Integrated intelligent integrated pump station with sterilization and disinfection functions and method

Abstract

The invention discloses an integrated intelligent pump station with sterilization and disinfection functions and a method, and relates to the technical field of integrated pump stations, the integrated intelligent pump station comprises a conveying pipe network which is communicated with a conveying unit and dispatches water under the action of the conveying unit, and the conveying pipe network comprises a plurality of independent connecting pipes; the connecting pipes are connected through a configuration assembly capable of rotatably adjusting the positions of the connecting pipes, and the configuration assembly configures different connecting pipes for communication; the monitor is arranged on the outer side of the configuration assembly and used for obtaining whether the connecting position of the connecting pipe and the configuration assembly leaks water or not, a plurality of correction assemblies used for changing the connecting state of the connecting pipe and the configuration assembly are installed on the outer side of the configuration assembly, and the correction assemblies are matched with the monitor to determine the specific problem corresponding to water leakage. According to the pump station, when water leaks at the connecting position of the pipe network, the connecting state of the connecting position of the pipe network can be adjusted, the communicating position of the pipe network is changed, and the connecting pipe at the position where the water leaks is switched.

Description

Technical Field

[0001] The present invention relates to the technical field of integrated pump stations, and specifically to an integrated intelligent integrated pump station and method with sterilization and disinfection functions. Background Art

[0002] The integrated intelligent pump station is an integrated water pump system that combines intelligent technology and can achieve real-time monitoring and remote control of water pump operation. This type of pump station usually includes sensors, controllers and communication modules, which can optimize the operation efficiency of water pumps, reduce energy consumption and improve system reliability and stability through data collection and analysis.

[0003] Announcement No. CN214301963U discloses an intelligent integrated pump station with a pipe network leakage alarm function, including a device body, a water outlet pipe fixedly connected to the front side of the device body, a water flow pressure sensor fixedly connected to the top of the water outlet pipe, the bottom of the water flow pressure sensor penetrates into the inner cavity of the water outlet pipe, a mounting column fixedly connected to the top of the device body, a mounting plate movably connected to the left side of the mounting column, an alarm fixedly connected to the top of the mounting plate, a fixed block fixedly connected to the top of the device body, and a positioning plate movably connected to the front side of the fixed block. The problem that the existing intelligent integrated pump station has no alarm device when the internal pipe network leaks, and the user cannot know the internal fault in the first time, which leads to the failure to repair the internal fault in time, causing the internal circuit of the pump station to short-circuit, causing the entire pump station to be paralyzed, reducing practicality and convenience, and inconvenient for users to use.

[0004] Leakage at the pipe network connection of the pump station is usually caused by the following reasons: Loose joints: The nuts or screws at the joints are loose, causing water leakage; Pipeline wear: Long-term use causes wear and tear on the pipeline surface and cracks; Sealing ring damage: The sealing ring is aged or damaged and cannot effectively prevent water leakage; Installation issues: Failure to properly align or tighten connections during installation can lead to leaks.

[0005] However, monitoring the water flow and water pressure status of the pipeline network cannot accurately determine whether water seepage occurs at the pipeline connection. After the leakage status is obtained, the connection status of the pipeline cannot be adjusted immediately. This is particularly obvious in outdoor smart pump stations in winter. After damage and water seepage occur, the connection status of the water pipe cannot be adjusted in time. The harm to the pump station is particularly obvious after freezing. For this reason, the present invention proposes an integrated smart integrated pump station that can adjust the pipeline network according to the leakage status of the pipeline network connection. Summary of the invention

[0006] One of the purposes of the present invention is to provide an integrated intelligent integrated pump station and method with sterilization and disinfection functions. When water leakage occurs at the connection position of the pump station pipeline, the leakage position can be adjusted according to the pipeline status, the transportation status of the pipeline can be ensured, and the pipeline at the leakage position can be adjusted.

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions: an integrated intelligent integrated pump station with sterilization and disinfection functions, including a delivery unit configured in the pump station and a control system for controlling the pump station, the control system obtains pump station parameters through sensors and adjusts the delivery parameters of the delivery unit, and a water reservoir is arranged between the delivery units; It also includes: a cabinet body, which is installed on the ground, and the conveying unit, the water storage tank, and the sterilization and disinfection equipment are all arranged inside the cabinet body. The control system is installed at the cabinet door for displaying and controlling the parameters of the pump station; The delivery pipe network is connected to the delivery unit, and water is dispatched under the action of the delivery unit. The delivery pipe network includes a plurality of separate connecting pipes, and the connecting pipes are connected by a configuration component that can rotatably adjust the position of the connecting pipes. The configuration component is configured to connect different connecting pipes; The monitor is arranged outside the configuration component to obtain whether there is water leakage at the connection position between the connecting pipe and the configuration component. A plurality of correction components for changing the connection state between the connecting pipe and the configuration component are installed outside the configuration component. The correction components cooperate with the monitor to determine the specific problem corresponding to the water leakage.

[0008] In one or more embodiments of the present invention, a plurality of connecting pipes are arranged on one side / both sides of the configuration component, and the plurality of connecting pipes are installed on the outside of the configuration component through joints. Only one pair of connecting pipes on both sides of the configuration component is in a connected state, and the connecting pipes can transport water in the connected state. A plurality of connection components are arranged on one side / both sides of the configuration component, the connection components are connected to the connection pipes, and the connection components can be detached from the configuration component when they are within a specific angle range of the configuration component.

[0009] In one or more embodiments of the present invention, the monitor includes: A mounting frame, which is clamped and mounted on the outside of the connecting pipe, and an annular groove is arranged inside the mounting frame; A detection sensor is disposed inside the annular groove and is capable of annular sliding, and a detection end of the detection sensor extends toward a connection position between the connection pipe and the connection assembly; The guide plate is annularly arranged on the outside of the mounting frame. The guide plate is conically arranged and extends to the connection position of the connecting pipe and the connecting assembly.

[0010] In one or more embodiments of the present invention, the configuration component includes: A base is located between the connecting pipes, a chuck is arranged on one side of the base corresponding to the multiple connecting pipes, the chuck is rotatably mounted on the outside of the base and can rotate relative to the base, and the connecting assembly is mounted on the inside of the chuck; A sealing member is disposed between the base and the chuck, the sealing member is elastically disposed, and the sealing member has a cavity; A magnetic control component is arranged inside the base, and the magnetic control component squeezes the seal and changes the pressure of the medium inside the cavity by changing the state of magnetic force; The squeezing of the seal by the magnetic control assembly corresponds to the motion state of the chuck. When the chuck rotates, the squeezing force of the seal by the magnetic control assembly is smaller than that when the chuck stops.

[0011] In one or more embodiments of the present invention, the configuration component further includes: A driving assembly is installed inside the base, a driving end of the driving assembly is connected to the chuck and drives the chuck to change its angle, a partition is arranged inside the chuck, the partition is located inside the chuck and can rotate relative to the chuck; A support member is disposed between the partition plate and the chuck; The driving assembly engages the partition and drives the partition to rotate. The partition rotates to squeeze the support member. When the support member is in an extreme compression state, the partition and the chuck rotate synchronously. When the driving assembly is in a stopped state, the support member is in a supporting state.

[0012] In one or more embodiments of the present invention, the magnetron assembly comprises: The electromagnet is fixed inside the base, and an extrusion plate is arranged outside the electromagnet. The extrusion plate is magnetically arranged. The electromagnet changes the position of the extrusion plate through magnetic force, and the extrusion plate fits the seal and extrudes the seal; The drive components include: The driving motor is installed inside the base. A gear is arranged at the output end of the driving motor. The inner side of the partition is provided with internal teeth meshing with the gear. The driving motor drives the partition to rotate through the gear.

[0013] In one or more embodiments of the present invention, the connection assembly includes: The chuck head is detachably mounted on the inner side of the chuck, and a sealing ring is arranged between the chuck head and the chuck to seal the chuck head and the chuck, and the cross section of the sealing ring is V-shaped; The telescopic tube is movably arranged inside the clamping head. An elastic tube is arranged between the telescopic tube and the clamping head for connection. The elastic tube is arranged in a frustum shape. The telescopic tube is extended and retracted to make the elastic tube bend and deform.

[0014] In one or more embodiments of the present invention, a baffle is disposed outside the chuck, the baffle is fixed to the inside of the chuck by bolts and restricts the chuck, and the baffle extends into the inside of the chuck and contacts the chuck; The contact position between the clamp head and the baffle plate protrudes outwards, and after the baffle plate is installed, the clamp head is squeezed to make the clamp head closely contact the sealing ring; A nut, which is threadably mounted on the outside of the telescopic tube and mounts the connecting tube; The positioning block is located inside the clamp and limits the rotation of the telescopic tube.

[0015] In one or more embodiments of the present invention, the correction component includes: A sleeve is arranged outside the nut, and a retractable engaging block is arranged inside the sleeve. The engaging block is retracted and retracted according to the pressure change inside the sleeve, and the engaging block can engage with the nut; A collar is arranged outside the sleeve, and the collar is movably sleeved on the outside of the sleeve; A servo motor is installed outside the base. A driving disk is installed at the output end of the servo motor. When the driving disk is engaged with the sleeve, the driving disk drives the sleeve to rotate. A torque sensor is installed on the servo motor to obtain the rotation load of the sleeve. A magnetic block is arranged outside the collar, and the magnetic block is installed in an annular manner outside the collar. Magnetic rings are arranged outside the driving disk and the chuck to cooperate with the magnetic block, and the magnetic ring and the magnetic block magnetically adjust the position of the collar; The pressing piece is arranged inside the sleeve, and the chamber is arranged inside the sleeve. The movement of the pressing piece adjusts the position of the medium inside the sleeve.

[0016] The present invention also provides a method for configuring a pipeline network of an integrated intelligent integrated pump station, which is used for the integrated intelligent integrated pump station, and comprises the following steps: The monitor obtains the water leakage condition of the connection position between the connecting pipe and the configuration component, and determines whether there is water leakage between the connecting pipe and the configuration component; When water leaks at the connection position between the connecting pipe and the configuration component, the configuration component drives the connecting pipe to move and changes the position of the connecting pipe; The correction component determines whether the connection between the connecting pipe and the configuration component is loose. If the connection between the connecting pipe and the configuration component is loose, the loose position is tightened; if the connection between the connecting pipe and the configuration component is not loose, the connection between the connecting pipe and the configuration component is loosened.

[0017] Through the above technical solution, the present invention has the following beneficial effects: 1. When water leakage occurs at the connection position of the pipeline network, the pump station proposed by the present invention can adjust the connection state of the connection position of the pipeline network, change the connection position of the pipeline network, and switch the connecting pipe at the leakage position. When water leakage occurs, it can be adjusted in the first time to avoid the harm caused by the leakage, thereby ensuring the safety and stability of the pump station during operation.

[0018] 2. By installing multiple connecting pipes for connection, when one of the connecting pipes has a problem, the position of the connecting pipe can be adjusted and the connecting pipe without the problem can be used for connection and transportation, thus ensuring the stability of the connecting pipe transportation, avoiding the spread of the impact of water leakage, and ensuring the safety of the electrical components inside the pump station.

[0019] 3. When a problem occurs in the connecting pipe, the correction component is used to adjust the state of the nut, judge the state of the connecting pipe and the load change, determine whether the nut is loose, and change the connection state of the connecting pipe according to the loose state of the nut. The leakage caused by the loose connection of the connecting pipe does not require manual intervention and adjustment, avoiding the trouble of manual maintenance.

[0020] 4. The state of the nut is controlled by connecting the correction component to the nut. The nut is engaged with the engagement block so that the nut is restricted by the engagement block. When the correction component is actuated, the nut moves synchronously to adjust the connection state.

[0021] Other features and advantages of the present invention will be described in the following description, and part of them will become obvious from the description, or will be understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description and the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A perspective view of the present invention; Figure 2 This is a schematic diagram of the cabinet door removal structure of the present invention; Figure 3 It is a schematic diagram of the internal partial structure of the present invention; Figure 4 It is a schematic diagram of the local structure of the present invention; Figure 5 It is a schematic diagram of a single configuration component of the present invention; Figure 6 is a schematic diagram of a monitor of the present invention; Figure 7 The correction component of the present invention is shown in FIG. Figure 1 ; Figure 8 The correction component of the present invention is shown in FIG. Figure 2 ; Fig. 9 It is a schematic diagram of the internal structure of the base of the present invention; Fig.10 is a cross-sectional view of a connection assembly of the present invention; Fig.11 is a cross-sectional view of a sleeve of the present invention; Fig.12 An exploded view of the connection assembly of the present invention; Fig.13 It is a schematic diagram of the base and chuck structure of the present invention; Fig.14 is a plan view of the base of the present invention; Fig.15 It is a schematic diagram of the sealing structure of the present invention.

[0023] In the figure: 1 delivery unit, 2 control system, 3 water reservoir, 4 sterilization and disinfection equipment, 5 cabinet, 6 delivery pipe network, 7 monitor, 8 correction component; 61 connecting pipe, 62 configuration component, 63 connecting component, 64 base, 65 chuck, 66 sealing component, 67 magnetic control component, 68 driving component, 69 partition; 621 a clamp, 622 a sealing ring, 623 a telescopic tube, 624 an elastic tube, 625 a baffle, 626 a nut; 671 electromagnet, 672 extrusion plate; 681 driving motor, 682 gear; 71 mounting frame, 72 detection sensor, 73 guide plate; 81 sleeve, 82 engagement block, 83 collar, 84 servo motor, 85 drive disk, 86 pressing sheet, 87 magnetic ring, 88 magnetic block. DETAILED DESCRIPTION

[0024] The following will disclose multiple embodiments of the present invention with the accompanying drawings. For the purpose of clear description, many practical details will be described together in the following description. However, it should be understood that these practical details should not be used to limit the present invention. In other words, in some embodiments of the present invention, these practical details are not necessary. And if it is possible to implement, the features of different embodiments can be applied interchangeably.

[0025] Unless otherwise defined, all words (including technical and scientific terms) used herein have their usual meanings, which can be understood by those familiar with this field. Furthermore, the definitions of the above words in commonly used dictionaries should be interpreted in the content of this specification as consistent with the meanings of the relevant fields of the present invention. Unless otherwise clearly defined, these words will not be interpreted as idealized or overly formal meanings.

[0026] The present invention provides an integrated intelligent integrated pump station with sterilization and disinfection functions, which realizes real-time monitoring and remote control of water pump operation, sterilizes and disinfects water during water treatment to meet water demand, and can take targeted measures when water leakage occurs in the pump station pipe network; like Figure 1-3As shown, it includes a delivery unit 1 configured in a pump station and a control system 2 for controlling the pump station. The control system 2 obtains pump station parameters through sensors and adjusts the delivery parameters of the delivery unit 1. A water reservoir 3 is arranged between the delivery units 1. The water reservoir 3 and the pump station outlet pipe or a sterilization and disinfection device 4 are configured to ensure water quality safety; The conveying unit 1 is a motor that drives the pump to rotate to realize the dispatching control of the water inside the pump station; Optionally, the water reservoir 3 is arranged inside the cabinet 5 and the size of the water reservoir 3 is limited. The water reservoir 3 ensures the safety of water quality during the water storage process by adding chemical disinfectants or using ultraviolet disinfection equipment; Alternatively, an ultraviolet disinfector or an ozone generator may be installed at the outlet of the pump station to disinfect the water in the pipeline to ensure water quality safety; It also includes: a cabinet 5 installed on the ground, the conveying unit 1, the water reservoir 3, and the sterilization and disinfection equipment 4 are all arranged inside the cabinet 5, and the control system 2 is installed at the cabinet door for displaying and controlling the parameters of the pump station; The delivery pipe network 6 is connected to the delivery unit 1, and water is dispatched under the action of the delivery unit 1. The delivery pipe network 6 includes a plurality of separate connecting pipes 61, and the connecting pipes 61 are connected by a configuration component 62 that can rotatably adjust the position of the connecting pipes 61. The configuration component 62 configures different connecting pipes 61 for communication; The monitor 7 is arranged outside the configuration component 62 to obtain whether there is water leakage at the connection position between the connecting pipe 61 and the configuration component 62. A plurality of correction components 8 for changing the connection state between the connecting pipe 61 and the configuration component 62 are installed outside the configuration component 62. The correction components 8 cooperate with the monitor 7 to determine the specific problem corresponding to the water leakage.

[0027] In one feasible method, the connection state between the connecting pipes 61 inside the pump station is changed so that the connecting pipes 61 are connected to the configuration component 62. The configuration component 62 can be used to adjust the connection between different connecting pipes 61, and the configuration component 62 connects multiple connecting pipes 61 on both sides of the configuration component 62. When water leakage occurs at the connection position between the connecting pipe 61 and the configuration component 62, the connecting pipes 61 connected on both sides can be changed to prevent water from flowing through the leaking connecting pipe 61.

[0028] The correction component 8 is coordinated with the monitor 7 to match the specific problem corresponding to the water leakage. The setting of the correction component 8 can be used to avoid some problems. Water leakage at the connection position also corresponds to the problem of loose joints. After the joint is affected by vibration for a long time, the sealing ring 622 lacks extrusion deformation, resulting in water leakage at the connection position. After the water leakage problem is determined, the correction component 8 can be used to tighten the joint to avoid water leakage in the connecting pipe 61, and there is no need to replace the connecting pipe 61.

[0029] like Figure 3-4 As shown, in one embodiment, a plurality of connecting pipes 61 are arranged on one side / both sides of the configuration component 62, and the plurality of connecting pipes 61 are all installed on the outside of the configuration component 62 through joints, and only one pair of connecting pipes 61 on both sides of the configuration component 62 is in a connected state, and the connecting pipes 61 can convey water in the connected state; A plurality of connection components 63 are arranged on one side / both sides of the configuration component 62 . The connection components 63 are connected to the connection pipe 61 . When the connection components are within a specific angle range of the configuration component 62 , they can be detached from the configuration component 62 .

[0030] In one feasible manner, the setting of the connecting component 63 can facilitate the replacement of the connecting pipe 61. When water leaks at the connection position between the connecting pipe 61 and the connecting component 63, the configuration component 62 changes the connecting pipe 61 connected on both sides and adjusts the leaking connecting pipe 61 to a fixed angle range, so that the connecting component 63 or the connecting pipe 61 can be detached, and the connecting pipe 61 can be replaced during maintenance.

[0031] Among them, the configuration component 62 determines whether to set multiple connection components 63 on one side or on both sides according to its installation position. The correction component 8 is set on one side of the multiple connection components 63, and the axes of the multiple connection pipes 61 between the two configuration components 62 are parallel.

[0032] like Figure 5-6 As shown, in one embodiment, the monitor 7 includes: A mounting frame 71, which is clamped and mounted on the outside of the connecting pipe 61, and an annular groove is arranged inside the mounting frame 71; A detection sensor 72 is disposed inside the annular groove and is capable of annular sliding, and a detection end of the detection sensor 72 extends toward a connection position between the connection pipe 61 and the connection assembly 63; The guide plate 73 is annularly arranged outside the mounting frame 71 . The guide plate 73 is conical and extends to the connection position between the connecting pipe 61 and the connecting assembly 63 .

[0033] In one practicable manner, the guide plate 73 can guide water to flow along the outer side of the guide plate 73 to the detection end of the detection sensor 72 when water leakage occurs at the connection position between the connecting pipe 61 and the connecting assembly 63, thereby detecting the water leakage through the detection end.

[0034] Optionally, the detection sensor 72 is a conductivity sensor that uses the conductivity of water to detect water leakage. When water exists between the electrodes of the sensor, an alarm is triggered.

[0035] The detection sensor 72 is arranged to move in a circular motion along the axis of the connecting tube 61 , so that the position of the detection end can be determined according to the different positions of the connecting tube 61 , and the positions of multiple connecting tubes 61 can be acquired.

[0036] In another embodiment, the connecting pipe 61 on the other side will be connected only when it is rotated to a specific angle of the configuration component 62. Therefore, the detection sensor 72 is fixed on the inner side of the mounting frame 71. It is only necessary that the detection end is located at the lower part of the connecting pipe 61 when the connecting pipe 61 is in a connected state to detect water leakage.

[0037] like Figure 7 as well as Figure 12-15 As shown, in one embodiment, the configuration component 62 includes: The base 64 is located between the connecting tubes 61. A chuck 65 is provided on one side of the base 64 corresponding to the connecting tubes 61. The chuck 65 is rotatably mounted on the outer side of the base 64 and can rotate relative to the base 64. The connecting assembly 63 is mounted on the inner side of the chuck 65. A sealing member 66 is disposed between the base 64 and the chuck 65 , and the sealing member 66 is elastically disposed and has a cavity; The magnetic control component 67 is arranged inside the base 64, and the magnetic control component 67 squeezes the sealing member 66 and changes the pressure of the medium inside the cavity by changing the state of the magnetic force; The squeezing of the seal 66 by the magnetron assembly 67 corresponds to the motion state of the chuck 65 . When the chuck 65 rotates, the squeezing force of the seal 66 by the magnetron assembly 67 is smaller than when the chuck 65 stops.

[0038] In one feasible manner, since the chuck 65 needs to move to change the connection state of the connecting tubes 61 on both sides, in order to ensure good sealing between the chuck 65 and the base 64, a seal 66 with an internal cavity can be provided. When the magnetic control component 67 squeezes the seal 66, the volume of the cavity of the seal 66 becomes smaller and the medium pressure increases, so that the seal 66 is further pressed against the base 64 and the chuck 65 to ensure sealing. When the magnetic control component 67 does not squeeze the seal 66, the volume of the cavity of the seal 66 is restored and the pressure of the medium is restored, so that the chuck 65 is easy to rotate and adjust.

[0039] The base 64 can be fixed inside the cabinet 5 to ensure the stability of the base 64 .

[0040] like Figure 8-9 As shown, in one embodiment, the configuration component 62 further includes: A driving assembly 68 is installed inside the base 64. The driving end of the driving assembly 68 is connected to the chuck 65 and drives the chuck 65 to change its angle. A partition 69 is provided inside the chuck 65. The partition 69 is located inside the chuck 65 and can rotate relative to the chuck 65. A support member, disposed between the partition plate 69 and the chuck 65; The driving assembly 68 engages the partition 69 and drives the partition 69 to rotate. The partition 69 rotates to extrude the support member. When the support member is in an extreme compression state, the partition 69 rotates synchronously with the chuck 65. When the driving assembly 68 is in a stopped state, the support member is in a supporting state.

[0041] Optionally, the support member is a compression spring, and both ends of the compression spring contact the partition plate 69 and the chuck 65 respectively. The partition plate 69 rotates to squeeze the compression spring. When the compression spring is in the ultimate compression state, the partition plate 69 and the chuck 65 rotate synchronously. Alternatively, the support member is a spring sheet, which is arranged in an arc shape, with both ends of the spring sheet contacting the partition 69 and the chuck 65 respectively. A support rod is also arranged outside the spring sheet to support the spring sheet, and a medium is filled inside the support rod, and the spring sheet bends to compress the medium.

[0042] In one feasible manner, the chuck 65 is restricted by the partition 69 to form a seal for the connection state of the connecting tube 61, thereby preventing the water pressure inside the connecting tube 61 from causing water to enter between the base 64 and the chuck 65 during the rotation of the chuck 65. Before the chuck 65 rotates, the chuck 65 is sealed by the partition 69, and then the chuck 65 is driven to rotate to switch the connection state between the connecting tubes 61.

[0043] like Fig. 9 and Figure 14-15 As shown, in one embodiment, the magnetron assembly 67 includes: The electromagnet 671 is fixed inside the base 64. A squeezing plate 672 is arranged outside the electromagnet 671. The squeezing plate 672 is magnetically arranged. The electromagnet 671 changes the position of the squeezing plate 672 by magnetic force. The squeezing plate 672 is attached to the sealing member 66 and squeezes the sealing member 66. The drive assembly 68 includes: The driving motor 681 is installed inside the base 64 . A gear 682 is provided at the output end of the driving motor 681 . The inner side of the partition 69 is provided with internal teeth that mesh with the gear 682 . The driving motor 681 drives the partition 69 to rotate through the gear 682 .

[0044] In one feasible method, the position of the extrusion plate 672 is controlled by the electromagnet 671, and the extrusion plate 672 is used to squeeze the seal 66 to change the state of the cavity of the seal 66, thereby adjusting the medium pressure inside the cavity. The medium pressure inside the cavity determines the state of the seal 66.

[0045] By using the driving motor 681 to drive the partition plate 69 to rotate via the gear 682 , the rotation angle of the chuck 65 can be controlled more stably, so as to facilitate the centering of the chuck 65 .

[0046] The sealing member 66 is provided with a special structure to achieve sealing between the base 64 and the chuck 65 .

[0047] like Figure 10-12 As shown, in one embodiment, the connection component 63 includes: The clamp head 621 is detachably mounted on the inner side of the chuck 65. A sealing ring 622 is arranged between the clamp head 621 and the chuck 65 to seal the clamp head 621 and the chuck 65. The cross section of the sealing ring 622 is V-shaped. The telescopic tube 623 is movably disposed inside the clamping head 621 . An elastic tube 624 is disposed between the telescopic tube 623 and the clamping head 621 . The elastic tube 624 is arranged in a frustum shape. The telescopic tube 623 is extended and retracted to cause the elastic tube 624 to bend and deform.

[0048] In one feasible manner, the telescopic tube 623 is configured to be able to generate movement when the connecting tube 61 is disassembled, so as to facilitate the connection tube 61 to be separated from the connection assembly 63, and due to the configuration of the elastic tube 624, the telescopic tube 623 can obtain a certain displacement through the elastic tube 624 while ensuring stable communication with the clamping head 621.

[0049] Due to the conical setting of the elastic tube 624, after the telescopic tube 623 is compressed, the elastic tube 624 is deformed, which ensures the stability of the connected state and a certain displacement, which makes it more convenient to disassemble and assemble the connecting tube 61.

[0050] like Figure 10-12 As shown, in one embodiment, a baffle 625 is disposed outside the clamp head 621, and the baffle 625 is fixed to the inside of the chuck 65 by bolts and restricts the clamp head 621, and the baffle 625 extends into the inside of the chuck 65 and contacts the clamp head 621; The contact position between the clamp head 621 and the baffle 625 protrudes outwards, and after the baffle 625 is installed, the clamp head 621 is squeezed so that the clamp head 621 is in close contact with the sealing ring 622; The nut 626 is threadably mounted on the outside of the telescopic tube 623 and mounted on the connecting tube 61; The positioning block is located inside the clamping head 621 and limits the rotation of the telescopic tube 623 .

[0051] In one implementable method, the sealing ring 622 is made of elastic material. In order to ensure a stable seal between the chuck 621 and the chuck 65, it is necessary to use the deformation of the sealing ring 622 to ensure the stability of the seal. The baffle 625 is used to squeeze the chuck 621 so that the chuck 621 can stably contact the sealing ring 622 and apply pressure to the sealing ring 622 to ensure the sealing stability through the deformation of the sealing ring 622. The squeezing force of the chuck 621 on the sealing ring 622 is controlled by the tightness of the bolt and can be adjusted according to different conditions.

[0052] like Figure 5-9 As shown, in one embodiment, the correction component 8 includes: The sleeve 81 is arranged outside the nut 626. The sleeve 81 has a retractable engagement block 82 disposed inside. The engagement block 82 is retracted and retracted according to the pressure change inside the sleeve 81. The engagement block 82 can engage with the nut 626. A collar 83 is disposed outside the sleeve 81, and the collar 83 is movably sleeved outside the sleeve 81; The servo motor 84 is installed outside the base 64. The output end of the servo motor 84 is installed with a drive disk 85. When the drive disk 85 is engaged with the collar 83, the drive disk 85 drives the sleeve 81 to rotate. The servo motor 84 is installed with a torque sensor to obtain the rotation load of the collar 83.

[0053] In one practicable manner, the sleeve 81 is engaged with the nut 626 so that the sleeve 81 can rotate the nut 626. When the connection between the nut 626 and the telescopic tube 623 becomes loose, the sleeve 81 is rotated to tighten the nut 626, and the nut 626 and the telescopic tube 623 can be removed by reverse transportation.

[0054] The nut 626 is removed by using the sleeve 81. This can prevent the nut 626 from being corroded and difficult to remove due to failure to replace the damaged connecting pipe 61 in time. It can also make it more convenient to replace the connecting pipe 61.

[0055] Optionally, meshing teeth are provided on the side where the ring 83 and the driving disk 85 are close to each other, and the meshing teeth mesh with each other to realize the transmission between the driving disk 85 and the ring 83, and the ring 83 can move within a range of 20° on the outside of the sleeve 81, so as to solve the problem that the meshing teeth cannot mesh due to the loose displacement of the sealing nut 626, and cooperate with the torque sensor to determine the stress point during the rotation of the servo motor 84.

[0056] like Figure 7-8 As shown, in one embodiment, a magnetic block 88 is arranged outside the collar 83, and the magnetic block 88 is annularly installed outside the collar 83. A magnetic ring 87 is arranged outside the driving disk 85 and the chuck 65 to cooperate with the magnetic block 88, and the magnetic ring 87 and the magnetic block 88 magnetically adjust the position of the collar 83; The pressing piece 86 is disposed inside the sleeve 81 . The sleeve 81 is provided with a chamber inside. The pressing piece 86 moves to adjust the position of the medium inside the sleeve 81 .

[0057] In one feasible manner, the magnetic ring 87 disposed on the outside of the driving disk 85 is electromagnetic ring 1, and the magnetic ring 87 disposed on the outside of the chuck 65 is electromagnetic ring 2. The position of the sleeve 83 is changed by cooperating with the magnetic block 88 through the change of the magnetic force of electromagnetic ring 1 and electromagnetic ring 2. After the position of the pressing plate 86 is changed, the position of the engaging block 82 is adjusted so that the engaging block 82 is engaged with the nut 626. When the sleeve 81 rotates, the engaging block 82 and the nut 626 can cooperate to make the nut 626 move synchronously with the engaging block 82.

[0058] The present invention also provides a method for configuring a delivery pipe network 6 of an integrated intelligent integrated pump station, which is used in the integrated intelligent integrated pump station, and comprises the following steps: The monitor 7 obtains the water leakage condition at the connection position between the connecting pipe 61 and the configuration component 62, and determines whether there is water leakage between the connecting pipe 61 and the configuration component 62; When water leaks at the connection position between the connecting pipe 61 and the configuration component 62, the configuration component 62 drives the connecting pipe 61 to move and change the position of the connecting pipe 61; The correction component 8 determines whether the connection between the connecting pipe 61 and the configuration component 62 is loose. If the connection between the connecting pipe 61 and the configuration component 62 is loose, the loose position is tightened; if the connection between the connecting pipe 61 and the configuration component 62 is not loose, the connection between the connecting pipe 61 and the configuration component 62 is loosened.

[0059] Although the present invention is disclosed in conjunction with the above embodiments, it is not intended to limit the present invention. Anyone familiar with this technology can make various changes and modifications without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention should be based on the definition of the attached claims.

Claims

1. An integrated intelligent pump station with a sterilization and disinfection function, comprising a delivery unit (1) arranged in the pump station and a control system (2) for controlling the pump station, wherein the control system (2) obtains pump station parameters through a sensor and adjusts the delivery parameters of the delivery unit (1), and a water reservoir (3) is arranged between the delivery units (1); It is characterized in that Also includes: A cabinet (5) is installed on the ground, the conveying unit (1), the water reservoir (3), and the sterilization and disinfection equipment (4) are all arranged inside the cabinet (5), and the control system (2) is installed at the cabinet door for displaying and controlling the parameters of the pump station; A delivery pipe network (6) is connected to the delivery unit (1), and water is dispatched under the action of the delivery unit (1). The delivery pipe network (6) includes a plurality of separate connecting pipes (61). The connecting pipes (61) are connected by a configuration component (62) that can rotatably adjust the position of the connecting pipes (61). The configuration component (62) configures different connecting pipes (61) for communication; The monitor (7) is arranged outside the configuration component (62) to obtain whether there is water leakage at the connection position between the connection pipe (61) and the configuration component (62). A plurality of correction components (8) for changing the connection state between the connection pipe (61) and the configuration component (62) are installed outside the configuration component (62). The correction components (8) cooperate with the monitor (7) to determine the specific problem corresponding to the water leakage.

2. The integrated intelligent integrated pump station with sterilization and disinfection function according to claim 1 is characterized in that: A plurality of connecting pipes (61) are arranged on one side or both sides of the configuration component (62); the plurality of connecting pipes (61) are all installed on the outside of the configuration component (62) through joints; only one pair of the connecting pipes (61) on both sides of the configuration component (62) is in a connected state; in the connected state, the connecting pipes (61) can convey water; A plurality of connection components (63) are arranged on one side / both sides of the configuration component (62), and the connection components (63) are connected to the connection pipe (61).

3. The integrated intelligent pump station with sterilization and disinfection function according to claim 2 is characterized in that: The monitor (7) includes: A mounting frame (71) is clamped and mounted on the outside of the connecting pipe (61), and an annular groove is arranged inside the mounting frame (71); A detection sensor (72) is disposed inside the annular groove and is capable of annular sliding, and a monitoring end of the detection sensor (72) extends toward a connection position between the connection pipe (61) and the connection assembly (63); The guide plate (73) is annularly arranged outside the mounting frame (71); the guide plate (73) is conically arranged and extends to the connection position between the connecting pipe (61) and the connecting assembly (63).

4. The integrated intelligent integrated pump station with sterilization and disinfection function according to claim 3 is characterized in that: The configuration component (62) includes: A base (64) is located between the connecting tubes (61); a chuck (65) is provided on one side of the base (64) corresponding to the plurality of connecting tubes (61); the chuck (65) is rotatably mounted on the outside of the base (64) and is rotatable relative to the base (64); and the connecting assembly (63) is mounted on the inside of the chuck (65); A sealing member (66) is disposed between the base (64) and the chuck (65), the sealing member (66) being elastically disposed and having a cavity; A magnetic control component (67) is arranged inside the base (64), and the magnetic control component (67) compresses the sealing component (66) and changes the pressure of the medium inside the cavity by changing the state of the magnetic force; The squeezing of the sealing member (66) by the magnetic control assembly (67) corresponds to the motion state of the chuck (65); when the chuck (65) rotates, the squeezing force of the sealing member (66) by the magnetic control assembly (67) is smaller than the squeezing force of the sealing member (66) by the magnetic control assembly (67) when the chuck (65) stops.

5. The integrated intelligent pump station with sterilization and disinfection function according to claim 4 is characterized in that: The configuration component (62) further includes: A driving assembly (68) is installed inside the base (64); a driving end of the driving assembly (68) is connected to the chuck (65) and drives the chuck (65) to change its angle; a partition (69) is arranged inside the chuck (65); the partition (69) is located inside the chuck (65) and can rotate relative to the chuck (65); A support member, disposed between the partition plate (69) and the chuck (65); The driving assembly (68) engages the partition (69) and drives the partition (69) to rotate, and the partition (69) rotates to extrude the support member. When the support member is in an extreme compression state, the partition (69) and the chuck (65) rotate synchronously. When the driving assembly (68) is in a stopped state, the support member is in a supporting state.

6. The integrated intelligent pump station with sterilization and disinfection function according to claim 5 is characterized in that: The magnetron assembly (67) comprises: The electromagnet (671) is fixed inside the base (64), and a pressing plate (672) is arranged outside the electromagnet (671). The pressing plate (672) is magnetically arranged. The electromagnet (671) changes the position of the pressing plate (672) by magnetic force, and the pressing plate (672) is in contact with the sealing member (66) and presses the sealing member (66). The drive assembly (68) comprises: The driving motor (681) is installed inside the base (64). A gear (682) is provided at the output end of the driving motor (681). Internal teeth are arranged on the inner side of the partition (69) to mesh with the gear (682). The driving motor (681) drives the partition (69) to rotate via the gear (682).

7. The integrated intelligent pump station with sterilization and disinfection function according to claim 6 is characterized in that: The connection assembly (63) comprises: A chuck (621) is detachably mounted on the inner side of the chuck (65); a sealing ring (622) is arranged between the chuck (621) and the chuck (65) to seal the chuck (621) and the chuck (65); the cross section of the sealing ring (622) is V-shaped; The telescopic tube (623) is movably arranged inside the clamping head (621). An elastic tube (624) is arranged between the telescopic tube (623) and the clamping head (621) to connect the two. The elastic tube (624) is arranged in a frustum shape. The telescopic tube (623) is extended and retracted to cause the elastic tube (624) to bend and deform.

8. The integrated intelligent pump station with sterilization and disinfection function according to claim 7 is characterized in that: A baffle (625) is disposed outside the chuck (621), the baffle (625) is fixed to the inside of the chuck (65) by bolts and restricts the chuck (621), and the baffle (625) extends into the inside of the chuck (65) and contacts the chuck (621); The contact position between the clamp head (621) and the baffle (625) protrudes outward, and after the baffle (625) is installed, it squeezes the clamp head (621) so that the clamp head (621) is in close contact with the sealing ring (622); A nut (626) is threadably mounted on the outside of the telescopic tube (623) and is mounted on the connecting tube (61); A positioning block is located inside the clamp (621) and limits the rotation of the telescopic tube (623).

9. The integrated intelligent integrated pump station with sterilization and disinfection function according to claim 8 is characterized in that: The correction assembly (8) comprises: A sleeve (81) is arranged outside the nut (626), and a retractable engagement block (82) is arranged inside the sleeve (81). The engagement block (82) retracts and contracts according to the pressure change inside the sleeve (81), and the engagement block (82) can engage with the nut (626); A sleeve ring (83) is arranged outside the sleeve (81), and the sleeve ring (83) is movably sleeved outside the sleeve (81); A servo motor (84) is installed outside the base (64). A drive disk (85) is installed at the output end of the servo motor (84). When the drive disk (85) is engaged with the collar (83), the drive disk (85) drives the sleeve (81) to rotate. A torque sensor is installed on the servo motor (84) to obtain the rotation load of the collar (83). A magnetic block (88) is arranged outside the collar (83), and the magnetic block (88) is annularly installed outside the collar (83). A magnetic ring (87) is arranged outside the driving disk (85) and the chuck (65) to cooperate with the magnetic block (88), and the magnetic ring (87) and the magnetic block (88) magnetically adjust the position of the collar (83); The pressing piece (86) is arranged inside the sleeve (81). The sleeve (81) is provided with a chamber inside. The pressing piece (86) moves to adjust the position of the medium inside the sleeve (81).

10. A method for configuring a transmission pipeline network (6) of an integrated intelligent integrated pump station, used for an integrated intelligent integrated pump station as claimed in any one of claims 1 to 9, characterized in that: The following steps are involved: The monitor (7) obtains the water leakage condition at the connection position between the connecting pipe (61) and the configuration component (62), and determines whether there is water leakage between the connecting pipe (61) and the configuration component (62); When water leaks at the connection position between the connecting pipe (61) and the configuration component (62), the configuration component (62) drives the connecting pipe (61) to move and changes the position of the connecting pipe (61); The correction component (8) determines whether the connection between the connecting pipe (61) and the configuration component (62) is loose, and if the connection between the connecting pipe (61) and the configuration component (62) is loose, tightens the loose position; if the connection between the connecting pipe (61) and the configuration component (62) is not loose, loosens the connection between the connecting pipe (61) and the configuration component (62).

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