are manually controlled to make the purified water flow in the opposite direction and backflushed the filter element to achieve the effect of clearing the blockage. However, there are too many valves that need to be manually controlled, which makes the operation difficult and prone to operational errors. In addition, the blocked filter element cannot be cleaned in a targeted manner. Each cleaning requires interrupting the wastewater treatment process and cleaning all the filter elements together, which delays the reuse of wastewater. Therefore, there is an urgent need to design an industrial wastewater reuse treatment device. Summary of the Invention

[0004] 1. Technical problems to be solved

[0005] The existing reverse osmosis equipment in the prior art is composed of a bracket, multiple filter elements, a piping system, a booster pump, etc. When in use, wastewater passes through the filter element through the piping system under the action of the booster pump to achieve a purification effect. When the filter element is blocked, the valves are manually controlled to make the purified water flow in reverse and backflushed the filter element to achieve the effect of clearing the blockage. However, there are too many valves that need to be manually controlled, which makes the operation difficult and prone to operational errors. Moreover, the blocked filter element cannot be cleaned in a targeted manner. Each cleaning requires interrupting the wastewater treatment process and cleaning all the filter elements together, which delays the reuse of wastewater. The purpose of the present invention is to provide an industrial wastewater reuse treatment device, which can well solve the problems raised in the background technology.

[0006] 2. Technical solution

[0007] To solve the above problems, the present invention adopts the following technical solutions.

[0008] An industrial wastewater reuse treatment device includes a wastewater reuse processor, which includes a loading base plate, a loading vertical plate fixedly connected to the top surface of the loading base plate, a shielding horizontal plate fixedly installed on the top surface of the loading vertical plate, a wastewater injection flat pipe, a recycled water concentration pipe and a pollutant discharge pipe fixedly connected between the loading base plate and the shielding horizontal plate, the wastewater injection flat pipe is connected to a rake-type wastewater pipe, the recycled water concentration pipe is connected to a rake-type recycled pipe, the pollutant discharge pipe is connected to a rake-type sewage collection pipe, and the main pipe of the rake-type sewage collection pipe is connected to the main pipe of the rake-type sewage collection pipe. A rear water quality probe is installed on the road, an intelligent controller is installed on the top surface of the loading bottom plate, and a moving assembly is installed on the bearing vertical plate. The moving assembly includes a moving collar, which is fixedly plugged into the bearing vertical plate. A wastewater treatment assembly is provided inside the moving collar, and the wastewater treatment assembly includes a wastewater treatment column. The wastewater treatment column is slidably plugged into the inside of the moving collar. A water injection assembly is provided on the left end of the wastewater treatment column. The water injection assembly includes a water injection pipe, which is fixedly connected between the wastewater injection flat pipe and the wastewater treatment column. The right end is provided with a conversion component, which includes a moving cylinder, which is connected between the recycled water concentration pipe and the wastewater treatment column, and a sealing cylinder is fixedly sleeved on the outside of the moving cylinder. The right end of the sealing cylinder is connected to a constant pressure flattening tube, which is fixedly connected between the loading bottom plate and the shielding horizontal plate. Two flushing components are provided on the outside of the wastewater treatment column, and the flushing component includes a flushing column, which is provided with a flushing through-hole. The wastewater treatment column is slidably inserted into the inside of the flushing through-hole, and the flushing column is connected to a delivery pipe. The delivery pipe corresponding to one flushing column is connected to the pollution The wastewater treatment column is connected with a material unloading pipe, and a snap mechanism is provided on the left end of the wastewater treatment column, wherein the snap mechanism includes a cone-shaped part, which is fixedly sleeved on the outside of the wastewater treatment column, and a booster assembly is provided on the constant pressure flattening tube, and the booster assembly includes a rake-type water distribution pipe, which is connected with the rake-type return pipe, and the booster assembly also includes a docking elbow, which is connected with the flow pipe corresponding to another flushing column, and a resetter is further provided on the outside of the wastewater treatment column, wherein the resetter includes a reset plate, and the reset plate is slidably sleeved on the outside of the wastewater treatment column.

[0009] Preferably, the shifting assembly further comprises a shifting spring, which is fixedly connected to the left side of the shifting collar, and the left end of the shifting spring is fixedly connected to a shifting pin, which is fixedly connected to the surface of the wastewater treatment column.

[0010] Preferably, the wastewater treatment component also includes a wastewater treatment chamber, which is opened inside the wastewater treatment column. A filter element slot is opened on the left side of the inner cavity of the wastewater treatment chamber and located in the middle thereof. An integrated filter element is slidably inserted into the filter element slot, and a centering sleeve is slidably sleeved on the outside of the integrated filter element. The centering sleeve is fixedly inserted into the right side of the wastewater treatment column, and a built-in water-permeable pipe is provided on the right end face of the integrated filter element.

[0011] Preferably, the water injection assembly also includes an electronic flowmeter and a cylindrical cavity. The electronic flowmeter is installed on the pipeline of the water injection pipe. The cylindrical cavity is opened inside the wastewater treatment column and is located at its left end. A conical cavity is opened on the left side of the inner cavity of the cylindrical cavity. A frustum-shaped cylinder is provided inside the conical cavity. The right end of the water injection pipe extends to the interior of the conical cavity and is fixedly connected to the frustum-shaped cylinder. A sealing cone sleeve is fixedly sleeved on the outer surface of the frustum-shaped cylinder. A water-permeable through hole is opened on the sealing cone sleeve. The water-permeable through hole is connected to the frustum-shaped cylinder. A water supply channel is opened on the right side of the inner cavity of the cylindrical cavity, and the water supply channel is connected to the wastewater treatment chamber.

[0012] Preferably, the conversion component also includes an assembling column, an internal threaded groove is provided on the left end surface of the assembling column, the centering sleeve is movably inserted into the interior of the internal threaded groove and the two are threadedly matched, a plug-in through-hole is provided on the right side surface of the inner cavity of the internal threaded groove, the built-in water-permeable pipe is slidably inserted into the interior of the plug-in through-hole, a U-shaped channel is provided inside the assembling column, the U-shaped channel is connected with the plug-in through-hole, a transfer chamber is provided inside the assembling column, the transfer chamber is connected with the U-shaped channel, a cylindrical sealing groove is provided on the left side surface of the inner cavity of the transfer chamber, the moving tube is movably inserted into the interior of the assembling column and movably inserted into the interior of the cylindrical sealing groove, a return water through-hole is provided on the moving tube, the return water through-hole is connected with the transfer chamber, a through-hole is provided on the right side surface of the inner cavity of the transfer chamber, the sealing tube is slidably inserted into the interior of the through-hole, a recoil through-hole is provided on the sealing tube, and the recoil through-hole is located inside the through-hole.

[0013] Preferably, the flushing assembly further includes a flushing ring groove, which is provided on the inner wall of the flushing through hole and located at its right end. The flushing assembly further includes an overflow hole, which is provided on the surface of the wastewater treatment column and is connected to the wastewater treatment chamber.

[0014] Preferably, the snap mechanism also includes a snap spring bar, which is fixedly connected to the right side of the wastewater injection flat pipe. A snap triangle block located at its right end is fixedly connected to the top surface of the snap spring bar, and the snap triangle block is unidirectionally engaged with the conical part.

[0015] Preferably, the snap mechanism further comprises an extension bar, which is fixedly connected to the right side of the wastewater injection flat pipe, and an electromagnetic latch is fixedly connected to the bottom surface of the extension bar, and the bottom end of the electromagnetic latch is aligned with the snap spring bar.

[0016] Preferably, the booster assembly also includes a front water quality probe, which is fixedly mounted on the main pipeline on the rake-type water distribution pipe. The booster assembly also includes a booster pump, which is connected to the end of the rake-type water distribution pipe and is mounted on the top surface of the cargo base. The booster pump is connected to a suction pipe, which is connected to the main pipeline on the rake-type return pipe. The booster assembly also includes a docking elbow, which is connected to the sealing cylinder. The other end of the docking elbow is connected to an assembly elbow through a quick connector. The other end of the assembly elbow is connected to a flow pipe corresponding to another flushing column. The outside of the assembly elbow is fixedly connected to a reinforcement wall panel, which is fixedly connected between the cargo base and the shielding cross plate.

[0017] Preferably, the resetter also includes an electric telescopic rod and a reset retaining ring. There are two electric telescopic rods, which are respectively installed on the cargo bottom plate and the shielding horizontal plate. The end of the electric telescopic rod is fixedly connected to the left side of the reset plate, and the reset retaining ring is fixedly sleeved on the outside of the wastewater treatment column and is located on the left side of the reset plate.

[0018] 3. Beneficial effects

[0019] Compared with the prior art, the advantages of the present invention are:

[0020] 1. Through the wastewater reuse processor, wastewater can flow inside the wastewater treatment component, thereby enabling the wastewater treatment component to purify the wastewater. The water injection component can monitor the blockage of the wastewater treatment component in real time. When the wastewater treatment component is seriously blocked, the snap mechanism will release the blocked wastewater treatment component, and the moving component will apply a rightward pulling force to the target wastewater treatment component to make the target wastewater treatment component move to the right. When the target wastewater treatment component finishes moving to the right, the water injection component will stop the wastewater from entering the target wastewater treatment component. At the same time, the conversion component connects the target wastewater treatment component with the boosting component. The boosting component can draw purified water and reversely inject it into the target wastewater treatment component, which has a backflushing effect and is used to poke the target wastewater treatment component. It does not require manual control, saves time and effort, is highly targeted, will not interfere with the normal operation of the wastewater treatment component, will not delay wastewater reuse, and improves the practicality of the industrial wastewater reuse treatment device.

[0021] 2. The booster component can apply thrust to the concentrated water inside the wastewater treatment component, prompting the concentrated water to be discharged quickly, reducing the time for cleaning and blockage, and helping to increase the wastewater treatment efficiency. The flushing component can automatically discharge the concentrated water without the need for manual operation, saving time and effort. The resetter can apply a left thrust to the cleaned wastewater treatment component, so that the wastewater treatment component automatically starts wastewater treatment work, thereby improving the practicality of the industrial wastewater reuse treatment device. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a structural schematic diagram of the present invention;

[0023] Figure 2 For the present invention Figure 1 Schematic diagram of the internal structure of the wastewater treatment component;

[0024] Figure 3 For the present invention Figure 2 Schematic diagram of the internal structure of the water injection component;

[0025] Figure 4 For the present invention Figure 2 Schematic diagram of the internal structure of the transformation component;

[0026] Figure 5 For the present invention Figure 1 Schematic diagram of the structure of the middle buckle mechanism;

[0027] Figure 6 For the present invention Figure 1 Schematic diagram of the internal structure of the Zhongheng flattened tube;

[0028] Figure 7 For the present invention Figure 1 Schematic diagram of the structure of the middle flushing component;

[0029] Figure 8 For the present invention Figure 7 Schematic diagram of the internal structure.

[0030] Description of the numbers in the figure:

[0031] 1. Wastewater recycling processor; 11. Loading bottom plate; 12. Loading vertical plate; 13. Shielding horizontal plate; 14. Wastewater injection flat pipe; 15. Rake-type wastewater pipe; 16. Recycled water collection pipe; 17. Rake-type recycling pipe; 18. Pollutant discharge pipe; 19. Rake-type sewage collection pipe; 110. Post-mounted water quality probe; 111. Intelligent controller; 2. Movement assembly; 21. Movement collar; 22. Movement spring; 23. 3. Wastewater treatment assembly; 31. Wastewater treatment column; 32. Wastewater treatment chamber; 33. Filter element slot; 34. Integrated filter element; 35. Centering sleeve; 36. Built-in water permeable pipe; 4. Water injection assembly; 41. Water injection pipe; 42. Electronic flowmeter; 43. Cylindrical cavity; 44. Conical cavity; 45. Frustum-shaped cylinder; 46. Sealing cone sleeve; 47. Water permeable through hole; 48. Water transfer channel; 5. Conversion assembly; 51. Assembly Column; 52, internal thread groove; 53, plug-in through hole; 54, U-shaped channel; 55, transfer chamber; 56, cylindrical sealing groove; 57, moving cylinder; 58, return water through hole; 59, through hole; 510, sealing cylinder; 511, backwash through hole; 512, constant pressure flattened tube; 6, flushing assembly; 61, flushing column; 62, flushing through hole; 63, flushing ring groove; 64, overflow hole; 65, delivery pipe; 7, snap mechanism ;71. Snap spring strip;72. Snap triangle block;73. Conical piece;74. Extended horizontal bar;75. ​​Electromagnetic latch;8. Booster assembly;81. Dip tube;82. Booster pump;83. Rake-type water distribution pipe;84. Front water quality probe;85. Docking elbow;86. Quick connector;87. Assembly elbow;88. Reinforced wall panel;9. Resetter;91. Electric telescopic rod;92. Reset plate;93. Reset retaining ring. DETAILED DESCRIPTION

[0032] The following will be combined with the accompanying drawings to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of them. All other embodiments derived by persons of ordinary skill in the art based on the embodiments of the present invention without creative effort shall fall within the scope of protection of the present invention.

[0033] See also Figure 1, an industrial wastewater reuse treatment device includes a wastewater reuse processor 1, the wastewater reuse processor 1 includes a loading base plate 11, a loading vertical plate 12 is fixedly connected to the top surface of the loading base plate 11, a shielding horizontal plate 13 is fixedly installed on the top surface of the loading vertical plate 12, a wastewater injection flat pipe 14, a recycling water concentration pipe 16 and a pollutant discharge pipe 18 are fixedly connected between the loading base plate 11 and the shielding horizontal plate 13, the wastewater injection flat pipe 14 is connected to a rake-type wastewater pipe 15, the recycling water concentration pipe 16 is connected to a rake-type recycling pipe 17, the pollutant discharge pipe 18 is connected to a rake-type sewage collection pipe 19, a rear-mounted water quality probe 110 is installed on the main pipeline of the rake-type sewage collection pipe 19, an intelligent controller 111 is installed on the top surface of the loading base plate 11, and a moving component 2 is installed on the loading vertical plate 12. The shifting assembly 2 includes a shifting collar 21, which is fixedly plugged into the supporting vertical plate 12. A wastewater treatment assembly 3 is provided inside the shifting collar 21. The wastewater treatment assembly 3 includes a wastewater treatment column 31, which is slidably plugged into the inside of the shifting collar 21. A water injection assembly 4 is provided at the left end of the wastewater treatment column 31. The water injection assembly 4 includes a water injection pipe 41. The water injection pipe 41 is fixedly connected between the wastewater injection flat pipe 14 and the wastewater treatment column 31 and is in a connected state. A conversion assembly 5 is provided at the right end of the wastewater treatment column 31. The conversion assembly 5 includes a shifting cylinder 57. The shifting cylinder 57 is connected between the recycled water concentration pipe 16 and the wastewater treatment column 31 and is in a connected state. The outside of the shifting cylinder 57 is fixedly sleeved with a sealing cylinder 510. The right end of the sealing cylinder 510 is connected to a constant pressure flat pipe 512. Please refer to Figure 6, the moving cylinder 57 passes through the constant pressure flattened tube 512, the constant pressure flattened tube 512 is fixedly connected between the loading bottom plate 11 and the shielding horizontal plate 13, and two flushing components 6 are provided on the outside of the wastewater treatment column 31. The flushing component 6 includes a flushing column 61, and a flushing through-hole 62 is opened on the flushing column 61. The wastewater treatment column 31 is slidably inserted into the inside of the flushing through-hole 62, and a flow pipe 65 is connected to the flushing column 61. The flow pipe 65 corresponding to a flushing column 61 is connected to the pollutant discharge pipe 18. A snap mechanism 7 is provided on the left end of the wastewater treatment column 31. The snap mechanism 7 includes a cone-shaped member 73, and the cone-shaped member 73 is fixedly sleeved on the outside of the wastewater treatment column 31. A booster component 8 is provided on the constant pressure flattened tube 512. The booster component 8 includes a rake-type water distribution pipe 83, and the rake-type water distribution pipe 83 It is connected to the rake-type return pipe 17, and the booster assembly 8 also includes a docking elbow 85, which is connected to the flow pipe 65 corresponding to another flushing column 61. The outside of the wastewater treatment column 31 is also provided with a resetter 9, and the resetter 9 includes a reset plate 92. The reset plate 92 is slidably sleeved on the outside of the wastewater treatment column 31. The constant pressure flattening tube 512 is bolted to the loading bottom plate 11 and the shielding horizontal plate 13. The recycled water concentration pipe 16 is fixedly connected to the constant pressure flattening tube 512 for easy disassembly. The intelligent controller 111 will compare the data detected by the electronic flow meter 42. The intelligent controller 111 will give priority to controlling the electromagnetic plug 75 corresponding to the electronic flow meter 42 with the smallest detection data. The intelligent controller 111 only controls the action of one electromagnetic plug 75 at a time.

[0034] See also Figure 1 The shifting assembly 2 also includes a shifting spring 22, which is fixedly connected to the left side of the shifting ring 21. The left end of the shifting spring 22 is fixedly connected to a shifting pin 23, which is fixedly connected to the surface of the wastewater treatment column 31 and is used to apply a rightward pre-tension to the wastewater treatment column 31 so that the wastewater treatment column 31 can shift to the right under the action of the pre-tension.

[0035] See also Figure 2 The wastewater treatment component 3 also includes a wastewater treatment chamber 32, which is opened inside the wastewater treatment column 31. A filter element slot 33 is provided in the middle of the wastewater treatment chamber 32 on the left side of the inner cavity. An integrated filter element 34 is slidably inserted into the filter element slot 33, and a centering sleeve 35 is slidably sleeved on the outside of the integrated filter element 34. The centering sleeve 35 is fixedly inserted on the right side of the wastewater treatment column 31. A built-in water-permeable pipe 36 is provided on the right end face of the integrated filter element 34 for filtering the wastewater to purify the wastewater so that the wastewater meets the reuse standard and is convenient for replacing the integrated filter element 34.

[0036] See also Figure 3The water injection component 4 also includes an electronic flowmeter 42 and a cylindrical cavity 43. The electronic flowmeter 42 is installed on the pipeline of the water injection pipe 41. The cylindrical cavity 43 is opened inside the wastewater treatment column 31 and is located at its left end. A conical cavity 44 is opened on the left side of the inner cavity of the cylindrical cavity 43. A frustum-shaped cylinder 45 is provided inside the conical cavity 44. The right end of the water injection pipe 41 extends to the interior of the conical cavity 44 and is fixedly connected to the frustum-shaped cylinder 45. A sealing cone sleeve 46 is fixedly sleeved on the outer surface of the frustum-shaped cylinder 45. A water-permeable through hole 47 is opened on the sealing cone sleeve 46. The water-permeable through hole 47 is connected to the frustum-shaped cylinder 45. A water delivery channel 48 is opened on the right side of the inner cavity of the cylindrical cavity 43. The water delivery channel 48 is connected to the wastewater treatment chamber 32, which plays the role of conveying and cutting off the wastewater, creating the necessary conditions for treating the target wastewater treatment component 3 separately.

[0037] See also Figure 4 The conversion component 5 also includes an assembly column 51. An internal thread groove 52 is provided on the left end surface of the assembly column 51. The centering sleeve 35 is movably inserted into the interior of the internal thread groove 52 and the two are threadedly matched. A plug-in through hole 53 is provided on the right side surface of the inner cavity of the internal thread groove 52. The built-in water-permeable pipe 36 is slidably inserted into the interior of the plug-in through hole 53. A U-shaped channel 54 is provided inside the assembly column 51. The U-shaped channel 54 is connected to the plug-in through hole 53. A transfer chamber 55 is provided inside the assembly column 51. The transfer chamber 55 is connected to the U-shaped channel 54. A cylindrical sealing groove 56 is provided on the left side surface of the inner cavity of the transfer chamber 55. The moving cylinder 57 is movably inserted into the assembly column 51 is movably inserted into the interior of the cylindrical sealing groove 56, a return water through-hole 58 is provided on the movable cylinder 57, the return water through-hole 58 is communicated with the transfer chamber 55, and a through-hole 59 is provided on the right side surface of the inner cavity of the transfer chamber 55. The sealing cylinder 510 is slidably inserted into the interior of the through-hole 59, and a backwash through-hole 511 is provided on the sealing cylinder 510. The backwash through-hole 511 is located inside the through-hole 59 and is used to control the flow direction of the recycled water. The forward flow of the recycled water can put it into production to realize the reuse of water. The reverse flow of the recycled water can backflush the wastewater treatment component 3, flush out the blockages in the pores of the wastewater treatment component 3, and achieve the effect of plugging.

[0038] See also Figure 7-8 The flushing component 6 also includes a flushing ring groove 63, which is provided on the inner wall of the flushing through-hole 62 and located at its right end. The flushing component 6 also includes an overflow hole 64, which is provided on the surface of the wastewater treatment column 31 and is connected to the wastewater treatment chamber 32. The overflow hole 64 is located inside the flushing through-hole 62. The inner wall of the flushing through-hole 62 blocks the overflow hole 64, so that external fluid can enter the wastewater treatment component 3, and at the same time, the fluid inside the wastewater treatment component 3 can flow out, thereby achieving the effect of flushing the inside of the wastewater treatment component 3, which helps to promote the discharge of intercepted objects.

[0039] See also Figure 5 The snap mechanism 7 also includes a snap spring bar 71, which is fixedly connected to the right side of the wastewater injection flat tube 14. The top surface of the snap spring bar 71 is fixedly connected to a snap triangle block 72 located at its right end. The snap triangle block 72 is unidirectionally engaged with the conical member 73 to clamp the wastewater treatment component 3 so that the wastewater treatment component 3 can work stably while treating wastewater.

[0040] See also Figure 5 The snap mechanism 7 also includes an extended horizontal bar 74, which is fixedly connected to the right side of the wastewater injection flat tube 14. An electromagnetic plug 75 is fixedly connected to the bottom surface of the extended horizontal bar 74. The bottom end of the electromagnetic plug 75 is aligned with the snap spring bar 71, which is used to apply pressure to the snap spring bar 71, so that the snap spring bar 71 is pressed and bent downward and flipped downward with the snap triangle block 72, thereby releasing the wastewater treatment component 3 and automatically entering the cleaning state.

[0041] See also Figure 1 The booster assembly 8 also includes a front water quality probe 84, which is fixedly mounted on the main pipeline on the rake-type water distribution pipe 83 for detecting the upstream water quality. The booster assembly 8 also includes a booster pump 82, which is connected to the end of the rake-type water distribution pipe 83. The booster pump 82 is installed on the top surface of the loading base plate 11. The booster pump 82 is connected to a suction pipe 81, which is connected to the main pipeline on the rake-type return pipe 17 for pressurizing the recycled water. The booster assembly 8 also includes a docking elbow 85, which is connected to the sealing cylinder 510. The other end of the docking elbow 85 is connected to an assembly elbow 87 through a quick connector 86. The other end of the assembly elbow 87 is connected to the flow pipe 65 corresponding to another flushing column 61. The outside of the assembly elbow 87 is fixedly connected to a reinforcement wall panel 88, which is fixedly connected between the loading base plate 11 and the shielding horizontal plate 13.

[0042] See also Figure 1 The resetter 9 also includes an electric telescopic rod 91 and a reset retaining ring 93. There are two electric telescopic rods 91, which are respectively installed on the cargo base 11 and the shielding horizontal plate 13. The end of the electric telescopic rod 91 is fixedly connected to the left side of the reset plate 92. The reset retaining ring 93 is fixedly sleeved on the outside of the wastewater treatment column 31 and is located on the left side of the reset plate 92. It is used to apply a leftward thrust to the wastewater treatment component 3, so that the wastewater treatment component 3 automatically enters the wastewater treatment state. The intelligent controller 111 is electrically connected to the external power supply. The intelligent controller 111 is electrically connected to the rear water quality probe 110, the electronic flow meter 42, the electromagnetic plug 75, the booster pump 82, and the electric telescopic rod 91.

[0043] Working principle:

[0044] First, the rake-type wastewater pipe 15 is connected to the external constant pressure pump. Then, driven by the constant pressure pump, the wastewater passes through the rake-type wastewater pipe 15, the wastewater injection flat pipe 14, the water injection pipe 41, the water permeable hole 47, the conical cavity 44, the cylindrical cavity 43, and the water delivery channel 48 in sequence into the wastewater treatment chamber 32. Then, driven by the pressure difference, the wastewater passes through the pores on the integrated filter element 34 and enters the built-in water permeable pipe 36 to form recycled water. The pollutants in the wastewater are intercepted on the surface of the integrated filter element 34. After that, the recycled water passes through the U-shaped channel 54, the transfer chamber 55, the return water through hole 58, the moving cylinder 57, the recycled water concentration pipe 16 and is discharged from the rake-type recycling pipe 17 to the next treatment link. Then, as the use time increases, the pores on the integrated filter element 34 are blocked. More and more, the water permeability becomes worse, the flow through the water injection pipe 41 gradually becomes smaller, and then the data detected by the electronic flow meter 42 gradually becomes smaller. When the data detected by the electronic flow meter 42 is the same as the preset value inside the intelligent controller 111, the intelligent controller 111 controls the corresponding electromagnetic plug 75 to extend and apply pressure to the buckle spring bar 71, and then the buckle spring bar 71 is forced to bend downward and turn downward with the buckle triangle block 72, and then the buckle triangle block 72 is separated from the cone 73, and then the corresponding wastewater treatment column 31 is released, and then the moving spring 22 applies a rightward thrust to the wastewater treatment column 31 through the moving plug 23, and then the wastewater treatment column 31 moves to the right, and then the frustum-shaped cylinder 45 carries the sealing cone sleeve 46 relative to the wastewater. The treatment column 31 moves to the left, and then the frustum-shaped cylinder 45 is inserted into the conical cavity 44 with the sealing cone sleeve 46, and then the inner wall of the conical cavity 44 blocks the water-permeable through-hole 47, interrupting the entry of wastewater. At the same time, the wastewater treatment column 31 moves to the right with the assembly column 51 through the cooperation of the centering sleeve 35 and the internal thread groove 52, and then the assembly column 51 slides to the right on the outside of the moving cylinder 57, and then the moving cylinder 57 is inserted into the inside of the cylindrical sealing groove 56, and at the same time the sealing cylinder 510 slides out from the inside of the through-hole 59 and enters the inside of the transfer chamber 55, and then the return water through-hole 58 enters the cylindrical sealing groove 56, and the inner wall of the cylindrical sealing groove 56 blocks the return water through-hole 58, and then the backflush through-hole 511 enters the transfer chamber 55, and then The rear transfer chamber 55 is connected to the constant pressure flat tube 512 through the backwash through hole 511 and the sealing cylinder 510. During this process, the flushing column 61 slides to the left outside the wastewater treatment column 31, and then the overflow hole 64 enters the flushing ring groove 63. After that, the flushing ring groove 63 is connected to the overflow hole 64. Then, the delivery pipe 65 is connected to the wastewater treatment chamber 32 through the flushing ring groove 63 and the overflow hole 64. Then, the intelligent controller 111 controls the booster pump 82 to work. Then, the booster pump 82 draws the recycled water from the rake-type recycling pipe 17 through the suction pipe 81 and pressurizes it and drives it into the built-in permeable pipe 36 through the rake-type water distribution pipe 83, the constant pressure flat tube 512, the sealing cylinder 510, the backwash through hole 511, the transfer chamber 55, and the U-shaped channel 54.Afterwards, the recycled water passes through the built-in permeable pipe 36 under the action of the hydraulic pressure difference and passes through the pores on the integrated filter element 34 to enter the wastewater treatment chamber 32. At the same time, a part of the recycled water inside the sealing cylinder 510 directly passes through the docking elbow 85, the quick connector 86, the assembly elbow 87, and the corresponding flow pipe 65 under the action of the hydraulic pressure to enter the wastewater treatment chamber 32, which plays the role of pushing the concentrated water inside the wastewater treatment chamber 32 to move to the left. Then, the concentrated water inside the wastewater treatment chamber 32 passes through the corresponding overflow hole 64, the flushing hole 65, and the flushing hole 66. The annular groove 63, the flow pipe 65, the pollutant discharge pipe 18, and the rake-type sewage collection pipe 19 are discharged to the next treatment link. Then, the front water quality probe 84 monitors the water quality of the water inside the rake-type water distribution pipe 83 in real time, and the rear water quality probe 110 monitors the water quality of the water inside the rake-type sewage collection pipe 19 in real time. When the water quality of the water inside the rake-type water distribution pipe 83 and the rake-type sewage collection pipe 19 is the same, the intelligent controller 111 controls the corresponding electromagnetic plug 75 to cut off the power, and then the electromagnetic plug 75 shortens, and then the buckle spring bar 71 is in Under the action of its own elastic force, the snap triangle block 72 flips upward and resets, and then the intelligent controller 111 controls the booster pump 82 to stop working, and then the intelligent controller 111 controls the electric telescopic rod 91 to shorten, and then the electric telescopic rod 91 brings the reset plate 92 to move to the left, and then the reset plate 92 applies a left thrust to the wastewater treatment column 31 through the reset retaining ring 93, and then the wastewater treatment column 31 brings the cone 73 to move to the left, and then the sealing cylinder 510 brings the backflush through hole 511 back into the through hole 59, and the through hole The inner wall of through-hole 59 blocks the backwash through-hole 511. Then, the return water through-hole 58 moves out of the cylindrical sealing groove 56 and connects with the transfer chamber 55. At the same time, the sealing cone sleeve 46 separates from the inner wall of the conical cavity 44, opening the water-permeable through-hole 47. Then, the cone 73 engages with the snap-on triangular block 72. The electric telescopic rod 91 is then shortened to its shortest state. The intelligent controller 111 then controls the electric telescopic rod 91 to extend to its initial state. The electric telescopic rod 91 then moves rightward with the reset plate 92 to its initial state.

[0045] The above description is only a preferred specific embodiment of the present invention; however, the protection scope of the present invention is not limited thereto; any technician familiar with the technical field within the technical scope disclosed by the present invention; any equivalent replacement or change based on the technical solution and improved conception of the present invention shall be covered within the protection scope of the present invention.

Claims

1. An industrial wastewater reuse treatment device, comprising a wastewater reuse processor (1), characterized in that: The wastewater recycling processor (1) comprises a loading base plate (11), a loading vertical plate (12) is fixedly connected to the top surface of the loading base plate (11), a shielding horizontal plate (13) is fixedly installed on the top surface of the loading vertical plate (12), a wastewater injection flat pipe (14), a recycling water concentration pipe (16) and a pollutant discharge pipe (18) are fixedly connected between the loading base plate (11) and the shielding horizontal plate (13), a rake-type wastewater pipe (15) is connected to the wastewater injection flat pipe (14), a rake-type recycling pipe (17) is connected to the recycling water concentration pipe (16), and a rake-type sewage collection pipe (19) is connected to the sewage discharge pipe (18), and a rear-mounted water quality probe (110) is installed on the main pipe of the rake-type sewage collection pipe (19). 11) is provided with an intelligent controller (111) on the top surface, and a moving assembly (2) is provided on the supporting vertical plate (12), wherein the moving assembly (2) comprises a moving collar (21), which is fixedly plugged into the supporting vertical plate (12), and a wastewater treatment assembly (3) is provided inside the moving collar (21), wherein the wastewater treatment assembly (3) comprises a wastewater treatment column (31), which is slidably plugged into the inside of the moving collar (21), and a water injection assembly (4) is provided at the left end of the wastewater treatment column (31), wherein the water injection assembly (4) comprises a water injection pipe (41), which is fixedly connected between the wastewater injection flat pipe (14) and the wastewater treatment column (31), and a variable The conversion assembly (5) includes a shifting cylinder (57), the shifting cylinder (57) is connected between the recycled water concentration pipe (16) and the wastewater treatment column (31), the outside of the shifting cylinder (57) is fixedly sleeved with a sealing cylinder (510), the right end of the sealing cylinder (510) is connected to a constant pressure flattening tube (512), the constant pressure flattening tube (512) is fixedly connected between the loading bottom plate (11) and the shielding horizontal plate (13), and two flushing assemblies (6) are provided on the outside of the wastewater treatment column (31), the flushing assembly (6) includes a flushing column (61), a flushing through hole (62) is opened on the flushing column (61), the wastewater treatment column (31) is slidably inserted into the inside of the flushing through hole (62), and the flushing column (61) is connected to a flow pipe (65 ), a flow pipe (65) corresponding to a flushing column (61) is connected to the pollutant discharge pipe (18), a snap mechanism (7) is provided on the left end of the wastewater treatment column (31), the snap mechanism (7) includes a cone (73), the cone (73) is fixedly sleeved on the outside of the wastewater treatment column (31), a booster assembly (8) is provided on the constant pressure flattened tube (512), the booster assembly (8) includes a rake-type water distribution pipe (83), the rake-type water distribution pipe (83) is connected to the rake-type return pipe (17), the booster assembly (8) also includes a docking elbow (85), the docking elbow (85) is connected to the flow pipe (65) corresponding to another flushing column (61), and a resetter (9) is also provided on the outside of the wastewater treatment column (31).The resetter (9) includes a reset plate (92), and the reset plate (92) is slidably sleeved on the outside of the wastewater treatment column (31); The shifting assembly (2) further includes a shifting spring (22), the shifting spring (22) being fixedly connected to the left side of the shifting collar (21), the left end of the shifting spring (22) being fixedly connected to a shifting latch (23), and the shifting latch (23) being fixedly connected to the surface of the wastewater treatment column (31); The wastewater treatment assembly (3) further comprises a wastewater treatment chamber (32), the wastewater treatment chamber (32) being provided inside the wastewater treatment column (31), a filter element slot (33) being provided on the left side of the inner cavity of the wastewater treatment chamber (32) and being located in the middle thereof, an integrated filter element (34) being slidably inserted into the interior of the filter element slot (33), a centering sleeve (35) being slidably sleeved onto the exterior of the integrated filter element (34), the centering sleeve (35) being fixedly inserted into the right side of the wastewater treatment column (31), and a built-in water permeable pipe (36) being provided on the right end face of the integrated filter element (34); The conversion component (5) also includes an assembly column (51), an internal thread groove (52) is provided on the left end surface of the assembly column (51), a centering sleeve (35) is movably inserted into the interior of the internal thread groove (52) and the two are threadedly matched, a plug-in through hole (53) is provided on the right side surface of the inner cavity of the internal thread groove (52), a built-in water-permeable pipe (36) is slidably inserted into the interior of the plug-in through hole (53), a U-shaped channel (54) is provided inside the assembly column (51), the U-shaped channel (54) is communicated with the plug-in through hole (53), a transfer chamber (55) is provided inside the assembly column (51), and the transfer chamber (55) is connected to the U-shaped channel (53). 4) connected, a cylindrical sealing groove (56) is provided on the left side surface of the inner cavity of the transfer chamber (55), a moving cylinder (57) is movably inserted into the interior of the assembly column (51) and movably inserted into the interior of the cylindrical sealing groove (56), a return water through hole (58) is provided on the moving cylinder (57), and the return water through hole (58) is connected to the transfer chamber (55), a through hole (59) is provided on the right side surface of the inner cavity of the transfer chamber (55), a sealing cylinder (510) is slidably inserted into the interior of the through hole (59), a recoil through hole (511) is provided on the sealing cylinder (510), and the recoil through hole (511) is located inside the through hole (59).

2. The industrial wastewater reuse treatment device according to claim 1, characterized in that: The water injection assembly (4) further comprises an electronic flow meter (42) and a cylindrical cavity (43). The electronic flow meter (42) is installed on the pipeline of the water injection pipe (41). The cylindrical cavity (43) is opened inside the wastewater treatment column (31) and is located at its left end. A conical cavity (44) is opened on the left side surface of the inner cavity of the cylindrical cavity (43). A frustum-shaped cylinder (45) is provided inside the conical cavity (44). The right end of the water injection pipe (41) extends into the interior of the conical cavity (44) and is fixedly connected to the frustum-shaped cylinder (45). A sealing cone sleeve (46) is fixedly sleeved on the outer surface of the frustum-shaped cylinder (45). A water-permeable through hole (47) is opened on the sealing cone sleeve (46). The water-permeable through hole (47) is connected to the frustum-shaped cylinder (45). A water delivery channel (48) is opened on the right side surface of the inner cavity of the cylindrical cavity (43). The water delivery channel (48) is connected to the wastewater treatment chamber (32).

3. The industrial wastewater reuse treatment device according to claim 1, characterized in that: The flushing assembly (6) further includes a flushing annular groove (63), which is formed on the inner wall of the flushing through hole (62) and is located at the right end thereof. The flushing assembly (6) further includes an overflow hole (64), which is formed on the surface of the wastewater treatment column (31) and is in communication with the wastewater treatment chamber (32).

4. The industrial wastewater reuse treatment device according to claim 1, characterized in that: The snap mechanism (7) further comprises a snap spring bar (71), the snap spring bar (71) being fixedly connected to the right side of the wastewater injection flat pipe (14), a snap triangular block (72) located at the right end of the snap spring bar (71) being fixedly connected to the top surface thereof, and the snap triangular block (72) being unidirectionally meshed with the conical member (73).

5. The industrial wastewater reuse treatment device according to claim 4, characterized in that: The buckle mechanism (7) further comprises an extension bar (74), the extension bar (74) being fixedly connected to the right side of the wastewater injection flat pipe (14), an electromagnetic latch (75) being fixedly connected to the bottom surface of the extension bar (74), and the bottom end of the electromagnetic latch (75) being aligned with the buckle spring bar (71).

6. The industrial wastewater reuse treatment device according to claim 1, characterized in that: The booster assembly (8) further includes a front water quality probe (84), which is fixedly mounted on the main pipeline on the rake-type water distribution pipe (83). The booster assembly (8) further includes a booster pump (82), which is connected to the end of the rake-type water distribution pipe (83). The booster pump (82) is mounted on the top surface of the loading base plate (11). The booster pump (82) is connected to a suction pipe (81), which is connected to the main pipeline on the rake-type return pipe (17). The booster assembly (8) further includes a docking elbow (85), which is connected to the sealing cylinder (510). The other end of the docking elbow (85) is connected to an assembly elbow (87) via a quick connector (86). The other end of the assembly elbow (87) is connected to a flow pipe (65) corresponding to another flushing column (61). The outside of the assembly elbow (87) is fixedly connected to a reinforcement wall plate (88), which is fixedly connected between the loading bottom plate (11) and the shielding horizontal plate (13).

7. The industrial wastewater reuse treatment device according to claim 1, characterized in that: The resetter (9) further comprises an electric telescopic rod (91) and a reset retaining ring (93). The number of the electric telescopic rods (91) is two, and the two electric telescopic rods (91) are respectively mounted on the cargo bottom plate (11) and the shielding horizontal plate (13). The end of the electric telescopic rod (91) is fixedly connected to the left side of the reset plate (92). The reset retaining ring (93) is fixedly sleeved on the outside of the wastewater treatment column (31) and is located on the left side of the reset plate (92).

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