Fluoride removal dosing device for mine water treatment station

Abstract

The utility model provides a kind of fluorine removal dosing device of mine water treatment station, it is related to fluorine removal dosing instrument technical field, including medicine jar, intelligent control motor, stirring motor, medicine pipe, sealing plate, stirring tank cover, rotating rod, transmission belt, pulley;The bottom of the medicine jar is equipped with four groups of circular thread holes, the upper portion of one side of the medicine pipe is equipped with four groups of circular holes, and the upper portion of one side of the medicine pipe is fastened and connected in the bottom of the medicine jar by screw, the bottom side of the rear portion of the medicine pipe is equipped with two groups of threaded round holes, the bottom of the intelligent control motor is equipped with a group of connecting frames on both sides, and the connecting frame on both sides of the bottom of the intelligent control motor is equipped with a group of circular holes on each side, the bottom of the intelligent control motor is fastened and connected with sealing plate by screw through the connecting frame on both sides, set intelligent control motor and other accurate control medicine, stirring motor and other improve mixing efficiency, modular design is convenient to disassemble, reduce maintenance difficulty, reduce downtime, guarantee fluorine removal effect stability and operation convenience.

Description

Technical Field

[0001] This utility model belongs to the field of defluoridation dosing equipment technology, and more specifically, it relates to a defluoridation dosing device for a mine water treatment station. Background Technology

[0002] Mine water, as an associated water body generated during mineral resource development, often contains a certain concentration of fluoride due to factors such as geological conditions and mining processes. Excessive fluoride levels can adversely affect the ecological environment and limit the recycling of mine water, failing to meet water resource recycling and environmental protection requirements. Currently, defluoridation treatment of mine water has become an important issue in the mining environmental protection field. Chemical dosing is one of the commonly used and effective methods. By adding specific agents to the water, fluoride ions react chemically with the active ingredients in the agents to form precipitates, thereby removing fluoride. In mine water treatment plants, the defluoridation dosing device is the core equipment of this process, and its operating status directly affects the defluoridation effect and treatment efficiency. Therefore, developing defluoridation dosing devices suitable for the characteristics of mine water is of great significance for improving mine water treatment levels and achieving the rational utilization of water resources.

[0003] Based on the above, mine water often contains excessive fluoride levels due to geological conditions, and direct discharge or reuse will cause environmental pollution and equipment corrosion. Existing defluoridation dosing devices suffer from low dosing precision, making it difficult to match fluctuations in mine water flow; uneven mixing of reagents, easily leading to sedimentation and blockage of pipelines; cumbersome equipment maintenance, with interfaces prone to leakage and cleaning requiring shutdown and disassembly. Therefore, this design innovates and improves precision control, mixing efficiency, and ease of maintenance. Utility Model Content

[0004] To address the aforementioned technical problems, this utility model provides a defluoridation dosing device for mine water treatment plants, which solves the problems of low dosing accuracy, uneven mixing leading to pipe blockage, and cumbersome maintenance requiring shutdown and disassembly in existing defluoridation dosing devices for mine water treatment plants.

[0005] This utility model discloses a defluoridation dosing device for a mine water treatment station, which is achieved through the following specific technical means: A defluoridation dosing device for a mine water treatment station includes a chemical tank, an intelligent control motor, a stirring motor, a delivery pipe, a sealing plate, a stirring tank cover, a rotating rod, a transmission belt, and a pulley. The bottom of the chemical tank has four sets of circular threaded holes. The upper part of one side of the delivery pipe has four sets of circular holes, and the upper part of one side of the delivery pipe is fastened to the bottom of the chemical tank by screws. The bottom rear side of the delivery pipe has two sets of threaded circular holes. Each side of the bottom of the intelligent control motor has a connecting bracket, and each connecting bracket on both sides of the bottom of the intelligent control motor has a set of circular holes. Sealing plates are fastened to the connecting brackets on both sides of the bottom of the machine with screws, and the connecting brackets on both sides of the bottom of the intelligent control motor are fastened to the bottom of the rear of the delivery tube with fastening screws; a set of connecting brackets is provided on each side of the bottom of the stirring motor, and a set of circular holes is provided on each connecting bracket on the bottom of the stirring motor; two sets of threaded holes are provided on one side of the top of the stirring tank cover, and the connecting brackets on both sides of the bottom of the stirring motor are fastened to the top of the stirring tank cover with screws; a set of pulleys is fastened to the top of the rotating rod, and the inner side of the pulleys rotates in the same direction as the bottom rotating shaft of the stirring motor.

[0006] Furthermore, a set of bidirectional connectors is fastened to one side of the shaft of the intelligent control motor, and a drug delivery screw is fastened to one side of the bidirectional connectors.

[0007] Furthermore, a set of circular tubes is provided on one side of the top of the mixing tank cover, and the circular tubes on one side of the top of the mixing tank cover are clamped and connected to one side of the drug delivery tube.

[0008] Furthermore, a set of mixing tanks is fastened to the bottom of the mixing tank cover, and a set of circular holes is provided in the middle of the mixing tank cover. The circular holes in the middle of the mixing tank cover are rotatably connected to the outside of the rotating rod, and a stirring rod is fastened to the outside of the rotating rod.

[0009] Furthermore, a set of circular connecting pipes is provided on one side of the top of the mixing tank cover, and a water inlet pipe is clamped to the circular connecting pipe on one side of the top of the mixing tank cover.

[0010] Furthermore, the bottom of the medicine container is provided with five sets of circular holes, and the circular holes at the bottom of the medicine container are fastened to the container frame by screws. The bottom of the container frame is fastened to the base frame by screws, and the inner side of the top of the base frame is connected to the bottom of the outer side of the mixing tank cover.

[0011] Compared with the prior art, the present invention has the following beneficial effects: 1. This utility model, by setting up an intelligent control motor, a two-way connector and a drug delivery screw, can accurately control the amount of drug delivered, adapt to fluctuations in mine water flow, improve dosing accuracy, and ensure stable defluorination effect.

[0012] 2. This utility model, by setting up a stirring motor, a rotating rod and a stirring rod, can efficiently stir the reagent and mine water, avoid excessively high local concentration, reduce sedimentation and blockage of pipes, and improve mixing efficiency.

[0013] 3. This utility model features a modular structure design, which ensures that the components are securely connected and easy to assemble and disassemble, reducing maintenance difficulty, minimizing downtime for cleaning, and improving the continuity and convenience of the device's operation. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the main structure of the present invention.

[0015] Figure 2 This is a schematic diagram of the structure of the medicine container device of this utility model.

[0016] Figure 3 This is a schematic diagram of the structure of the stirring device of this utility model.

[0017] Figure 4 This is a cross-sectional structural diagram of the drug dosage control device of this utility model.

[0018] Figure 5 This is a cross-sectional structural schematic diagram of the stirring power device of this utility model.

[0019] Figure 6 This is a cross-sectional structural diagram of the main body of this utility model.

[0020] In the diagram, the correspondence between component names and drawing numbers is as follows: 1. Medicine tank; 2. Tank rack; 3. Water inlet pipe; 4. Intelligent control motor; 5. Mixing tank; 6. Mixing motor; 7. Medicine delivery pipe; 201. Base frame; 401. Two-way connector; 402. Sealing plate; 403. Medicine delivery screw; 501. Mixing tank cover; 502. Mixing rod; 503. Rotating rod; 601. Drive belt; 602. Pulley. Detailed Implementation

[0021] The embodiments of this utility model will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and should not be construed as limiting the scope of this utility model.

[0022] Example: As attached Figure 1 To be continued Figure 6 As shown: This utility model provides a defluoridation dosing device for a mine water treatment station, including a chemical tank 1, an intelligent control motor 4, a stirring motor 6, a chemical delivery pipe 7, a sealing plate 402, a stirring tank cover 501, a rotating rod 503, a transmission belt 601, and a pulley 602. The bottom of the chemical tank 1 has four sets of circular threaded holes, and the upper part of one side of the chemical delivery pipe 7 has four sets of circular holes, with the upper part of one side of the chemical delivery pipe 7 fastened to the bottom of the chemical tank 1 by screws. The bottom rear side of the chemical delivery pipe 7 has two sets of threaded circular holes. The intelligent control motor 4 has a set of connecting brackets on each side of its bottom, and each connecting bracket on each side of the intelligent control motor 4 has a set of circular holes. The bottom two sides of the control motor 4 are fastened with sealing plates 402 by screws, and the bottom two sides of the control motor 4 are fastened with the bottom side of the medicine delivery tube 7 by fastening screws; the bottom two sides of the stirring motor 6 are each provided with a set of connecting brackets, and each of the bottom two sides of the stirring motor 6 is provided with a set of circular holes; the top side of the stirring tank cover 501 is provided with two sets of threaded holes, and the bottom two sides of the stirring motor 6 are fastened with screws to the top side of the stirring tank cover 501; the top of the rotating rod 503 is fastened with a set of pulleys 602, and the inner side of the pulleys 602 rotates with the bottom shaft of the stirring motor 6.

[0023] Among them, a set of bidirectional connectors 401 are fastened to one side of the shaft of the intelligent control motor 4, and a drug delivery screw 403 is fastened to one side of the bidirectional connector 401. The bidirectional connector 401 can flexibly adapt to the connection angle between the intelligent control motor 4 and the drug delivery screw 403 to ensure efficient power transmission. The drug delivery screw 403 rotates to push the drug, and with the precise control of the intelligent control motor 4, the stable control of the drug delivery volume is achieved.

[0024] The mixing tank cover 501 has a set of circular tubes on one side of its top, and the circular tubes on one side of the top of the mixing tank cover 501 are snap-fitted to one side of the drug delivery tube 7. The circular tubes provide a stable interface for the drug delivery tube 7, ensuring that the drug is accurately introduced into the mixing tank 5. The snap-fit ​​connection facilitates quick disassembly and assembly of the drug delivery tube 7, simplifies the maintenance process, and ensures the sealing of the drug delivery process.

[0025] The bottom of the mixing tank cover 501 is fastened to a set of mixing tanks 5, and the mixing tank cover 501 has a set of circular holes in the middle. The circular holes in the middle of the mixing tank cover 501 are rotatably connected to the outside of the rotating rod 503, and the outside of the rotating rod 503 is fastened to a stirring rod 502. The mixing tank cover 501 and the mixing tanks 5 are fastened to form a closed space to prevent liquid from overflowing during mixing. The circular holes cooperate with the rotation of the rotating rod 503 to drive the stirring rod 502 to stir efficiently and improve the uniformity of mixing of the reagent and mine water.

[0026] The mixing tank cover 501 has a set of circular connecting pipes on one side of its top, and the circular connecting pipes on one side of the top of the mixing tank cover 501 are clamped to the water inlet pipe 3. The circular connecting pipes provide a stable interface for the water inlet pipe 3, ensuring that the mine water is smoothly introduced into the mixing tank 5. The clamping connection facilitates quick installation and removal of the water inlet pipe 3, simplifies pipeline maintenance, and ensures the sealing of the water inlet process.

[0027] The medicine tank 1 has five sets of circular holes at its bottom, and the circular holes at the bottom of the medicine tank 1 are fastened to the tank frame 2 by screws. The bottom of the tank frame 2 is fastened to the base frame 201 by screws. The inner top of the base frame 201 is connected to the bottom outer side of the mixing tank cover 501. The five sets of circular holes achieve a stable connection between the medicine tank 1 and the tank frame 2 by screws. The combination of the tank frame 2 and the base frame 201 enhances the overall support strength. The base frame 201 supports the mixing tank cover 501, improving the structural stability of the device during operation.

[0028] The specific usage and function of this embodiment are as follows: In this invention, the medicine tank 1 and the mixing tank 5 are fixed by the tank frame 2 and the base frame 201. The medicine in the medicine tank 1 flows from the bottom to the delivery pipe 7. The intelligent control motor 4 is started, and its shaft drives the delivery screw 403 to rotate via the bidirectional connector 401, precisely pushing the medicine. The sealing plate 402 prevents leakage and adapts to fluctuations in the mine water flow input through the water inlet pipe 3. The medicine enters the circular pipe of the mixing tank cover 501 through the delivery pipe 7 and flows into the mixing tank 5 together with the mine water from the water inlet pipe 3. After the mixing motor 6 is started, it drives the rotating rod 503 to rotate via the transmission belt 601 and pulley 602, causing the mixing rod 502 to stir at high speed, ensuring thorough mixing of the medicine and mine water and preventing sedimentation and clumping. All components are connected by screws and clips, making assembly and disassembly convenient. The base frame 201 supports the mixing tank cover 501 to enhance stability. The overall design achieves precise dosing and efficient mixing, improving defluorination efficiency and equipment maintenance convenience. Any aspects not detailed in this invention are known to those skilled in the art.

Claims

1. A defluoridation dosing device for a mine water treatment station, characterized in that: It includes a medicine tank (1), an intelligent control motor (4), a stirring motor (6), a medicine delivery pipe (7), a sealing plate (402), a stirring tank cover (501), a rotating rod (503), a transmission belt (601), and a pulley (602). The medicine tank (1) has four sets of circular threaded holes at the bottom. The medicine delivery tube (7) has four sets of circular holes on the upper side of one side. The upper side of the medicine delivery tube (7) is fastened to the bottom of the medicine tank (1) by screws. The medicine delivery tube (7) has two sets of threaded circular holes on the bottom side of the rear. The intelligent control motor (4) has a set of connecting brackets on both sides of the bottom. The intelligent control motor (4) has a set of circular holes on each of the connecting brackets on both sides of the bottom. The intelligent control motor (4) has a sealing plate (402) fastened to the connecting brackets on both sides of the bottom by screws. The intelligent control motor (4) has a connecting brackets on both sides of the bottom by screws fastened to the bottom side of the rear of the medicine delivery tube (7). The stirring motor (6) has a set of connecting brackets on both sides of its bottom, and each of the connecting brackets on both sides of its bottom is provided with a set of circular holes. The stirring tank cover (501) has two sets of threaded holes on one side of its top. The connecting brackets on both sides of the bottom of the stirring motor (6) are fastened to the top side of the stirring tank cover (501) by screws. The top of the rotating rod (503) is fastened with a set of pulleys (602), and the inner side of the pulleys (602) is rotatably connected to the bottom shaft of the stirring motor (6).

2. The defluoridation dosing device for a mine water treatment station as described in claim 1, characterized in that: A set of bidirectional connectors (401) is fastened to one side of the shaft of the intelligent control motor (4), and a drug delivery screw (403) is fastened to one side of the bidirectional connectors (401).

3. The defluoridation dosing device for a mine water treatment station as described in claim 1, characterized in that: A set of circular tubes is provided on one side of the top of the mixing tank cover (501), and the circular tubes on one side of the top of the mixing tank cover (501) are connected to one side of the drug delivery tube (7).

4. The defluoridation dosing device for a mine water treatment station as described in claim 1, characterized in that: A set of mixing tanks (5) is fastened to the bottom of the mixing tank cover (501), and a set of circular holes is provided in the middle of the mixing tank cover (501). The circular holes in the middle of the mixing tank cover (501) are rotatably connected to the outside of the rotating rod (503), and a stirring rod (502) is fastened to the outside of the rotating rod (503).

5. The defluoridation dosing device for a mine water treatment station as described in claim 1, characterized in that: A set of circular connecting pipes is provided on one side of the top of the mixing tank cover (501), and a water inlet pipe (3) is clamped to the circular connecting pipe on one side of the top of the mixing tank cover (501).

6. The defluoridation dosing device for a mine water treatment station as described in claim 1, characterized in that: The bottom of the medicine tank (1) is provided with five sets of circular holes, and the circular holes at the bottom of the medicine tank (1) are fastened to the tank rack (2) by screws. The bottom of the tank rack (2) is fastened to the base frame (201) by screws. The inner side of the top of the base frame (201) is connected to the bottom of the outer side of the mixing tank cover (501).

Images