Ceramic tile ball-milling wastewater recovery pipeline detection device based on dynamic flow velocity monitoring

Abstract

The utility model discloses a tile ball-milling wastewater recovery pipeline detection device based on dynamic flow velocity monitoring, which relates to the technical field of wastewater pipeline detection devices and comprises a main pipeline, two shunt branch pipes are mounted at one end of the main pipeline, a water inlet is arranged at the other end of the main pipeline, a shunt port is arranged at one end of each shunt branch pipe, and a water outlet is arranged at the other end of each shunt branch pipe. Assembling assemblies are installed above the main pipeline and the flow dividing branch pipes correspondingly, each assembling assembly comprises an assembling base, internal threads are arranged on the inner wall of each assembling base, an inserting channel extending into the pipe is formed in the lower bottom of each assembling base, and a flow velocity detector is installed in each assembling base and comprises a sealing end cover; and an external thread is arranged on the outer wall of the sealing end cover. The pipeline flow velocity detection device solves the problems that when an existing pipeline flow velocity detection device is used, assembly and combination need to be achieved through bolts and a pipeline, overall disassembly and assembly are inconvenient, external tools are needed, and the disassembly and assembly efficiency is low.

Description

Technical Field

[0001] This utility model relates to the technical field of wastewater pipeline detection devices, specifically a detection device for wastewater recovery pipelines of ceramic tile ball mills based on dynamic flow velocity monitoring. Background Technology

[0002] Ball milling is a crucial step in tile production, primarily aimed at crushing raw materials into fine particles for subsequent molding and firing. This process generates a significant amount of wastewater, mainly from cleaning the ball mill, washing the raw materials, and discharging waste. When recycling and discharging this wastewater, it must be transported through pipelines, and the flow rate within the pipes must be monitored using a flow rate detection device.

[0003] Announcement No.: CN216718479U, entitled "A Flow Rate and Velocity Detection Device", includes a support and a device body mounted on the support. The device body includes a pipe and a sensor mounted on the outside of the pipe. It also includes a swing shaft, a swing plate, and a flange. The flange includes an upper flange and a lower flange. The swing plate is mounted inside the pipe, and the lower flange is mounted at the upper end of the pipe. The upper flange and the lower flange are connected by bolts. The upper end of the swing shaft is mounted on the support, and the lower end of the swing shaft penetrates the flange and is connected to the swing plate.

[0004] The existing pipeline flow velocity detection devices mentioned above require assembly and assembly with the pipeline using bolts, which is inconvenient and requires external tools, resulting in low assembly and disassembly efficiency. Therefore, they do not meet the current needs. To address this, a detection device for ceramic tile ball mill wastewater recovery pipelines based on dynamic flow velocity monitoring is proposed. Utility Model Content

[0005] The purpose of this utility model is to provide a detection device for wastewater recovery pipelines of ceramic ball mills based on dynamic flow velocity monitoring, so as to solve the problem that the existing flow velocity detection devices mentioned in the background art need to be assembled and combined with the pipeline by bolts, which is inconvenient to disassemble and assemble as a whole and requires the use of external tools, resulting in low disassembly and assembly efficiency.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a detection device for a ceramic tile ball mill wastewater recycling pipeline based on dynamic flow velocity monitoring, comprising: a main pipeline, two branch pipes installed at one end of the main pipeline, an inlet at the other end of the main pipeline, a branch outlet at one end of each branch pipe, an assembly assembly installed above both the main pipeline and the branch pipes, the assembly assembly including an assembly base, an internal thread on the inner wall of the assembly base, an insertion channel extending into the pipe at the bottom of the assembly base, a flow velocity meter installed inside the assembly base, the flow velocity meter including a sealing end cap, an external thread on the outer wall of the sealing end cap, an insertion rod at the lower end of the sealing end cap, the insertion rod extending into the pipe through the insertion channel, and a detection end installed at the lower end of the insertion rod.

[0007] Preferably, a plurality of protrusions are installed on the top of the sealing end cap, and a handle is installed on the side wall of the protrusions.

[0008] Preferably, the upper end of the insertion channel has a lower groove, and the size of the lower groove is larger than that of the insertion channel.

[0009] Preferably, a positioning assembly block with the same size as the lower groove is installed on the outer wall of the insertion rod.

[0010] Preferably, a sealing gasket is provided on the lower surface of the positioning assembly block.

[0011] Preferably, the insertion channel is provided with a sealing sleeve inside, and the insertion rod is inserted into the hole of the sealing sleeve.

[0012] Preferably, the upper end of the insertion rod is equipped with a flow rate display end, and the output end of the detection end is electrically connected to the input end of the flow rate display end.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] (1) In this utility model, by aligning the insertion rod with the insertion channel, the insertion rod is inserted into the insertion channel, so that the detection end extends into the pipe for flow rate detection. After insertion, the sealing end cap can rotate with the internal thread of the mounting base through the external thread, so that the two are combined together, improving the firmness. It is more convenient than the bolt installation method. Through the setting of the protrusion and the handle, the user can easily grasp the handle to drive the sealing end cap to rotate, so that the user can perform installation and disassembly operations without the aid of external tools, which is convenient for the user.

[0015] (2) In this utility model, when the insertion rod is inserted into the insertion channel, it is assembled and positioned by the positioning assembly block and the lower groove, which facilitates alignment during the insertion process. In addition, the positioning assembly block can also enhance the sealing effect of the insertion channel. With the setting of the sealing gasket, the sealing effect at this point can be further improved. The setting of the sealing sleeve can be tightly attached to the outer wall of the insertion rod after the insertion rod enters the insertion channel, thereby improving the sealing effect in the channel. After the device is installed, it is not easy for water to leak at its installation position, thus improving the sealing effect. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0017] Figure 2 This is a schematic diagram of the assembly component structure of this utility model;

[0018] Figure 3 This is a schematic diagram of the flow velocity meter structure of this utility model;

[0019] Figure 4 This is a schematic diagram of the assembly structure of the insertion channel and insertion rod of this utility model;

[0020] In the diagram: 1. Main pipe; 101. Inlet; 102. Branch pipe; 103. Branch outlet; 2. Assembly components; 201. Assembly base; 202. Internal thread; 203. Lower groove; 204. Insertion channel; 205. Sealing sleeve; 3. Flow meter; 301. Insertion rod; 302. Detection end; 303. Positioning assembly block; 304. Sealing gasket; 305. Sealing end cap; 306. External thread; 307. Protrusion; 308. Handle; 309. Flow rate display end. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0022] Please see Figures 1-4This utility model provides an embodiment of a detection device for a ceramic tile ball mill wastewater recycling pipeline based on dynamic flow velocity monitoring, comprising: a main pipeline 1, with two branch pipes 102 installed at one end of the main pipeline 1, an inlet 101 at the other end of the main pipeline 1, and a branch outlet 103 at one end of each branch pipe 102. Assembly components 2 are installed above both the main pipeline 1 and the branch pipes 102. Each assembly component 2 includes an assembly base 201, with internal threads 202 on the inner wall of the assembly base 201. An insertion channel 204 extending into the pipe is opened at the bottom of the assembly base 201. A flow velocity meter 3 is installed inside the assembly base 201. The flow velocity meter 3 on the main pipeline 1 is used to detect the flow velocity at the main pipe. After the wastewater enters the branch pipe 102, the flow velocity change after diversion is detected by the flow velocity meter 3 at the branch pipe 102, allowing users to dynamically detect the flow velocity in different pipeline conditions in real time during the ceramic tile ball mill wastewater recycling process, thus improving detection accuracy.

[0023] The flow meter 3 includes a sealing end cap 305, an external thread 306 on the outer wall of the sealing end cap 305, an insertion rod 301 at the lower end of the sealing end cap 305, and the insertion rod 301 extends into the tube through the insertion channel 204. A detection end 302 is installed at the lower end of the insertion rod 301, and a flow rate display end 309 is installed at the upper end of the insertion rod 301. The output end of the detection end 302 is electrically connected to the input end of the flow rate display end 309.

[0024] During installation, the insertion rod 301 is aligned with the insertion channel 204 and inserted into the insertion channel 204, so that the detection end 302 extends into the pipe to detect the flow rate. The flow rate data is fed back to the flow rate display end 309 located on the outside, so that the user can observe and know the flow rate changes from the outside. After insertion, the sealing end cap 305 can be rotated with the internal thread 202 of the mounting base 201 through the external thread 306, so that the two are combined together, which improves the firmness and is more convenient than the bolt installation method.

[0025] The sealing end cap 305 has multiple protrusions 307 installed on its upper part, and a handle 308 is installed on the side wall of the protrusion 307. The protrusions 307 and the handle 308 make it easy for the user to grasp the handle 308 and rotate the sealing end cap 305, so that the user can perform installation and disassembly without the aid of external tools, making it convenient for the user.

[0026] Furthermore, a lower groove 203 is provided at the upper end of the insertion channel 204, and the size of the lower groove 203 is larger than that of the insertion channel 204. A positioning assembly block 303 of the same size as the lower groove 203 is installed on the outer wall of the insertion rod 301. A sealing gasket 304 is provided on the lower surface of the positioning assembly block 303. A sealing sleeve 205 is provided inside the insertion channel 204, and the insertion rod 301 is inserted into the hole of the sealing sleeve 205.

[0027] When the insertion rod 301 is inserted into the insertion channel 204, it is positioned by the positioning assembly block 303 and the lower groove 203, which facilitates alignment during insertion. In addition, the positioning assembly block 303 can also enhance the sealing effect of the insertion channel 204. With the setting of the sealing gasket 304, the sealing effect can be further improved. The setting of the sealing sleeve 205 can fit tightly against the outer wall of the insertion rod 301 after the insertion rod 301 enters the insertion channel 204, thereby improving the sealing effect in the channel. After the device is installed, it is not easy for water to leak at its installation position, thus improving the sealing effect.

[0028] Among them, the sealing gasket 304 and the sealing sleeve 205 can be made of rubber, which can provide a seal while also being flexible, making it easy to perform operations such as pressing down and fitting.

[0029] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of this invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within this invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A detection device for a ceramic tile ball mill wastewater recycling pipeline based on dynamic flow velocity monitoring, comprising a main pipeline (1), two branch pipes (102) installed at one end of the main pipeline (1), an inlet (101) provided at the other end of the main pipeline (1), and a branch outlet (103) provided at one end of each branch pipe (102), characterized in that: Assembly components (2) are installed above both the main pipe (1) and the branch pipe (102). The assembly components (2) include an assembly base (201). The inner wall of the assembly base (201) is provided with an internal thread (202). The bottom of the assembly base (201) is provided with an insertion channel (204) extending into the pipe. A flow rate meter (3) is installed inside the assembly base (201). The flow rate meter (3) includes a sealing end cap (305). The outer wall of the sealing end cap (305) is provided with an external thread (306). An insertion rod (301) is provided at the lower end of the sealing end cap (305). The insertion rod (301) extends into the pipe through the insertion channel (204). A detection end (302) is installed at the lower end of the insertion rod (301).

2. The detection device for a ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 1, characterized in that: A plurality of protrusions (307) are installed on the top of the sealing end cap (305), and a handle (308) is installed on the side wall of the protrusions (307).

3. The detection device for ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 1, characterized in that: The upper end of the insertion channel (204) is provided with a lower groove (203), and the size of the lower groove (203) is larger than that of the insertion channel (204).

4. The detection device for a ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 3, characterized in that: The outer wall of the insertion rod (301) is fitted with a positioning assembly block (303) of the same size as the lower groove (203).

5. The detection device for a ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 4, characterized in that: A sealing gasket (304) is provided on the lower surface of the positioning assembly block (303).

6. The detection device for a ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 1, characterized in that: The insertion channel (204) is provided with a sealing sleeve (205) inside, and the insertion rod (301) is inserted into the hole of the sealing sleeve (205).

7. The detection device for a ceramic tile ball mill wastewater recovery pipeline based on dynamic flow velocity monitoring according to claim 1, characterized in that: The upper end of the insertion rod (301) is equipped with a flow rate display terminal (309). The output of the detection terminal (302) is electrically connected to the input of the flow rate display terminal (309).

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