Turbine flowmeter with damping effect

Abstract

The utility model discloses a turbine flowmeter with a shock absorption function, which comprises a bottom plate, supporting legs are arranged at the top of the bottom plate, a turbine flowmeter shell is arranged above the supporting legs, a flow dividing assembly used for dividing water flow is arranged in the turbine flowmeter shell, and the flow dividing assembly is connected with the bottom plate. A damping assembly used for damping in response to the water hammer effect is arranged in the turbine flowmeter shell. According to the utility model, through the arrangement of the shunting assembly, inflow water more uniformly impacts the rotating assembly, and compared with a method of directly impacting an eddy current block in the prior art, the obtained measurement result is more accurate. Compared with a single damping group in the prior art, the damping assembly is provided with multiple damping groups and a limiting device, so that when the water hammer effect acts on the splitter plate, the splitter plate cannot be clamped, and the measurement result cannot be affected, and the temperature and pressure in the turbine flowmeter shell are detected at any time through the measuring assembly to prevent equipment from being damaged due to overload.

Description

Technical Field

[0001] This utility model relates to the field of turbine flow meter technology, specifically a turbine flow meter with shock absorption function. Background Technology

[0002] A turbine flow meter with vibration damping function refers to a flow meter that adds a vibration damping device to the traditional turbine flow meter to reduce vibration and noise generated during fluid flow, thereby improving measurement accuracy and service life. This type of flow meter typically includes components such as axle, hub, rim, and vibration damper. The vibration damper is the core component; it absorbs and disperses vibration energy through structures such as hydraulic rods, thus achieving a vibration reduction effect. This design not only improves the measurement accuracy of the turbine flow meter but also extends its service life and reduces malfunctions and maintenance costs caused by vibration and noise.

[0003] Referring to the existing Chinese patent with publication number CN213515828U, a turbine flow meter with shock absorption function is disclosed, which relates to the field of turbine flow meter technology. It includes a housing, a preamplifier is provided on the top of the housing, a flow meter body is provided on the top of the preamplifier, a display screen is fixedly connected to the outer surface of the flow meter body, two mounting slots are opened on both sides of the inner wall of the housing, shock absorption components are installed in the interior of the four mounting slots, and a support rod is fixedly connected to one side of each of the four shock absorption components. One end of two of the support rods is fixedly connected to a first flow guide.

[0004] The aforementioned turbine flow meter with vibration damping can effectively reduce the vibration force generated by the liquid during flow by setting up a vibration damping device. Moreover, the vibration damping components are respectively installed on both sides of the first and second guide vanes, which can minimize the vibration force during the flow process and improve the measurement accuracy of the turbine flow meter to a certain extent. However, there are still some drawbacks. For example, when used as a turbine flow meter for water flow, the water flow may experience water hammer effect and easily generate eddies. This causes the force exerted by the water flow on each part of the vibration damping device to be different, which may cause the vibration damping device to tilt and get stuck, affecting the vibration damping effect of the turbine flow meter and the final measurement result. At the same time, it is not easy to judge from the outside when the internal pressure and temperature of the turbine flow meter are too high or overloaded. Therefore, we need to propose a turbine flow meter with vibration damping function. Utility Model Content

[0005] The purpose of this invention is to provide a turbine flow meter with shock absorption function, which has the advantages of better shock absorption effect and detection of internal pressure and temperature of the turbine flow meter, so as to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a turbine flow meter with shock absorption function, comprising a base plate, a support leg provided on the top of the base plate, a turbine flow meter housing provided above the support leg, a flow diversion component for diverting water flow inside the turbine flow meter housing, and a shock absorption component for damping water hammer effect inside the turbine flow meter housing.

[0007] The turbine flow meter housing is equipped with a measuring component for measuring flow rate, a rotating component for cooperating with the measuring component for measurement, an observation component for observing the measurement results, and a connection component for connecting to existing pipelines.

[0008] Preferably, the flow splitting assembly includes a mounting groove disposed inside the turbine flow meter housing. A flow splitting plate is disposed inside the mounting groove. A flow splitting hole is formed on the surface of the flow splitting plate, and the flow splitting hole penetrates the flow splitting plate. A limit hole is formed on the surface of the flow splitting plate and penetrates the flow splitting plate.

[0009] Preferably, the shock absorption assembly includes a limiting plate disposed inside the turbine flow meter housing. The limiting plate is adapted to a limiting hole. Springs are provided on both sides of the flow divider and located below the limiting plate. The end of the spring away from the flow divider is disposed on the inner wall of the mounting groove.

[0010] Preferably, the rotating assembly includes a connecting rod disposed inside the turbine flow meter housing, with both ends of the connecting rod connected to a flow divider plate, and a vortex block sleeved on the surface of the connecting rod.

[0011] Preferably, the measuring component includes a mounting block disposed on the turbine flow meter housing. A magnetic sensor is disposed at the bottom of the mounting block, with the detection end of the magnetic sensor pointing towards the vortex block. A first mounting rod and a second mounting rod are disposed inside the turbine flow meter housing and penetrate through the turbine flow meter housing. A temperature sensor is disposed at one end of the first mounting rod, and a pressure sensor is disposed at one end of the second mounting rod.

[0012] Preferably, the observation component includes a connecting block disposed on the front of the mounting block, a placement block disposed on the top of the connecting block, and a liquid crystal panel disposed on one side of the placement block.

[0013] Preferably, the connecting assembly includes a first flange disposed at one end of the turbine flow meter housing, and a second flange disposed at the end of the turbine flow meter housing away from the first flange.

[0014] Compared with the prior art, the beneficial effects of this utility model are:

[0015] This invention utilizes a flow-dividing component to ensure that the incoming water impacts the rotating component more evenly, resulting in more accurate measurements compared to existing methods that directly impact the vortex block. By incorporating a shock-absorbing component, multiple shock absorbers and limiting devices are designed to prevent the flow-dividing plate from jamming and affecting measurement results when water hammer occurs, compared to existing single-unit shock absorbers. Furthermore, a measuring component continuously monitors the temperature and pressure inside the turbine flow meter housing to prevent damage due to overload. Attached Figure Description

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

[0017] Figure 2 This is a cross-sectional view of the present invention;

[0018] Figure 3 This utility model Figure 2 Enlarged view of point A;

[0019] Figure 4 This is a cross-sectional view of the vortex block of this utility model.

[0020] In the diagram: 1. Base plate; 2. Support leg; 3. Turbine flow meter housing; 4. Mounting groove; 5. Diverter plate; 6. Diverter hole; 7. Limiting hole; 8. Spring; 9. Limiting plate; 10. Connecting rod; 11. Vortex block; 12. Mounting block; 13. Magnetic sensor; 14. First mounting rod; 15. Second mounting rod; 16. Temperature sensor; 17. Pressure sensor; 18. Connecting block; 19. Placement block; 20. LCD panel; 21. First flange; 22. Second flange. 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. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Please see Figures 1-4This utility model provides a technical solution: a turbine flow meter with shock absorption function, including a base plate 1, characterized in that: a support leg 2 is provided on the top of the base plate 1, and a turbine flow meter housing 3 is provided above the support leg 2. A flow-dividing component for diverting water flow is provided inside the turbine flow meter housing 3; the flow-dividing component includes a mounting groove 4, which is located inside the turbine flow meter housing 3. A flow-dividing plate 5 is provided inside the mounting groove 4, and a flow-dividing hole 6 is formed on the surface of the flow-dividing plate 5, penetrating the flow-dividing plate 5. A limiting hole 7 is formed on the surface of the flow-dividing plate 5 and penetrates the flow-dividing plate 5. Water flows in through the flow-dividing hole 6, making it more uniform.

[0023] The turbine flow meter housing 3 is internally equipped with a damping component to mitigate water hammer effects. This damping component includes a limiting plate 9, which is located inside the turbine flow meter housing 3 and is fitted with a limiting hole 7. Springs 8 are located on both sides of the flow divider 5, below the limiting plate 9. The end of each spring 8 furthest from the flow divider 5 is positioned on the inner wall of the mounting groove 4. By employing multiple damping devices and ensuring proper engagement between the limiting plate 9 and the limiting hole 7, the flow divider 5 will not become stuck during water hammer effects, thus preventing any impact on the final detection results.

[0024] The turbine flow meter housing 3 houses a measuring component for measuring flow rate. This component includes a mounting block 12, which is positioned within the turbine flow meter housing 3. A magnetic sensor 13 is located at the bottom of the mounting block 12, with its detection end pointing towards the vortex block 11. A first mounting rod 14 and a second mounting rod 15 are also located within the turbine flow meter housing 3 and penetrate through it. A temperature sensor 16 is located at one end of the first mounting rod 14, and a pressure sensor 17 is located at one end of the second mounting rod 15. By using the temperature sensor 16 and pressure sensor 17 to continuously monitor the temperature and pressure inside the turbine flow meter housing 3, damage to the equipment due to overload is prevented.

[0025] An observation component for observing measurement results is provided on the upper part of the measuring component; the observation component includes a connecting block 18, which is provided on the front of the mounting block 12, and a placement block 19 is provided on the top of the connecting block 18, and an LCD panel 20 is provided on one side of the placement block 19.

[0026] The turbine flow meter housing 3 has a rotating assembly inside for measuring with the measuring component; the rotating assembly includes a connecting rod 10, which is located inside the turbine flow meter housing 3. Both ends of the connecting rod 10 are connected to the flow divider 5, and a vortex block 11 is sleeved on the surface of the connecting rod 10.

[0027] The turbine flow meter housing 3 is provided with a connection assembly for connecting to existing pipelines; the connection assembly includes a first flange 21, which is located at one end of the turbine flow meter housing 3, and a second flange 22 is located at the end of the turbine flow meter housing 3 away from the first flange 21. The first flange 21 is used to connect to the inlet pipe, and the second flange 22 is used to connect to the outlet pipe.

[0028] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A turbine flowmeter with a damping effect, comprising a base plate (1), characterized in that: The top of the bottom plate (1) is provided with a support leg (2), the upper side of the support leg (2) is provided with a turbine flowmeter shell (3), the inside of the turbine flowmeter shell (3) is provided with a shunt assembly for shunting water flow, and the inside of the turbine flowmeter shell (3) is provided with a damping assembly for damping water hammer effect. The inside of the turbine flowmeter shell (3) is provided with a measuring assembly for measuring flow, the inside of the turbine flowmeter shell (3) is provided with a rotating assembly for cooperating with the measuring assembly to measure, the upper side of the measuring assembly is provided with an observation assembly for observing measurement results, and the turbine flowmeter shell (3) is provided with a connecting assembly for connecting existing pipelines.

2. The turbine flow meter with shock absorption according to claim 1, wherein: The shunt assembly comprises a mounting groove (4) arranged in the inside of the turbine flowmeter shell (3), a shunt plate (5) arranged in the inside of the mounting groove (4), a shunt hole (6) formed in the surface of the shunt plate (5) and penetrating through the shunt plate (5), and a limiting hole (7) formed in the surface of the shunt plate (5) and penetrating through the shunt plate (5).

3. The turbine flow meter with shock absorption according to claim 2, wherein: The damping assembly comprises a limiting plate (9) arranged in the inside of the turbine flowmeter shell (3), the limiting plate (9) is matched with the limiting hole (7), springs (8) are arranged on both sides of the shunt plate (5) and below the limiting plate (9), and one end of the spring (8) away from the shunt plate (5) is arranged on the inner wall of the mounting groove (4).

4. The turbine flow meter with shock absorption according to claim 1, wherein: The rotating assembly comprises a connecting rod (10) arranged in the inside of the turbine flowmeter shell (3), the connecting rod (10) is connected with the shunt plate (5) at both ends, and the connecting rod (10) is sleeved with an eddy block (11) on the surface.

5. The turbine flow meter with shock absorption according to claim 1, wherein: The measuring assembly comprises a mounting block (12) arranged in the turbine flowmeter shell (3), a magnetic force sensor (13) arranged at the bottom of the mounting block (12), a detection end of the magnetic force sensor (13) pointing to the eddy block (11), a first mounting rod (14) and a second mounting rod (15) arranged in the inside of the turbine flowmeter shell (3) and penetrating through the turbine flowmeter shell (3), a temperature sensor (16) arranged at one end of the first mounting rod (14), and a pressure sensor (17) arranged at one end of the second mounting rod (15).

6. The turbine flow meter with shock absorption according to claim 1, wherein: The observation assembly comprises a connecting block (18) arranged at the top of the mounting block (12), a placing block (19) arranged at the top of the connecting block (18), and a liquid crystal panel (20) arranged on one side of the placing block (19).

7. The turbine flow meter with shock absorption according to claim 1, wherein: The connecting assembly comprises a first flange plate (21) arranged at one end of the turbine flowmeter shell (3), and a second flange plate (22) arranged at the end of the turbine flowmeter shell (3) away from the first flange plate (21).

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