Drainage mechanism of efficient intelligent dosing reaction equipment
By designing a drainage mechanism for a highly efficient and intelligent dosing reaction device, and using the outlet weir and discharge port to regulate the water level, combined with the flow guide and mud baffle structure, the problems of unstable water flow and floating matter removal in sewage treatment equipment are solved, achieving stability in water flow management and sedimentation effect.
Patent Information
- Application Number
- CN202423074076.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-12
- Publication Date
- 2025-11-18
- Estimated Expiration
- 2034-12-12
AI Technical Summary
Existing sewage treatment equipment experiences fluctuating water levels and unstable flow rates during drainage, making it difficult to effectively divert and regulate pressure. Furthermore, floating debris is difficult to remove, affecting subsequent treatment processes and potentially damaging the equipment.
A drainage mechanism for a high-efficiency intelligent dosing reaction device was designed, including components such as an inlet pipe, an outlet pipe, a central guide tube, a mud hopper, and a mud pumping pipe. The water level is regulated by the outlet weir and the discharge port. Combined with the mud baffle and the flow guiding structure, the water flow is stably divided and the pressure is regulated, and floating and sinking objects are effectively removed.
It achieves stable water flow and water quality diversion and pressure regulation, prevents overload or excessive pressure, effectively removes floating debris, and avoids pollution or damage to equipment.
Smart Images
Figure CN223561383U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model belongs to sewage treatment technical field, more specifically, relate to a kind of drainage mechanism of high-efficiency intelligent dosing reaction equipment. BACKGROUND
[0002] China's water resources is relatively nervous, with the acceleration of urbanization and industrialization process of our country, the discharge of wastewater in the country also increases year by year, leading to continuous deterioration of natural water body, water pollution situation is still very severe.Water pollution, water shortage has become a serious constraint factor for the sustainable development of China's economy and society.In recent years, the degree of attention and support of the state to environmental protection industry is constantly improved, and the sewage treatment industry has also been rapid development.Especially environmental protection equipment has its small footprint, flexible application range, small investment, short construction period, high degree of automation in the field of water treatment, and has a great market advantage in the field of water treatment.
[0003] Many industrial enterprises have built wastewater treatment facilities very early, but as the national environmental protection requirements gradually improve, many facilities cannot meet the existing requirements, so some dosing enhanced treatment equipment needs to be added to improve the discharge standard.
[0004] However, in the prior art, the treated sewage is discharged at the drainage outlet, and due to the high and low water level, the water flow cannot be stabilized, the sewage cannot be divided and pressure-regulated, and the floating objects floating on the sewage cannot be effectively removed, thereby affecting the subsequent treatment link and causing pollution or damage to the equipment, and the existing dosing reaction is mainly divided into dosing reaction tank and sedimentation tank, which has large footprint, poor sedimentation effect and high manufacturing cost. INVENTION CONTENTS
[0005] Therefore, in order to solve the above technical problems, the utility model provides a drainage mechanism of high -efficient intelligent dosing reaction equipment, including equipment body 10, equipment body 10 includes inlet pipe 20, outlet pipe 30, center flow guide cylinder 40 and hopper 50, the position of inlet pipe 20 is higher than the position of outlet pipe 30, the water outlet end of inlet pipe 20 is connected with center flow guide cylinder 40, the top end of center flow guide cylinder 40 is connected with equipment body 10, and the bottom end of center flow guide cylinder 40 is arranged above hopper 50, the mud pipe 80 is equipped in hopper 50, one end of mud pipe 80 is communicated with hopper 50, the other end is connected with sludge pool, the water outlet wave weir groove 170 is equipped in equipment body 10 and is close to outlet pipe 30, and the top end of water outlet wave weir groove 170 is higher than the top end of outlet pipe 30, one end of water outlet wave weir groove 170 close to outlet pipe 30 is equipped with the flow outlet 180, one end of flow outlet 180 is connected with the water outlet end of water outlet wave weir groove 170, the other end of flow outlet 180 is connected with equipment body 10 and is arranged below the water inlet end of outlet pipe 30, when sewage is treated, in turn through water outlet wave weir groove 170, flow outlet 180 is discharged through outlet pipe 30, water outlet wave weir groove 170 is used for adjusting water level, in turn makes guarantee water flow stable, the shunt and pressure regulating of different water quality, effectively manage water flow, prevent overload or excessive pressure, can effectively remove floating and sinking material simultaneously, avoid the pollution or damage equipment caused by entering subsequent processing link.
[0006] The utility model provides a kind of drainage mechanism of high-efficiency intelligent dosing reaction equipment, including equipment body 10, the equipment body 10 includes inlet pipe 20, outlet pipe 30, center flow guide cylinder 40 and hopper 50, the position of the inlet pipe 20 is higher than the position of the outlet pipe 30, the water outlet end of the inlet pipe 20 is connected with the center flow guide cylinder 40, the top end of the center flow guide cylinder 40 is connected with the equipment body 10, and the bottom end water outlet of the center flow guide cylinder 40 is placed above the hopper 50, the hopper 50 is provided with mud suction pipe 80, one end of the mud suction pipe 80 is communicated with the hopper 50, and the other end is connected with sludge pool, the equipment body 10 is provided with outlet wave weir groove 170 near the outlet pipe 30, and the top end of the outlet wave weir groove 170 is higher than the top end of the outlet pipe 30, one end of the outlet wave weir groove 170 near the outlet pipe 30 is provided with discharge port 180, one end of the discharge port 180 is connected with the water outlet end of the outlet wave weir groove 170, and the other end of the discharge port 180 is connected with the equipment body 10 and is placed below the water inlet end of the outlet pipe 30, when sewage is treated, it is sequentially discharged through the outlet wave weir groove 170, the discharge port 180 and the outlet pipe 30, the outlet wave weir groove 170 is used for adjusting water level, ensuring that water flow is stable, shunting and pressure regulating for different water quality, effectively managing water flow, preventing overload or excessive pressure, and effectively removing floating and sinking objects to avoid pollution or damage to subsequent processing links.
[0007] Further, the equipment body 10 is also provided with a pipeline mixer 60 for mixing medicament and sewage, the top of the pipeline mixer 60 is provided with a dosing pipe 70, the water outlet end of the inlet pipe 20 is connected with the water inlet end of the pipeline mixer 60, and the water outlet end of the pipeline mixer 60 is communicated with the center flow guide cylinder 40, when sewage enters the pipeline mixer 60 through the inlet pipe 20, medicament is added through the dosing pipe 70 at the same time, the pipeline mixer 60 discharges the mixed sewage to the lower through the center flow guide cylinder 40, the hopper 50 discharges the sludge after precipitation to the sludge pool through the mud suction pipe 80, and the treated sewage is discharged through the outlet pipe 30 as the water level rises.
[0008] Further, the device body 10 is externally provided with a control cabinet 90 and a sludge pump 100, the control cabinet 90 and the sludge pump 100 are provided with a control cable 110, the control cabinet 90 is connected with the sludge pump 100 through the control cable 110, one end of the sludge suction pipe 80 is communicated with the hopper 50, and the other end is connected with the sludge pump 100, the side, away from the hopper 50, of the sludge pump 100 is provided with a sludge discharge pipe 120, one end of the sludge discharge pipe 120 is connected with the sludge pump 100, and the other end is connected with a sludge pool, in normal state, the sludge pump 100 is in closed state, and the sludge suction pipe 80 does not discharge sludge, when it is needed to discharge sludge, the control cabinet 90 controls the sludge pump 100 through the control cable 110, at this time, the sludge pump 100 is opened, and under the action of the sludge pump 100, the sludge in the hopper 50 is discharged to the sludge pool through the sludge suction pipe 80 and the sludge discharge pipe 120.
[0009] Further, the device body 10 is further connected with a sludge liquid level meter 130, the bottom end of the sludge liquid level meter 130 extends into the hopper 50, the top end of the sludge liquid level meter 130 is located at the upper portion of the water inlet pipe 20, and the top end of the sludge liquid level meter 130 is signal connected with the control cabinet 90 through the control cable 110, when the sludge deposited in the hopper 50 contacts the contact point of the sludge liquid level meter 130, the sludge liquid level meter 130 sends a signal, the control cabinet 90 controls the sludge pump 100 to be opened through the control cable 110, and the sludge is discharged outward.
[0010] Further, the hopper 50 is a conical sludge hopper, which is convenient for gathering and discharging sludge.
[0011] Further, the water outlet at the bottom end of the center flow guide cylinder 40 is a horn-shaped opening, which plays a buffering role and prevents the impact force of downward sewage from being too large to impact the sludge deposited in the hopper 50.
[0012] Further, the water baffle 140 is connected at the water outlet at the bottom end of the center flow guide cylinder 40, and the water baffle 140 is used for radiating the sewage to the surrounding.
[0013] Further, the diameter of the cross section of the water baffle 140 is greater than that of the water outlet at the bottom end of the center flow guide cylinder 40, and the radiation degree is better.
[0014] Furthermore, the device body 10 is provided with a plurality of first baffles 150 and a plurality of second baffles 160. The plurality of first baffles 150 are evenly spaced and arranged in parallel, and the first baffles 150 are inclined downward. The plurality of second baffles 160 are evenly spaced and arranged in parallel, and the second baffles 160 are inclined upward. The first baffles 150 and the second baffles 160 are used to extend the flow path of sewage and enhance the sedimentation effect.
[0015] Furthermore, both the first baffle plate 150 and the second baffle plate 160 have an angle with the horizontal plane to facilitate mud-water separation and enhance the sedimentation effect.
[0016] Furthermore, the included angle is 60°.
[0017] The beneficial effects of this utility model are as follows: This utility model proposes a drainage mechanism for a high-efficiency intelligent dosing reaction device, including a device body 10. The device body 10 includes an inlet pipe 20, an outlet pipe 30, a central guide cylinder 40, and a sludge hopper 50. The inlet pipe 20 is positioned higher than the outlet pipe 30. The outlet end of the inlet pipe 20 is connected to the central guide cylinder 40. The top end of the central guide cylinder 40 is connected to the device body 10. The bottom outlet of the central guide cylinder 40 is positioned above the sludge hopper 50. A sludge suction pipe 80 is provided inside the sludge hopper 50. One end of the sludge suction pipe 80 is connected to the sludge hopper 50, and the other end is connected to a sludge tank. A water outlet weir 170 is connected inside the device body 10 near the outlet pipe 30, and the water outlet... The top of the effluent weir 170 is higher than the top of the outlet pipe 30. The end of the effluent weir 170 near the outlet pipe 30 is provided with a drain port 180. One end of the drain port 180 is connected to the outlet end of the effluent weir 170, and the other end of the drain port 180 is connected to the equipment body 10 and is located below the inlet end of the outlet pipe 30. After the sewage is treated, it passes through the effluent weir 170 and the drain port 180 in sequence and is discharged through the outlet pipe 30. The effluent weir 170 is used to regulate the water level, thereby ensuring a stable water flow, diverting and regulating the flow of different water qualities, effectively managing the water flow, preventing overload or excessive pressure, and effectively removing floating and sedimentary matter to prevent it from entering subsequent treatment stages and causing pollution or damage to the equipment. Attached Figure Description
[0018] Figure 1 This is a schematic diagram of the overall structure of the drainage mechanism of a high-efficiency intelligent dosing reaction device according to this utility model.
[0019] Explanation of key component symbols:
[0020] Equipment body 10, inlet pipe 20, outlet pipe 30, central guide tube 40, sludge hopper 50, pipeline mixer 60, dosing pipe 70, sludge pumping pipe 80, control cabinet 90, sludge pump 100, control cable 110, sludge pumping pipe 120, sludge level gauge 130, baffle plate 140, first baffle 150, second baffle 160, outlet weir 170, and discharge port 180.
[0021] The following detailed description, in conjunction with the accompanying drawings, will further illustrate this utility model. Detailed Implementation
[0022] The following embodiments are described to aid in understanding this application. These embodiments are not, and should not be, construed in any way as limiting the scope of protection of this application.
[0023] In the following description, those skilled in the art will recognize that throughout this discussion, components may be described as individual functional units (which may include subunits), but those skilled in the art will recognize that various components or portions thereof may be divided into individual components or may be integrated together (including integrated within a single system or component).
[0024] Furthermore, the connection between components or systems is not intended to be limited to a direct connection; on the contrary, data between these components may be modified, reformatted, or otherwise altered by intermediate components. Additionally, other or fewer connections may be used. It should also be noted that the terms "connection," "link," or "input" should be understood to include direct connections, indirect connections via one or more intermediate devices, and wireless connections.
[0025] Example 1
[0026] like Figure 1 The diagram shown is a schematic representation of the overall structure of the drainage mechanism of a high-efficiency intelligent dosing reaction device according to this utility model.
[0027] The utility model provides a kind of drainage mechanism of high-efficiency intelligent dosing reaction equipment, including equipment body 10, the equipment body 10 includes inlet pipe 20, outlet pipe 30, center flow guide cylinder 40 and hopper 50, the position of the inlet pipe 20 is higher than the position of the outlet pipe 30, the water outlet end of the inlet pipe 20 is connected with the center flow guide cylinder 40, the top end of the center flow guide cylinder 40 is connected with the equipment body 10, and the bottom end water outlet of the center flow guide cylinder 40 is placed above the hopper 50, the hopper 50 is provided with mud suction pipe 80, one end of the mud suction pipe 80 is communicated with the hopper 50, the other end is connected with sludge pool, the equipment body 10 is provided with outlet wave weir groove 170 near the outlet pipe 30, and the top end of the outlet wave weir groove 170 is higher than the top end of the outlet pipe 30, the end of the outlet wave weir groove 170 near the outlet pipe 30 is provided with discharge port 180, one end of the discharge port 180 is connected with the water outlet end of the outlet wave weir groove 170, the other end of the discharge port 180 is connected with the equipment body 10 and is placed below the water inlet end of the outlet pipe 30, when sewage is treated, it is sequentially passed through the outlet wave weir groove 170, the discharge port 180 is discharged through the outlet pipe 30, the outlet wave weir groove 170 is used for adjusting water level, ensuring that water flow is stable, shunting and pressure regulating for different water quality, effectively managing water flow, preventing overload or excessive pressure, and simultaneously effectively removing floating and sinking objects to avoid pollution or damage to subsequent processing links.
[0028] The equipment body 10 is also provided with pipeline mixer 60 for mixing medicament and sewage, the top of the pipeline mixer 60 is connected with dosing pipe 70, the water outlet end of the inlet pipe 20 is connected with the water inlet end of the pipeline mixer 60, and the water outlet end of the pipeline mixer 60 is communicated with the center flow guide cylinder 40, when sewage enters the pipeline mixer 60 through the inlet pipe 20, medicament is added through the dosing pipe 70 at the same time, the pipeline mixer 60 discharges mixed sewage to the lower side through the center flow guide cylinder 40, the hopper 50 discharges sludge to the sludge pool through the mud suction pipe 80, and the treated sewage is discharged through the outlet pipe 30 as water level rises.
[0029] The device body 10 is externally provided with a control cabinet 90 and a sludge pump 100, a control cable 110 is arranged between the control cabinet 90 and the sludge pump 100, the control cabinet 90 is connected with the sludge pump 100 through the control cable 110, one end of the sludge suction pipe 80 is communicated with the sludge hopper 50, and the other end is connected with the sludge pump 100, the side, away from the sludge hopper 50, of the sludge pump 100 is provided with a sludge discharge pipe 120, one end of the sludge discharge pipe 120 is connected with the sludge pump 100, and the other end is connected with a sludge pool, in a normal state, the sludge pump 100 is in a closed state, and the sludge suction pipe 80 does not discharge sludge, when it is necessary to discharge sludge, the control cabinet 90 controls the sludge pump 100 through the control cable 110, at this time, the sludge pump 100 is opened, and under the action of the sludge pump 100, sludge in the sludge hopper 50 is discharged to the sludge pool through the sludge suction pipe 80 and the sludge discharge pipe 120.
[0030] The device body 10 is further connected with a sludge liquid level meter 130, the bottom end of the sludge liquid level meter 130 extends into the sludge hopper 50, the top end of the sludge liquid level meter 130 is located at the upper portion of the water inlet pipe 20, and the top end of the sludge liquid level meter 130 is signal connected with the control cabinet 90 through the control cable 110, when sludge deposited in the sludge hopper 50 contacts the contact point of the sludge liquid level meter 130, the sludge liquid level meter 130 sends a signal, the control cabinet 90 controls the sludge pump 100 to open and discharge sludge outward through the control cable 110.
[0031] The sludge hopper 50 is a conical sludge hopper, which facilitates the gathering and discharging of sludge.
[0032] The water outlet at the bottom end of the central flow guide cylinder 40 is a horn-shaped opening, which plays a buffering role and prevents the impact force of downward sewage from being too large to impact sludge deposited in the sludge hopper 50.
[0033] The water outlet at the bottom end of the central flow guide cylinder 40 is connected with a water baffle 140, and the water baffle 140 is used for radiating sewage outward.
[0034] The diameter of the cross section of the water baffle 140 is greater than that of the water outlet at the bottom end of the central flow guide cylinder 40, and the radiation degree is better.
[0035] The device body 10 is provided with a plurality of first baffle plates 150 and a plurality of second baffle plates 160, the plurality of first baffle plates 150 are uniformly and parallelly arranged, and the first baffle plates 150 are arranged to be inclined downward, the plurality of second baffle plates 160 are uniformly and parallelly arranged, and the second baffle plates 160 are arranged to be inclined upward, and the first baffle plates 150 and the second baffle plates 160 are used for prolonging the flow path of sewage and strengthening the sedimentation effect.
[0036] The first deflector 150 and the second deflector 160 are arranged at an angle with the horizontal plane, so as to facilitate mud-water separation and strengthen the sedimentation effect.
[0037] The angle of the angle is 60°.
[0038] The utility model discloses an efficient intelligent dosing reaction equipment's drainage mechanism, including equipment body 10, equipment body 10 includes inlet pipe 20, outlet pipe 30, center flow guide cylinder 40 and hopper 50, the position of inlet pipe 20 is higher than the position of outlet pipe 30, the water outlet end of inlet pipe 20 is connected center flow guide cylinder 40, the top end of center flow guide cylinder 40 is connected equipment body 10, the bottom end water outlet of center flow guide cylinder 40 is placed in the upper of hopper 50, the hopper 50 is equipped with the mud pipe 80 in, one end of mud pipe 80 is connected with hopper 50, and the other end is connected sludge pool, and the equipment body 10 is connected and is equipped with the water outlet wave water weir groove 170 in the place close to outlet pipe 30, and the top end of water outlet wave water weir groove 170 is higher than the top end of outlet pipe 30, and one end of water outlet wave water weir groove 170 close to outlet pipe 30 is equipped with the flow outlet 180, and one end of flow outlet 180 is connected water outlet wave water weir groove 170 water outlet end, and the other end of flow outlet 180 is connected equipment body 10 and is placed in the lower of outlet pipe 30 water inlet end, when sewage is treated, in turn through water outlet wave water weir groove 170, flow outlet 180 passes through outlet pipe 30 and is discharged, water outlet wave water weir groove 170 is used for adjusting water level, and in turn makes guarantee water flow stable, and the shunt and pressure regulating of different water quality, effective management water flow, prevent overload or pressure too big, can effectively remove floating and sinking material simultaneously, avoid entering subsequent processing link and cause pollution or damage equipment.
[0039] The above-mentioned embodiments only express several implementation manners of the utility model, and the description is more specific and detailed, but it can not be understood as the limitation of the utility model patent scope. It should be pointed out that for ordinary skilled person in the art, without departing from the utility model concept, a number of deformation and improvement can be made, and these all belong to the protection scope of the utility model. Therefore, the protection scope of the utility model patent should be according to the appended claims.
Claims
1. A drainage mechanism for a high-efficiency intelligent dosing reaction device, comprising a device body (10), the device body (10) comprising an inlet pipe (20), an outlet pipe (30), a central guide cylinder (40), and a sludge hopper (50), wherein the inlet pipe (20) is positioned higher than the outlet pipe (30), the outlet end of the inlet pipe (20) is connected to the central guide cylinder (40), the top end of the central guide cylinder (40) is connected to the device body (10), the bottom outlet of the central guide cylinder (40) is positioned above the sludge hopper (50), and a sludge suction pipe (80) is provided inside the sludge hopper (50), one end of the sludge suction pipe (80) is connected to the sludge hopper (50), and the other end is connected to a sludge tank, characterized in that: A water outlet weir (170) is connected inside the equipment body (10) near the water outlet pipe (30), and the top of the water outlet weir (170) is higher than the top of the water outlet pipe (30). A drain port (180) is provided at one end of the water outlet weir (170) near the water outlet pipe (30). One end of the drain port (180) is connected to the water outlet end of the water outlet weir (170), and the other end of the drain port (180) is connected to the equipment body. (10) and placed below the inlet end of the outlet pipe (30). After the sewage is treated, it passes through the outlet weir (170) and the outlet (180) in sequence and is discharged through the outlet pipe (30). The outlet weir (170) is used to regulate the water level, ensure stable water flow, divert and regulate the flow of different water qualities, effectively manage the water flow, prevent overload or excessive pressure, and effectively remove floating matter to avoid entering the subsequent treatment process and causing pollution or damage to the equipment.
2. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 1, characterized in that: The equipment body (10) is also equipped with a pipeline mixer (60) for mixing the agent and sewage. The top of the pipeline mixer (60) is connected to a dosing pipe (70). The outlet end of the inlet pipe (20) is connected to the inlet end of the pipeline mixer (60). The outlet end of the pipeline mixer (60) is connected to the central guide cylinder (40). When sewage enters the pipeline mixer (60) through the inlet pipe (20), the agent is added simultaneously through the dosing pipe (70). The pipeline mixer (60) discharges the mixed sewage to the bottom through the central guide cylinder (40). The sludge hopper (50) discharges the settled sludge to the sludge tank through the sludge suction pipe (80). The treated sewage is discharged through the outlet pipe (30) as the water level rises.
3. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 2, characterized in that: The equipment body (10) is externally equipped with a control cabinet (90) and a sludge pump (100). A control cable (110) is provided between the control cabinet (90) and the sludge pump (100). The control cabinet (90) is connected to the sludge pump (100) through the control cable (110). One end of the sludge suction pipe (80) is connected to the sludge hopper (50), and the other end is connected to the sludge pump (100). A sludge discharge pipe (120) is provided on the side of the sludge pump (100) away from the sludge hopper (50). One end of the pipe (120) is connected to the sludge pump (100), and the other end is connected to the sludge tank. Under normal conditions, the sludge pump (100) is in a closed state, and the sludge suction pipe (80) does not discharge sludge. When sludge needs to be discharged, the control cabinet (90) controls the sludge pump (100) through the control cable (110). At this time, the sludge pump (100) is opened. Under the action of the sludge pump (100), the sludge in the sludge hopper (50) is discharged to the sludge tank through the sludge suction pipe (80) and the sludge discharge pipe (120).
4. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 3, characterized in that: The device body (10) is also equipped with a sludge level gauge (130). The bottom end of the sludge level gauge (130) extends into the sludge hopper (50), and the top end of the sludge level gauge (130) is located above the water inlet pipe (20). The top end of the sludge level gauge (130) is connected to the control cabinet (90) via the control cable (110). When the sludge deposited in the sludge hopper (50) comes into contact with the contact point of the sludge level gauge (130), the sludge level gauge (130) sends a signal, and the control cabinet (90) controls the sludge discharge pump (100) to open via the control cable (110) to discharge the sludge.
5. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 4, characterized in that: The outlet at the bottom of the central guide tube (40) is a funnel-shaped opening, which serves as a buffer to prevent excessive downward impact of sewage on the sludge deposited in the sludge hopper (50).
6. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 5, characterized in that: A baffle plate (140) is connected to the outlet at the bottom of the central guide tube (40), and the baffle plate (140) is used to radiate the sewage out in all directions.
7. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 6, characterized in that: The cross-sectional diameter of the baffle plate (140) is larger than the diameter of the outlet at the bottom of the central guide tube (40), resulting in better radiation.
8. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 1, characterized in that: The device body (10) is provided with a plurality of first baffles (150) and a plurality of second baffles (160). The plurality of first baffles (150) are evenly spaced and arranged in parallel, and the first baffles (150) are inclined downward. The plurality of second baffles (160) are evenly spaced and arranged in parallel, and the second baffles (160) are inclined upward. The first baffles (150) and the second baffles (160) are used to extend the flow path of sewage and enhance the sedimentation effect.
9. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 8, characterized in that: Both the first baffle plate (150) and the second baffle plate (160) have an angle between them and the horizontal plane, which facilitates mud-water separation and enhances the sedimentation effect.
10. The drainage mechanism of the high-efficiency intelligent dosing reaction equipment according to claim 9, characterized in that: The included angle is 60°.