Device for automatically monitoring wind speed of branch pipe of aeration system of biochemical pool

Abstract

The utility model discloses a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pool, which comprises an aeration main pipe and a branch pipe, the branch pipe is communicated with the outside of a pipe body of the aeration main pipe, the device also comprises a monitoring mechanism, the monitoring mechanism comprises a T-shaped connecting pipe, a direct connecting pipe, a wind speed sensor, a cover tank and an extension pipe, the surface of the pipe body of the branch pipe is provided with a connecting hole, and the connecting hole is communicated with the branch pipe. A monitoring mechanism is arranged at the position of a branch pipe of the aeration system of the biochemical pool, and a wind speed sensor of the monitoring mechanism detects the wind speed parameter in the branch pipe at the position of the branch pipe of the aeration system. Then the wind speed sensor is connected with a special wind speed transmitter to transmit wind speed parameters to a monitoring device of the aeration system of the biochemical pool for display and analysis, and a biochemical pool worker can display the change condition according to the data of the wind speed in the branch pipe of the aeration system and check the blockage condition of the corresponding pipe body of the branch pipe in time; and the blocked branch pipe can be specifically maintained or adjusted.

Description

Technical Field

[0001] The utility model relates to the technical field of biochemical pool aeration wind speed monitoring, in particular to a device for automatically monitoring the wind speed of a branch pipe of a biochemical pool aeration system. Background Art

[0002] The biochemical pool is a biological treatment facility that uses microorganisms to degrade organic waste. It is one of the important links in the current urban sewage treatment. The biochemical pool converts organic waste into harmless substances through the action of microorganisms, which plays a role in purifying water quality. Its principles mainly include the degradation of organic matter, the growth and metabolic process of microorganisms, etc. Whether the aeration system of the biochemical pool is evenly aerated is related to the oxygenated environment of the biochemical pool.

[0003] The aeration system of the biochemical pool mainly relies on pipes and blowers to transport air to the aeration device located at the bottom of the pool. The branch pipes of the aeration system may be blocked during long-term use. For the blockage of the branch pipes of the aeration system, the existing technical means mainly rely on monitoring parameters such as branch pipe wind pressure and air volume for rough assessment. These rough assessment parameters are not comprehensive enough and are not included in the branch pipe wind speed monitoring parameters, making it impossible for biochemical pool personnel to check the blockage of the aeration air duct in time. For this reason, we propose a device for automatically monitoring the branch pipe wind speed of the biochemical pool aeration system. Utility Model Content

[0004] The main purpose of the utility model is to provide a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pool. A monitoring mechanism is arranged at the branch pipe of the aeration system of the biochemical pool. A wind speed sensor of the monitoring mechanism detects the wind speed parameters in the branch pipe at the branch pipe of the aeration system. Then the wind speed sensor is connected to its dedicated wind speed transmitter to transmit the wind speed parameters to the monitoring device of the aeration system of the biochemical pool for display and analysis. The staff of the biochemical pool can display the changes of the wind speed in the branch pipe of the aeration system according to the data, and check the blockage of the corresponding pipe body of the branch pipe in time, and can carry out maintenance or adjustment on the blocked branch pipe, which can effectively solve the problems in the background technology.

[0005] In order to achieve the above purpose, the technical solution adopted by the utility model is:

[0006] A device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond comprises an aeration main pipe and a branch pipe, wherein the outer tube body of the aeration main pipe is interconnected with the branch pipe, and further comprises a monitoring mechanism, wherein the monitoring mechanism comprises a T-shaped pipe, a straight-connected pipe, a wind speed sensor, a cover tank and an extension pipe, wherein a connecting hole is provided on the pipe body surface of the branch pipe, and a T-shaped pipe is inserted and bonded into the connecting hole, an upper pipe opening of the T-shaped pipe is interconnected with a straight-connected pipe, and a wind speed sensor is inserted into the pipe body of the straight-connected pipe downwardly into the branch pipe, and the wind speed sensor is inserted into the cover tank, wherein the cover tank comprises a T-shaped socket, a tank body, a screw cap and a conical shrink pipe, wherein the T-shaped socket is screwed onto the outer side of the straight-connected pipe, and the upper side of the seat plate of the T-shaped socket is hot-melt-connected with the tank body, wherein the tank body is covered onto the outer side of a tail end housing of the wind speed sensor, and a signal line at the tail end of the wind speed sensor is upwardly penetrated into the extension pipe from the conical shrink pipe on the surface of the screw cap, wherein the screw cap is screwed and installed in the tank body, and the conical shrink pipe of the screw cap is hot-melt-connected with the extension pipe.

[0007] The cover body of the screw cap is vertically connected to the tube cavity of the conical shrink tube, and a threaded wall for screwing the screw cap is provided in the upper tank opening of the tank body;

[0008] By adopting the above technical solution, after the screw cap is screwed and installed in the tank body, the signal line of the wind speed sensor can enter the extension tube upward from the screw cap and the conical shrink tube.

[0009] Wherein, the seat body of the T-shaped connector is provided with a threaded through hole for screwing the direct connection pipe;

[0010] By adopting the above technical solution, the T-shaped connector can be screwed and installed outside the straight-connection pipe through the threaded hole.

[0011] The wind speed sensor has an angular block outside the shell pressed on the upper seat surface of the T-shaped socket, and the diameter of the lower shell of the wind speed sensor is the same as the diameter of the tube cavity of the direct connection pipe;

[0012] By adopting the above technical solution, the wind speed sensor is pressed against the T-shaped socket with its own corner blocks to obtain support, and then the lower shell of the wind speed sensor can be smoothly inserted into the tube cavity of the direct connection tube.

[0013] The lower tube body of the T-shaped pipe is inserted into the connecting hole, and the annular tube disc of the T-shaped pipe is hot-melt connected to the surface of the branch pipe;

[0014] By adopting the above technical solution, the lower pipe body of the T-shaped pipe can be interconnected in the connecting hole, and then the T-shaped pipe is connected by hot-melt sealing on the surface of the branch pipe with an annular pipe coil.

[0015] Wherein, the lumen diameter of the extension tube is larger than the body diameter of the signal line;

[0016] By adopting the above technical solution, the lumen of the extension tube can smoothly pass through the body of the signal line.

[0017] Compared with the prior art, the utility model has the following beneficial effects:

[0018] The utility model sets a monitoring mechanism at the branch pipe of the aeration system of the biochemical pool, and the wind speed sensor of the monitoring mechanism detects the wind speed parameters in the branch pipe at the branch pipe of the aeration system, and then the wind speed sensor is connected to its dedicated wind speed transmitter to transmit the wind speed parameters to the monitoring device of the aeration system of the biochemical pool for display and analysis. The staff of the biochemical pool can timely check the blockage of the corresponding pipe body of the branch pipe according to the data display change of the wind speed in the branch pipe of the aeration system, and can specifically perform maintenance or adjustment on the blocked branch pipe;

[0019] In addition, the wind speed sensor is installed in a sealed cover tank at the monitoring mechanism, so that the wind speed sensor is not easily corroded by the liquid in the biochemical pool. The branch pipe can use the wind speed sensor to better monitor the wind speed data, ensuring that the branch pipe can carefully check the branch pipe blockage situation based on the wind speed data. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 The utility model is a schematic diagram of the overall structure of a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond.

[0021] Figure 2 The utility model is a schematic diagram of the disassembly of a cover tank and a wind speed sensor of a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond.

[0022] Figure 3 The utility model is an exploded diagram of a monitoring mechanism of a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond.

[0023] Figure 4 The utility model discloses an exploded diagram of a cover tank of a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond.

[0024] In the figure: 1. Aeration main pipe; 2. Branch pipe; 3. Monitoring mechanism; 4. Connecting hole; 5. T-shaped connecting pipe; 6. Direct connecting pipe; 7. Wind speed sensor; 8. Cover tank; 9. Extension pipe; 10. Signal line; 11. T-shaped socket; 12. Threaded through hole; 13. Tank body; 14. Screw cap; 15. Conical shrink tube. DETAILED DESCRIPTION

[0025] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further described below in conjunction with specific implementation methods.

[0026] like Figure 1-4As shown, a device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond comprises an aeration main pipe 1 and a branch pipe 2. The outer tube body of the aeration main pipe 1 is interconnected with the branch pipe 2, and also comprises a monitoring mechanism 3. The monitoring mechanism 3 comprises a T-shaped pipe 5, a straight pipe 6, a wind speed sensor 7, a cover tank 8 and an extension pipe 9. A connecting hole 4 is opened on the pipe body surface of the branch pipe 2, and a T-shaped pipe 5 is stuck and bonded in the connecting hole 4. The upper pipe opening of the T-shaped pipe 5 is interconnected with the straight pipe 6, and the wind speed sensor 7 is inserted downward into the branch pipe 2 in the pipe body of the straight pipe 6. The wind The wind speed sensor 7 is inserted into the cover tank 8, which includes a T-shaped seat 11, a tank body 13, a screw cover 14 and a conical shrink tube 15. The T-shaped seat 11 is screwed onto the outside of the direct connection tube 6, and the tank body 13 is hot-melt connected above the seat plate of the T-shaped seat 11. The tank body 13 is covered on the outside of the tail end shell of the wind speed sensor 7, and the signal line 10 at the tail end of the wind speed sensor 7 is upwardly penetrated into the extension tube 9 from the conical shrink tube 15 on the surface of the screw cover 14. The screw cover 14 is screwed and installed in the tank body 13, and the conical shrink tube 15 of the screw cover 14 is hot-melt connected to the extension tube 9.

[0027] The cover body of the screw cap 14 is vertically connected to the lumen of the conical shrink tube 15, and a threaded wall for screwing the screw cap 14 is provided in the upper tank opening of the tank body 13;

[0028] By adopting the above technical solution, after the screw cap 14 is screwed and installed in the tank body 13 , the signal line 10 of the wind speed sensor 7 can enter the extension tube 9 upward from the screw cap 14 and the conical shrink tube 15 .

[0029] The T-shaped connector 11 has a threaded through hole 12 for screwing the direct connection pipe 6.

[0030] By adopting the above technical solution, the T-shaped socket 11 can be screwed and installed outside the straight-connecting pipe 6 through the threaded through hole 12 .

[0031] The shell of the wind speed sensor 7 has an angular block outside that presses on the upper seat surface of the T-shaped socket 11, and the diameter of the lower shell of the wind speed sensor 7 is the same as the diameter of the tube cavity of the direct connection pipe 6;

[0032] By adopting the above technical solution, the wind speed sensor 7 is pressed against the T-shaped socket 11 with its own corner blocks to obtain support, and then the lower shell of the wind speed sensor 7 can be smoothly inserted into the tube cavity of the direct connection tube 6.

[0033] The lower tube body of the T-shaped pipe 5 is inserted into the connecting hole 4, and the annular pipe coil of the T-shaped pipe 5 is hot-melt-connected to the surface of the branch pipe 2;

[0034] By adopting the above technical solution, the lower pipe body of the T-shaped pipe 5 can be interconnected in the connecting hole 4, and then the T-shaped pipe 5 is connected to the surface of the branch pipe 2 by hot-melt sealing with an annular pipe coil.

[0035] The diameter of the lumen of the extension tube 9 is larger than the diameter of the signal line 10;

[0036] By adopting the above technical solution, the lumen of the extension tube 9 can smoothly pass through the body of the signal line 10 .

[0037] It should be noted that the utility model is a device for automatically monitoring the wind speed of the branch pipe of the aeration system of the biochemical pool. A monitoring mechanism 3 is arranged at the branch pipe 2 of the aeration system of the biochemical pool. After the connecting hole 4 of the monitoring mechanism 3 is opened on the surface of the branch pipe 2, the straight-connecting pipe 6 is fixed at the connecting hole 4 with a T-shaped connecting pipe 5, and then the tank body 13 of the cover tank 8 is screwed and installed outside the straight-connecting pipe 6 with a T-shaped socket 11. At this time, the wind speed sensor 7 can pass through the tank body 13 through the T-shaped socket 11 along the straight-connecting pipe 6 and the T-shaped connecting pipe 5 and insert into the branch pipe 2. Then the signal line 10 of the wind speed sensor 7 can be inserted upward into the extension pipe 9 from the conical shrinking pipe 15 of the screw cap 14, and the extension pipe 9 is extended. The extension pipe 9 can be set to a length higher than the liquid level of the biochemical pool, so that the signal line 10 can be connected to the wind speed transmitter from the extension pipe 9, and the wind speed transmitter can be connected to the signal of the monitoring device of the biochemical pool aeration system. When air enters the aeration main pipe 1 and leads to the branch pipe 2, the wind speed sensor 7 can detect the wind speed parameters at the branch pipe 2, and then transmit them to the monitoring device of the biochemical pool aeration system for display and analysis with the help of an external wind speed transmitter. The biochemical pool staff can check the blockage of the corresponding air duct of the branch pipe 2 in time according to the data display of the wind speed in the branch pipe 2 of the aeration system, and can perform maintenance or adjustment on the blocked branch pipe 2.

[0038] It should be noted that the utility model is a device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond. The components in the utility model are all components known to technical personnel in the field, and their structures and principles can be known to technical personnel through technical manuals or through conventional experimental methods.

[0039] The above shows and describes the basic principle and main features of the utility model and the advantages of the utility model. Those skilled in the art should understand that the utility model is not limited by the above embodiments. The above embodiments and descriptions are only for explaining the principle of the utility model. Without departing from the spirit and scope of the utility model, the utility model may have various changes and improvements, which fall within the scope of the utility model to be protected. The scope of protection claimed by the utility model is defined by the attached claims and their equivalents.

Claims

1. A device for automatically monitoring the wind speed of a branch pipe of an aeration system of a biochemical pond, comprising an aeration main pipe (1) and a branch pipe (2), wherein the branch pipe (2) is interconnected outside the pipe body of the aeration main pipe (1), and characterized in that: The monitoring device (3) further comprises a monitoring mechanism (3), the monitoring mechanism (3) comprising a T-shaped pipe (5), a straight-connecting pipe (6), a wind speed sensor (7), a cover tank (8) and an extension pipe (9); a connecting hole (4) is provided on the pipe body surface of the branch pipe (2), and a T-shaped pipe (5) is inserted and bonded into the connecting hole (4); the upper pipe opening of the T-shaped pipe (5) is interconnected with the straight-connecting pipe (6), and a wind speed sensor (7) is inserted into the pipe body of the straight-connecting pipe (6) downwardly into the branch pipe (2); the wind speed sensor (7) is inserted into the cover tank (8), and the cover tank (8) comprises a T-shaped socket (11), a tank The invention relates to a can body (13), a screw cap (14) and a conical shrink tube (15), wherein the T-shaped connector (11) is screwed on the outside of the straight-connecting tube (6), and the top of the base plate of the T-shaped connector (11) is connected to the can body (13) by heat-melting, the can body (13) is covered on the outside of the tail end shell of the wind speed sensor (7), and the signal line (10) at the tail end of the wind speed sensor (7) is passed upward from the conical shrink tube (15) on the surface of the screw cap (14) into the extension tube (9), the screw cap (14) is screwed and installed in the can body (13), and the conical shrink tube (15) of the screw cap (14) is connected to the extension tube (9) by heat-melting.

2. The device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond according to claim 1, characterized in that: The cover body of the screw cap (14) is vertically connected to the tube cavity of the conical shrink tube (15), and a threaded wall for screwing the screw cap (14) is arranged in the upper tank mouth of the tank body (13).

3. The device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond according to claim 1, characterized in that: The seat body of the T-shaped seat (11) is provided with a threaded through hole (12) for screwing the direct connection pipe (6).

4. The device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond according to claim 1, characterized in that: The shell of the wind speed sensor (7) has an angular block outside that is pressed against the upper seat surface of the T-shaped socket (11), and the diameter of the lower shell of the wind speed sensor (7) is the same as the diameter of the tube cavity of the direct connection pipe (6).

5. The device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond according to claim 1, characterized in that: The lower tube body of the T-shaped pipe (5) is inserted into the connecting hole (4), and the annular pipe coil of the T-shaped pipe (5) is hot-melt-connected to the surface of the branch pipe (2).

6. The device for automatically monitoring the wind speed of the branch pipe of the aeration system of a biochemical pond according to claim 1, characterized in that: The diameter of the lumen of the extension tube (9) is greater than the diameter of the signal line (10).

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