CN120291608A - A self-flushing and desilting system for drainage pipes - Google Patents
A self-flushing and desilting system for drainage pipes Download PDFInfo
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- CN120291608A CN120291608A CN202510582881.0A CN202510582881A CN120291608A CN 120291608 A CN120291608 A CN 120291608A CN 202510582881 A CN202510582881 A CN 202510582881A CN 120291608 A CN120291608 A CN 120291608A
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- flushing
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- drainage pipe
- slide rail
- float
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- E—FIXED CONSTRUCTIONS
- E03—WATER SUPPLY; SEWERAGE
- E03F—SEWERS; CESSPOOLS
- E03F9/00—Arrangements or fixed installations methods or devices for cleaning or clearing sewer pipes, e.g. by flushing
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- E—FIXED CONSTRUCTIONS
- E03—WATER SUPPLY; SEWERAGE
- E03F—SEWERS; CESSPOOLS
- E03F9/00—Arrangements or fixed installations methods or devices for cleaning or clearing sewer pipes, e.g. by flushing
- E03F9/007—Devices providing a flushing surge
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- Health & Medical Sciences (AREA)
- Life Sciences & Earth Sciences (AREA)
- Engineering & Computer Science (AREA)
- Hydrology & Water Resources (AREA)
- Public Health (AREA)
- Water Supply & Treatment (AREA)
- Removal Of Floating Material (AREA)
Abstract
本发明公开了一种排水管道自冲洗清淤系统，包括池体、自冲洗结构和排水管，池体内设有冲洗池，自冲洗结构包括滑轨、浮体和牵引绳，滑轨竖向设置在冲洗池中，滑轨上能够上下滑动地套设有浮体，冲洗池侧边的底部连通设有排水管，排水管位于冲洗池内的端部铰接有盖板，盖板与所述浮体之间连接有牵引绳，浮体用于在沿滑轨上移时带动盖板绕铰接处转动开启。本发明通过自冲洗结构的设置，能够利用浮体的浮力来感知冲洗池内液位的变化，并通过牵引绳连接到排水管进口端的盖板上，通过滑轨引导浮体的运动，确保浮体运动方向和位置的精确可控，在使用时，通过浮体的运动拉动牵引绳，实现盖板开闭大小的适应性控制，提高了排水的连续性和稳定性。
The present invention discloses a self-flushing and desilting system for drainage pipes, including a pool body, a self-flushing structure and a drainage pipe. The pool body is provided with a flushing pool, and the self-flushing structure includes a slide rail, a float and a traction rope. The slide rail is vertically arranged in the flushing pool, and a float is slidably sleeved on the slide rail. A drainage pipe is connected to the bottom of the side of the flushing pool, and a cover plate is hinged at the end of the drainage pipe located in the flushing pool. A traction rope is connected between the cover plate and the float, and the float is used to drive the cover plate to rotate around the hinge when moving up along the slide rail. The present invention can use the buoyancy of the float to sense the change of the liquid level in the flushing pool through the setting of the self-flushing structure, and is connected to the cover plate at the inlet end of the drainage pipe through the traction rope, and the movement of the float is guided by the slide rail to ensure the accurate control of the movement direction and position of the float. When in use, the traction rope is pulled by the movement of the float to achieve adaptive control of the opening and closing size of the cover plate, thereby improving the continuity and stability of drainage.
Description
Technical Field
The invention relates to the technical field of urban drainage engineering, in particular to a drainage pipeline self-flushing dredging system.
Background
In the running process of the urban drainage system, drainage capacity is often reduced or even blocked due to accumulation of a large amount of solid pollutants such as fallen leaves, sludge, sand grains and the like. Traditional drainage system relies on manual drainage desilting mostly, and inefficiency and with high costs. In the prior art, although the drainage system or the equipment with the self-flushing function is provided, the structure is generally complex, the energy consumption is high, the equipment requirement is high, the operation cost is high, the opening and closing of the drainage pipeline is inconvenient to automatically control according to the existing water quantity, and the water flow drainage continuity and stability are difficult to ensure.
Therefore, a self-flushing dredging system for a drainage pipeline is needed to solve the problem that the existing drainage system is inconvenient to automatically control the opening and closing of the drainage pipeline according to the existing water quantity.
Disclosure of Invention
The invention provides a self-flushing dredging system for a drainage pipeline, aiming at the defects in the prior art, so as to solve the problem that the existing drainage system is inconvenient to automatically control the opening and closing of the drainage pipeline according to the quantity of the existing water.
In order to achieve the above purpose, the present invention adopts the following technical scheme:
the utility model provides a drainage pipe is from washing desilting system, includes the cell body, from washing structure and drain pipe, be equipped with the washing tank in the cell body, from washing the structure and including slide rail, body and haulage rope, the vertical setting of slide rail is in the washing tank, can slide ground cover from top to bottom on the slide rail and be equipped with the body, the bottom intercommunication of washing tank side is equipped with the drain pipe, the tip that the drain pipe is located the washing tank articulates there is the apron, the apron with be connected with the haulage rope between the body, the body is used for driving the apron and rotates around articulated department when moving up along the slide rail and opens.
In order to optimize the technical scheme, the specific measures adopted further comprise:
Further, the self-flushing structure further comprises an upper limiter, and the top of the sliding rail above the floating body is provided with the upper limiter.
Further, from washing the structure still including lower stopper, spring and arc, lower stopper orientation the coaxial setting of drain pipe, just slide rail, lower stopper are on same straight line with the drain pipe, and the slide rail is located down between stopper and the drain pipe, and the one end that the drain pipe was kept away from to lower stopper is in through spring coupling the inner wall of washing the pond, is fixed with the arc on the lower stopper, the arc is used for following rivers to the drain pipe motion to contradict on the slide rail, perhaps keep away from the slide rail along with the spring shrink.
Further, the self-flushing structure further comprises a track, the track is arranged at the bottom of the flushing tank, the track is in the same straight line with the sliding rail, the lower limiter and the drain pipe, the lower end of the arc-shaped plate is in contact with the track, and a pore canal for the lower limiter to pass through is formed in the sliding rail.
Further, a second pressure sensor is arranged at the bottom of the flushing tank and positioned at one end of the drain pipe, and a first pressure sensor is arranged at one end of the drain pipe positioned at the outer side of the flushing tank.
Further, a sedimentation tank is further arranged in the tank body, a vertical partition wall is arranged between the sedimentation tank and the flushing tank, and a filtering hole for communicating the sedimentation tank and the flushing tank is formed in the bottom of the partition wall.
Further, a liquid level sensor for monitoring the water level is arranged in the sedimentation tank, and the liquid level sensor is electrically connected with the remote control end.
Further, a water quality sensor for monitoring water quality is arranged at the bottom inside the sedimentation tank, and the water quality sensor is electrically connected with the remote control end.
Further, an early warning module is arranged in the remote control end.
The beneficial effects of the invention are as follows:
According to the invention, through the arrangement of the self-flushing structure, when the self-flushing structure is used, the buoyancy of the floating body can be utilized to sense the change of the liquid level in the flushing tank, the self-flushing structure is connected to the cover plate at the inlet end of the drainage pipe through the traction rope, the movement of the floating body is guided through the sliding rail, the precise and controllable movement direction and position of the floating body are ensured, and when the self-flushing structure is used, the traction rope is pulled through the movement of the floating body, so that the adaptive control of the opening and closing size of the cover plate is realized, the problem that the existing drainage system is inconvenient to automatically control the opening and closing size of the drainage pipe according to the existing water amount is solved, and the continuity and stability of drainage are improved.
The automatic dredging device combines a self-flushing function with an intelligent monitoring and early warning module, realizes automatic dredging and real-time monitoring of the drainage pipeline, improves drainage efficiency, effectively reduces pollutants such as sludge and sand grains from entering the drainage pipe, prevents blockage, prolongs the service life of a drainage system, realizes automatic dredging of the drainage pipeline, reduces manual intervention, sets up the floating body and a sliding rail and realizes automatic flushing triggering, and has the advantages of simple design, easiness in installation and maintenance, reliable mechanical structure, reduced possibility of mechanical faults and reduced maintenance cost of the system. The liquid level, the flow and the water quality are monitored in real time through various sensors, so that the normal operation of the drainage system is ensured. Through intelligent monitoring and early warning mechanism, combine from washing unit, realize automatic desilting and real-time supervision to drainage pipe, ensure drainage system's normal operating, fortune dimension personnel also accessible remote monitoring module carries out real-time supervision and control to the system, improves management efficiency.
Drawings
FIG. 1 is a schematic diagram of the whole structure of a self-flushing dredging system for a drainage pipeline according to the present invention;
FIG. 2 is a schematic diagram of a self-flushing structure of a drainage pipeline self-flushing dredging system according to the present invention;
FIG. 3 is a flow chart of monitoring a self-flushing dredging system for a drainage pipeline according to the present invention.
The water quality control device comprises a tank body 1, a flushing tank 2, a sedimentation tank 3, a partition wall 4, a filtering hole 5, a self-flushing structure 6, a cover plate 7, a drain pipe 8, a first pressure sensor 9, a second pressure sensor 10, a liquid level sensor 11, a water quality sensor 12, a remote control end 13, a floating body 61, a traction rope 62, a sliding rail 63, an upper limiter 64, a lower limiter 65, a spring 66, an arc-shaped plate 67 and a track 68.
Detailed Description
The invention will now be described in further detail with reference to the accompanying drawings.
As shown in fig. 1, the self-flushing dredging system for the drainage pipeline of the embodiment of the invention comprises a tank body 1, a self-flushing structure 6 and a drainage pipe 8, wherein a flushing tank 2 is arranged in the tank body 1, the self-flushing structure 6 comprises a sliding rail 63, a floating body 61 and a traction rope 62, the sliding rail 63 is vertically arranged in the flushing tank 2, the sliding rail 63 can be sleeved with the floating body 61 in a vertically sliding manner, the bottom of the side edge of the flushing tank 2 is communicated with the drainage pipe 8 for draining rainwater, the end part of the drainage pipe 8, which is positioned in the flushing tank 2, is hinged with a cover plate 7, a traction rope 62 is connected between the cover plate 7 and the floating body 61, and the floating body 61 is used for driving the cover plate 7 to rotate and open around a hinged position when moving upwards along the sliding rail 63.
According to the invention, through the arrangement of the self-flushing structure 6, when the self-flushing structure is used, the buoyancy of the floating body 61 can be utilized to sense the change of the liquid level in the flushing tank 2, the self-flushing structure is connected to the cover plate 7 at the inlet end of the drain pipe 8 through the traction rope 62, the movement of the floating body 61 is guided through the sliding rail 63, the precise and controllable movement direction and position of the floating body 61 are ensured, and when the self-flushing structure is used, the traction rope 62 is pulled through the movement of the floating body 61, the adaptive control of the opening and closing size of the cover plate 7 is realized, the problem that the existing drainage system is inconvenient to automatically control the opening and closing size of the drain pipe according to the existing water amount is solved, and the continuity and stability of drainage are improved.
As shown in fig. 2, in an embodiment based on the above, the self-flushing structure 6 further comprises an upper stopper 64, and the top of the slide rail 63 above the floating body 61 is provided with the upper stopper 64. In this way, the floating body 61 can be restricted from floating up to the highest position when in use, and the floating body 61 can be prevented from moving up to be separated from the slide rail 63, such as a situation that a large amount of water flows in a short period.
In another embodiment based on the above, the self-flushing structure 6 further includes a lower limiter 65, a spring 66 and an arc 67, the lower limiter 65 is coaxially disposed towards the drain pipe 8, and the sliding rail 63, the lower limiter 65 and the drain pipe 8 are on the same straight line, the sliding rail 63 is located between the lower limiter 65 and the drain pipe 8, one end of the lower limiter 65 far away from the drain pipe 8 is connected to the inner wall of the flushing tank 2 through the spring 66, the arc 67 is fixed on the lower limiter 65, and the arc 67 is used for moving along with water flow to the drain pipe 8 and is abutted against the sliding rail 63, or is retracted along with the spring 66 to be far away from the sliding rail 63.
The self-flushing structure 6 further comprises a rail 68, the rail 68 is arranged at the bottom of the flushing tank 2, the rail 68, the slide rail 63, the lower limiter 65 and the drain pipe 8 are on the same straight line, the lower end of the arc-shaped plate 67 is contacted and clamped in the rail 68, a hole channel for the lower limiter 65 to pass through is formed in the slide rail 63, and the rail 68 is used for eliminating movement deviation of the lower limiter 65 caused by water flow. In this embodiment, due to the limitation of the rail 68, the counteracting arc 67 is subjected to a water flow impact force other than along the rail 68, ensuring that the movement direction of the lower limiter 65 is controllable.
When the cover plate 7 is opened, water is in a flowing state, the arc-shaped plate 67 is impacted by water flow so that the lower limiter 65 moves towards the sliding rail 63 and the lower limiter 65 passes through the pore canal, at the moment, the lower limiter 65 or the arc-shaped plate 67 can limit the lowest descending position of the floating body 61, under the action of the lower limiter 65, the descending position of the floating body 61 keeps the cover plate 7 not closed until drainage is finished, the arc-shaped plate 67 is not stressed, the lower limiter 65 moves towards the partition wall 4 under the action of the spring 66, the lower limiter 65 withdraws from the pore canal, the floating body 61 loses the limiting effect and descends continuously, and the cover plate 7 is completely closed.
In another embodiment based on the above, the bottom of the flushing tank 2 and at the end of the drain pipe 8 is provided with a second pressure sensor 10, and the end of the drain pipe 8 outside the flushing tank 2 is provided with a first pressure sensor 9. Thus, the water pressure in the drain pipe 8 can be monitored by the second pressure sensor 10 and the first pressure sensor 9 respectively installed at the inlet end and the outlet end of the drain pipe 8, and whether the drain pipe 8 is clogged can be judged. The second pressure sensor 10 and the first pressure sensor 9 are realized by adopting pressure transmitters, and are arranged at the inlet and the outlet of the drain pipe 8, and the data output is output pressure data with the unit of pascal (Pa).
In another embodiment based on the above, a sedimentation tank 3 is further disposed in the tank body 1, a vertical partition wall 4 is disposed between the sedimentation tank 3 and the flushing tank 2, and a filtering hole 5 communicating the sedimentation tank 3 and the flushing tank 2 is disposed at the bottom of the partition wall 4. Wherein, the end of the lower limiter 65 far away from the drain pipe 8 in the above proposal can be connected to the partition wall 4 by a spring 66.
Wherein, sedimentation tank 3 is inside to be equipped with the liquid level sensor 11 that is used for monitoring the water level, and liquid level sensor 11 is connected with remote control end 13 electricity to the real-time supervision liquid level height.
The liquid level sensor 11 can be realized by adopting an ultrasonic liquid level sensor or a pressure liquid level sensor which is arranged on the side wall or the bottom of the sedimentation tank 3 and measures the liquid level height by emitting ultrasonic waves or detecting the change of water pressure. The installation positions are a plurality of according to the requirement, and are respectively arranged in the sedimentation tank 3 and the flushing tank 2 and are close to the inlets of the partition wall 4 and the drain pipe 8. And outputting data, namely outputting liquid level height data in millimeters.
Wherein, the bottom inside sedimentation tank 3 is equipped with the quality of water sensor 12 that is used for monitoring quality of water, and quality of water sensor 12 is connected with remote control end 13 electricity to monitor water quality index, such as pollutant concentration, turbidity etc..
The water quality sensor 12 may be implemented as an electrochemical sensor or an optical sensor for detecting the concentration of contaminants in water. The installation positions are a plurality of which can be arranged as required and are respectively arranged in the sedimentation tank 3 and the flushing tank 2 and are close to the water inlet and the water outlet. And outputting data, namely outputting water quality parameters such as pollutant concentration (mg/L), turbidity (NTU) and the like.
Wherein, the remote control end 13 is provided with an early warning module. In the above scheme, the data acquisition and transmission module can be carried between the liquid level sensor 11, the water quality sensor 12 and the remote control end 13 as required for acquiring sensor data and transmitting the sensor data to the remote control end 13 through the internet of things technology, wherein the remote control end 13 can carry the data analysis and early warning module and can analyze the received data, when the liquid level, the flow or the water quality index is abnormal, an early warning signal is sent, wherein the remote control end 13 can carry the remote monitoring module, an operation and maintenance person can remotely monitor the running state of the drainage system through a mobile phone or a computer, receive early warning information and remotely control the system.
The data acquisition and transmission module is specifically realized:
The function is to collect the sensor data and transmit the sensor data to the cloud server through wireless or wired communication technology.
The implementation mode is that a microcontroller (such as Arduino or STM 32) can be used as a data acquisition unit and connected with each sensor to acquire real-time data. The data may be transmitted to the cloud server using NB-IoT, loRa, or 4G/5G wireless communication technologies. For wired environments, ethernet communications may be employed. And the collected data is packaged into a JSON or XML format, so that the transmission and analysis are convenient.
The specific implementation of the data analysis and early warning module is as follows:
the function is to analyze the received sensor data, judge whether the running state of the drainage system is normal or not, and send out an early warning signal under abnormal conditions.
The implementation mode is that the collected data is stored in a cloud database (such as MySQL, mongoDB or cloud database service).
When the liquid level exceeds a preset threshold (for example, the liquid level of the flushing tank 2 exceeds the inlet height of the drain pipe 8), the liquid level is judged to be abnormal. And judging that the water quality is abnormal when the concentration or turbidity of the pollutants exceeds a preset threshold value. When the inlet pressure of the drain pipe 8 is too high or the outlet pressure is too low, it is judged that the pipe is clogged or at risk of clogging.
And the early warning signal is used for sending early warning information to operation and maintenance personnel in a short message, mail or APP pushing mode when the abnormality is detected.
The remote monitoring module is specifically realized:
The system has the functions that operation and maintenance personnel can remotely monitor the running state of the drainage system through a mobile phone or a computer, receive early warning information and remotely control the system.
Implementation the real-time data (liquid level, water quality, pressure) of the drainage system can be presented by means of a Web-based or mobile application user interface. Through the user interface, the operation staff can remotely control the operation state of the drainage system, such as manually opening or closing the inlet cover plate 7 of the drain pipe 8.
And the early warning notification is that early warning information is displayed in a user interface in real time, and operation and maintenance personnel are notified in time in a short message, mail or APP pushing mode.
The workflow of the above module is as follows:
And the data acquisition is that the sensor acquires liquid level, water quality and pressure data in real time and transmits the data to the cloud end through the data acquisition module.
And data transmission, namely transmitting the data to a cloud server through a wireless or wired communication technology and storing the data in a database.
And the cloud server analyzes the received data in real time and judges whether the running state of the drainage system is normal or not.
And the early warning triggering is that when abnormal data are detected, the early warning module sends early warning information to operation and maintenance personnel in a short message, mail or APP pushing mode.
And the operation and maintenance personnel remotely monitor the operation state of the drainage system through a mobile phone or a computer, receive the early warning information and remotely control the drainage system according to the requirement.
One embodiment of the invention is as follows:
In the normal drainage stage, rainwater enters the sedimentation tank 3 after passing through the structures such as the first tank plate and the like, and enters the flushing tank 2 after sedimentation through the filtering holes 5. The traction ropes 62 are in a relaxed state at this time, the cover plate 7 closes the inlet of the drain pipe 8.
The self-flushing stage comprises the steps that when the liquid level rises, buoyancy force borne by the floating body 61 is increased and moves upwards along the sliding rail 63, the floating body 61 pulls the cover plate 7 through the traction rope 62 to enable the cover plate 7 to turn upwards and open the inlet of the drain pipe 8, at the moment, sludge and sundries in the drain pipe 8 are flushed by utilizing potential energy of water flow, the lower limiter 65 moves towards the sliding rail 63 along the track 68 under the impact of the water flow to exert a limiting function, when the liquid level drops, the floating body 61 moves downwards along the sliding rail 63 under the action of the lower limiter 65, the floating body 61 stops moving downwards, traction on the cover plate 7 is kept, the lower limiter 65 retracts along the track 68 under the action of the spring 66 after water discharge is finished, the limiting function is lost, the floating body 61 continues to move downwards, the traction rope 62 loses traction of the floating body 61, and the inlet of the drain pipe 8 is gradually closed under the action of self gravity of the cover plate 7.
As shown in fig. 3, in the intelligent monitoring and early warning stage, the liquid level sensor 11, the water quality sensor 12 and the pressure sensor 10 monitor the data of the tank body 1 in real time, and the data acquisition and transmission module transmits the data to the remote control end 13. The data analysis and early warning module of the remote control end 13 analyzes the received data, keeps monitoring when the received data is normal, sends out early warning signals when the received data is abnormal, and can timely carry out alarm processing by operation and maintenance personnel through the remote monitoring module.
Wherein, specifically:
In the liquid level rising stage, when the liquid level in the flushing tank 2 rises, the buoyancy force exerted on the floating body 61 increases and moves upward along the slide rail 63. The floating body 61 pulls the cover plate 7 through the traction rope to enable the cover plate to turn upwards, and the inlet of the drain pipe 8 is opened.
The upper limit locking mechanism is that an upper limit stopper 64 is arranged on the top of the sliding rail 63, and the upper limit stopper 64 limits the upward movement of the floating body 61 when the floating body reaches the top, so as to keep the opening state of the cover plate 7.
Lower limit locking mechanism, the lower limiter 65 is connected with a spring 66 arranged on the partition wall 4, and an arc-shaped plate 67 is arranged on the lower limiter 65. The lower stopper 65 does not go over the slide rail 63 when not draining water, and has no positioning function. When the water is discharged, the arc-shaped plate 67 is subjected to the impact force of the water to counteract the tensile force of the spring 66, the lower limiter 65 is driven to move along the rail 68 towards the sliding rail 63, the limiting function is achieved, when the impact force of the water is eliminated after the water is discharged, the spring 66 is retracted to drive the limiter 65 to move towards the partition wall 4, and the lower limiting function is lost.
The liquid level lowering stage is that when the liquid level in the flushing tank 2 is lowered, the buoyancy force applied to the floating body 61 is reduced and the floating body moves downward along the slide rail 63. Due to the obstruction of the lower limit 65, the floating body 61 cannot move downwards continuously, and the traction on the cover plate 7 is maintained, so that the cover plate 7 cannot be closed, and the accumulated water is ensured to be discharged. When the drainage is finished, the lower limiter 65 loses the limiting function, the floating body 61 moves downwards continuously, the traction rope 62 becomes loose along with the descending of the floating body 61, and the cover plate 7 closes the inlet of the drainage pipe 8 under the action of self gravity.
Wherein the floating body 61 may be designed in a cylindrical shape or a spherical shape to ensure stable floating in water, and a material having a density less than that of water, such as polyethylene or polypropylene, may be selected to provide sufficient buoyancy. The sliding rail 63 may be designed to be vertical or inclined, or may be provided with a plurality of positioning points as required for controlling the movement position of the floating body 61.
Another embodiment of the invention is as follows, with locking means and release means being provided as required:
Locking means the locking means may be designed as a click mechanical lock or electromagnetic lock mounted on top of the slide rail 63. When the floating body 61 reaches the top, the locking means automatically locks the traction rope 62, keeping the cover plate 7 in an opened state.
The release means may be designed as a spring or electromagnetic release mechanism which automatically releases the pull cord 62 when the liquid level drops. The release means may be controlled by a level sensor 11, which level sensor 11 sends out a signal triggering the release means when the liquid level drops to a preset level.
Workflow process
(1) Initial state
The floating body 61 is positioned at the bottom of the sliding rail 63, the traction rope 62 is loosened, and the cover plate 7 closes the inlet of the drain pipe 8 under the action of self gravity.
(2) Liquid level rising stage
The liquid level sensor 11 monitors the change of the liquid level in the flushing tank 2 in real time. As the liquid level rises, the buoyancy experienced by the float 61 increases and moves up the slide 63. The floating body 61 pulls the cover plate 7 through the traction rope 62 to enable the cover plate to turn upwards, and the inlet of the drain pipe 8 is opened. When the floating body 61 reaches the upper stopper 64, the floating body 61 is stationary, and the cover 7 is kept in an opened state.
(3) Flushing process
The rainwater in the flushing tank 2 rapidly flows into the drain pipe 8 under the action of gravity, and the potential energy of water flow is utilized to flush sludge and sundries in the drain pipe 8. The liquid level sensor 11 continues to monitor the liquid level change, ensuring the smooth progress of the flushing process.
(4) Liquid level lowering stage
The liquid level sensor 11 detects a drop in the liquid level. When the liquid level drops to a preset level, the release device automatically releases the pull cord 62. The floating body 61 moves downwards along the sliding rail 63, the traction rope 62 is loosened, traction on the cover plate 7 is lost, and the cover plate 7 closes the inlet of the drain pipe 8 under the action of self gravity.
The automatic dredging device combines a self-flushing function and an intelligent monitoring and early warning module, realizes automatic dredging and real-time monitoring of the drainage pipeline, improves drainage efficiency, effectively reduces pollutants such as sludge, sand grains and the like from entering the drainage pipe, prevents blockage, prolongs the service life of a drainage system, realizes automatic dredging of the drainage pipeline, reduces manual intervention, sets the floating body 61, the sliding rail 63 and the like, realizes automatic flushing triggering, has simple design, is easy to install and maintain, has reliable mechanical structure, reduces the possibility of mechanical failure, and reduces the maintenance cost of the system. The liquid level, the flow and the water quality are monitored in real time through various sensors, so that the normal operation of the drainage system is ensured. Through intelligent monitoring and early warning mechanism, combine from washing unit, realize automatic desilting and real-time supervision to drainage pipe, ensure drainage system's normal operating, fortune dimension personnel also accessible remote monitoring module carries out real-time supervision and control to the system, improves management efficiency.
It should be noted that the terms like "upper", "lower", "left", "right", "front", "rear", and the like are also used for descriptive purposes only and are not intended to limit the scope of the invention in which the invention may be practiced, but rather the relative relationship of the terms may be altered or modified without materially altering the teachings of the invention.
The above is only a preferred embodiment of the present invention, and the protection scope of the present invention is not limited to the above examples, and all technical solutions belonging to the concept of the present invention belong to the protection scope of the present invention. It should be understood by those skilled in the art that various changes, modifications, substitutions, alterations, and alterations can be made hereto without departing from the spirit and scope of the invention as defined by the appended claims and their equivalents.
Claims (9)
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202510582881.0A CN120291608A (en) | 2025-05-07 | 2025-05-07 | A self-flushing and desilting system for drainage pipes |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202510582881.0A CN120291608A (en) | 2025-05-07 | 2025-05-07 | A self-flushing and desilting system for drainage pipes |
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| Publication Number | Publication Date |
|---|---|
| CN120291608A true CN120291608A (en) | 2025-07-11 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202510582881.0A Pending CN120291608A (en) | 2025-05-07 | 2025-05-07 | A self-flushing and desilting system for drainage pipes |
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| CN (1) | CN120291608A (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN120827081A (en) * | 2025-07-15 | 2025-10-24 | 江苏开放大学（江苏城市职业学院） | Buoy-type automatic irrigation and fertilization system and usage method |
-
2025
- 2025-05-07 CN CN202510582881.0A patent/CN120291608A/en active Pending
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN120827081A (en) * | 2025-07-15 | 2025-10-24 | 江苏开放大学（江苏城市职业学院） | Buoy-type automatic irrigation and fertilization system and usage method |
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