A smart city sewage diversion management pipeline

Abstract

The present invention provides a smart city sewage diversion management pipeline, including an outer tube body, an inner tube body, a driving mechanism and a core piece, the main pipe of the outer tube body is connected to the sewage pipe, a plurality of branch pipe interfaces are evenly distributed on the outer circumference near the end wall, each branch pipe interface is respectively connected to the sewage branch pipe, a support sleeve is extended outward from the center of the end wall, a diameter hole is provided on the circumferential side wall of the inner sleeve of the inner tube body, the diameter of the diameter hole matches the inner diameter of the branch pipe interface, an inner sleeve is fixed to the rear wall of the inner sleeve, the inner sleeve is sleeved on the inner side of the support sleeve, and front and rear bearings are sleeved between the inner sleeve and the support sleeve, a through hole is provided in the center of the inner sleeve for assembling the core piece, the inner ends of the core piece are respectively provided with sensor groups, and the driving mechanism is used to drive the inner tube body to reciprocate and rotate an angle in the outer tube body. The scheme of the present invention can improve the accuracy, efficiency and sustainability of sewage treatment, protect the environment, improve water quality, and provide a cleaner and healthier living environment for urban residents.

Description

Technical Field

[0001] The present invention relates to the technical field of smart city sewage pipe improvement, and in particular to a smart city sewage diversion management pipe. Background Art

[0002] Smart city sewage diversion and treatment pipeline is a solution that applies intelligent technology and pipeline system design to effectively manage urban sewage discharge and treatment. It includes a series of pipelines and equipment to accurately divert different types of sewage and guide them to corresponding treatment pipelines or facilities to achieve efficient and environmentally friendly sewage treatment. The current status of existing smart city sewage diversion and treatment pipelines may have the following problems:

[0003] 1. Inaccurate diversion: Existing pipelines may lack accurate diversion mechanisms and are unable to direct different types of sewage (such as heavy sewage, light sewage and rainwater floods) to corresponding discharge pipes, resulting in reduced effectiveness and efficiency of sewage treatment.

[0004] 2. Lack of real-time monitoring and adjustment capabilities: The existing pipeline system may lack sensors and real-time monitoring equipment, and cannot accurately monitor and analyze the flow, concentration, temperature and other parameters of sewage. The lack of real-time data feedback makes it difficult to adjust the treatment strategy and optimize the treatment process in a timely manner.

[0005] 3. Difficulty in cleaning and maintenance: There may be dirt and sludge accumulation inside the existing pipes, which leads to blockage of drainage channels and residual sewage, reducing the treatment effect. At the same time, the dirt covering the surface of the pipe may affect the sensitivity and accuracy of the sensor.

[0006] 4. Lack of environmental protection and sustainability considerations: The existing pipeline system may not fully consider resource utilization and environmental protection, resulting in underutilization of sewage resources, causing waste and pollution of water resources and the ecological environment.

[0007] Due to the current status of the existing smart city sewage diversion and treatment pipelines, there may be inaccurate diversion, lack of real-time monitoring and adjustment, difficulty in cleaning and maintenance, and environmental protection and sustainability issues. These problems affect the effect and efficiency of sewage treatment and need to be improved and optimized. Summary of the invention

[0008] In view of the technical problems existing in the current urban sewage treatment process, the present invention provides a smart city sewage diversion management pipeline to achieve accurate sewage diversion, real-time monitoring and adjustment, sewage treatment optimization, hollow column cleaning, environmental protection and sustainable development.

[0009] The solution of the present invention to solve its technical problem is: adopt a smart city sewage diversion and treatment pipeline, including an outer tube body, an inner tube body, a driving mechanism and a core piece, the outer tube body includes a main pipe, a branch pipe interface and a support sleeve, the main pipe is connected to the sewage pipe, the end of the main pipe has an end wall, and a plurality of branch pipe interfaces are evenly distributed on the outer circumference close to the end wall, each branch pipe interface is respectively connected to the sewage branch pipe, and a support sleeve extends outward from the center of the end wall, and the support sleeve has an assembly hole that passes through the end wall; the inner tube body includes an inner sleeve and an inner sleeve, the circumferential side wall of the inner sleeve is provided with a diameter hole, the diameter of the diameter hole matches the inner diameter of the branch pipe interface, the rear wall of the inner sleeve is fixed with an inner sleeve, the inner sleeve is sleeved on the inner side of the support sleeve, and front and rear bearings are sleeved between the inner sleeve and the support sleeve, the center of the inner sleeve is provided with a through hole for assembling the core piece, the inner ends of the core piece are respectively provided with sensor groups, and the driving mechanism is used to drive the inner tube body to reciprocate an angle in the outer tube body.

[0010] Preferably, the driving mechanism includes a shaft frame, a worm, a servo motor and a worm wheel. The shaft frame is fixed on the end wall of the outer tube body, the worm is laterally mounted on the upper end of the shaft frame, a servo motor is fixed on one side of the shaft frame, the rotating shaft of the servo motor is connected to the worm, and a worm wheel is fixed at the end of the inner sleeve to ensure that the worm and the worm wheel are meshing.

[0011] Preferably, the core member comprises a hollow cylinder, the sensor group is distributed on the front side of the hollow cylinder, a water cavity is arranged at the rear of the hollow cylinder, a water supply channel is arranged at the axis of the hollow cylinder, an inner pipe joint is installed on the outer end wall of the water cavity, the water cavity is connected with the water supply channel inwardly, an axial groove is arranged on the outer wall of the hollow cylinder, a series of drainage holes are distributed in the axial groove, and each drainage hole is connected with the water supply channel respectively.

[0012] Preferably, the controller sends the data information sent by each sensor to the central control center through a wired or wireless module. The central control center determines that the corresponding branch pipe interface should be selected for discharge based on the water quality signals fed back by each sensor. The central control center sends the control information to the controller, and the controller controls the servo motor to rotate an angle to ensure that when the inner tube body rotates, its diameter hole can correspond to the corresponding branch pipe interface to achieve selective sewage discharge.

[0013] Preferably, the rear cover assembly includes a cover body and a support cover. The support cover is fixed on the rear end wall of the main pipe and is located on the outside of the worm gear. An inner flange is arranged at the end edge of the support cover and an outer flange is arranged around the periphery of the cover body. The inner and outer flanges are fixed by screws.

[0014] Preferably, a composite cover protruding outward is provided in the middle of the cover body, an outer pipe joint is provided on the side of the composite cover, a wire discharge hole is provided in the center of the composite cover, a sealing ring is sleeved in the wire discharge hole, the data cable led out from the wire discharge hole is led out from the sealing ring in the center of the wire discharge hole after retaining an appropriate margin, the spring hose installed on the inner pipe joint is connected to the inner end of the outer pipe joint after retaining the margin, and the outer pipe joint is connected to the clean water source joint set on the ground through a water supply pipe, so that clean water can continuously discharge the drainage holes of the core component.

[0015] Preferably, an auxiliary frame is sleeved in the inner cavity of the main pipe, the auxiliary frame comprises an outer ring and an inner ring, a diaphragm is connected between the inner and outer rings, the outer ring is sleeved on the inner wall of the main pipe, and a brush is fixed around the inner ring.

[0016] Beneficial effects of the invention: The scheme of the invention can improve the accuracy, efficiency and sustainability of sewage treatment, protect the environment, improve water quality, and provide a cleaner and healthier living environment for urban residents.

[0017] 1. Accurate sewage diversion: By rotating the inner tube body, the diameter hole is ensured to correspond to the corresponding branch pipe interface to achieve selective sewage discharge. In this way, different types of sewage (heavy sewage, light sewage and rainwater and flood water) can be diverted to different discharge pipes, thereby improving the accuracy and efficiency of sewage treatment.

[0018] 2. Real-time monitoring and adjustment: The sensor group can monitor the flow, concentration, temperature and other parameters of sewage and transmit the data to the central control center. The central control center analyzes and evaluates the sewage situation in real time based on the data information fed back by the sensors and adjusts the diversion plan and treatment strategy as needed. This real-time monitoring and adjustment can improve the accuracy and effectiveness of sewage treatment.

[0019] 3. Sewage treatment optimization: Through real-time data analysis and adjustment, the sewage treatment process can be optimized. According to different sewage characteristics and needs, the discharge ratio, treatment method and operating parameters of the treatment equipment can be adjusted to achieve the best sewage treatment effect and resource utilization efficiency.

[0020] 4. Hollow cylinder cleaning: The hollow cylinder surface of the core piece is continuously supplied with water through the clean water source connector to clean the drainage holes and replace the sewage. At the same time, the brush on the auxiliary frame cleans the hollow cylinder to prevent sewage and dirt from covering the sensor and improve the sensitivity of the sensor. This can keep the core piece clean and reduce sewage residue and clogging problems.

[0021] 5. Environmental protection and sustainable development: Through accurate diversion and optimized treatment, the smart city sewage diversion and management pipeline solution can effectively reduce environmental pollution. Rationally treat and utilize sewage resources, while protecting water resources and the ecological environment, and promoting sustainable development. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the three-dimensional structure of the sewage diversion and treatment pipeline of the present invention;

[0023] Figure 2 yes Figure 1 A front view of

[0024] Figure 3 yes Figure 2 Middle DD section structure diagram;

[0025] Figure 4 yes Figure 3 Middle AA section structure diagram;

[0026] Figure 5 yes Figure 1 Schematic diagram of the structure of the middle and outer tube bodies;

[0027] Figure 6 yes Figure 4 3D structural diagram of the middle tube core.

[0028] Numbers in the figure: outer tube body 1, inner tube body 2, driving mechanism 3, core piece 4, micro-motion mechanism 5, rear cover assembly 6, outer tube body 1, main pipe 11, branch pipe interface 12, support sleeve 13, auxiliary frame 14, brush 15, inner tube body 2, inner sleeve 21, diameter hole 22, inner sleeve 23, bearing 24, driving mechanism 3, shaft frame 31, worm 32, servo motor 33, worm gear 34, core piece 4, hollow cylinder 41, sensor group 42, axial groove 43, drainage hole 44, inner layer pipe joint 45, water cavity 46, water replenishment channel 47, micro-motion mechanism 5, sliding frame 51, frame side hole 52, water pressure cover 53, lead hole 54, spring 55, rear cover assembly 6, cover body 61, composite cover 62, outer layer pipe joint 63, wiring hole 64, sealing ring 65, support cover 66. DETAILED DESCRIPTION

[0029] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0030] Embodiment 1: a kind of Figure 1 The smart city sewage diversion management pipeline mainly includes an outer pipe body 1, an inner pipe body 2, a driving mechanism 3, a pipe core part 4, a micro-motion mechanism 5 and a rear cover assembly 6, etc.

[0031] like Figure 1 and Figure 5 As shown, the outer pipe body 1 includes a main pipe 11, a branch pipe interface 12, a support sleeve 13, an auxiliary frame 14 and a brush 15, wherein the main pipe 11 is connected to the sewage pipe, and the end of the main pipe 11 has an end wall, and a plurality of branch pipe interfaces 12 are evenly distributed on the outer circumference near the end wall. Figure 5As shown, a branch pipe interface 12 is distributed at intervals of 120 degrees on the outer circumference of the main pipe 11, with a total of 3 branch pipe interfaces 12. Each branch pipe interface has a flange on the edge, and each branch pipe interface 12 is connected to a corresponding sewage branch pipe. The three branch pipe interfaces 12 are correspondingly connected to a heavy sewage branch pipe, a light sewage branch pipe, and a rainwater branch pipe. A support sleeve 13 extends outward from the center of the end wall, and the support sleeve 13 has an assembly hole that passes through the end wall.

[0032] like Figure 1 and Figure 4 As shown, the inner tube body 2 comprises an inner sleeve 21, a diameter hole 22, an inner sleeve 23 and a bearing 24, wherein a diameter hole 22 is provided on the circumferential side wall of the inner sleeve 21, the diameter of the diameter hole 22 matches the inner diameter of the branch pipe interface 12, an inner sleeve 23 is fixed to the rear wall of the inner sleeve 21, the inner sleeve 23 is sleeved on the inner side of the support sleeve 13, and front and rear bearings 24 are sleeved between the inner sleeve 23 and the support sleeve 13, so that the inner sleeve 23 can rotate inside the support sleeve 13. A through hole is provided at the center of the inner sleeve 23 for assembling the tube core 4.

[0033] like Figure 1 As shown, the driving mechanism 3 includes a shaft frame 31, a worm 32, a servo motor 33 and a worm wheel 34, wherein the shaft frame 31 is fixed to the end wall of the outer tube 1, the worm 32 is transversely mounted on the upper end of the shaft frame 31, a servo motor 33 is fixed to one side of the shaft frame 31, the rotating shaft of the servo motor 33 is connected to the worm 32, and a worm wheel 34 is fixed to the end of the inner sleeve 23 to ensure that the worm 32 is meshed with the worm wheel 34. When the servo motor is controlled to rotate by the controller, the worm wheel can be driven to rotate forward and backward within a range of 180 degrees (usually 120 degrees) through the worm.

[0034] like Figure 4 and Figure 6 As shown, the pipe core 4 includes a hollow cylinder 41, a sensor group 42, an axial groove 43, a drainage hole 44, an inner pipe joint 45, a water cavity 46 and a water supply channel 47, wherein the hollow cylinder 41 is a cylindrical or prism structure, with the hollow cylinder 41 as a carrier, and a sensor group 42 is distributed on its front side, and these sensors can monitor the flow, concentration, temperature and other parameters of sewage, and transmit the data to the central control center. Through accurate monitoring of sewage, the diversion plan can be adjusted in real time to optimize the sewage treatment process.

[0035] A water cavity 46 is disposed at the rear of the hollow cylinder 41 , a water supply channel 47 is disposed at the axis of the hollow cylinder 41 , an inner layer pipe joint 45 is installed on the outer end wall of the water cavity 46 , and the water cavity 46 is inwardly connected to the water supply channel 47 .

[0036] An axial groove 43 is provided on the outer wall of the hollow cylinder 41 . A series of drainage holes 44 are distributed in the axial groove 43 . Each drainage hole 44 is connected to the water replenishment channel 47 .

[0037] The controller sends the data information sent by each sensor to the central control center through a wired or wireless module. The central control center determines that the corresponding branch pipe interface should be selected for discharge based on the water quality signals fed back by each sensor. The central control center sends the control information to the controller, and the controller controls the servo motor to rotate an angle to ensure that when the inner tube body 2 rotates, its diameter hole 22 can correspond to the corresponding branch pipe interface to achieve selective sewage discharge.

[0038] like Figure 1 and Figure 6 As shown, the micro-motion mechanism 5 includes a sliding frame 51, a frame side hole 52, a water pressure cover 53, a lead hole 54 and a spring 55, wherein the axial groove 43 provided on the outer wall of the hollow cylinder 41 is a bilaterally symmetrical structure, and the sliding frame 51 is set in the bilaterally symmetrical axial groove 43, and the sliding frame 51 includes left and right frames and front and rear frames, and the left and right frames are matched and set in the corresponding axial groove 43, and the distance between the front and rear frames is slightly greater than the length of the hollow cylinder, and the left and right frames are distributed with frame side holes 52, the front frame is fixed with a water pressure cover 53, and the center of the rear frame is fixed with a lead hole 54, and a spring 55 is set in the lead hole. The data lines of each sensor are distributed and led out from the lead hole and the center of the spring. When water flows in the drainage pipe, it can impact the water pressure cover 53 to move backward. Under the action of the spring and water flow, the water pressure cover 53 will also move back and forth. When the water pressure cover moves backward, the side hole 52 of the frame can correspond to the position of the drainage hole 44, so that the drainage can be released. The released drainage will seep to the outer surface of the hollow cylinder 41 to replace the sewage, ensuring that the surface of the hollow cylinder is relatively clean.

[0039] like Figure 1 and Figure 2As shown, the rear cover assembly 6 comprises a cover body 61, a composite cover 62, an outer layer pipe joint 63, a wire hole 64, a sealing ring 65 and a support cover 66. Among them, a support cover 66 is fixed on the rear end wall of the main pipe 11, and the support cover 66 is located on the outside of the worm gear 34. An inner flange is arranged at the end edge of the support cover 66, and an outer flange is arranged at the periphery of the cover body 61. The inner and outer flanges are fixed by screws. A composite cover 62 protruding outward is arranged in the middle of the cover body 61, an outer layer pipe joint 63 is arranged on the side of the composite cover 62, a wire hole 64 is arranged in the center of the composite cover 62, and a sealing ring 65 is sleeved in the wire hole 64. The data line led out of the lead hole 54 is led out from the sealing ring 65 in the center of the wire hole 64 after retaining an appropriate margin. The spring hose installed on the inner layer pipe joint 45 is connected to the inner end of the outer layer pipe joint 63 after retaining the margin. The outer pipe joint 63 is connected to the clean water source joint set on the ground through a water supply pipe, so that clean water can continuously be discharged from the drainage holes 44 of the core member 4. The discharged clean water can replace the sewage on the surface of the hollow cylinder 41, ensuring that the surface of the hollow cylinder 41 is relatively clean, thereby improving the sensitivity of each sensor.

[0040] Furthermore, an auxiliary frame 14 is mounted in the inner cavity of the main pipe 11. The auxiliary frame 14 includes an outer ring and an inner ring. A diaphragm is connected between the inner and outer rings. The outer ring is fixed to the inner wall of the main pipe 11, and a brush 15 is fixed around the inner ring. The brush 15 is mounted around the outer surface of the front end of the hollow cylinder 41. Since the brush 15 cannot rotate, and the hollow cylinder 41 can reciprocate at an angle in real time according to the adjustment, the brush can be used to clean its surface to prevent sewage and dirt from covering the corresponding sensor and affecting its sensitivity.

[0041] The use process of smart city sewage diversion and treatment pipelines includes installation, control and monitoring, sewage treatment, cleaning and maintenance. Through precise control and monitoring, sewage diversion and treatment are achieved, and cleaning and maintenance work is carried out at the same time to ensure the normal operation of the pipeline system and the efficiency of sewage treatment. The use process of smart city sewage diversion and treatment pipelines is as follows:

[0042] 1. Installation phase:

[0043] a. Preparation: Select an appropriate installation location, ensure that the pipe can be connected to the sewage pipe, and connect the clean water source connector.

[0044] b. Install the outer pipe body 1: Connect the outer pipe body 1 to the sewage pipe, and connect the sewage branch pipes, including the heavy sewage branch pipe, the light sewage branch pipe and the rainwater branch pipe, through the branch pipe interface 12.

[0045] c. Install the inner tube body 2: Insert the inner sleeve 21 of the inner tube body 2 into the branch pipe interface 12, making sure it matches the branch pipe interface. Then fix the inner sleeve 21 through the inner sleeve 23 and the bearing 24 so that it can rotate in the support sleeve 13.

[0046] 2. Control and monitoring stage:

[0047] a. Configuring the controller: Setting the controller to receive data information from the sensor group 42 and communicate with the central control center.

[0048] b. Sensor monitoring: The sensor group 42 monitors the flow rate, concentration, temperature and other parameters of the sewage in real time, and transmits the data to the central control center.

[0049] c. Central control: The central control center determines the corresponding branch pipe interface to be selected for discharge based on the water quality signal fed back by the sensor, and sends the control information to the controller.

[0050] d. Worm drive: The controller controls the servo motor 33 to rotate an angle, and drives the worm wheel 34 through the worm 32 to rotate the inner tube body 2 forward and reverse within a range of 180 degrees, so that the diameter hole 22 corresponds to the corresponding branch pipe interface, thereby realizing selective sewage discharge.

[0051] 3. Sewage treatment stage:

[0052] a. Sewage diversion: According to the instructions of the central control center, the inner tube body 2 rotates and corresponds to the corresponding branch pipe interface to discharge the sewage into the corresponding branch pipe.

[0053] b. Sensor data transmission: The data of each sensor is led out through the lead hole 54 and the cable hole 64, and sent to the central control center through a wired or wireless module to achieve real-time monitoring and data feedback.

[0054] 4. Cleaning and maintenance stage:

[0055] a. Movement of the hydraulic cover: When water flows in the drainage pipe, the hydraulic cover 53 is impacted and moves backward, and the position of the side hole 52 of the frame corresponds to the position of the drainage hole 44, thereby releasing the drainage.

[0056] b. Clean water supply: The outer pipe joint 63 is connected to the ground clean water source joint through a water supply pipe to ensure that the clean water source continuously flushes the drainage holes 44 of the pipe core 4, replacing the hollow pipe 38 to clean the inner pipe body 2, ensuring the cleanliness and smoothness of the inside of the pipeline. While the clean water is being cleaned, the surface of the rotating pipe core 4 is cleaned by a stationary brush.

[0057] c. Regular maintenance: Based on usage, regularly check the operating status of the pipeline and the working condition of the equipment, and perform necessary maintenance and care to ensure the reliable operation and long-term effectiveness of the pipeline system.

[0058] The above specific embodiments of the present invention are only used to illustrate or explain the principles of the present invention, and do not constitute a limitation of the present invention. Therefore, any modification, equivalent substitution, improvement, etc. made without departing from the spirit and scope of the present invention should be included in the protection scope of the present invention.

Claims

1. A smart city sewage diversion management pipeline, It is characterized in that The invention comprises an outer tube body (1), an inner tube body (2), a driving mechanism (3) and a tube core member (4); the outer tube body (1) comprises a main tube (11), a branch tube interface (12) and a support sleeve (13); the main tube (11) is connected to a sewage pipe; an end wall is provided at the end of the main tube (11); a plurality of branch tube interfaces (12) are evenly distributed on the outer circumference close to the end wall; each branch tube interface (12) is connected to a sewage branch pipe; a support sleeve (13) extends outward from the center of the end wall; the support sleeve (13) has an assembly hole that passes through the end wall; the inner tube body (2) comprises an inner sleeve (21) and an inner sleeve (23); a diameter hole (22) is provided on the circumferential side wall of the inner sleeve (21); the diameter of the diameter hole (22) matches the inner diameter of the branch tube interface (12); an inner sleeve (23) is fixed on the rear wall of the inner sleeve (21); the inner sleeve (23) is sleeved on the inner side of the support sleeve (13); and the inner sleeve (23) is provided on the inner side of the support sleeve (13). Front and rear bearings (24) are sleeved between the tube (23) and the support sleeve (13); a through hole is provided at the center of the inner sleeve (23) for assembling a tube core member (4); the tube core member (4) comprises a hollow cylinder (41); a sensor group (42) is distributed on the front side of the hollow cylinder (41); a water cavity (46) is provided at the rear of the hollow cylinder (41); a water replenishment channel (47) is provided at the axis of the hollow cylinder (41); an inner layer pipe joint (45) is installed on the outer end wall of the water cavity (46); the water cavity (46) is inwardly connected to the water replenishment channel (47); an axial groove (43) is provided on the outer wall of the hollow cylinder (41); a series of drainage holes (44) are distributed in the axial groove (43); each drainage hole (44) is respectively connected to the water replenishment channel (47); and the driving mechanism (3) is used to drive the inner tube body (2) to reciprocate within the outer tube body (1) by an angle.

2. The smart city sewage diversion management pipeline according to claim 1, It is characterized in that The driving mechanism (3) comprises a shaft frame (31), a worm (32), a servo motor (33) and a worm wheel (34); the shaft frame (31) is fixed to the end wall of the outer tube (1); the worm (32) is transversely mounted on the upper end of the shaft frame (31); a servo motor (33) is fixed to one side of the shaft frame (31); a rotating shaft of the servo motor (33) is connected to the worm (32); and a worm wheel (34) is fixed to the end of the inner sleeve (23) to ensure that the worm (32) and the worm wheel (34) are meshed.

3. The smart city sewage diversion management pipeline according to claim 1, It is characterized in that The controller sends the data information sent by each sensor to the central control center through a wired or wireless module. The central control center determines that the corresponding branch pipe interface should be selected for discharge based on the water quality signals fed back by each sensor. The central control center sends the control information to the controller, and the controller controls the servo motor to rotate an angle to ensure that when the inner tube body (2) rotates, its diameter hole (22) can correspond to the corresponding branch pipe interface, thereby realizing selective sewage discharge.

4. The smart city sewage diversion management pipeline according to claim 2, It is characterized in that A rear cover assembly (6) is installed at the rear end of the outer tube body (1), and the rear cover assembly (6) comprises a cover body (61) and a support cover (66). The support cover (66) is fixed on the rear end wall of the main pipe (11), and the support cover (66) is located on the outside of the worm gear (34). An inner flange is arranged at the end edge of the support cover (66), and an outer flange is arranged at the periphery of the cover body (61). The inner and outer flanges are fixed by screws.

5. The smart city sewage diversion management pipeline according to claim 4, It is characterized in that The device also comprises a micro-motion mechanism (5), wherein the micro-motion mechanism (5) comprises a sliding frame (51), a frame side hole (52), a water pressure cover (53), a lead hole (54) and a spring (55), wherein the tube core component (4) comprises a hollow cylinder (41), an outer wall of the hollow cylinder (41) is provided with a bilaterally symmetrical axial groove (43), the sliding frame (51) is sleeved in the bilaterally symmetrical axial groove (43), the sliding frame (51) comprises a left and right frame and a front and rear frame, the left and right frames are matched and sleeved in the corresponding axial groove (43), the distance between the front and rear frames is slightly greater than the length of the hollow cylinder, the left and right frames are distributed with frame side holes (52), the front frame is fixed with a water pressure cover (53), and the center of the rear frame is fixed with a lead hole (54) , and a spring (55) is sleeved in the lead hole, a composite cover (62) protruding outward is provided in the middle of the cover body (61), an outer pipe joint (63) is provided on the side of the composite cover (62), a wire hole (64) is provided in the center of the composite cover (62), a sealing ring (65) is sleeved in the wire hole (64), the data line led out of the lead hole (54) is led out from the sealing ring (65) in the center of the wire hole (64) after retaining an appropriate margin, a spring hose installed on the inner pipe joint (45) is connected to the inner end of the outer pipe joint (63) after retaining a margin, and the outer pipe joint (63) is connected to a clean water source joint set on the ground through a water supply pipe, so that clean water can continuously discharge each drainage hole (44) of the tube core member (4).

6. The smart city sewage diversion management pipeline according to claim 1, It is characterized in that An auxiliary frame (14) is sleeved in the inner cavity of the main pipe (11), the auxiliary frame (14) comprising an outer ring and an inner ring, a spur rod is connected between the inner and outer rings, the outer ring is sleeved and fixed to the inner wall of the main pipe (11), and a brush (15) is fixed around the inner ring.

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