Rapid measuring instrument for mud coefficient measurement

Abstract

The utility model relates to the field of mud parameter measurement, and discloses a tachymeter for mud coefficient measurement, which comprises a large funnel, a small funnel, a sand content measuring pipe and a cyclone for separating mud from sand by using centrifugal force, the tacheometer is further provided with a slurry viscosity detection funnel and a fixing mechanism, and further comprises a host used for controlling the tacheometer and a monitoring mechanism used for monitoring parameters of to-be-detected slurry. By adopting the tachymeter for measuring the mud coefficient, the technical problem that the mud coefficient measurement result is not accurate enough due to the fact that the separation degree of mud and sand is not thorough enough when the mud coefficient is measured can be solved; in addition, compared with traditional manual mud coefficient measurement, the whole device is higher in automation degree, and the accuracy and precision of accurate measurement results are improved.

Description

Technical Field

[0001] The utility model relates to the field of mud parameter measurement, and more specifically, to a quick detector for measuring mud coefficients. Background Art

[0002] Mud is a fluid material widely used in multiple fields such as oil drilling, mine exploitation, and construction engineering, and has multiple functions such as lubrication, cooling, and support. The performance of mud directly affects the efficiency and safety of the project, and the measurement of mud coefficients (such as specific gravity, viscosity, sand content, etc.) is particularly crucial.

[0003] Currently, for mud performance parameters such as viscosity coefficient and specific gravity, manual detection is generally carried out using a viscosity funnel and a hydrometer. However, the repeatability of the manual detection results is poor, and it is difficult to accurately control and record the parameter values during the measurement process in real time.

[0004] In the prior art, CN 117949343 A discloses a device for detecting the performance of slurry for a concrete cut-off wall during construction. The device includes a box body, a mud pipeline, a first clear water pipeline, a second clear water pipeline, and a slurry collecting box. A densitometer is also provided in the detection device to measure the density of the mud, and the cooperation of the first electromagnetic flowmeter, the funnel, and the first valve can measure the viscosity of the mud, and the cooperation of the second electromagnetic flowmeter, the second valve, and the sand content measuring cup can measure the sand content of the mud. When measuring the sand content of the mud, a robotic arm is used to clamp the sand content measuring cup, and the robotic arm can control the sand content measuring cup to shake and translate to complete the sediment filtration.

[0005] However, when the above device measures the sand content of the mud, a robotic arm is used to control the sand content measuring cup to complete the operation of sediment filtration. Since the separation degree of the mud and sand obtained during the shaking and translation of the sand content cup by the robotic arm is not thorough enough, it will lead to inaccurate measurement of subsequent mud coefficients. Summary of the Utility Model

[0006] The utility model aims to overcome the defect that the separation degree of mud and sand is not thorough enough during the measurement of the sand content in the prior art, which leads to inaccurate measurement of subsequent mud coefficients, and provides a quick detector for measuring mud coefficients.

[0007] To solve the above technical problems, the technical solution of the utility model is as follows:

[0008] A quick detector for measuring mud coefficients includes a large funnel, a small funnel, and a sand content measuring tube; the quick detector is also provided with a hydrocyclone that uses centrifugal force to separate mud and sand; a connection port is provided on the side of the hydrocyclone body.

[0009] The end of the hopper body of the large hopper is connected to the connection port of the cyclone through a pipeline. The large hopper is used to accommodate the sand-containing mud to be tested. The end of the hopper body of the small hopper is connected to the open mouth above the cyclone through a pipeline. The small hopper is used to accommodate the clear water for experiments. The end of the cyclone is connected to the open mouth above the sand content measuring tube through a pipeline.

[0010] The quick tester is also provided with a mud viscosity detection funnel and a fixing mechanism. The large hopper, the small hopper, and the mud viscosity detection funnel are respectively connected to the fixing mechanism.

[0011] The quick tester further includes a main machine for controlling the quick tester and a monitoring mechanism for monitoring the parameters of the mud to be tested. The main machine and the monitoring mechanism are respectively fixedly connected to the fixing mechanism.

[0012] Further, the fixing mechanism includes a left vertical rod and a right vertical rod. The left vertical rod is provided with latches for fixing the large hopper and the small hopper. The main machine is fixed on the right vertical rod.

[0013] Further, the monitoring mechanism includes a remote control electric valve. Pipeline connectors are installed at the ends of the large hopper, the small hopper, the cyclone, the sand content measuring tube, and the mud viscosity detection funnel.

[0014] A first remote control electric valve is provided at the pipeline connector of each hopper, and the main machine is used to control the opening and closing of the first remote control electric valve to further control the flow rate.

[0015] Further, a second remote control electric valve for controlling the cleaning of the instrument and the pipeline is separately provided beside the small hopper. The second remote control electric valve is installed on the pipeline connector. The three-way pipeline is respectively connected to the pipeline connector of the second remote control electric valve, the pipeline connector at the end of the small hopper, and the pipeline connector above the cyclone. The outlet of the three-way pipeline is located above the mud viscosity detection funnel.

[0016] Further, the main machine is provided with a main machine chip and a main machine battery inside. The main machine also includes a main machine switch and a main machine antenna for receiving signals. A main machine touch screen is arranged on the surface of the main machine to control the opening and closing of the remote control electric valve.

[0017] The main machine is also provided with a bubble level gauge for detecting whether the liquid level of the funnel device of the quick tester is in a horizontal state.

[0018] Further, the monitoring mechanism includes a weighing sensor arranged at the bottom of the fixing mechanism. The weighing sensor is used to detect the mass change of the quick tester during the experiment.

[0019] Further, the quick detector is also provided with a mud tank for loading the test mud, and the mud tank is arranged below the sand content measuring tube and the mud viscosity detection funnel.

[0020] Further, small pulleys are arranged at the bottom of the mud tank; the fixing mechanism is provided with a guide rail for facilitating the pulling of the mud tank.

[0021] Further, the monitoring mechanism is provided with an infrared obstacle avoidance sensor for judging whether there is a liquid or solid obstacle flowing out below the end of the funnel;

[0022] The infrared obstacle avoidance sensor is installed on the fixing mechanism, and two infrared obstacle avoidance sensors are provided. The first infrared obstacle avoidance sensor is used for detecting the flow rate change above the body of the mud viscosity detection funnel; the second infrared obstacle avoidance sensor is used for detecting the flow rate change below the end of the mud viscosity detection funnel.

[0023] Further, a rotary remote control switch for controlling the movement of the internal rotating slurry is arranged on the side wall of the cyclone.

[0024] Compared with the prior art, the beneficial effects of the technical solution of the present utility model are:

[0025] The present utility model provides a quick detector for measuring mud coefficients, which is characterized in that it includes a large funnel, a small funnel, a cyclone, and a sand content measuring tube; a connection port is arranged on the side surface of the cyclone body; the end of the body of the large funnel is connected to the connection port of the cyclone through a pipeline, and the large funnel is used for accommodating the sand-containing mud to be tested; the end of the body of the small funnel is connected to the open port above the cyclone through a pipeline, and the small funnel is used for accommodating the experimental clear water; the end of the cyclone is connected to the open port above the sand content measuring tube through a pipeline; the quick detector is also provided with a mud viscosity detection funnel and a fixing mechanism, and the large funnel, the small funnel, and the mud viscosity detection funnel are respectively connected to the fixing mechanism; the quick detector also includes a main machine for controlling the quick detector and a monitoring mechanism for monitoring the parameters of the mud to be tested; the main machine and the monitoring mechanism are respectively fixedly connected to the fixing mechanism.

[0026] By using the quick detector for measuring mud coefficients of the present utility model, it is possible to solve the technical problem that the separation degree of mud and sand is not thorough enough during the measurement of mud coefficients, which in turn causes the measurement result of mud coefficients to be inaccurate; in addition, compared with the traditional manual measurement of mud coefficients, the whole set of devices has a higher degree of automation, improves the accuracy and precision of the fine measurement results, and the overall device is light and movable, easy to disassemble, and can meet the needs of quickly measuring mud coefficients at the construction site. Description of the Drawings

[0027] Figure 1 It is a schematic structural diagram of the quick detector for measuring mud coefficients in the embodiment of the present utility model;

[0028] Figure 2 Structural schematic diagram for measuring the specific gravity coefficient of mud in the embodiment of the present utility model;

[0029] Figure 3 Structural schematic diagram for measuring the viscosity coefficient of mud in the embodiment of the present utility model;

[0030] Figure 4 Structural schematic diagram for measuring the sand content rate coefficient of mud in the embodiment of the present utility model;

[0031] Figure 5 Structural schematic diagram after cleaning the instrument at the end of measurement in the embodiment of the present utility model;

[0032] Wherein: 1. Large funnel; 2. Small funnel; 3. Hydrocyclone; 4. Sand content rate measuring tube; 5. Mud viscosity detection funnel; 6. Fixing mechanism; 601. Left vertical rod; 602. Right vertical rod; 603. Lock; 7. Mud trough;

[0033] 8. Main machine; 801. Main machine chip; 802. Main machine battery; 803. Main machine switch; 804. Main machine antenna; 805. Main machine touch screen; 806. Bubble level;

[0034] 9. Monitoring mechanism; 901. Remote control electric valve; 9011. First remote control electric valve; 9012. Second remote control electric valve; 902. Weighing sensor; 903. Infrared obstacle avoidance sensor; 9031. First infrared obstacle avoidance sensor; 9032. Second infrared obstacle avoidance sensor. Specific implementation manners

[0035] To make the objectives, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions of the present application will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present application. Obviously, the described embodiments are some but not all of the embodiments of the present application. All other embodiments obtained by those of ordinary skill in the art without creative efforts based on the described embodiments belong to the scope of protection of the present application.

[0036] Unless otherwise defined, the technical terms or scientific terms used in this application shall have the ordinary meanings understood by those of ordinary skill in the art to which this application pertains. The "first", "second" and similar terms used in this application do not denote any order, quantity or importance, but are only used to distinguish different components. Words such as "including" or "comprising" mean that the elements or objects appearing before this word cover the elements or objects listed after this word and their equivalents, without excluding other elements or objects. Words such as "connected" or "coupled" are not limited to physical or mechanical connections, but may include electrical connections, whether direct or indirect. "Upper", "lower", "left", "right", etc. are only used to indicate relative positional relationships, and when the absolute position of the object being described changes, the relative positional relationship may also change accordingly.

[0037] Example 1

[0038] As Figure 1-2 shown, this embodiment discloses a quick tester for measuring mud coefficients, which can detect mud specific gravity coefficients, including a large funnel 1, a small funnel 2, and a sand content measuring tube 4;

[0039] The quick tester for measuring mud coefficients is also provided with a hydrocyclone 3 that uses centrifugal force to separate mud and sand; a connection port 301 is provided on the side of the main body of the hydrocyclone 3;

[0040] The end of the hopper body of the large funnel 1 is connected to the connection port 301 of the hydrocyclone 3 through a pipeline. The large funnel 1 is used to hold the sand-containing mud to be tested; the end of the hopper body of the small funnel 2 is connected to the open mouth above the hydrocyclone 3 through a pipeline. The small funnel 2 is used to hold the experimental clear water; the end of the hydrocyclone 3 is connected to the open mouth above the sand content measuring tube 4 through a pipeline; the quick tester is also provided with a mud viscosity detection funnel 5 and a fixing mechanism 6. The large funnel 1, the small funnel 2, and the mud viscosity detection funnel 5 are respectively connected to the fixing mechanism 6;

[0041] The quick tester also includes a main unit 8 for controlling the quick tester and a monitoring mechanism 9 for monitoring the parameters of the mud to be tested; the main unit 8 and the monitoring mechanism 9 are respectively fixedly connected to the fixing mechanism 6.

[0042] The main unit 8 is provided with a main unit chip 801 and a main unit battery 802 inside; the main unit 8 also includes a main unit switch 803 and a main unit antenna 804 for receiving signals; a main unit touch screen 805 is arranged on the surface of the main unit 8 for controlling the switch of the remote control electric valve 901;

[0043] The main unit 8 is also provided with a bubble level 806 for detecting whether the liquid level of the funnel device of the quick tester is in a horizontal state.

[0044] The monitoring mechanism 9 includes a remotely controlled electric valve 901. Pipeline connectors are installed at the ends of the large funnel 1, small funnel 2, cyclone 3, sand content measuring tube 4, and mud viscosity detection funnel 5.

[0045] At the pipeline connectors of each funnel, there is a first remotely controlled electric valve 9011, and the host 8 is used to control the opening and closing of the first remotely controlled electric valve 9011 to further control the flow rate.

[0046] The quick tester is also provided with liftable legs. The liftable legs of the quick tester can be adjusted by observing the bubble level 806 so that the device reaches the proper horizontal state for the experiment.

[0047] The monitoring mechanism 9 includes a weighing sensor 902 provided at the bottom of the fixing mechanism. The weighing sensor 902 is used to detect the change in the mass of the quick tester during the experiment.

[0048] In the specific implementation process, the preparatory work before measurement is as follows:

[0049] ① Check the status pointer dials on the 6 remotely controlled electric valves 901 respectively. Confirm that all 6 remotely controlled electric valves are in the closed state. Then confirm that the latches 603 on the large funnel 1, small funnel 2 on the left vertical rod 601, the host 8 on the right vertical rod 602, and the mud viscosity detection funnel 5 are tightened. Then the instrument can be pulled to the construction site for mud coefficient detection.

[0050] ② Adjust the liftable legs and observe the bubble level 806 on the host.

[0051] ③ After determining that the instrument is level, pour full of clear water into the small funnel 2.

[0052] ④ Click the tare weight button on the host touch screen 805.

[0053] After the above preparatory work is completed, the following monitoring work of the mud specific gravity coefficient can be continued:

[0054] ① Pour 500 ml of mud into the large funnel 1.

[0055] ② The weighing sensor 902 obtains the weight increase data, that is, the mud weight data and transmits it to the host 8.

[0056] ③ When the weighing sensor 902 senses that the weight data does not increase for 3 consecutive 2 - second intervals, the host 8 determines that the mud addition is completed and automatically starts the program for calculating the mud specific gravity.

[0057] ④ The host 8 has set the weight data of 500 ml of clear water. Calculate the mud specific gravity according to 500 ml mud weight / 500 ml clear water weight.

[0058] ⑤ Display the mud specific gravity data on the host touch screen 805 and conduct voice broadcast through the speaker of the host 8.

[0059] Example 2

[0060] As Figure 1-3 shown, this embodiment provides another quick detector that can also detect the viscosity coefficient of mud. The technical solution is similar to that of Embodiment 1, and the differences are as follows:

[0061] A second remote control electric valve 9012 for controlling the cleaning of the instrument and pipeline is separately provided beside the small funnel 2. The second remote control electric valve 9012 is installed on the pipeline connector. The three-way pipeline is respectively connected to the pipeline connectors of the second remote control electric valve 9012, the end pipeline connector of the small funnel 2, and the pipeline connector above the cyclone 3. The outlet of the three-way pipeline is located above the mud viscosity detection funnel 5.

[0062] The quick detector is also provided with a mud tank 7 for loading the test mud. The mud tank 7 is arranged below the sand content measuring tube 4 and the mud viscosity detection funnel 5.

[0063] Small pulleys are provided at the bottom of the mud tank 7; the fixing mechanism 6 is provided with a guide rail for facilitating the pulling of the mud tank 7.

[0064] The monitoring mechanism 9 is provided with an infrared obstacle avoidance sensor 903 for judging whether there is a liquid or solid obstacle flowing out below the end of the funnel;

[0065] The infrared obstacle avoidance sensor 903 is installed on the fixing mechanism 6. Two infrared obstacle avoidance sensors 903 are provided. The first infrared obstacle avoidance sensor 9031 is used to detect the flow rate change above the bucket body of the mud viscosity detection funnel 5; the second infrared obstacle avoidance sensor 9032 is used to detect the flow rate change below the end of the mud viscosity detection funnel 5.

[0066] A rotary remote control switch 302 for controlling the movement of the internal rotating slurry is provided on the side wall of the cyclone 3.

[0067] In the specific implementation process, on the basis of the completion of the mud specific gravity coefficient detection work in Embodiment 1, the following measurement of the mud viscosity coefficient is carried out:

[0068] ① After the mud specific gravity detection is completed, the cyclone 3 is automatically started, the first remote control electric valve 9011 under the large funnel 1 is automatically opened, and the two infrared obstacle avoidance sensors 903 are automatically started;

[0069] ② The sand-containing mud in the large funnel 1 enters the cyclone 3. Under the action of centrifugal force, the sand is thrown to the side wall and then falls to the bottom of the cyclone 3, while the mud moves towards the central axis direction and forms an upward moving inner vortex at the axis center, so as to overflow from the top of the cyclone 3 and enter the mud viscosity detection funnel 5;

[0070] ③When the first infrared obstacle avoidance sensor 9031 does not detect any mud blockage, it indicates that the sand-containing mud filtration is completed. The main machine 8 starts the mud viscosity detection program, and the first remote control electric valve 9011 under the mud viscosity detection funnel 5 opens, and the mud begins to flow into the mud tank 7;

[0071] ④During the process of the mud flowing into the mud tank 7, the second infrared obstacle avoidance sensor 9032 detects an obstacle in front and sends the blocking signal to the main machine 8;

[0072] ⑤The main machine 8 receives the blocking signal and starts timing;

[0073] ⑥When all the mud has flowed into the mud tank 7 and the second infrared obstacle avoidance sensor 9032 does not detect an obstacle in front, it sends the non-blocking signal to the main machine 8;

[0074] ⑦The main machine 8 receives the non-blocking signal and stops timing. The timing data, that is, the mud viscosity data, is displayed on the main machine touch screen 805 and is announced through the speaker of the main machine 8.

[0075] Embodiment 3

[0076] As Figure 1-5 shown, this embodiment provides another quick detector that can also detect the sand content rate coefficient of the mud. Similar to Embodiment 1, the difference lies in:

[0077] The monitoring mechanism 9 includes a remote control electric valve 901. Pipeline connectors are installed at the ends of the large funnel 1, small funnel 2, cyclone 3, sand content measuring tube 4, and mud viscosity detection funnel 5;

[0078] At the pipeline connector of each funnel, there is a first remote control electric valve 9011, and the main machine 8 is used to control the opening and closing of the first remote control electric valve 9011 to control the flow rate.

[0079] A second remote control electric valve 9012 for controlling the cleaning of the instrument and pipeline is separately provided beside the small funnel 2. The second remote control electric valve 9012 is installed on the pipeline connector. The three-way pipeline is respectively connected to the pipeline connector of the second remote control electric valve 9012, the pipeline connector at the end of the small funnel 2, and the pipeline connector above the cyclone 3. The outlet of the three-way pipeline is located above the mud viscosity detection funnel 5.

[0080] The main machine 8 is internally provided with a main machine chip 801 and a main machine battery 802; the main machine 8 also includes a main machine switch 803 and a main machine antenna 804 for receiving signals; the main machine touch screen 805 is arranged on the surface of the main machine 8 to control the opening and closing of the remote control electric valve 901;

[0081] The main machine 8 is also provided with a bubble level 806 for detecting whether the liquid level of the funnel device of the quick detector is in a horizontal state.

[0082] The monitoring mechanism 9 includes a weighing sensor 902 provided at the bottom of the fixing mechanism. The weighing sensor is used to detect the mass change of the quick detector during the experiment.

[0083] The quick detector is also provided with a mud tank 7 for loading the test mud. The mud tank 7 is arranged below the sand content measuring tube 4 and the mud viscosity detection funnel 5.

[0084] The bottom of the mud tank 7 is provided with small pulleys; the fixing mechanism 6 is provided with a guide rail for facilitating the pulling and pushing of the mud tank 7.

[0085] To facilitate the auxiliary force during the pulling and pushing of the mud tank 7, a handle for auxiliary force is provided on the quick detector. At the same time, the liftable legs provided on the quick detector can also be set as universal wheels. Among them, the rear wheel corresponding to one side of the handle can be fixed to facilitate the movement of the quick detector by the staff.

[0086] The monitoring mechanism 9 is provided with an infrared obstacle avoidance sensor 903 for judging whether there is a liquid or solid obstacle flowing out below the end of the funnel;

[0087] The infrared obstacle avoidance sensor 903 is installed on the fixing mechanism 6. Two infrared obstacle avoidance sensors 903 are provided. Among them, the first infrared obstacle avoidance sensor 9031 is used to detect the flow change above the body of the mud viscosity detection funnel 5; the second infrared obstacle avoidance sensor 9032 is used to detect the flow change below the end of the mud viscosity detection funnel 5.

[0088] A remote control switch 302 for controlling the internal rotating slurry movement is provided on the side wall of the hydrocyclone 3.

[0089] In the specific implementation process, on the basis of the completion of the detection of the mud specific gravity coefficient and the mud viscosity coefficient in Embodiment 1 and Embodiment 2, the following detection of the mud sand content coefficient can be carried out:

[0090] ① Manually hold the handle of the mud tank 7 and pull out the mud tank 7 and place it aside;

[0091] ② After the mud viscosity detection is completed, the host 8 automatically starts the mud sand content detection program, and the valves of the first remote control electric valves 9011 below the small funnel 2 and the hydrocyclone 3 are all automatically opened, allowing the clear water in the small funnel 2 to start flushing the sand at the bottom of the hydrocyclone 3 into the sand content measuring tube 4;

[0092] ③ Wait until all the clear water in the small funnel 2 and the sand at the bottom of the hydrocyclone 3 flow into the sand content measuring tube 4 and no longer vibrate, that is, the weight data obtained by the weighing sensor 902 no longer fluctuates;

[0093] ④ The weighing sensor 902 will obtain the weight data, that is, the sand weight data and transmit it to the host 8;

[0094] ⑤ The host 8 calculates the sand content according to the sand weight data.

[0095] ⑥Display the sand content rate data of the mud on the host touch screen 805 and conduct voice broadcast through the speaker of the host 8; the sand content rate data of the mud can also be manually read by checking the sand content filter percentage scale corresponding to the sand accumulation height on the sand content rate measuring tube 4.

[0096] After the measurement is completed, perform the following steps for instrument cleaning:

[0097] ①On the host touch screen 805, click the instrument cleaning button, and the first remote control electric valve 9011 below the sand content measuring tube 4 automatically opens, allowing the water containing sand in the sand content measuring tube 4 to flow into the mud tank 7. At the same time, the second remote control electric valve 9012 next to the small funnel 2 also automatically opens.

[0098] ②Inject water into the large funnel 1, the small funnel 2, and the second remote control electric valve 9012 next to the small funnel 2 to clean the pipelines and utensils in the instrument.

[0099] ③When only clear water remains in the instrument to be washed, it means the instrument is cleaned. At this time, hold the handle of the mud tank and pull out the mud tank.

[0100] ④Dispose of the waste liquid in the mud tank 7, wash the mud tank 7 clean, put it back into the instrument, press the host switch 803 to cut off the power of the host 8 and turn it off. At the same time, the 6 remote control electric valves 901 return to the closed state.

[0101] Obviously, the above embodiments of the present utility model are merely examples for clearly illustrating the present utility model, rather than limitations on the implementation manners of the present utility model. For those of ordinary skill in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation manners here. Any modifications, equivalent replacements, and improvements made within the spirit and principle of the present utility model shall be included within the protection scope of the claims of the present utility model.

Claims

1. A quick tester for measuring mud coefficient, characterized in that, It includes a large funnel (1), a small funnel (2), and a sand content measuring tube (4); The quick tester is also provided with a hydrocyclone (3) that uses centrifugal force to separate mud and sand; a connection port (301) is provided on the side of the main body of the hydrocyclone (3); The end of the hopper body of the large funnel (1) is connected to the connection port (301) of the hydrocyclone (3) through a pipeline. The large funnel (1) is used to hold the sand-containing mud to be tested; the end of the hopper body of the small funnel (2) is connected to the open mouth above the hydrocyclone (3) through a pipeline. The small funnel (2) is used to hold the clear water for experiments; the end of the hydrocyclone (3) is connected to the open mouth above the sand content measuring tube (4) through a pipeline; The quick tester is also provided with a mud viscosity detection funnel (5) and a fixing mechanism (6). The large funnel (1), the small funnel (2), and the mud viscosity detection funnel (5) are respectively connected to the fixing mechanism (6); The quick tester further includes a main machine (8) for controlling the quick tester and a monitoring mechanism (9) for monitoring the parameters of the mud to be tested; the main machine (8) and the monitoring mechanism (9) are respectively fixedly connected to the fixing mechanism (6).

2. The quick measuring instrument for measuring the mud coefficient according to claim 1, characterized in that, The fixing mechanism (6) includes a left vertical rod (601) and a right vertical rod (602); a lock (603) for fixing the large funnel (1) and the small funnel (2) is provided on the left vertical rod (601); the main machine (8) is fixed on the right vertical rod (602).

3. The quick measuring instrument for measuring the mud coefficient according to claim 1, characterized in that, The monitoring mechanism (9) includes a remote control electric valve (901). Pipeline connectors are installed at the ends of the large funnel (1), the small funnel (2), the hydrocyclone (3), the sand content measuring tube (4), and the mud viscosity detection funnel (5); At the pipeline connector of each funnel, a first remote control electric valve (9011) is provided, and the main machine (8) is used to control the opening and closing of the first remote control electric valve (9011) to further control the flow rate.

4. The quick detector for measuring the mud coefficient according to claim 3, characterized in that A second remote control electric valve (9012) for controlling the cleaning of the instrument and the pipeline is separately provided beside the small funnel (2). The second remote control electric valve (9012) is installed on the pipeline connector. The three-way pipeline is respectively connected to the pipeline connector of the second remote control electric valve (9012), the pipeline connector at the end of the small funnel (2), and the pipeline connector above the hydrocyclone (3). The outlet of the three-way pipeline is located above the mud viscosity detection funnel (5).

5. The quick measuring instrument for measuring mud coefficients according to claim 1, characterized in that, The main machine (8) is internally provided with a main machine chip (801) and a main machine battery (802); the main machine (8) further includes a main machine switch (803) and a main machine antenna (804) for receiving signals; a main machine touch screen (805) is provided on the surface of the main machine (8); The main machine (8) is also provided with a bubble level gauge (806) for detecting whether the liquid level of the funnel device of the quick tester is in a horizontal state.

6. The quick measuring instrument for mud coefficient measurement according to claim 1, characterized in that The monitoring mechanism (9) includes a weighing sensor (902) provided at the bottom of the fixing mechanism. The weighing sensor (902) is used to detect the mass change of the quick tester during the experiment.

7. The quick detector for measuring the mud coefficient according to claim 1, characterized in that, The quick detector is also provided with a mud tank (7) for loading test mud, and the mud tank (7) is arranged below the sand content measuring tube (4) and the mud viscosity detection funnel (5).

8. The quick measuring instrument for mud coefficient measurement according to claim 7, characterized in that, Small pulleys are arranged at the bottom of the mud tank (7); the fixing mechanism (6) is provided with a guide rail for facilitating the pulling of the mud tank (7).

9. The quick measuring instrument for measuring the mud coefficient according to claim 1, characterized in that, The monitoring mechanism (9) is provided with an infrared obstacle avoidance sensor (903) for judging whether there is a liquid or solid obstacle flowing out below the end of the funnel; The infrared obstacle avoidance sensor (903) is installed on the fixing mechanism (6), and two infrared obstacle avoidance sensors (903) are provided. Among them, the first infrared obstacle avoidance sensor (9031) is used to detect the flow rate change above the hopper body of the mud viscosity detection funnel (5); the second infrared obstacle avoidance sensor (9032) is used to detect the flow rate change below the end of the mud viscosity detection funnel (5).

10. The quick measuring instrument for measuring the mud coefficient according to claim 1, characterized in that, A rotary remote control switch (302) for controlling the movement of the internal rotating slurry is arranged on the side wall of the cyclone (3).

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