Urban rainwater pipeline drainage intelligent monitoring device

An intelligent monitoring and pipeline technology, applied in measurement devices, water supply devices, waterway systems, etc., can solve problems such as the increase of the stagnant water area and the inability of the staff to monitor the drainage pipelines all the time.

Active Publication Date: 2019-06-18
NANJING HYDRAULIC RES INST
5 Cites 1 Cited by

AI-Extracted Technical Summary

Problems solved by technology

[0003] In order to overcome the shortcomings that the staff put the warning signs on the water-logged section to remind people that there is water on the road, but the staff cannot always monitor the drainage pipes, and the water-logged ...
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Abstract

The invention relates to an intelligent monitoring device and especially relates to an urban rainwater pipeline drainage intelligent monitoring device. The urban rainwater pipeline drainage intelligent monitoring device capable of monitoring a drainage pipeline all the time and helping drainage is provided. The urban rainwater pipeline drainage intelligent monitoring device comprises a control room, a support frame, a fixing rod, an installation plate, a first acoustic Doppler current meter, and a second acoustic Doppler current meter. A GPRS wireless remote control switch circuit breaker andthe like are included in the control room. Three ultrasonic Doppler flowmeter main engines and three storage batteries are installed in a middle portion of an inner wall of a cess-pipe. A water leveland a flow rate in the drainage pipeline can be detected by the first acoustic Doppler current meter, the second acoustic Doppler current meter and the third acoustic Doppler current meter so that thedrainage pipeline can be monitored all the time. Through a drainage device, drainage can be performed so that the drainage pipeline can be assisted to carry out drainage.

Application Domain

Sewerage structuresVolume/mass flow measurement +4

Technology Topic

Wireless remote-control switchStormwater +6

Image

  • Urban rainwater pipeline drainage intelligent monitoring device
  • Urban rainwater pipeline drainage intelligent monitoring device
  • Urban rainwater pipeline drainage intelligent monitoring device

Examples

  • Experimental program(5)
  • Effect test(1)

Example Embodiment

[0023] Example 1
[0024] An intelligent monitoring device for urban rainwater pipeline drainage, such as Figure 1-10 As shown, it includes a control room 1, a support frame 4, a fixed rod 5, a mounting plate 6, a first acoustic Doppler flow meter 7, a second acoustic Doppler flow meter 8, and a third acoustic Doppler flow meter 9 and drainage device 10. The control room 1 includes GPRS wireless remote control switch circuit breaker, power supply module, control module, first indicator, second indicator, third indicator, fourth indicator and LCD display. An ultrasonic Doppler flowmeter host and three batteries are installed in the middle of the inner wall of the sewer pipe 2. The three batteries are respectively connected to the three ultrasonic Doppler flowmeter hosts, and the three ultrasonic Doppler flowmeter hosts are all connected to the background server. Through the GPRS wireless connection, the battery can supply power to the ultrasonic Doppler flowmeter host, the GPRS wireless remote control switch circuit breaker and the power module are connected by wires, the power module and the control module are connected by wires, and the inner part of the sewer pipe 2 is connected with a support frame 4. The bottom of the support frame 4 is fixed with a fixed rod 5, the support frame 4 is connected to the fixed rod 5 by welding, the mounting plate 6 is fixed to the bottom of the fixed rod 5, and the mounting plate 6 is connected to the fixed rod 5 by welding. , The first acoustic Doppler flow meter 7, the second acoustic Doppler flow meter 8 and the third acoustic Doppler flow meter 9 are installed in sequence from left to right on the front side of the mounting plate 6. The Le current meter 7, the second acoustic Doppler flow meter 8 and the third acoustic Doppler flow meter 9 are respectively connected with three ultrasonic Doppler flow meters, and a drainage device 10 is provided on the right of the downpipe 2. The first indicator, the second indicator, the third indicator, the fourth indicator, and the LCD display screen are all connected to the control module through lines.

Example Embodiment

[0025] Example 2
[0026] An intelligent monitoring device for urban rainwater pipeline drainage, such as Figure 1-10 As shown, it includes a control room 1, a support frame 4, a fixed rod 5, a mounting plate 6, a first acoustic Doppler flow meter 7, a second acoustic Doppler flow meter 8, and a third acoustic Doppler flow meter 9 and drainage device 10. The control room 1 includes GPRS wireless remote control switch circuit breaker, power supply module, control module, first indicator, second indicator, third indicator, fourth indicator and LCD display. An ultrasonic Doppler flowmeter host and three batteries are installed in the middle of the inner wall of the sewer pipe 2. The three batteries are respectively connected to the three ultrasonic Doppler flowmeter hosts, and the three ultrasonic Doppler flowmeter hosts are all connected to the background server. Through the GPRS wireless connection, the battery can supply power to the ultrasonic Doppler flowmeter host, the GPRS wireless remote control switch circuit breaker and the power module are connected by wires, the power module and the control module are connected by wires, and the inner part of the sewer pipe 2 is connected with a support frame 4. The bottom of the support frame 4 is fixed with a fixed rod 5, the mounting plate 6 is fixed at the bottom end of the fixed rod 5, and the first acoustic Doppler flow meter 7 and the second acoustic Doppler flow meter 7 and the second acoustic Doppler flow meter are installed on the front side of the mounting plate 6 from left to right. The Pule flow meter 8 and the third acoustic Doppler flow meter 9, the first acoustic Doppler flow meter 7, the second acoustic Doppler flow meter 8 and the third acoustic Doppler flow meter 9 are connected with three The ultrasonic Doppler flowmeter host has a line connection, and the drainage device 10 is provided on the right of the sewer pipe 2. The first indicator, the second indicator, the third indicator, the fourth indicator and the LCD display are all controlled by the line Module connection.
[0027] The drainage device 10 includes a first water pump 101, a water outlet pipe 102, a water inlet pipe 103, a second water pump 104, a third water pump 105, a fourth water pump 106, and a frame 107. A frame 107 is embedded on the right side of the downpipe 2, A first water pump 101, a second water pump 104, a third water pump 105, and a fourth water pump 106, a first water pump 101, a second water pump 104, a third water pump 105, and a fourth water pump are installed on the top of the frame 107 sequentially from back to front. 106 is connected to the right side of the water outlet pipe 102, the water outlet pipe 102 passes through the right side of the frame 107, the first water pump 101, the second water pump 104, the third water pump 105 and the fourth water pump 106 are connected to the bottom of the water inlet pipe 103, the water inlet pipe 103 passes through the bottom of the frame body 107, and the first water pump 101, the second water pump 104, the third water pump 105 and the fourth water pump 106 are all connected with the control module in a line.

Example Embodiment

[0028] Example 3
[0029] An intelligent monitoring device for urban rainwater pipeline drainage, such as Figure 1-10 As shown, it includes a control room 1, a support frame 4, a fixed rod 5, a mounting plate 6, a first acoustic Doppler flow meter 7, a second acoustic Doppler flow meter 8, and a third acoustic Doppler flow meter 9 and drainage device 10. The control room 1 includes GPRS wireless remote control switch circuit breaker, power supply module, control module, first indicator, second indicator, third indicator, fourth indicator and LCD display. An ultrasonic Doppler flowmeter host and three batteries are installed in the middle of the inner wall of the sewer pipe 2. The three batteries are respectively connected to the three ultrasonic Doppler flowmeter hosts, and the three ultrasonic Doppler flowmeter hosts are all connected to the background server. Through the GPRS wireless connection, the battery can supply power to the ultrasonic Doppler flowmeter host, the GPRS wireless remote control switch circuit breaker and the power module are connected by wires, the power module and the control module are connected by wires, and the inner part of the sewer pipe 2 is connected with a support frame 4. The bottom of the support frame 4 is fixed with a fixed rod 5, the mounting plate 6 is fixed at the bottom end of the fixed rod 5, and the first acoustic Doppler flow meter 7 and the second acoustic Doppler flow meter 7 and the second acoustic Doppler flow meter are installed on the front side of the mounting plate 6 from left to right. The Pule flow meter 8 and the third acoustic Doppler flow meter 9, the first acoustic Doppler flow meter 7, the second acoustic Doppler flow meter 8 and the third acoustic Doppler flow meter 9 are connected with three The ultrasonic Doppler flowmeter host has a line connection, and the drainage device 10 is provided on the right of the sewer pipe 2. The first indicator, the second indicator, the third indicator, the fourth indicator and the LCD display are all controlled by the line Module connection.
[0030] The drainage device 10 includes a first water pump 101, a water outlet pipe 102, a water inlet pipe 103, a second water pump 104, a third water pump 105, a fourth water pump 106, and a frame 107. A frame 107 is embedded on the right side of the downpipe 2, A first water pump 101, a second water pump 104, a third water pump 105, and a fourth water pump 106, a first water pump 101, a second water pump 104, a third water pump 105, and a fourth water pump are installed on the top of the frame 107 sequentially from back to front. 106 is connected to the right side of the water outlet pipe 102, the water outlet pipe 102 passes through the right side of the frame 107, the first water pump 101, the second water pump 104, the third water pump 105 and the fourth water pump 106 are connected to the bottom of the water inlet pipe 103, the water inlet pipe 103 passes through the bottom of the frame body 107, and the first water pump 101, the second water pump 104, the third water pump 105 and the fourth water pump 106 are all connected with the control module in a line.
[0031] It also includes a first guide sleeve 11, a first guide rod 111, a stop 112, a first spring 113, an articulated seat 114, a swing rod 115, a second guide sleeve 116, a second guide rod 117, a floating tank 118, and a filter screen. 119 and bellows 1110. Four first guide sleeves 11 are embedded and installed evenly spaced from front to back in the middle of the bottom of the frame body 107. The four first guide sleeves 11 are each provided with L-shaped first guide rods 111 , The upper part of the four first guide rods 111 are all connected to the stop block 112, the first guide rod 111 is connected to the stop block 112 by welding connection, and the first spring 113 is wound on the four first guide rods 111. One end of the spring 113 is connected to the bottom of the stop 112, and the other end of the first spring 113 is connected to the top of the first guide sleeve 11. The right side of the inner bottom of the frame 107 is connected with four hinge seats 114 evenly spaced from front to back. The frame 107 passes It is connected to the hinge base 114 by welding. The upper parts of the four hinge bases 114 are all rotatably connected with a swing rod 115. The four swing rods 115 respectively contact the tops of the four first guide rods 111. The bottom right side of the frame 107 extends from the front Four second guide sleeves 116 are embedded and installed evenly spaced in the rear. The four second guide sleeves 116 are equipped with second guide rods 117. The bottom ends of the four second guide rods 117 are all connected with a floating box 118. The two guide rods 117 are connected to the pontoon 118 by welding, the four swing rods 115 are in contact with the tops of the four second guide rods 117 respectively, and the bottoms of the four water inlet pipes 103 are all connected with bellows 1110 and four bellows 1110 A filter screen 119 is fixedly connected to the bottom end, and the four filter screens 119 are respectively connected to the left ends of the four first guide rods 111.

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