A device for separating basic copper chloride impurities

Abstract

The application discloses a basic copper chloride impurity separation device, and relates to the technical field of basic copper chloride separation, which comprises a device shell and a top cover, the top cover is fixedly installed on the top surface of the device shell, the top end surface of the top cover is provided with a setting port, the inner wall of the setting port is fixedly installed with a locating bearing, and the top end surface of the setting port is installed with a driving motor; the motor rotating speed is adjusted by a tuning fork detection material viscosity feedback controller, centrifugal force caused by the rotating speed is changed, a fly hammer overcomes the resistance of a return spring and slides, a self-adapting adjusting ring drives a sliding sleeve to displace on a driving shaft, so that the exposed area of a side wall V-shaped hole is dynamically adjusted, and finally the effect of adaptively regulating the oxidation air intake according to the material state is realized, so that the defects that a crystal is caused to settle, a pipeline is bridged and stuck due to the lack of continuous disturbance in the prior art, and oxidation is not complete and the subsequent purification efficiency is dragged due to the difficulty in dispersing large air bubbles in conventional aeration are compensated.

Description

Technical Field

[0001] This invention relates to the field of basic copper chloride separation technology, and more particularly to a basic copper chloride impurity separation device. Background Technology

[0002] Basic copper chloride, also known as copper oxychloride or copper king chloride, is an important inorganic copper salt product. It is widely used in industry as an organic synthesis catalyst, feed additive, fungicide, pesticide intermediate, and basic raw material for manufacturing other high-purity copper salts. In the industrial synthesis of basic copper chloride, it is usually necessary to carry out complex mixing, oxidation, and crystallization reactions between copper material or copper chloride solution and alkaline substances at specific temperatures. However, the reaction materials are often mixed with unreacted heavy metal impurities, solid particles, reaction byproducts, and a large amount of acid and alkali mother liquor. Therefore, efficient solid-liquid separation, crystal purification, and impurity removal of basic copper chloride are the core processes that determine the purity, flowability, and particle size distribution of the final basic copper chloride product.

[0003] Existing methods for separating basic copper chloride typically employ open-top stirred tanks in conjunction with filter presses or centrifuges for stepwise processing. The conventional process involves first oxidizing the material by aeration in the reaction tank, followed by pumping the material to the separation equipment for solid-liquid filtration. However, this traditional method has two significant drawbacks. First, basic copper chloride slurry exhibits extremely high physical sensitivity during separation. During the intervals between material transport and filtration, once the slurry loses continuous mechanical agitation, the internal crystal particles easily settle and agglomerate rapidly. This leads to slurry buildup in pipelines and on the separation filter screen. Severe localized supersaturation crystallization occurs on the surface, leading to pipeline bridging and even engine stalling, directly disrupting the continuity of the separation operation. Secondly, the existing pre-separation impurity oxidation treatment often uses ordinary pipelines for direct aeration. Faced with high-viscosity crystallization slurry, large-volume bubbles encounter significant flow resistance in the slurry, making it impossible for the gas to disperse effectively. This phenomenon of severely insufficient gas-liquid contact area not only results in extremely low oxygen utilization and incomplete impurity oxidation, but also leaves a large amount of unoxidized byproducts that severely hinder the efficiency of subsequent crystal layering and purification. Summary of the Invention

[0004] The purpose of this invention is to adjust the motor speed by using a tuning fork to detect the material viscosity feedback controller. Combined with the change in centrifugal force caused by the speed change, the flying hammer overcomes the resistance of the return spring and slides, pulling the adaptive adjustment ring to drive the sliding sleeve to move on the drive shaft. This dynamically adjusts the exposed area of ​​the V-shaped hole on the side wall, ultimately achieving the effect of adaptively controlling the oxidation air intake according to the material state. This effectively makes up for the shortcomings of the existing technology, such as the lack of continuous disturbance causing crystal sedimentation leading to pipeline bridging and jamming, and the difficulty of dispersing large bubbles in conventional ventilation leading to incomplete oxidation of impurities and dragging down the efficiency of subsequent layered purification.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a basic copper chloride impurity separation device, comprising a housing and a top cover, wherein the top cover is fixedly installed on the top surface of the housing, characterized in that: a setting port is installed on the top surface of the top cover, a positioning bearing is fixedly installed on the inner wall of the setting port, a drive motor is installed on the top surface of the setting port, a drive shaft is installed on the bottom surface of the drive motor, an oxidation component is installed on the outer surface of the drive shaft, a separation component is fixedly installed on the inner wall of the housing, and an adaptive adjustment component is fixedly installed on the top surface of the top cover; The oxidation assembly includes a sliding sleeve that is slidably mounted on the outer surface of the drive shaft. A sealing rotating sleeve is rotatably mounted on the top surface of the drive shaft. An air chamber is provided inside the drive shaft. A V-shaped hole is provided on the outer surface of the drive shaft. A positioning bracket is fixedly mounted on the inner wall of the equipment housing. A stator cage is fixedly mounted on the inner wall of the positioning bracket. A helical blade is mounted on the inner wall of the drive shaft.

[0006] Furthermore, an extension plate is mounted on the outer surface of the drive shaft, a rotating plate is mounted on the outer surface of the extension plate, a fly hammer is fixedly mounted on the outer surface of the rotating plate, an adaptive adjustment ring is slidably mounted on the outer surface of the drive shaft, a return spring is mounted on the top surface of the adaptive adjustment ring, a connecting bracket is mounted on the bottom surface of the adaptive adjustment ring, a connecting rod is rotatably mounted on the bottom surface of the rotating plate, and the top surface of the sliding sleeve is fixedly connected to the two connecting brackets.

[0007] Furthermore, one end of the drive shaft is fixedly connected to the output end of the drive motor, and the drive shaft is rotatably connected to the setting port through a positioning bearing. One end of the drive shaft extends from the inner wall of the setting port to the interior of the equipment housing. There are two extension plates, which are equidistantly distributed on the outer surface of the drive shaft. Each outer surface of the extension plate is correspondingly distributed with a rotating plate, each outer surface of the rotating plate is correspondingly distributed with a flying hammer, and each bottom surface of the rotating plate is correspondingly distributed with a connecting rod.

[0008] Furthermore, the bottom surface of the return spring is in contact with the top surface of the adaptive adjustment ring, the top surface of the return spring is in contact with the bottom surface of the extension plate, there are two connecting brackets, the two connecting brackets are equidistantly distributed on the bottom surface of the adaptive adjustment ring, and the other ends of the two connecting rods are rotatably connected to the adaptive adjustment ring.

[0009] Furthermore, the interior of the sealing rotating sleeve is connected to the air cavity inside the drive shaft, and there are several V-shaped holes, which are distributed in a ring array at equal intervals on the outer surface of the drive shaft.

[0010] Furthermore, the separation component includes a separation plate, which is fixedly installed on the inner wall of the equipment housing. The top surface of the separation plate is provided with a separation hole. The inner wall of the equipment housing is divided into a first space and a second space by the separation plate. A discharge pipe is installed on the bottom surface of the equipment housing, and a water drain pipe is provided on the outer surface of the equipment housing.

[0011] Furthermore, the interior of the discharge pipe is interconnected with the interior of the second space, and the water discharge pipe is interconnected with the interior of the first space.

[0012] Furthermore, the adaptive adjustment component includes a frequency collector, which is fixedly mounted on the top surface of the top cover, a tuning fork is fixedly mounted on the bottom surface of the frequency collector, a controller is fixedly mounted on the outer surface of the device housing, and an outlet is fixedly provided on the top surface of the top cover.

[0013] Furthermore, the frequency collector is electrically connected to the controller, the tuning fork extends from the top surface of the device housing to the interior of the device housing, the controller is electrically connected to the drive motor, and the outlet is interconnected with the interior of the device housing.

[0014] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are: 1. The core innovation of this basic copper chloride impurity separation device lies in the following: by starting the drive motor to drive the drive shaft to rotate, the spiral blades on the bottom surface rotate at high speed inside the equipment shell. While the spiral blades are performing high shear cutting, their physical blade structure forces the mixture in the first space to move axially downward, breaking the bridging and agglomeration of the material, and forming a strong spiral vortex field inside the equipment shell. This effectively makes up for the defects of the existing technology, which is caused by crystal precipitation and pipeline bridging and jamming due to the lack of continuous disturbance, thus ensuring the continuity of the separation operation.

[0015] 2. The core innovation of this basic copper chloride impurity separation device lies in the following: by using a tuning fork to detect the material viscosity feedback controller to adjust the motor speed, combined with the change in centrifugal force caused by the speed, the flying hammer overcomes the resistance of the return spring and slides, pulling the adaptive adjustment ring to drive the sliding sleeve to move on the drive shaft, thereby dynamically adjusting the exposure area of ​​the V-shaped hole on the side wall. This achieves the effect of adaptively controlling the oxidation air intake according to the material state. At the same time, the sprayed gas mixes with the material and is directly crushed into fine bubbles under the high shear action between the spiral blades and the stator cage, thus carrying out a highly efficient oxidation reaction in the first space, completely making up for the defect of incomplete oxidation of impurities caused by the difficulty in dispersing large bubbles in conventional ventilation. Attached Figure Description

[0016] Figure 1A schematic diagram of the overall external structure of the present invention is shown; Figure 2 This invention is shown as a schematic diagram of its overall external structure from another angle. Figure 3 A schematic diagram of the internal structure of the device housing of the present invention is shown; Figure 4 A schematic diagram of the top cover structure of the present invention is shown; Figure 5 A schematic diagram of another corner of the top cover structure of the present invention is shown; Figure 6 A schematic diagram of the drive shaft structure of the present invention is shown; Figure 7 A schematic diagram of the internal structure of the drive shaft of the present invention is shown; Figure 8 A schematic diagram of the adaptive adjustment ring structure of the present invention is shown.

[0017] Legend: 1. Equipment casing; 101. Top cover; 102. Setting port; 103. Positioning bearing; 104. Drive motor; 105. Drive shaft; 106. Extension plate; 107. Rotating plate; 108. Flying hammer; 109. Adaptive adjustment ring; 110. Return spring; 111. Connecting bracket; 112. Connecting rod; 2. Sliding sleeve; 201. Sealing rotating sleeve; 202. Air chamber; 203. V-shaped hole; 204. Positioning bracket; 205. Stator cage; 206. Spiral blade; 3. Separation plate; 301. Separation hole; 302. First space; 303. Second space; 304. Discharge pipe; 305. Water discharge pipe; 4. Frequency collector; 401. Tuning fork; 402. Controller; 403. Discharge inlet. Detailed Implementation

[0018] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0019] It should be noted that, in the description of this invention, the terms "center," "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0020] Example 1: like Figures 1-8 As shown, a basic copper chloride impurity separation device includes a housing 1 and a top cover 101. The top cover 101 is fixedly installed on the top surface of the housing 1. A setting port 102 is installed on the top surface of the top cover 101. A positioning bearing 103 is fixedly installed on the inner wall of the setting port 102. A drive motor 104 is installed on the top surface of the setting port 102. A drive shaft 105 is installed on the bottom surface of the drive motor 104. One end of the drive shaft 105 is fixedly connected to the output end of the drive motor 104. The drive shaft 105 is rotatably connected to the setting port 102 through the positioning bearing 103. One end of the drive shaft 105 extends from the inner wall of the setting port 102 into the interior of the housing 1. An oxidation component is installed on the outer surface of the drive shaft 105. A separation component is fixedly installed on the inner wall of the housing 1.

[0021] The oxidation assembly includes a sliding sleeve 2, which is slidably mounted on the outer surface of the drive shaft 105. A sealing rotating sleeve 201 is rotatably mounted on the top surface of the drive shaft 105. An air chamber 202 is provided inside the drive shaft 105. A V-shaped hole 203 is provided on the outer surface of the drive shaft 105. A positioning bracket 204 is fixedly mounted on the inner wall of the equipment housing 1. A stator cage 205 is fixedly mounted on the inner wall of the positioning bracket 204. A spiral blade 206 is installed on the inner wall of the drive shaft 105. The interior of the sealing rotating sleeve 201 is connected to the air chamber 202 inside the drive shaft 105. There are several V-shaped holes 203, which are distributed in a ring array at equal intervals on the outer surface of the drive shaft 105.

[0022] The separation assembly includes a separation plate 3, which is fixedly installed on the inner wall of the equipment housing 1. A separation hole 301 is provided on the top surface of the separation plate 3. The inner wall of the equipment housing 1 is divided into a first space 302 and a second space 303 by the separation plate 3. A discharge pipe 304 is installed on the bottom surface of the equipment housing 1. A water drain pipe 305 is provided on the outer surface of the equipment housing 1. The interior of the discharge pipe 304 is connected to the interior of the second space 303. The water drain pipe 305 is connected to the interior of the first space 302.

[0023] Example 2: Reference Figures 1-8Specifically, an adaptive adjustment component is fixedly installed on the top surface of the top cover 101, an extension plate 106 is installed on the outer surface of the drive shaft 105, a rotating plate 107 is installed on the outer surface of the extension plate 106, a fly hammer 108 is fixedly installed on the outer surface of the rotating plate 107, an adaptive adjustment ring 109 is slidably installed on the outer surface of the drive shaft 105, a return spring 110 is installed on the top surface of the adaptive adjustment ring 109, a connecting bracket 111 is installed on the bottom surface of the adaptive adjustment ring 109, and a connecting rod 112 is rotatably installed on the bottom surface of the rotating plate 107.

[0024] There are two extension plates 106, which are equidistantly distributed on the outer surface of the drive shaft 105. Each extension plate 106 has a corresponding rotating plate 107 on its outer surface, each rotating plate 107 has a corresponding flying hammer 108 on its outer surface, and each rotating plate 107 has a corresponding connecting rod 112 on its bottom surface.

[0025] The bottom surface of the return spring 110 is in contact with the top surface of the adaptive adjustment ring 109, and the top surface of the return spring 110 is in contact with the bottom surface of the extension plate 106. There are two connecting brackets 111, which are equidistantly distributed on the bottom surface of the adaptive adjustment ring 109. The other ends of the two connecting rods 112 are rotatably connected to the adaptive adjustment ring 109. The top surface of the sliding sleeve 2 is fixedly connected to the two connecting brackets 111.

[0026] The adaptive adjustment component includes a frequency collector 4, which is fixedly mounted on the top surface of the top cover 101. A tuning fork 401 is fixedly mounted on the bottom surface of the frequency collector 4. A controller 402 is fixedly mounted on the outer surface of the device housing 1. An outlet 403 is fixedly provided on the top surface of the top cover 101. The frequency collector 4 and the controller 402 are electrically connected. The tuning fork 401 extends from the top surface of the device housing 1 to the interior of the device housing 1. The controller 402 is electrically connected to the drive motor 104. The outlet 403 is interconnected with the interior of the device housing 1.

[0027] Specific usage process: When it is necessary to perform impurity separation operation of basic copper chloride, the material to be processed is first put into the inside of the equipment shell 1 through the discharge port 403 fixedly set on the top surface of the top cover 101. After the material enters, it falls into the first space 302 separated by the separation plate 3. At this time, the drive motor 104 installed on the top surface of the top cover 101 is started. The drive shaft 105 is installed on the bottom surface of the drive motor 104. One end of the drive shaft 105 is fixedly connected to the output end of the drive motor 104, thereby driving the drive shaft 105 to rotate on the inner wall of the setting port 102 through the positioning bearing 103. The bottom end of the drive shaft 105 extends from the inner wall of the setting port 102 into the inside of the equipment shell 1.

[0028] As the drive shaft 105 rotates, the helical blades 206 fixedly mounted on the bottom surface of the drive shaft 105 rotate at high speed inside the equipment housing 1. Since the stator cage 205 is fixedly mounted on the inner wall of the equipment housing 1 by the positioning bracket 204, the high-speed rotating helical blades 206 and the stationary stator cage 205 generate strong high shear force on the inflowing material. During this process, the external air source delivers gas to the sealed rotating sleeve 201 that is rotatably mounted on the top surface of the drive shaft 105. The gas flows downward along the air cavity 202 that is connected to the inside of the sealed rotating sleeve 201 and is located inside the drive shaft 105, and finally is ejected from several V-shaped holes 203 that are equidistantly distributed in a ring array on the outer surface of the drive shaft 105 and the gap between the helical blades 206 and the drive shaft 105.

[0029] The ejected gas mixes with the material and is pulverized into fine bubbles under the high shear force between the spiral blades 206 and the stator cage 205, thus carrying out an efficient oxidation reaction in the first space 302. At the same time, while the high-speed rotating spiral blades 206 are performing high shear cutting, their physical blade structure forces the mixture in the first space 302 to be pushed axially downward, breaking up any bridging or agglomeration of the material, and forming a strong spiral vortex field inside the equipment shell 1. Under the action of the centrifugal force of the vortex, the denser basic copper chloride crystal particles are thrown to the outer ring and sink downward along the separation holes 301 set on the top surface of the separation plate 3. After passing through the separation holes 301, they are directed into the second space 303 located below, while the lighter wastewater, mother liquor, or unreacted impurities remain in the first space 302 above the separation plate 3.

[0030] Throughout the oxidation and separation process, the frequency collector 4, fixedly installed on the top surface of the top cover 101, uses the tuning fork 401 fixedly installed on its bottom surface to detect the dynamic state of the material inside the equipment shell 1 in real time. The tuning fork 401 extends from the top surface of the top cover 101 into the interior of the equipment shell 1 and comes into direct contact with the internal fluid. Since the frequency collector 4 is electrically connected to the controller 402, and the controller 402 is electrically connected to the drive motor 104, when the viscosity or state of the internal material changes, the vibration frequency of the tuning fork 401 changes accordingly. The frequency collector 4 transmits this frequency signal to the controller 402, and the controller 402 adjusts the operating speed of the drive motor 104 accordingly.

[0031] When the rotational speed of the drive motor 104 changes due to the change in the state of the material, the centrifugal adjustment mechanism that rotates synchronously with the drive shaft 105 begins to function. Two extension plates 106, equidistantly distributed on the outer surface of the drive shaft 105, rotate together with the corresponding rotating plates 107 on their outer surfaces. At this time, the flying hammers 108, slidably mounted on the outer surface of the rotating plate 107, slide outwards along the outer surface of the rotating plate 107 under the centrifugal force generated by the rotation. Since one end of each of the two connecting rods 112 is rotatably connected to one of the two flying hammers 108, and the connecting rods 11... The other end of 2 is rotatably connected to the adaptive adjustment ring 109, which is slidably mounted on the outer surface of the drive shaft 105. When the flying hammer 108 swings outward, it will pull the adaptive adjustment ring 109 through the connecting rod 112 to overcome the resistance of the return spring 110 and slide upward along the outer surface of the drive shaft 105. At this time, the bottom surface of the return spring 110 is in contact with the top surface of the adaptive adjustment ring 109, and the top surface of the return spring 110 is in contact with the bottom surface of the extension plate 106. The return spring 110 is passively compressed and stores energy when the adaptive adjustment ring 109 moves upward.

[0032] Since the bottom surface of the adaptive adjustment ring 109 is equipped with a connecting bracket 111, and the top surface of the sliding sleeve 2, which is slidably mounted on the outer surface of the drive shaft 105, is fixedly connected to the two connecting brackets 111, when the adaptive adjustment ring 109 moves upward, the connecting bracket 111 drives the sliding sleeve 2 to slide upward synchronously on the outer surface of the drive shaft 105. As the sliding sleeve 2 moves upward, it gradually exposes several V-shaped holes 203 on the outer surface of the drive shaft 105, thereby increasing the opening of the V-shaped holes 203 and increasing the flow rate of gas ejected outward from the air chamber 202 to cope with the current material state. Conversely, when the speed of the drive motor 104 decreases and the centrifugal force weakens, the fly hammer 108 slides back inward, and the energy-storing reset spring 110 releases its elastic force, pushing the adaptive adjustment ring 109 downward. The connecting bracket 111 drives the sliding sleeve 2 to move downward synchronously, re-blocking and reducing the opening of the V-shaped holes 203, thus realizing the adaptive mechanical adjustment of the air intake.

[0033] Once the impurity separation and oxidation process is completely completed, the drive motor 104 is stopped, and the drive shaft 105 and all rotating parts stop rotating. At this time, the fluids in the first space 302 and the second space 303 return to stillness, and the material boundaries between the two spaces are clear. The operator first opens the discharge pipe 304, which is connected to the inside of the second space 303, to discharge and collect the heavy basic copper chloride crystal slurry accumulated at the bottom of the second space 303. After the material in the second space 303 is discharged, the water drain pipe 305, which is located on the outer surface of the equipment shell 1 and is connected to the inside of the first space 302, is opened to discharge the waste liquid or mother liquor remaining in the first space 302 separately, thus completing the complete separation and centralized discharge of the entire batch of materials.

[0034] The above are all preferred embodiments of the present invention and are not intended to limit the scope of protection of the present invention. Therefore, all equivalent changes made in accordance with the structure, shape and principle of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A basic copper chloride impurity separation device, comprising a housing (1) and a top cover (101), wherein the top cover (101) is fixedly installed on the top surface of the housing (1), characterized in that: The top surface of the top cover (101) is provided with a setting port (102), the inner wall of the setting port (102) is fixedly provided with a positioning bearing (103), the top surface of the setting port (102) is provided with a drive motor (104), the bottom surface of the drive motor (104) is provided with a drive shaft (105), the outer surface of the drive shaft (105) is provided with an oxidation component, the inner wall of the equipment shell (1) is fixedly provided with a separation component, and the top surface of the top cover (101) is fixedly provided with an adaptive adjustment component. The oxidation assembly includes a sliding sleeve (2), which is slidably mounted on the outer surface of the drive shaft (105). A sealing rotating sleeve (201) is rotatably mounted on the top surface of the drive shaft (105). An air chamber (202) is provided inside the drive shaft (105). A V-shaped hole (203) is provided on the outer surface of the drive shaft (105). A positioning bracket (204) is fixedly mounted on the inner wall of the equipment housing (1). A stator cage (205) is fixedly mounted on the inner wall of the positioning bracket (204). A spiral blade (206) is mounted on the inner wall of the drive shaft (105).

2. The basic copper chloride impurity separation device according to claim 1, characterized in that, An extension plate (106) is mounted on the outer surface of the drive shaft (105), a rotating plate (107) is mounted on the outer surface of the extension plate (106), a flying hammer (108) is fixedly mounted on the outer surface of the rotating plate (107), an adaptive adjustment ring (109) is slidably mounted on the outer surface of the drive shaft (105), a return spring (110) is mounted on the top surface of the adaptive adjustment ring (109), a connecting bracket (111) is mounted on the bottom surface of the adaptive adjustment ring (109), a connecting rod (112) is rotatably mounted on the bottom surface of the rotating plate (107), and the top surface of the sliding sleeve (2) is fixedly connected to the two connecting brackets (111).

3. The basic copper chloride impurity separation device according to claim 2, characterized in that, One end of the drive shaft (105) is fixedly connected to the output end of the drive motor (104). The drive shaft (105) is rotatably connected to the setting port (102) through the positioning bearing (103). One end of the drive shaft (105) extends from the inner wall of the setting port (102) to the interior of the equipment housing (1). There are two extension plates (106). The two extension plates (106) are equidistantly distributed on the outer surface of the drive shaft (105). A rotating plate (107) is correspondingly distributed on the outer surface of each extension plate (106). A flying hammer (108) is correspondingly distributed on the outer surface of each rotating plate (107). A connecting rod (112) is correspondingly distributed on the bottom surface of each rotating plate (107).

4. The basic copper chloride impurity separation device according to claim 2, characterized in that, The bottom surface of the return spring (110) is in contact with the top surface of the adaptive adjustment ring (109), the top surface of the return spring (110) is in contact with the bottom surface of the extension plate (106), there are two connecting brackets (111), the two connecting brackets (111) are equidistantly distributed on the bottom surface of the adaptive adjustment ring (109), and the other end of the two connecting rods (112) is rotatably connected to the adaptive adjustment ring (109).

5. The basic copper chloride impurity separation device according to claim 1, characterized in that, The interior of the sealing rotating sleeve (201) is connected to the air chamber (202) inside the drive shaft (105). There are several V-shaped holes (203), and the several V-shaped holes (203) are distributed in a ring array at equal intervals on the outer surface of the drive shaft (105).

6. The basic copper chloride impurity separation device according to claim 1, characterized in that, The separation assembly includes a separation plate (3), which is fixedly installed on the inner wall of the equipment housing (1). The top surface of the separation plate (3) is provided with a separation hole (301). The inner wall of the equipment housing (1) is divided into a first space (302) and a second space (303) by the separation plate (3). A discharge pipe (304) is installed on the bottom surface of the equipment housing (1), and a water drain pipe (305) is provided on the outer surface of the equipment housing (1).

7. The basic copper chloride impurity separation device according to claim 6, characterized in that, The interior of the discharge pipe (304) is connected to the interior of the second space (303), and the interior of the water discharge pipe (305) is connected to the interior of the first space (302).

8. The basic copper chloride impurity separation device according to claim 1, characterized in that, The adaptive adjustment component includes a frequency collector (4), which is fixedly installed on the top surface of the top cover (101). A tuning fork (401) is fixedly installed on the bottom surface of the frequency collector (4). A controller (402) is fixedly installed on the outer surface of the device housing (1). An outlet (403) is fixedly provided on the top surface of the top cover (101).

9. The basic copper chloride impurity separation device according to claim 8, characterized in that, The frequency collector (4) is electrically connected to the controller (402), the tuning fork (401) extends from the top surface of the device housing (1) to the interior of the device housing (1), the controller (402) is electrically connected to the drive motor (104), and the outlet (403) is interconnected with the interior of the device housing (1).

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