Semi-automatic dynamic booster pump equipment

Abstract

The utility model provides semi-automatic dynamic booster pump equipment, which belongs to the technical field of booster equipment and comprises a dynamic pump body, the first input end of the dynamic pump body is controllably communicated to a water supply end through a water supply pipeline, and the second input end of the dynamic pump body is controllably communicated to an air source end through a first air supply pipeline; the input end of the multi-pass device is connected with the output end of the dynamic pump body, and the first output end of the multi-pass device is connected with a pressure supply output port; the first input end of the pressure release valve is connected with the second output end of the multi-way device, the second input end of the pressure release valve is controllably communicated to the air source end through a second air supply pipeline, and the output end of the pressure release valve is connected to the water supply end through a backflow pipeline. The device has the beneficial effects that the semi-automatic operation mode simplifies the operation process, relieves the burden of operators, and improves the production efficiency; in addition, the pressure relief valve can relieve pressure of the pressurized water flow and then flow back to the water supply end through the backflow pipeline, and waste of water resources is effectively avoided.

Description

Technical Field

[0001] The utility model relates to the technical field of pressurization equipment, in particular to a semi-automatic dynamic booster pump device. Background Art

[0002] In the field of electronic device manufacturing, the over-range dynamic pressure aging test for high-precision sensitive components such as high-pressure sensors is a crucial link. Such tests require a stable and controllable dynamic pressurized water flow to simulate the pressure environment under extreme working conditions, so as to verify the voltage resistance, durability and reliability of electronic devices. For this reason, the semi-automatic dynamic booster pump device came into being, and its original design intention is to provide a more efficient and flexible test tool.

[0003] Traditional dynamic booster pump devices often require operators to manually adjust multiple parameters, such as pressure, flow rate, time, etc., and each step requires precise judgment and intervention from the operator. This not only increases the labor intensity, but also is prone to errors, greatly reducing the production efficiency and unable to meet the needs of large-scale or high-frequency tests. Moreover, traditional devices usually lack an effective reflux mechanism. In the dynamic pressure aging test, when the set test conditions are reached, if the device cannot timely discharge or recycle the water flow from the system, it will lead to waste of water resources and may even have an adverse impact on the test environment. In addition, the lack of a reflux mechanism also means that after the test is over, the operator needs to manually handle the remaining water flow, further increasing the work burden. Summary of the Utility Model

[0004] In order to solve the above technical problems, the utility model provides a semi-automatic dynamic booster pump device.

[0005] The technical problems solved by the utility model can be realized by adopting the following technical solutions:

[0006] A semi-automatic dynamic booster pump device includes:

[0007] A dynamic pump body, the first input end of the dynamic pump body is controllably connected to a water supply end through a water supply pipeline, and the second input end of the dynamic pump body is controllably connected to a gas source end through a first gas supply pipeline;

[0008] A multi-way connector, the input end of the multi-way connector is connected to the output end of the dynamic pump body, and the first output end of the multi-way connector is connected to a pressure supply output port;

[0009] A pressure relief valve, the first input end of the pressure relief valve is connected to the second output end of the multi-way connector, the second input end of the pressure relief valve is controllably connected to the gas source end through a second gas supply pipeline, and the output end of the pressure relief valve is connected to the water supply end through a reflux pipeline.

[0010] Preferably, the water supply pipeline includes:

[0011] A filter, one end of the filter is connected to the liquid outlet of the water supply end through a first joint, and the other end of the filter is connected to a ball valve;

[0012] A first pipeline, one end of the first pipeline is connected to the ball valve through a second joint, and the other end of the first pipeline is connected to the first input end of the dynamic pump body through a third joint.

[0013] Preferably, the first joint and the filter are connected through an elbow.

[0014] Preferably, the gas source end includes:

[0015] A gas source processor, the input end of the gas source processor is connected to a second pipeline through a fourth joint to access the gas source, and the output end of the gas source processor is connected to one end of a third pipeline through a fifth joint;

[0016] A three-way joint, the first end of the three-way joint is connected to the other end of the third pipeline, the second end of the three-way joint is connected to the first gas supply pipeline, and the third end of the three-way joint is connected to the second gas supply pipeline.

[0017] Preferably, the first gas supply pipeline includes:

[0018] A proportional valve, the input end of the proportional valve is connected to a fourth pipeline through a sixth joint to access the gas source end, the output end of the proportional valve is connected to one end of a fifth pipeline through a seventh joint, and the other end of the fifth pipeline is connected to the second input end of the dynamic pump body through an eighth joint.

[0019] Preferably, it further includes:

[0020] A first pressurizing pipeline, one end of the first pressurizing pipeline is threadedly connected to a conversion joint, the conversion joint is threadedly connected to the output end of the dynamic pump body, and the other end of the first pressurizing pipeline is threadedly connected to the input end of the multi-way connector;

[0021] A second pressurizing pipeline, one end of the second pressurizing pipeline is threadedly connected to the first output end of the multi-way connector, and the other end of the second pressurizing pipeline is threadedly connected to the pressure supply output port;

[0022] A third pressurizing pipeline, one end of the third pressurizing pipeline is threadedly connected to the second output end of the multi-way connector, and the other end of the third pressurizing pipeline is threadedly connected to the first input end of the pressure relief valve.

[0023] Preferably, the first pressurizing pipeline, the second pressurizing pipeline and the third pressurizing pipeline respectively include:

[0024] A high-pressure pipe, two transition sleeves, and two compression nuts. The transition sleeves are respectively sleeved at both ends of the high-pressure pipe, and the two compression nuts are respectively sleeved on the transition sleeves and the high-pressure pipe.

[0025] Preferably, a pressure monitoring device is further provided on the multi-way connector, and the pressure monitoring device is located between the multi-way connector and the pressure supply output port.

[0026] Preferably, the second air supply pipeline includes:

[0027] An electromagnetic valve. The input end of the electromagnetic valve is connected to the sixth pipeline through the ninth joint to access the air source, the output end of the electromagnetic valve is connected to one end of the seventh pipeline through the tenth joint, and the other end of the seventh pipeline is connected to the second input end of the pressure relief valve through the eleventh joint.

[0028] Preferably, the return pipeline includes:

[0029] An eighth pipeline. One end of the eighth pipeline is connected to the output end of the pressure relief valve through the twelfth joint, the other end of the eighth pipeline is connected to the thirteenth joint through the fourteenth joint, and the fourteenth joint is connected to the liquid return port of the water supply end.

[0030] The advantages or beneficial effects of the technical solution of the present utility model are as follows:

[0031] The semi-automatic dynamic booster pump device provided by the present utility model realizes the supply of stable and controllable dynamic pressurized water flow by integrating a dynamic pump body and a multi-way connector. The semi-automatic operation mode simplifies the operation process, reduces the burden on operators, and improves production efficiency. In addition, the device is also equipped with a pressure relief valve, which can relieve the pressure of the pressurized water flow and then return it to the water supply end through the return pipeline, effectively avoiding the waste of water resources, reflecting the green environmental protection design concept, and also bringing significant cost-saving benefits to users. Description of the Drawings

[0032] Figure 1 It is a schematic diagram of the semi-automatic dynamic booster pump device in the preferred embodiment of the present utility model;

[0033] Figure 2 It is a schematic diagram of the semi-automatic dynamic booster pump device in the preferred embodiment of the present utility model;

[0034] Figure 3 It is an enlarged view of the multi-way connector in the preferred embodiment of the present utility model;

[0035] Figure 4 It is a schematic diagram of the device structure after removing the four-sided sealing plate and the double-opening door in the preferred embodiment of the present utility model;

[0036] Figure 5 In a preferred embodiment of the present utility model, it is a schematic structural diagram of the device after removing the four-sided sealing plate and the double doors;

[0037] Figure 6 In a preferred embodiment of the present utility model, it is a schematic flow diagram of the automatic operation mode;

[0038] Figure 7 In a preferred embodiment of the present utility model, it is a schematic flow diagram of the manual operation mode.

[0039] Reference numerals:

[0040] 1. Water supply end; 2. Water supply pipeline; 21. First joint; 22. Elbow; 23. Filter; 24. Ball valve; 25. Second joint; 26. First pipeline; 27. Third joint; 3. Dynamic pump body; 31. First input end of the dynamic pump body; 32. Second input end of the dynamic pump body; 33. Output end of the dynamic pump body; 4. Air source end; 41. Second pipeline; 42. Fourth joint; 43. Air source processor; 44. Fifth joint; 45. Third pipeline; 46. Three-way joint; 5. First air supply pipeline; 51. Fourth pipeline; 52. Sixth joint; 53. Proportion valve; 54. Seventh joint; 55. Fifth pipeline; 56. Eighth joint; 6. Multi-way device; 61. First pressurization pipeline; 611. First high-pressure pipe; 612. First transition sleeve I; 613. First transition sleeve II; 614. First compression nut I; 615. First compression nut II; 62. Second pressurization pipeline; 621. Second high-pressure pipe; 622. Second transition sleeve I; 623. Second transition sleeve II; 624. Second compression nut I; 625. Second compression nut II; 63. Third pressurization pipeline; 631. Third high-pressure pipe; 632. Third transition sleeve I; 633. Third transition sleeve II; 634. Third compression nut I; 635. Third compression nut II; 7. Pressure supply output port; 8. Pressure relief valve; 9. Second air supply pipeline; 91. Sixth pipeline; 92. Ninth joint; 93. Solenoid valve; 94. Tenth joint; 95. Seventh pipeline; 96. Eleventh joint; 10. Return pipeline; 101. Twelfth joint; 102. Eighth pipeline; 103. Thirteenth joint; 104. Fourteenth joint; 11. Pressure monitoring device; 12. Adapter; 13. Frame; 130. Electrical bin; 131. Power cord; 132. Total air source manual slide valve; 133. Power switch; 134. Emergency stop switch; 135. Display operation screen; 136. Power indicator light; 137. Total power indicator light. Detailed implementation manners

[0041] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0042] It should be noted that, without conflict, the embodiments in the present invention and the features in the embodiments may be combined with each other.

[0043] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments, but it is not a limitation of the present invention.

[0044] See Figure 1 , in a preferred embodiment of the present invention, in view of the above problems existing in the prior art, a semi-automatic dynamic booster pump device is provided, including:

[0045] A dynamic pump body 3, the first input end of the dynamic pump body 3 is controllably connected to a water supply end 1 through a water supply pipeline 2, and the second input end of the dynamic pump body 3 is controllably connected to a gas source end 4 through a first gas supply pipeline 5;

[0046] A multi-way connector 6, the input end of the multi-way connector 6 is connected to the output end of the dynamic pump body 3, and the first output end of the multi-way connector 6 is connected to a pressure supply output port 7;

[0047] A pressure relief valve 8, the first input end of the pressure relief valve 8 is connected to the second output end of the multi-way connector 6, the second input end of the pressure relief valve 8 is controllably connected to the gas source end 4 through a second gas supply pipeline 9, and the output end of the pressure relief valve 8 is connected to the water supply end 1 through a return pipeline 10.

[0048] Specifically, the water supply end 1 is used to provide the liquid to be pressurized, such as the liquid for testing. In this embodiment, the water supply end 1 can be designed in the form of a water tank, and the liquid is stored inside the water tank. Different types of liquids can be selected according to actual needs. For example, the liquid can use the most common and cost-effective clear water, which is convenient for equipment use and has low cost.

[0049] The dynamic pump body 3 can adopt a mechanical booster pump, which can complete the dynamic pressurization of the liquid under the push of the gas source. It should be noted that the dynamic pump body 3 can adopt the mechanical booster pump commonly used in the prior art, and the present invention will not elaborate on it, but it should be included in the protection scope of the present invention.

[0050] In this embodiment, according to the selected range of the dynamic pump body, the device can support different range segments, with a wide range of ranges, more selectivity, diversification, high precision, and good stability, and the appropriate device range can be selected according to requirements.

[0051] The pressure supply outlet 7 is the liquid outlet of the entire device, which can output the water flow after dynamic pressurization and is used to provide the required test environment for the over-range dynamic pressurization aging test of high-pressure sensors.

[0052] In this embodiment, the device is also equipped with a pressure relief valve 8. The pressure relief valve can use an ultra-high-pressure type pressure relief valve to stabilize the output pressure of the device and relieve pressure, ensuring the long-term stable operation of the device.

[0053] As a preferred embodiment, as Figure 2 shown, the water supply pipeline 2 includes:

[0054] A filter 23, one end of the filter 23 is connected to the liquid outlet of the water supply end 1 through a first joint 21, and the other end of the filter 23 is connected to a ball valve 24;

[0055] A first pipeline 26, one end of the first pipeline 26 is connected to the ball valve 24 through a second joint 25, and the other end of the first pipeline 26 is connected to the first input end 31 of the dynamic pump body 3 through a third joint 27.

[0056] As a preferred embodiment, between the first joint 21 and the filter 23 is connected through an elbow 22.

[0057] Specifically, in this embodiment, a filter 23 is installed at the liquid outlet of the water supply end 1 to effectively intercept and remove tiny impurities, particulate matters, and possible suspended matters in the water before the liquid flows out of the water tank and enters the subsequent pressurization process, improving the quality of the liquid entering the device and avoiding the risks of internal wear, blockage, and even damage of the device caused by the mixing of impurities.

[0058] One end of the filter 23 is tightened to the liquid outlet through the first joint 21 to ensure the sealing performance and stability of the connection. For the convenience of installation and maintenance, an elbow 22 can be additionally provided between the first joint 21 and the filter 23. This elbow not only helps to adjust the pipeline direction to adapt to the space layout but also can reduce the connection stress to a certain extent and improve the overall stability of the system.

[0059] At the same time, the filter 23 adopts a structure design that is easy to disassemble, such as a threaded connection method, and the filter screen can be regularly inspected and cleaned according to the actual use situation, or a new filter screen can be replaced when necessary to maintain its continuous and effective filtering ability.

[0060] The filtered liquid then flows out from the other end of the filter 23 and is connected to the ball valve 24. The ball valve 24 is used to control the liquid flow rate and on-off. By adjusting the opening degree of the ball valve 24, the liquid flow rate entering the dynamic pump body 3 can be flexibly adjusted to meet the requirements of different test scenarios.

[0061] The liquid flowing out of the ball valve 24 continues to flow along the water supply pipeline 2 and enters the first pipeline 26. One end of the first pipeline 26 is tightly connected to the ball valve 24 through the second joint 25, and the other end is connected to the first input end 31 of the dynamic pump body 3 through the third joint 27, ensuring that the liquid can smoothly flow from the water supply end 1 through the first joint 21, elbow 22, filter 23, ball valve 24, second joint 25, first pipeline 26 and third joint 27, and finally enter the dynamic pump body 3 for pressurization processing.

[0062] As a preferred embodiment, wherein, the gas source end 4 includes:

[0063] A gas source processor 43, the input end of the gas source processor 43 is connected to the second pipeline 41 through the fourth joint 42 to access the gas source, and the output end of the gas source processor 43 is connected to one end of the third pipeline 45 through the fifth joint 44;

[0064] A three-way joint 46, the first end of the three-way joint 46 is connected to the other end of the third pipeline 45, the second end of the three-way joint 46 is connected to the first gas supply pipeline 5, and the third end of the three-way joint 46 is connected to the second gas supply pipeline 9.

[0065] In this embodiment, the gas source of the gas source end 4 can be provided externally. The appropriate gas source type can be selected according to actual needs. For example, air can be used as the gas source, which is easy to obtain and has a low cost.

[0066] Specifically, the external gas source enters the gas source processor 43 through the second pipeline 41 and the fourth joint 42 for gas source treatment to remove impurities and moisture in the gas source and adjust the air pressure to the stable range required by the equipment.

[0067] The processed gas flows out from the output end of the gas source processor 43 and passes through the fifth joint 44, third pipeline 45 to the three-way joint 46.

[0068] The three-way joint 46 provides two-way output. One way is provided to the dynamic pump body 3 through the first gas supply pipeline 5 to complete the dynamic pressurization of the liquid under the push of the gas source; the other way is provided to the pressure relief valve 8 through the second gas supply pipeline 9 to realize the pressure relief of the dynamically pressurized water flow.

[0069] As a preferred embodiment, wherein, the first gas supply pipeline 5 includes:

[0070] A proportional valve 53, the input end of the proportional valve 53 is connected to the fourth pipeline 51 through the sixth joint 52 to access the gas source, the output end of the proportional valve 53 is connected to one end of the fifth pipeline 55 through the seventh joint 54, and the other end of the fifth pipeline 55 is connected to the second input end 32 of the dynamic pump body 3 through the eighth joint 56.

[0071] Specifically, one path of the three-way joint 46 sequentially passes through the fourth pipeline 51, the sixth joint 52, the proportional valve 53, the seventh joint 54, the fifth pipeline 55, and the eighth joint 56 and enters the dynamic pump body 3.

[0072] The proportional valve 53 can adjust the opening degree of the valve according to a control signal (such as a current or voltage signal), so as to adjust the gas flow rate entering the dynamic pump body 3, so that the dynamic pump body 3 can obtain an appropriate amount of gas supply according to actual needs and complete the dynamic pressurization of the liquid under the push of the gas source.

[0073] The proportional valve 53 can adopt a high-precision proportional solenoid valve, which has the advantages of fast response speed, high control precision, and easy integration into an automated control system, realizing remote monitoring and intelligent control.

[0074] As a preferred embodiment, among them, as Figure 2 and Figure 3 shown, it further includes:

[0075] The first pressurization pipeline 61, one end of the first pressurization pipeline 61 is threadedly connected to the conversion joint 12, the conversion joint 12 is threadedly connected to the output end 33 of the dynamic pump body 3, and the other end of the first pressurization pipeline 61 is threadedly connected to the input end of the multi-way connector 6;

[0076] The second pressurization pipeline 62, one end of the second pressurization pipeline 62 is threadedly connected to the first output end of the multi-way connector 6, and the other end of the second pressurization pipeline 62 is threadedly connected to the pressure supply output port 7;

[0077] The third pressurization pipeline 63, one end of the third pressurization pipeline 63 is threadedly connected to the second output end of the multi-way connector 6, and the other end of the third pressurization pipeline 63 is threadedly connected to the first input end of the pressure relief valve 8.

[0078] As a preferred embodiment, among them, the first pressurization pipeline 61, the second pressurization pipeline 62, and the third pressurization pipeline 63 respectively include:

[0079] A high-pressure pipe, two transition sleeves, and two compression nuts. The transition sleeves are respectively sleeved on both ends of the high-pressure pipe, and the two compression nuts are respectively sleeved on the transition sleeves and the high-pressure pipe.

[0080] Further, the compression nut is a T-shaped compression nut. The compression nut is reversely sleeved on the high-pressure pipe, that is, the T-shaped end of the compression nut is arranged towards the middle of the high-pressure pipe, and its threaded end is arranged towards the end side of the high-pressure pipe, so that the threaded end of the compression nut is threadedly connected to the corresponding component.

[0081] Specifically, the output end of the dynamic pump body 3 is connected to the input end of the multi-way connector 6 through the first pressurization pipeline 61; the first pressurization pipeline 61 includes:

[0082] The first high-pressure pipe 611, the first transition sleeve I 612, the first transition sleeve II 613, the first compression nut I 614, and the first compression nut II 615; the first transition sleeve I 612 is sleeved on one end of the first high-pressure pipe 611, and the first compression nut I 614 is sleeved on the first transition sleeve I 612 and the first high-pressure pipe 611 at the same end;

[0083] The first transition sleeve II 613 is sleeved on the other end of the first high-pressure pipe 611, and the first compression nut II 615 is sleeved on the first transition sleeve II 613 and the first high-pressure pipe 611 at the other same end.

[0084] Specifically, between the first output end of the multi-way connector 6 and the pressure supply output port 7, there is a connection through the second pressure boosting pipeline 62; the second pressure boosting pipeline 62 includes:

[0085] The second high-pressure pipe 621, the second transition sleeve I 622, the second transition sleeve II 623, the second compression nut I 624, and the second compression nut II 625; the second transition sleeve I 622 is sleeved on one end of the second high-pressure pipe 621, and the second compression nut I 624 is sleeved on the second transition sleeve I 622 and the second high-pressure pipe 621 at the same end;

[0086] The second transition sleeve II 623 is sleeved on the other end of the second high-pressure pipe 621, and the second compression nut II 625 is sleeved on the second transition sleeve II 623 and the second high-pressure pipe 621 at the other same end.

[0087] Specifically, between the second output end of the multi-way connector 6 and the first input end of the pressure relief valve 8, there is a connection through the third pressure boosting pipeline 63; the third pressure boosting pipeline 63 includes:

[0088] The third high-pressure pipe 631, the third transition sleeve I 632, the third transition sleeve II 633, the third compression nut I 634, and the third compression nut II 635; the third transition sleeve I 632 is sleeved on one end of the third high-pressure pipe 631, and the third compression nut I 634 is sleeved on the third transition sleeve I 632 and the third high-pressure pipe 631 at the same end;

[0089] The third transition sleeve II 633 is sleeved on the other end of the third high-pressure pipe 631, and the third compression nut II 635 is sleeved on the third transition sleeve II 633 and the third high-pressure pipe 631 at the other same end.

[0090] Specifically, in this embodiment, all the high-pressure pipe sections of the equipment are designed with conical or spherical hard seals, and the maximum pressure can reach 400 MPa, ensuring the long-term stable operation of the equipment.

[0091] As a preferred implementation manner, among them, a pressure monitoring device 11 is further provided on the multi-way connector 6, and the pressure monitoring device 11 is located between the multi-way connector 6 and the pressure supply output port 7.

[0092] Furthermore, the pressure monitoring device 11 can be implemented by a pressure sensor. The device is equipped with a high-precision pressure sensor to monitor and feedback the actual pressure value in real time.

[0093] Furthermore, the valve opening of the proportional valve 53 can also be accurately and stably adjusted in real time according to the feedback signal of the pressure value.

[0094] As a preferred embodiment, the second gas supply pipeline 9 includes:

[0095] An electromagnetic valve 93. The input end of the electromagnetic valve 93 is connected to the sixth pipeline 91 through the ninth joint 92 to access the gas source. The output end of the electromagnetic valve 93 is connected to one end of the seventh pipeline 95 through the tenth joint 94. The other end of the seventh pipeline 95 is connected to the second input end of the pressure relief valve 8 through the eleventh joint 96.

[0096] Specifically, the other path of the tee joint 46 sequentially passes through the sixth pipeline 91, the ninth joint 92, the electromagnetic valve 93, the tenth joint 94, the seventh pipeline 95, and the eleventh joint 96 and enters the pressure relief valve 8.

[0097] The electromagnetic valve 93 can open or close the gas passage according to a control signal (such as an electric signal), allowing the device to quickly cut off or restore the gas supply when needed. When the electromagnetic valve 93 is closed, the gas flow from the gas source to the pressure relief valve 8 will be blocked; when the electromagnetic valve 93 is opened, the gas is allowed to pass through and continue to flow to the pressure relief valve 8, enabling the gas to enter the pressure relief valve for pressure regulation or release.

[0098] As a preferred embodiment, the return pipeline 10 includes:

[0099] An eighth pipeline 102. One end of the eighth pipeline 102 is connected to the output end of the pressure relief valve 8 through the twelfth joint 101. The other end of the eighth pipeline 102 is connected to the fourteenth joint 104 through the thirteenth joint 103. The fourteenth joint 104 is connected to the liquid return port of the water supply end 1.

[0100] Specifically, after the dynamically pressurized water flows through the pressure relief valve 8 to relieve pressure, it can sequentially pass through the twelfth joint 101, the eighth pipeline 102, the thirteenth joint 103, and the fourteenth joint 104 and return to the liquid return port of the water supply end 1. These fluids can be further processed or reused, effectively avoiding the waste of water resources, reflecting the design concept of environmental protection, and at the same time bringing significant cost-saving benefits to users.

[0101] In this embodiment, the above-mentioned first pipeline 26, second pipeline 41, third pipeline 45, fourth pipeline 51, fifth pipeline 55, sixth pipeline 91, seventh pipeline 95 and eighth pipeline 102 can all adopt polyurethane (PU) pipes. Among them, the second pipeline 41, third pipeline 45, fourth pipeline 51, fifth pipeline 55, sixth pipeline 91, seventh pipeline 95 are air pipes; the first pipeline 26 and the eighth pipeline 102 are water pipes.

[0102] Any of the above-mentioned air pipes, water pipes or high-pressure pipes can be bent. The air pipes, water pipes or high-pressure pipes can be bent into the required angles according to needs to adapt to different installation environments, layout requirements or equipment connection requirements. Bending the pipelines can make the system more compact and flexible, and reduce unnecessary joints and connectors, thereby improving the overall performance and reliability of the system.

[0103] Furthermore, the equipment further includes a frame 13. The water supply end 1, dynamic pump body 3, multi-way connector 6, pressure supply output port 7, pressure relief valve 8, proportional valve 53, solenoid valve 93 are all installed inside the frame 13. The pressure supply joint of the pressure supply output port 7 extends out of the frame 13 to provide dynamic pressurized water flow to the outside.

[0104] Furthermore, the installation process of the equipment in this embodiment is as follows:

[0105] First, place the water tank of the water supply end 1 on the frame 13, tighten the first joint 21 to the liquid outlet of the water tank, then tighten the elbow 22 to the first joint 21, tighten the filter 23 to the elbow 22, then tighten the ball valve 24 to the filter 23, and then tighten the second joint 25 to the ball valve 24; use bolts to fix the dynamic pump body 3 on the bottom plate of the frame 13, tighten the other end of the first pipeline 26 to the third joint 27 at the liquid inlet of the dynamic pump body 3, and then use an appropriate length of PU pipe as the first pipeline 26, and insert the two ends of the pipeline into the second joint 25 and the third joint 27 respectively. Thus, the installation of the water supply pipeline 2 is completed.

[0106] Then, tighten the adapter 12 to the liquid outlet joint of the dynamic pump body 3, use screws to fix the multi-way connector 6 on the long strip of the frame 13, put two compression nuts (i.e., the first compression nut I 614 and the first compression nut II 615) on the first high-pressure pipe 611 in the reverse direction, screw on the transition sleeves (i.e., the first transition sleeve I 612 and the first transition sleeve II 613) on the threads at both ends of the first high-pressure pipe 611, bend the first high-pressure pipe 611 into the required angle, and then tighten the compression nuts at both ends to the adapter 12 of the dynamic pump body 3 and the multi-way connector 6 respectively. Thus, the installation of the first pressurization pipeline 61 is completed.

[0107] Next, tightly screw the pressure sensor onto the multi-way connector 6, weld the pressure supply output port 7 onto the long slot hole of the frame 13, and then follow a similar installation process as that of the first pressure boosting pipeline 61, i.e., reversely sleeve two compression nuts (i.e., the second compression nut I 624 and the second compression nut II 625) onto the second high-pressure pipe 621, screw on transition sleeves (i.e., the second transition sleeve I 622 and the second transition sleeve II 623) onto the threads at both ends of the second high-pressure pipe 621, bend the second high-pressure pipe 621 into the required angle, and then tightly screw the compression nuts at both ends onto the pressure supply connector of the pressure supply output port 7 and the multi-way connector 6 respectively. Thus, the installation of the second pressure boosting pipeline 62 is completed.

[0108] Next, fix the pressure relief valve 8 onto the bracket of the frame 13, and then follow a similar installation process as that of the first pressure boosting pipeline 61, i.e., reversely sleeve two compression nuts (i.e., the third compression nut I 634 and the third compression nut II 635) onto the third high-pressure pipe 631, screw on transition sleeves (i.e., the third transition sleeve I 632 and the third transition sleeve II 633) onto the threads at both ends of the third high-pressure pipe 631, bend the third high-pressure pipe 631 into the required angle, and then tightly screw the compression nuts at both ends onto the pressure relief valve 8 and the multi-way connector 6 respectively. Thus, the installation of the third pressure boosting pipeline 63 is completed.

[0109] Next, screw the twelfth connector 101 onto the liquid outlet of the pressure relief valve 8, tightly screw the fourteenth connector 104 onto the liquid return port of the water tank, tightly screw the thirteenth connector 103 onto the fourteenth connector 104, cut an appropriate length of PU pipe as the eighth pipeline 102, and insert both ends of the pipeline into the twelfth connector 101 and the thirteenth connector 103 respectively. Thus, the installation of the return pipeline 10 is completed.

[0110] Next, tightly screw the fourth connector 42 and the fifth connector 44 onto the two threaded holes at both ends of the air source processor 43 respectively, cut an appropriate length of PU pipe as the second pipeline 41, and insert the second pipeline 41 into the fourth connector 42 at the air inlet of the air source processor 43 to connect to the air source. Fix the proportional valve 53 onto the bracket of the frame 13, tightly screw the sixth connector 52 and the seventh connector 54 onto the two threaded holes at both ends of the proportional valve 53 respectively, cut an appropriate length of PU pipe as the third pipeline 45, and insert both ends of the third pipeline 45 into the fifth connector 44 at the air outlet of the air source processor 43 and the air inlet of the tee joint 46 respectively; cut an appropriate length of PU pipe as the fourth pipeline 51, insert one end of the fourth pipeline 51 into the first air outlet of the tee joint 46, and insert the other end into the sixth connector 52 at the air inlet of the proportional valve 53; tightly screw the eighth connector 56 onto the second input end 32 of the dynamic pump body 3, cut an appropriate length of PU pipe as the fifth pipeline 55, and insert both ends of the fifth pipeline 55 into the seventh connector 54 and the eighth connector 56 respectively. Thus, the installation of the air source end 4 and the first air supply pipeline 5 is completed.

[0111] Next, secure the solenoid valve 93 to the frame 13 bracket, screw the ninth and tenth connectors 92 and 94 to the threaded holes at each end of the solenoid valve 93, cut an appropriate length of PU tubing to form the sixth conduit 91, and insert the ends of the sixth conduit 91 into the second outlet of the tee connector 46 and the ninth connector 92 at the air inlet of the solenoid valve 93, respectively. Screw the eleventh connector 96 into the threaded hole at the air inlet of the pressure relief valve 8, cut an appropriate length of PU tubing to form the seventh conduit 95, and insert the ends of the seventh conduit 95 into the tenth connector 94 at the air outlet of the solenoid valve 93 and the eleventh connector 96 at the air inlet of the pressure relief valve 8, respectively. This completes the installation of the second air supply line 9.

[0112] Finally, the emergency stop switch 134, the power switch 133, the indicator lights (such as the power indicator light 136 and the main power indicator light 137), the display operation screen 135, the total air source manual sliding valve 132 and the power line 131 wire gland are installed on the electrical compartment 130, and the total air source manual sliding valve 132 connects the air to the air source processor 43 through the second pipe 41; a control component is also provided, which is arranged in the electrical compartment 130, that is, the control component is electrically connected to the above-mentioned electrical compartment 130 emergency stop switch 134, the power switch 133, the indicator lights (such as the power indicator light 136 and the main power indicator light 137), the display operation screen 135, the total air source manual sliding valve 132, the power line 131, and the ball valve 24, the air source processor 43, the proportional valve 53, the solenoid valve 93, and the pressure monitoring device 11 in the frame, and the electrical compartment 130 can be assembled. Then the four-sided sealing panels and the double doors of the frame 13 are installed to complete the assembly of the overall equipment.

[0113] In this embodiment, the semi-automatic dynamic booster pump device operates in any of the following modes:

[0114] Automatic operation mode;

[0115] Manual operation mode.

[0116] In the automatic operation mode, the pressure range, holding time, rest time and number of cycles are pre-set. The equipment working process in the automatic operation mode is as follows:

[0117] A1, after pressing the start button, the valve opening of the proportional valve 53 slowly opens, and the compressed air of the air source processor 43 enters the dynamic pump body 3, driving the dynamic pump body 3 to work;

[0118] A2, the pressure sensor monitors the output pressure value and determines whether the monitored output pressure value exceeds the set pressure value range:

[0119] If so, the valve opening of the proportional valve 53 is kept constant, and the dynamic pump body 3 enters the pressure maintaining state;

[0120] If not, feedback the signal to the proportional valve 53 and moderately increase the valve opening of the proportional valve 53 until the valve opening of the proportional valve 53 remains constant when the output pressure value is within the set pressure value range;

[0121] A3. When the pressure holding time reaches the set value, the proportional valve 53 closes, the pressure relief valve 8 opens, the output pressure value becomes 0, and it enters the pause time. Until the pause time reaches the set value, a cycle of work is completed;

[0122] A4. Repeat the steps of A1 - A4 until the number of cycles reaches the set value, and then end the process of the automatic operation mode.

[0123] Among them, in the pressure holding state, if the stop key is manually pressed, the proportional valve 53 closes, the pressure relief valve 8 opens, the output pressure value becomes 0, and the device enters the standby state.

[0124] In the manual operation mode, a pressure value range is preset in advance. The working process of the device in the manual operation mode is as follows:

[0125] B1. After pressing the start key, the valve opening of the proportional valve 53 opens, and the compressed air from the air source processor 43 enters the dynamic pump body 3 to drive the dynamic pump body 3 to work;

[0126] B2. The pressure sensor monitors the output pressure value and judges whether the monitored output pressure value exceeds the set pressure value range:

[0127] If so, keep the valve opening of the proportional valve 53 constant, and the dynamic pump body 3 enters the pressure holding state;

[0128] If not, feedback the signal to the proportional valve 53 and moderately increase the valve opening of the proportional valve 53 until the valve opening of the proportional valve 53 remains constant when the output pressure value is within the set pressure value range;

[0129] In the pressure holding state, if the stop key is manually pressed, the proportional valve 53 closes, the pressure relief valve 8 opens, the output pressure value becomes 0, and the device enters the standby state.

[0130] In this embodiment, after the device completes the parameter setting, it can perform one - key automatic operation, which has the advantages of simple operation, high efficiency, and being suitable for large - batch production.

[0131] The embodiment of the present utility model provides a semi - automated dynamic boosting pump device independently designed and developed, which is convenient for improving the intelligent and convenient operation of production, can be mass - produced, reduce costs, and thus improve the production efficiency and quality of products.

[0132] The advantages or beneficial effects of adopting the above technical solution are as follows: The semi-automatic dynamic booster pump equipment provided by the present utility model realizes the supply of stable and controllable dynamically pressurized water flow by integrating a dynamic pump body and a multi-way connector. The semi-automatic operation mode simplifies the operation process, reduces the burden on operators, and improves production efficiency. In addition, the equipment is also equipped with a pressure relief valve, which can relieve the pressure of the pressurized water flow and then return it to the water supply end through a return pipeline, effectively avoiding the waste of water resources, reflecting the design concept of environmental protection, and at the same time bringing significant cost-saving benefits to users.

[0133] The above are only the preferred embodiments of the present utility model, and do not limit the implementation manners and protection scope of the present utility model. For those skilled in the art, it should be realized that all equivalent replacements and obvious changes made by using the content of this specification and the drawings should be included in the protection scope of the present utility model.

Claims

1. A semi - automated dynamic booster pump device, characterized in that, Comprising: A dynamic pump body, the first input end of the dynamic pump body is controllably connected to a water supply end through a water supply pipeline, and the second input end of the dynamic pump body is controllably connected to a gas source end through a first gas supply pipeline; A multi-way connector, the input end of the multi-way connector is connected to the output end of the dynamic pump body, and the first output end of the multi-way connector is connected to a pressure supply output port; A pressure relief valve, the first input end of the pressure relief valve is connected to the second output end of the multi-way connector, the second input end of the pressure relief valve is controllably connected to the gas source end through a second gas supply pipeline, and the output end of the pressure relief valve is connected to the water supply end through a return pipeline.

2. The semi-automatic dynamic pressure boosting pump device according to claim 1, wherein, The water supply pipeline comprises: A filter, one end of the filter is connected to the liquid outlet of the water supply end through a first joint, and the other end of the filter is connected to a ball valve; A first pipeline, one end of the first pipeline is connected to the ball valve through a second joint, and the other end of the first pipeline is connected to the first input end of the dynamic pump body through a third joint.

3. The semi-automatic dynamic pressure boosting pump device according to claim 2, wherein The first joint and the filter are connected by an elbow.

4. The semi-automated dynamic pressure boosting pump device according to claim 1, characterized in that, The gas source end comprises: A gas source processor, the input end of the gas source processor is connected to a second pipeline through a fourth joint to access a gas source, and the output end of the gas source processor is connected to one end of a third pipeline through a fifth joint; A three-way joint, the first end of the three-way joint is connected to the other end of the third pipeline, the second end of the three-way joint is connected to the first gas supply pipeline, and the third end of the three-way joint is connected to the second gas supply pipeline.

5. The semi-automatic dynamic pressure boosting pump device according to claim 1, characterized in that, The first gas supply pipeline comprises: A proportional valve, the input end of the proportional valve is connected to a fourth pipeline through a sixth joint to access the gas source end, the output end of the proportional valve is connected to one end of a fifth pipeline through a seventh joint, and the other end of the fifth pipeline is connected to the second input end of the dynamic pump body through an eighth joint.

6. The semi - automated dynamic supercharging pump device according to claim 1, characterized in that, It further comprises: A first pressurization pipeline, one end of the first pressurization pipeline is threadedly connected to a conversion joint, the conversion joint is threadedly connected to the output end of the dynamic pump body, and the other end of the first pressurization pipeline is threadedly connected to the input end of the multi-way connector; A second pressurization pipeline, one end of the second pressurization pipeline is threadedly connected to the first output end of the multi-way connector, and the other end of the second pressurization pipeline is threadedly connected to the pressure supply output port; A third pressurization pipeline, one end of the third pressurization pipeline is threadedly connected to the second output end of the multi-way connector, and the other end of the third pressurization pipeline is threadedly connected to the first input end of the pressure relief valve.

7. The semi-automatic dynamic pressure boosting pump device according to claim 6, wherein, The first pressurization pipeline, the second pressurization pipeline and the third pressurization pipeline respectively comprise: A high-pressure pipe, two transition sleeves and two compression nuts, the transition sleeves are respectively sleeved at both ends of the high-pressure pipe, and the two compression nuts are respectively sleeved on the transition sleeves and the high-pressure pipe.

8. The semi-automatic dynamic booster pump device according to claim 1, characterized in that, A pressure monitoring device is further provided on the multi-way connector, and the pressure monitoring device is located between the multi-way connector and the pressure supply output port.

9. The semi - automated dynamic supercharging pump device according to claim 1, characterized in that, The second gas supply pipeline comprises: A solenoid valve, the input end of the solenoid valve is connected to a sixth pipeline through a ninth joint to access a gas source, the output end of the solenoid valve is connected to one end of a seventh pipeline through a tenth joint, and the other end of the seventh pipeline is connected to a second input end of the pressure relief valve through an eleventh joint.

10. The semi-automated dynamic supercharging pump device according to claim 1, characterized in that, The reflux pipeline includes: An eighth pipeline, one end of the eighth pipeline is connected to the output end of the pressure relief valve through a twelfth joint, the other end of the eighth pipeline is connected to a thirteenth joint through a fourteenth joint, and the fourteenth joint is connected to a liquid return port of the water supply end.

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