Water purifying agent detecting and sampling device

Abstract

The utility model relates to the field of water purifying agent production, in particular to a water purifying agent detecting and sampling device which comprises a wastewater pool, a communicating pipe I, a communicating pipe II, an aeration pipe, a communicating frame, a DD motor, a circular plate and the like, the communicating pipe I communicates with a plurality of communicating pipes II; all the communicating pipes II are communicated with a plurality of aeration pipes, and the aeration pipes are positioned in the wastewater pool; all the aeration pipes are communicated with communicating frames, and all the communicating frames are provided with a plurality of empty slots; dD motors are arranged in all the aeration pipes; and circular plates are rotationally connected into all the communicating frames. The quantitative DD motor and the electric control valve I are randomly controlled through a program, the DD motor drives the circular plate to rotate by 45 degrees, the baffle and the filter screen move along with the circular plate, the electric control valve I is opened, waste water is sampled, sampling randomness is ensured, the waste water treatment condition can be determined without taking down all sampling pipes from the connecting pipe, and the sampling device is more convenient.

Description

Technical Field

[0001] This utility model relates to the field of water purification agent production, and in particular to a water purification agent testing and sampling device. Background Technology

[0002] Water purification agents are a class of chemical agents that remove suspended solids, colloids, heavy metals and other impurities from water through chemical reactions or physical adsorption. Their core function is to improve water transparency and reduce pollutant concentration.

[0003] After the water purification agent is produced, the wastewater generated during the production process needs to be treated before it can be discharged. During the wastewater treatment process, it is necessary to take samples of the wastewater to determine the current treatment status. However, the current wastewater sampling method requires sampling wastewater from different locations to determine the treatment status, which is quite troublesome. Utility Model Content

[0004] To overcome the drawback of the cumbersome process of sampling wastewater from different locations to determine its treatment status, this invention provides a water purification agent testing and sampling device.

[0005] The technical solution of this utility model is as follows: a water purification agent testing and sampling device, including a wastewater tank, a connecting pipe I, a connecting pipe II, and an aeration pipe; the connecting pipe I is connected to several connecting pipes II; several aeration pipes are connected to all connecting pipes II, and the aeration pipes are located inside the wastewater tank; it also includes a connecting frame, a DD motor, a circular plate, a baffle, and a filter screen; a connecting frame is connected to all aeration pipes, and several slots are opened on all connecting frames; a DD motor is installed inside all aeration pipes; a circular plate is rotatably connected inside all connecting frames; all aeration pipes pass through the corresponding connecting frame and are fixedly connected to the corresponding circular plate; several baffles and several filter screens are fixedly connected to the bottom of all circular plates, and all baffles and corresponding filter screens are staggered.

[0006] As a further preferred option, all connected frames are arranged in an alternating high and low pattern.

[0007] As a further preferred option, all connecting frames are provided with guide sections at the bottom.

[0008] As a further preferred embodiment, it also includes connecting tubes and sampling tubes; the bottom of all connecting tubes II is connected to several connecting tubes, and all connecting tubes are directly opposite the corresponding aeration tubes; all connecting tubes are rotatably connected to sampling tubes.

[0009] As a further preferred option, the sampling tube is made of a transparent material.

[0010] As a further preferred option, it also includes electrically controlled valve I; all connecting pipes are equipped with electrically controlled valve I.

[0011] As a further preferred option, it also includes a discharge pipe and an electrically controlled valve II; all connecting pipes II are connected to the discharge pipe; and the discharge pipe is equipped with an electrically controlled valve II.

[0012] This utility model has the following advantages: By allowing wastewater to enter the connecting frame from the empty slot of the connecting frame, the wastewater flows from the connecting frame into the aeration pipe. By adding a guide part to the connecting frame, the wastewater flows downward in the aeration pipe. The wastewater passes through the connecting pipe II and flows into the connecting pipe and the sampling pipe. The sampling pipe can be manually removed from the connecting pipe, which can quickly complete the wastewater sampling and facilitate the wastewater sampling.

[0013] This invention uses a staggered arrangement of all the connecting frames to allow for sampling of wastewater at different locations within the wastewater tank, thus better determining the wastewater treatment status.

[0014] This invention uses a program to randomly control a quantitative DD motor and an electrically controlled valve I. The DD motor drives the circular plate to rotate 45 degrees, and the baffle and filter screen move accordingly. The electrically controlled valve I opens to sample the wastewater, ensuring the randomness of the sampling. It is more convenient to determine the wastewater treatment status without having to remove all the sampling tubes from the connecting pipe. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of the water purification agent testing and sampling device of this utility model;

[0016] Figure 2 This is a schematic diagram of the wastewater tank, connecting pipe I, connecting pipe II, aeration pipe, connecting frame, discharge pipe and electrically controlled valve II of the water purification agent detection and sampling device disclosed in this utility model.

[0017] Figure 3 This is a schematic diagram of the connecting pipe, sampling pipe, and electrically controlled valve I disclosed in the water purification agent testing and sampling device of this utility model.

[0018] Figure 4 This is a schematic diagram of the structure of the connecting frame, DD motor, circular plate, baffle, filter screen and guide part on the connecting frame of the water purification agent testing and sampling device disclosed in this utility model.

[0019] Wherein: 1-Wastewater tank, 2-Connecting pipe I, 3-Connecting pipe II, 4-Aeration pipe, 5-Connecting frame, 6-DD motor, 7-Circular plate, 8-Baffle, 9-Filter screen, 10-Connecting pipe, 11-Sampling pipe, 12-Electrically controlled valve I, 13-Discharge pipe, 14-Electrically controlled valve II, 51-Guide section. Detailed Implementation

[0020] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments, but this is not intended to limit the present invention.

[0021] Example: Water purification agent testing and sampling device, such as Figures 1-4 As shown, it includes a wastewater tank 1, a connecting pipe I 2, a connecting pipe II 3, and an aeration pipe 4; the connecting pipe I 2 is connected to four connecting pipes II 3; all the connecting pipes II 3 are connected to several aeration pipes 4, and the aeration pipes 4 are located inside the wastewater tank 1.

[0022] It also includes a connecting frame 5, a DD motor 6, a circular plate 7, a baffle 8, and a filter screen 9; all aeration pipes 4 are connected to the connecting frame 5, and all connecting frames 5 have four slots; all aeration pipes 4 are equipped with a DD motor 6; all connecting frames 5 are rotatably connected to a circular plate 7; all aeration pipes 4 pass through the corresponding connecting frame 5 and are fixedly connected to the corresponding circular plate 7; all circular plates 7 have four baffles 8 and four filter screens 9 fixedly connected to their bottoms, and all baffles 8 and corresponding filter screens 9 are staggered.

[0023] All the connected frames 5 are distributed in an alternating pattern of high and low.

[0024] All connecting frames 5 have a guide section 51 at the bottom.

[0025] It also includes connecting pipes 10 and sampling pipes 11; the bottom of all connecting pipes II 3 is connected to eight connecting pipes 10, and all connecting pipes 10 are directly opposite to the corresponding aeration pipes 4; all connecting pipes 10 are rotatably connected to sampling pipes 11.

[0026] The sampling tube 11 is made of transparent material, making it easy to observe the wastewater inside the sampling tube 11.

[0027] It also includes an electrically controlled valve I12; all connecting pipes 10 are equipped with electrically controlled valves I12.

[0028] It also includes a discharge pipe 13 and an electrically controlled valve II 14; all the connecting pipes II 3 are connected to the discharge pipe 13; the discharge pipe 13 is equipped with an electrically controlled valve II 14.

[0029] The workflow of this utility model is as follows:

[0030] Before using this utility model, the left side of the wastewater tank 1 is connected to the wastewater conveying device, the right side of the wastewater tank 1 is connected to the subsequent treatment device, and the connecting pipe I2 is connected to the external air source.

[0031] When using this invention, the wastewater conveying device is started to convey wastewater into the wastewater tank 1. After the wastewater level reaches the specified height, the wastewater conveying device is turned off. The wastewater treatment agent is manually poured into the wastewater tank 1. The external air source is started to supply air into the connecting pipe I2. The air in the connecting pipe I2 is then supplied into the connecting pipe II3 and the aeration pipe 4. The air in the aeration pipe 4 is supplied into the connecting frame 5. At this time, the baffle 8 is opposite to the empty slot of the connecting frame 5, and the baffle 8 blocks the empty slot of the connecting frame 5, so the wastewater in the wastewater tank 1 is free of wastewater. The air enters the connecting frame 5, and the DD motor 6 drives the circular plate 7 to rotate 45 degrees. The baffle 8 and filter screen 9 move accordingly. The baffle 8 no longer blocks the empty slot of the connecting frame 5, and the connecting frame 5 is connected to the wastewater tank 1. Air is sprayed from the empty slot of the connecting frame 5 into the wastewater tank 1 to aerate the wastewater in the wastewater tank 1. After the aeration treatment of the wastewater is completed, the wastewater needs to be sampled and tested to determine the treatment status of the wastewater. Only after the wastewater has been treated can subsequent treatment of the wastewater be carried out.

[0032] Currently, wastewater sampling requires taking samples from different locations to determine the wastewater treatment status, which is quite cumbersome.

[0033] After the wastewater aeration treatment is completed, the DD motor 6 drives the circular plate 7 to rotate 45 degrees. The baffle 8 and filter screen 9 move accordingly. The baffle 8 blocks the empty slot of the connecting frame 5 again. During the rotation, the external air source is turned off to stop supplying air to the connecting pipe I2. After the circular plate 7 is rotated, the wastewater in the wastewater tank 1 cannot enter the connecting frame 5. A small amount of wastewater that has completed the aeration treatment enters the connecting frame 5 from the empty slot. The wastewater flows from the connecting frame 5 to the aeration pipe 4. By adding a guide part 51 on the connecting frame 5, the wastewater flows downward in the aeration pipe 4. The wastewater passes through the connecting pipe II3 and flows into the connecting pipe 10 and the sampling pipe 11. The sampling pipe 11 is manually removed from the connecting pipe 10, which can quickly complete the wastewater sampling. This facilitates wastewater sampling. By setting all the connecting frames 5 to be staggered at different heights, wastewater can be sampled from different locations in the wastewater tank 1 during wastewater sampling, which can better determine the wastewater treatment status.

[0034] After sampling the wastewater using the above method, it is cumbersome to remove all sampling tubes 11 from the connecting pipe 10. To address this, an electrically controlled valve I 12 is added to the connecting pipe 10. The DD motor 6 and the electrically controlled valve I 12 are controlled by a program. When sampling the wastewater, the DD motor 6 drives the circular plate 7 to rotate 45 degrees, and the baffle 8 and filter screen 9 move accordingly. The baffle 8 again blocks the empty slot of the connecting frame 5. During rotation, an external air source continuously supplies air to the connecting pipe I 2, preventing wastewater from the wastewater tank 1 from entering the connecting frame 5. When the external air source is turned off, the air supply to the connecting pipe I 2 is stopped. The program randomly controls a fixed amount of the DD motor 6 and the electrically controlled valve I 12. The DD motor 6 drives the circular plate 7 to rotate 45 degrees, and the baffle 8 and filter screen 9 move accordingly. The electrically controlled valve I 12 opens, allowing for wastewater sampling. This ensures the randomness of the sampling and eliminates the need to remove all sampling tubes 11 from the connecting pipe 10, while still determining the wastewater treatment status, making it more convenient.

[0035] Based on the above workflow, we can see that this utility model has the following effects:

[0036] By allowing wastewater to enter the connecting frame 5 from the empty slot, the wastewater flows from the connecting frame 5 into the aeration pipe 4. By adding a guide part 51 to the connecting frame 5, the wastewater flows downward in the aeration pipe 4. The wastewater passes through the connecting pipe II 3 and flows into the connecting pipe 10 and the sampling pipe 11. The sampling pipe 11 can be manually removed from the connecting pipe 10, which can quickly complete the wastewater sampling and facilitate the wastewater sampling process.

[0037] By setting all the connected frames 5 to be distributed in an alternating high and low pattern, wastewater samples can be taken from different locations within the wastewater pool 1, allowing for a better determination of the wastewater treatment status.

[0038] The DD motor 6 and the electrically controlled valve I 12 are randomly controlled by the program. The DD motor 6 drives the circular plate 7 to rotate forty-five degrees, and the baffle 8 and filter screen 9 move accordingly. The electrically controlled valve I 12 opens to sample the wastewater, ensuring the randomness of the sampling. It is more convenient to determine the wastewater treatment status without having to remove all the sampling tubes 11 from the connecting pipe 10.

[0039] The additional technical effects of this utility model are as follows:

[0040] Among them, such as Figure 2 As shown, by adding a discharge pipe 13 to the connecting pipe II 3 and an electrically controlled valve II 14 to the discharge pipe 13, after the wastewater sampling is completed, the electrically controlled valve II 14 is opened, and the external air source is started to supply air to the connecting pipe I 2. The air flows into the connecting pipe II 3 and the aeration pipe 4, and the air carries the residual wastewater in the connecting pipe II 3 and the aeration pipe 4 to the discharge pipe 13, so as to avoid the residual wastewater from affecting subsequent sampling.

[0041] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. A water purification agent testing and sampling device, comprising a wastewater tank (1), a connecting pipe I (2), a connecting pipe II (3), and an aeration pipe (4); the connecting pipe I (2) is connected to several connecting pipes II (3); several aeration pipes (4) are connected to all the connecting pipes II (3), and the aeration pipes (4) are located inside the wastewater tank (1); characterized in that, It also includes a connecting frame (5), a DD motor (6), a circular plate (7), a baffle (8), and a filter screen (9); all aeration pipes (4) are connected to the connecting frame (5), and all connecting frames (5) have several slots; all aeration pipes (4) are equipped with a DD motor (6); all connecting frames (5) are rotatably connected to a circular plate (7); all aeration pipes (4) pass through the corresponding connecting frame (5) and are fixedly connected to the corresponding circular plate (7); all circular plates (7) have several baffles (8) and several filter screens (9) fixedly connected to their bottoms, and all baffles (8) and corresponding filter screens (9) are staggered.

2. The water purification agent detection and sampling device according to claim 1, characterized in that, All connected frames (5) are distributed in an alternating pattern of high and low.

3. The water purification agent detection and sampling device according to claim 2, characterized in that, All connecting frames (5) have a guide (51) at the bottom.

4. The water purification agent detection and sampling device according to claim 2, characterized in that, It also includes connecting pipes (10) and sampling pipes (11); the bottom of all connecting pipes II (3) is connected to several connecting pipes (10), and all connecting pipes (10) are directly opposite to the corresponding aeration pipes (4); all connecting pipes (10) are rotatably connected to sampling pipes (11).

5. The water purification agent detection and sampling device according to claim 4, characterized in that, The sampling tube (11) is made of transparent material.

6. The water purification agent detection and sampling device according to claim 4, characterized in that, It also includes an electrically controlled valve I (12); all connecting pipes (10) are equipped with electrically controlled valve I (12).

7. The water purification agent detection and sampling device according to claim 6, characterized in that, It also includes a discharge pipe (13) and an electrically controlled valve II (14); all the connecting pipes II (3) are connected to the discharge pipe (13); the discharge pipe (13) is equipped with an electrically controlled valve II (14).

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