Ore dressing wastewater treatment device

Abstract

The utility model discloses an ore dressing wastewater treatment device which comprises a W-shaped filter box, a plurality of U-shaped siphons, a plurality of neutralization raw material boxes, a neutralization stirring structure and a lifting drainage structure. The system can automatically complete the whole process of liquid feeding, filtering, stirring, drainage and the like, frequent manual intervention is not needed, and the working efficiency is improved; by means of precise matching of a feeding gear set, a feeding threaded pipe and a feeding threaded rod, stable lifting of a concave feeding block is achieved, and the accuracy of liquid treatment is ensured; through the lifting of the concave feeding block and the design of the F-shaped drainage block, liquid can be drained in the W-shaped filtering box in the vertical direction and can also be rotationally stirred in the horizontal direction, so that the mixing effect is enhanced, and the dispersion and filtration of impurities in the liquid are facilitated.

Description

Technical Field

[0001] The utility model relates to the technical field of ore dressing, in particular to a ore dressing wastewater treatment device. Background Art

[0002] In the beneficiation process of nonferrous metals, the amount of water used is considerable. When one ton of ore is treated by different beneficiation methods, the flotation method requires 4 to 7 cubic meters of water, the gravity separation method requires 20 to 33 cubic meters of water, the flotation-magnetic separation method requires 23 to 27 cubic meters of water, and the gravity separation-flotation method also requires 20 to 30 cubic meters of water. In this process, a large amount of beneficiation wastewater will flow out of the beneficiation plant in the form of tailings slurry along with the tailings. Due to the high content of suspended solids in these wastewaters, the many types of flotation reagents contained in them and their high concentrations, and the many types of heavy metals with high toxicity, if this type of wastewater is directly discharged into natural water bodies, it will undoubtedly cause serious pollution to the water environment and bring serious potential threats to human production and life.

[0003] However, in the prior art, wastewater treatment faces many challenges. Due to the large size of the wastewater treatment tank, the stirring device is fixed at its upper end, which makes it difficult to fully stir the sewage in the tank after adding the agent. This problem prolongs the mixing time of the agent and the sewage, which in turn affects the efficiency of sewage treatment. In addition, the sedimentation tank will also encounter problems during use. The precipitated sludge contains a large amount of microorganisms, organic matter and other components. Long-term accumulation is not only easy to breed bacteria, algae and other organisms, but also seriously affects the sedimentation effect of the sedimentation tank. Therefore, in the daily maintenance of the sedimentation tank, it is necessary to manually clean the deposited sludge regularly. This not only increases the operating cost, but also further reduces the efficiency of sewage treatment. In view of this, in-depth research on the above-mentioned problems has led to the creation of this case. Utility Model Content

[0004] To achieve the above purpose, the utility model is implemented through the following technical solutions: a mineral processing wastewater treatment device, comprising: a W-shaped filter box, a plurality of U-shaped siphon tubes, a plurality of neutralization raw material boxes, a neutralization stirring structure and a lifting and drainage structure, a plurality of the U-shaped siphon tubes are evenly inserted on the W-shaped filter box, a plurality of the neutralization raw material boxes are installed on the W-shaped filter box through the neutralization stirring structure, and the lifting and drainage structure is installed on the W-shaped filter box;

[0005] The neutralization and stirring structure comprises: a stirring bracket, a plurality of feeding valves, a plurality of F-type drainage tubes, a plurality of convex drainage tubes, a plurality of feeding threaded rods, a plurality of feeding threaded tubes, a plurality of concave feeding blocks, a plurality of feeding driving machines, a plurality of feeding gear sets, a plurality of angle adjustment plates, a plurality of angle magnets and a plurality of angle electromagnets;

[0006] The stirring bracket is installed on the W-shaped filter box, several neutralization raw material boxes are evenly installed on the stirring bracket, several feeding valves are respectively installed on several neutralization raw material boxes, several F-shaped drainage pipes are installed in a loop on the inner side of the W-shaped filter box, several convex drainage pipes are respectively connected to several F-shaped drainage pipes, and several convex drainage pipes are respectively connected to several feeding valves. Several feeding threaded pipes are respectively inserted into several convex drainage pipes, several feeding threaded rods are respectively movably inserted into the inner sides of several feeding threaded pipes, several concave feeding blocks are respectively movably inserted into several F-shaped drainage pipes, and several concave feeding blocks are respectively connected to several feeding threaded rods. Several feeding gear sets are respectively sleeved on several feeding threaded pipes, the driving ends of several telescopic feeding drives are respectively connected to several feeding gear sets, several angle adjusting plates are respectively inserted into the inner sides of several F-shaped drainage pipes through shafts, several angle magnets are respectively installed on several angle adjusting plates, and several angle electromagnets are evenly installed on the inner side of the W-shaped filter box;

[0007] It should be noted that in the above, by running several feeding drives one by one, the feeding gear sets on the driving ends of the feeding drives on them are respectively driven. The feeding threaded pipes on them are respectively driven to rotate by the feeding gear sets. The feeding threaded rods inside them are respectively driven by the feeding threaded pipes, so that several feeding threaded rods respectively perform stable lifting along the inner sides of several feeding threaded pipes. Several concave feeding blocks on them are respectively driven by several feeding threaded rods, so that several concave feeding blocks respectively perform stable lifting inside several F-shaped drainage pipes and convex drainage pipes. Through the lowering of the concave feeding blocks inside the F-shaped drainage blocks, the liquid inside the F-shaped drainage blocks is thus drained to the inside of the W-shaped filter box through high pressure. Through high-pressure pushing, with two pairs of F-shaped drainage blocks in a loop, a rotating water flow is thus generated inside the W-shaped filter box. At the same time, through the rising of the concave feeding blocks, when the concave feeding blocks are higher than the F-shaped drainage blocks, through the hydraulic principle, the water flow at the top end inside the W-shaped filter box is drained and pushed to the bottom end of the W-shaped filter box, so as to perform vertical drainage and horizontal rotating stirring inside the W-shaped filter box. At the same time, by energizing the angle electromagnets, the angle electromagnets perform magnetic repulsion on the angle magnets, and the angle magnets drive the angle adjusting plates on them, so that the angle adjusting plates perform angle adjustment inside the F-shaped drainage pipes, thereby adjusting the water flow angle inside the W-shaped filter box.

[0008] Preferably, the lifting and drainage structure includes: several lifting inflatable air bags, several horn-shaped one-way sheets, an air pump, a toothed shunt pipe, and several air valves;

[0009] A number of the lifting inflatable air bags are evenly inserted inside the W-shaped filter box. The toothed shunt pipe is connected to a number of the lifting inflatable air bags. The air pump is connected to the toothed shunt pipe. A number of air inlet valves are installed on the toothed shunt pipe, and a number of the air inlet valves are respectively connected to a number of the lifting inflatable air bags. A number of the horn-shaped one-way pieces are respectively and evenly installed inside a number of the U-shaped siphons.

[0010] It should be noted that in the above, the toothed shunt pipe is inflated by the air pump. The air inlet valve on the toothed shunt pipe is opened, and the gas is led to the lifting inflatable air bag through the air inlet valve. Through the expansion of the lifting inflatable air bag, the liquid level inside the W-shaped filter box is adjusted to rise and fall, so that the liquid inside the W-shaped filter box is drained one by one through the U-shaped siphon (siphon principle).

[0011] Preferably, a PH sensor is arranged inside the W-shaped filter box.

[0012] Preferably, a number of the concave feeding blocks are respectively provided with a loop rubber ring.

[0013] Preferably, a number of the F-shaped drainage pipes are respectively provided with a one-way horn-shaped rubber ring.

[0014] Preferably, a number of discharge pipes and a number of discharge valves are arranged on the W-shaped filter box. A number of pairs of trapezoidal inclined blocks are respectively installed inside the W-shaped filter box, and filter inner boxes are respectively arranged inside a number of the trapezoidal inclined blocks.

[0015] Beneficial effects

[0016] The utility model provides a device for treating ore dressing wastewater, which has the following beneficial effects: for the device for treating ore dressing wastewater, through the sequential operation of a plurality of feeding driving machines, the system can automatically complete the whole process of liquid feeding, filtering, stirring and drainage without frequent manual intervention, improving the work efficiency; by means of the precise cooperation of a feeding gear set, a feeding threaded pipe and a feeding threaded rod, the stable lifting of a concave feeding block is realized, ensuring the accuracy of liquid treatment; the lifting of the concave feeding block and the design of an F-shaped drainage block enable the liquid to be drained vertically and rotated and stirred horizontally in a W-shaped filter box, enhancing the mixing effect and being conducive to the dispersion and filtration of impurities in the liquid; through the magnetic repulsion of an angle electromagnet on an angle magnet, the angle adjusting plate can flexibly adjust the water flow angle inside the F-shaped drainage pipe, further enhancing the uniformity and efficiency of stirring; an air inflation pump inflates a toothed shunt pipe, and then a lifting air inflation airbag expands, realizing the flexible adjustment of the liquid level in the W-shaped filter box to meet different treatment requirements; by using the siphon principle of a U-shaped siphon pipe, the system can automatically drain the filtered liquid one by one, simplifying the operation process and improving the drainage efficiency; although the power source of the system is not directly mentioned in the original text, similar designs usually adopt a hydraulic power manipulator, and such designs often have the characteristics of low noise and low dust, being beneficial to environmental protection and the health of operators; the system is designed to consider the use of a temperature sensor, which can monitor the material temperature in real time to prevent safety hazards such as overheating and spontaneous combustion or being too cold and fragile. At the same time, the stable operation of key components such as electromagnets and air inflation pumps also ensures the overall safety of the system; the system is composed of multiple modules, such as a feeding module, a filtering module, a drainage module, etc. This design makes the system have high customization and adaptability and can be flexibly configured according to different treatment requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a main sectional view schematic diagram of the device for treating ore dressing wastewater described in the utility model.

[0018] Figure 2 It is a top sectional view schematic diagram of the device for treating ore dressing wastewater described in the utility model.

[0019] In the figure: 1. W-shaped filter box; 2. U-shaped siphon pipe; 3. Neutralization raw material box; 4. Stirring support; 5. Feeding valve; 6. F-shaped drainage pipe; 7. Convex drainage pipe; 8. Feeding threaded rod; 9. Feeding threaded pipe; 10. Concave feeding block; 11. Feeding driving machine; 12. Feeding gear set; 13. Angle adjusting plate; 14. Angle magnet; 15. Angle electromagnet. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0020] Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present utility model.

[0021] Through those skilled in the art, all the electrical components in this case are connected to their adapted power sources through wires, and appropriate controllers and encoders should be selected according to the actual situation to meet the control requirements. For the specific connection and control sequence, reference should be made to the sequence of the electrical components working successively in the following working principle to complete the electrical connection. The detailed connection means are well-known techniques in the art. The following mainly introduces the working principle and process, and no further description of electrical control will be given.

[0022] Embodiment

[0023] The present novelty will be specifically described below in conjunction with the accompanying drawings, as Figure 1-2As shown, a number of the U-shaped siphons 2 are evenly inserted into the W-shaped filter box 1, a number of the neutralization raw material boxes 3 are installed on the W-shaped filter box 1 through the neutralization stirring structure, and the lifting drainage structure is installed on the W-shaped filter box 1; the neutralization stirring structure includes: a stirring support 4, a number of feeding valves 5, a number of F-shaped drainage pipes 6, a number of convex drainage pipes 7, a number of feeding threaded rods 8, a number of feeding threaded tubes 9, a number of concave feeding blocks 10, a number of feeding driving motors 11, a number of feeding gear sets 12, a number of angle adjusting plates 13, a number of angle magnets 14, and a number of angle electromagnets 15; the stirring support 4 is installed on the W-shaped filter box 1, a number of the neutralization raw material boxes 3 are evenly installed on the stirring support 4, a number of the feeding valves 5 are respectively installed on a number of the neutralization raw material boxes 3, a number of the F-shaped drainage pipes 6 are installed in a loop inside the W-shaped filter box 1, a number of the convex drainage pipes 7 are respectively connected to a number of the F-shaped drainage pipes 6, and a number of the convex drainage pipes 7 are respectively connected to a number of the feeding valves 5, a number of the feeding threaded tubes 9 are respectively inserted into a number of the convex drainage pipes 7, a number of the feeding threaded rods 8 are respectively movably inserted into the inner sides of a number of the feeding threaded tubes 9, a number of the concave feeding blocks 10 are respectively movably inserted into a number of the F-shaped drainage pipes 6, and a number of the concave feeding blocks 10 are respectively connected to a number of the feeding threaded rods 8, a number of the feeding gear sets 12 are respectively sleeved on a number of the feeding threaded tubes 9, the driving ends of a number of telescopic feeding driving motors 11 are respectively connected to a number of the feeding gear sets 12, a number of the angle adjusting plates 13 are respectively inserted into the inner sides of a number of the F-shaped drainage pipes 6 through shafts, a number of the angle magnets 14 are respectively installed on a number of the angle adjusting plates 13, and a number of the angle electromagnets 15 are evenly installed inside the W-shaped filter box 1; the lifting drainage structure includes: a number of lifting inflatable air bags, a number of trumpet-shaped one-way sheets, an air pump, a toothed flow dividing pipe, and a number of inflation valves; a number of the lifting inflatable air bags are evenly inserted into the inner side of the W-shaped filter box 1, the toothed flow dividing pipe is connected to a number of the lifting inflatable air bags, the air pump is connected to the toothed flow dividing pipe, a number of the inflation valves are installed on the toothed flow dividing pipe, and a number of the inflation valves are respectively connected to a number of the lifting inflatable air bags, a number of the trumpet-shaped one-way sheets are respectively evenly installed inside a number of the U-shaped siphons 2; a PH sensor is arranged inside the W-shaped filter box 1; a number of the concave feeding blocks 10 are respectively provided with loop-shaped rubber gaskets; a number of the F-shaped drainage pipes 6 are respectively provided with one-way trumpet-shaped rubber gaskets;A number of discharge pipes and a number of discharge valves are provided on the W-shaped filter box 1. Inside the number of W-shaped filter boxes 1, they are respectively installed on paired trapezoidal inclined blocks, and filter inner boxes are respectively arranged inside the number of trapezoidal inclined blocks.;

[0024] According to the appendix Figure 1-2 It is obtained that by running the number of feeding driving machines 11 one by one, the feeding gear sets 12 on the driving ends of the feeding driving machines 11 are respectively driven. The feeding screw pipes 9 above are respectively driven by the feeding gear sets 12. The feeding screw rods 8 inside are respectively driven by the feeding screw pipes 9, so that the number of feeding screw rods 8 respectively perform stable lifting along the inside of the number of feeding screw pipes 9. The concave feeding blocks 10 above are respectively driven by the number of feeding screw rods 8, so that the number of concave feeding blocks 10 respectively perform stable lifting inside the number of F-shaped drainage pipes 6 and convex drainage pipes 7. Through the lowering of the concave feeding blocks 10 inside the F-shaped drainage blocks, the liquid inside the F-shaped drainage blocks is thus drained into the inside of the W-shaped filter box 1 through high pressure. Through high-pressure pushing, with two pairs of F-shaped drainage blocks in a loop shape, a rotating water flow is thus generated inside the W-shaped filter box 1. At the same time, through the rising of the concave feeding blocks 10, when the concave feeding blocks 10 are higher than the F-shaped drainage blocks, through the hydraulic principle, the water flow at the top end inside the W-shaped filter box 1 is drained and pushed to the bottom end of the W-shaped filter box 1, so as to perform vertical drainage and horizontal rotating stirring inside the W-shaped filter box 1. At the same time, by energizing the angle electromagnet 15, magnetic repulsion is performed on the angle magnet 14 through the angle electromagnet 15. The angle adjusting plate 13 above is driven by the angle magnet 14, so that the angle adjusting plate 13 performs angle adjustment inside the F-shaped drainage pipe 6, thus adjusting the water flow angle inside the W-shaped filter box 1; The toothed shunt pipe is inflated by an air pump. Through the opening of the inflation valve on the toothed shunt pipe, the gas is drained into the lifting inflation airbag. Through the inflation of the lifting inflation airbag, the liquid level inside the W-shaped filter box 1 is adjusted to rise and fall, so that the liquid inside the W-shaped filter box 1 is drained one by one through the U-shaped siphon tube 2 (siphon principle).

[0025] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirits of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A device for treating ore dressing wastewater, comprising: A W-shaped filter box, a plurality of U-shaped siphon tubes, a plurality of neutralization raw material boxes, a neutralization stirring structure, and a lifting and drainage structure, characterized in that a plurality of the U-shaped siphon tubes are evenly inserted into the W-shaped filter box, a plurality of the neutralization raw material boxes are installed on the W-shaped filter box through the neutralization stirring structure, and the lifting and drainage structure is installed on the W-shaped filter box; The neutralization and stirring structure comprises: a stirring bracket, a plurality of feeding valves, a plurality of F-type drainage tubes, a plurality of convex drainage tubes, a plurality of feeding threaded rods, a plurality of feeding threaded tubes, a plurality of concave feeding blocks, a plurality of feeding driving machines, a plurality of feeding gear sets, a plurality of angle adjustment plates, a plurality of angle magnets and a plurality of angle electromagnets; The stirring bracket is installed on the W-shaped filter box, a plurality of the neutralization raw material boxes are evenly installed on the stirring bracket, a plurality of the feeding valves are respectively installed on a plurality of the neutralization raw material boxes, a plurality of the F-shaped drainage pipes are installed in a roundabout shape on the inner side of the W-shaped filter box, a plurality of the convex drainage pipes are respectively connected to a plurality of the F-shaped drainage pipes, and a plurality of the convex drainage pipes are respectively connected to a plurality of the feeding valves, a plurality of the feeding threaded pipes are respectively inserted on a plurality of the convex drainage pipes, and a plurality of the feeding threaded rods are respectively movably inserted on a plurality of the feeding threaded pipes. The inner side of the tube, several of the concave feeding blocks are movably inserted in several of the F-type drainage tubes, and several of the concave feeding blocks are respectively connected to several of the feeding threaded rods, several of the feeding gear sets are respectively mounted on several of the feeding threaded tubes, several of the telescopic feeding drive motor driving ends are respectively connected to several of the feeding gear sets, several of the angle adjustment plates are respectively inserted in the inner sides of several of the F-type drainage tubes through shafts, several of the angle magnets are respectively installed on several of the angle adjustment plates, and several of the angle electromagnets are evenly installed on the inner side of the W-type filter box.

2. A mineral processing wastewater treatment device according to claim 1, characterized in that: The lifting and drainage structure comprises: a plurality of lifting and inflating air bags, a plurality of trumpet-shaped one-way plates, an inflating pump, a toothed shunt pipe and a plurality of inflating valves; Several lifting and inflatable airbags are evenly inserted on the inner side of the W-type filter box, the toothed diverter pipe is connected to several lifting and inflatable airbags, the air pump is connected to the toothed diverter pipe, several inflatable valves are installed on the toothed diverter pipe, and several inflatable valves are respectively connected to several lifting and inflatable airbags, and several trumpet-shaped one-way plates are respectively and evenly installed on the inner sides of several U-shaped siphon tubes.

3. A mineral processing wastewater treatment device according to claim 2, characterized in that: A pH sensor is arranged inside the W-shaped filter box.

4. A mineral processing wastewater treatment device according to claim 3, characterized in that: A plurality of the concave loading blocks are respectively provided with circular rubber rings.

5. A mineral processing wastewater treatment device according to claim 4, characterized in that: A plurality of the F-type drainage tubes are respectively provided with a one-way trumpet-shaped rubber ring.

6. A mineral processing wastewater treatment device according to claim 5, characterized in that: The W-shaped filter box is provided with a plurality of discharge pipes and a plurality of discharge valves, the inner sides of the plurality of W-shaped filter boxes are respectively installed on pairs of trapezoidal inclined blocks, and the inner sides of the plurality of trapezoidal inclined blocks are respectively provided with filter inner boxes.

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