WO2026021089A1 - 一种智慧型管网叠压供水一体化机 - Google Patents

一种智慧型管网叠压供水一体化机

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Publication number
WO2026021089A1
WO2026021089A1 PCT/CN2025/102774 CN2025102774W WO2026021089A1 WO 2026021089 A1 WO2026021089 A1 WO 2026021089A1 CN 2025102774 W CN2025102774 W CN 2025102774W WO 2026021089 A1 WO2026021089 A1 WO 2026021089A1
Authority
WO
WIPO (PCT)
Prior art keywords
outlet pipe
chamber
water outlet
adsorption
water
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
PCT/CN2025/102774
Other languages
English (en)
French (fr)
Inventor
李加喜
鄂磊磊
聂利
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Shanghai Chenfei Water Technology Co Ltd
Original Assignee
Shanghai Chenfei Water Technology Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Shanghai Chenfei Water Technology Co Ltd filed Critical Shanghai Chenfei Water Technology Co Ltd
Publication of WO2026021089A1 publication Critical patent/WO2026021089A1/zh
Pending legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Classifications

    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00—Treatment of water, waste water, or sewage
    • C02F1/28—Treatment of water, waste water, or sewage by sorption
    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00—Treatment of water, waste water, or sewage
    • C02F1/001—Processes for the treatment of water whereby the filtration technique is of importance
    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2303/00—Specific treatment goals
    • C02F2303/14—Maintenance of water treatment installations
    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F2307/00—Location of water treatment or water treatment device
    • C02F2307/14—Treatment of water in water supply networks, e.g. to prevent bacterial growth

Definitions

  • This application relates to the technical field of water supply equipment, and in particular to an intelligent integrated water supply system with superimposed pressure in a pipeline network.
  • the intelligent integrated water supply system with superimposed pressure is an advanced system that combines modern technology with traditional water supply equipment.
  • This equipment uses an intelligent control system to monitor and adjust the water supply pressure in real time to meet different water demands at different times, achieving a highly efficient and energy-saving water supply method.
  • This equipment is widely used in urban water supply, industrial water supply, and other fields, improving the efficiency and reliability of water supply systems while reducing energy consumption and water waste.
  • an adsorption component is usually installed at the inlet end of the main body of the equipment.
  • the adsorption component includes an orifice plate and an adsorption layer. Two orifice plates are installed at intervals in the water inlet pipe of the main body of the equipment.
  • the adsorption layer is usually activated carbon granules, which are filled between the two orifice plates to adsorb impurities in the water and prevent impurities or particulate matter from damaging the main body of the equipment.
  • the adsorption layer is a consumable.
  • this application provides an intelligent integrated water supply system with a superimposed pressure system.
  • a smart integrated water supply system with a superimposed pressure network includes a main body and a filter cartridge.
  • the filter cartridge is connected to an inlet pipe, a first outlet pipe, and a second outlet pipe.
  • Adsorption components are installed at the inlet ends of both the first and second outlet pipes.
  • the outlet ends of both the first and second outlet pipes are connected to the inlet end of the main body.
  • An isolation support plate is rotatably installed inside the filter cartridge, dividing the interior into a first chamber, a second chamber, and a third chamber.
  • the first chamber is connected to the second chamber.
  • the filter cartridge has a rotating component for driving the isolation support plate to rotate.
  • the rotation component drives the isolation support plate to rotate, forcing the first chamber to connect to the first water outlet pipe.
  • the outlet end of the water inlet pipe is connected to the second chamber, and the first and second chambers are interconnected.
  • the water introduced by the water inlet pipe flows sequentially through the second chamber, the first chamber, and the first water outlet pipe to the main body of the equipment.
  • the adsorption component corresponding to the first water outlet pipe can adsorb it, ensuring that the water quality entering the main body of the equipment meets a certain standard.
  • the isolation support plate When it is necessary to disassemble the adsorption component corresponding to the first water outlet pipe, the isolation support plate is driven to rotate, forcing the first chamber to connect to the water inlet pipe. At this time, the second chamber is connected to the second water outlet pipe.
  • the water introduced by the water inlet pipe flows sequentially through the first chamber, the second chamber, and the second water outlet pipe to the main body of the equipment.
  • the adsorption component corresponding to the second water outlet pipe can adsorb it, ensuring that the water quality entering the main body of the equipment meets a certain standard.
  • the adsorption component corresponding to the first water outlet pipe can be disassembled without water outage, reducing the possibility of prolonged water outage during the disassembly and assembly of the adsorption component.
  • the inner wall of the filter cartridge has two mounting slots, which are respectively configured to correspond to two adsorption components;
  • the adsorption component includes an adsorption seat and an adsorption layer, the adsorption seat is installed in the corresponding mounting slot, the adsorption seat has an adsorption cavity, the adsorption layer is disposed in the adsorption cavity, and the outer wall of the adsorption seat has a plurality of adsorption holes communicating with the adsorption cavity.
  • the water introduced by the inlet pipe flows from the first chamber to the first outlet pipe or from the second chamber to the second outlet pipe. During this process, the water flows into the adsorption chamber through the adsorption holes.
  • the adsorption layer in the adsorption chamber can adsorb impurities in the water, reducing the possibility of impurities or particulate matter causing damage to the main body of the equipment.
  • the inner walls of the first chamber and the second chamber are each equipped with a first limiting strip.
  • the first limiting strip of the first chamber abuts against the adsorption seat corresponding to the first water outlet pipe.
  • the second chamber rotates to connect with the second water outlet pipe, the first limiting strip of the second chamber abuts against the adsorption seat corresponding to the second water outlet pipe.
  • the first limiting strip of the first chamber blocks the adsorption seat corresponding to the first outlet pipe, thereby limiting the adsorption seat in the corresponding installation groove.
  • the second outlet pipe is connected to the third chamber, and the third chamber is not equipped with the first limiting strip, so that when the first chamber is connected to the first outlet pipe, the other adsorption component (i.e., the adsorption component corresponding to the second outlet pipe) can be disassembled and assembled.
  • the first limiting strip of the second chamber blocks the adsorption seat corresponding to the second outlet pipe, thereby limiting the adsorption seat in the corresponding installation groove.
  • the first outlet pipe is connected to the third chamber, so that the adsorption component corresponding to the first outlet pipe can be disassembled and assembled, avoiding the need to stop the water supply when disassembling and assembling the adsorption component.
  • the end face of the filter cartridge away from the main body of the equipment is provided with a disassembly port communicating with the inside of the filter cartridge.
  • a disassembly port communicating with the inside of the filter cartridge.
  • the disassembly port is provided with a cover plate.
  • the cover plate is connected to the adsorption seat in the corresponding mounting slot by a connecting rod.
  • the cover plate and the corresponding adsorption seat are connected as one unit by the connecting rod.
  • the rotating assembly includes a rotating shaft and a motor.
  • the rotating shaft is rotatably mounted inside the filter cylinder, and the isolation support plate is disposed on the peripheral wall of the rotating shaft.
  • the isolation support plate is rotatably mounted inside the filter cylinder via the rotating shaft.
  • the motor is disposed on the rotating shaft to drive the rotating shaft to rotate.
  • the output shaft of the motor is driven to rotate through the setting of the rotating shaft and the motor, thereby driving the isolation support plate to rotate, so as to switch the position of the first chamber, the second chamber and the third chamber, and thus switch the direction of water flow introduced by the inlet pipe.
  • one end of the rotating shaft extends through the end face of the filter cylinder near the cover plate and is connected to a second limiting strip.
  • the second limiting strip abuts against the cover plate corresponding to the first water outlet pipe.
  • the second limiting strip abuts against the cover plate corresponding to the second water outlet pipe.
  • the second limiting strip when the first chamber is connected to the first water outlet pipe, the second limiting strip abuts against the cover plate corresponding to the first water outlet pipe, forcing the cover plate to firmly abut against the side wall of the filter cartridge located at the disassembly port, thereby improving the sealing effect of the first chamber; when the second chamber is connected to the second water outlet pipe, the second limiting strip abuts against the cover plate corresponding to the second water outlet pipe, forcing the cover plate to firmly abut against the side wall of the filter cartridge located at the disassembly port, thereby improving the sealing effect of the second chamber.
  • the inlet end of the main body of the device is connected to a connecting pipe, and the inlet end of the connecting pipe is provided with a switching seat.
  • the switching seat has a switching cavity, and the outlet ends of the first water outlet pipe and the second water outlet pipe are both connected to the switching cavity.
  • the switching seat is provided with a switching component.
  • the switching component opens the outlet end of the first water outlet pipe and closes the outlet end of the second water outlet pipe.
  • the switching component closes the outlet end of the first water outlet pipe and opens the inlet end of the second water outlet pipe.
  • the switching component is used to open and close the outlet end of the first water outlet pipe and the outlet end of the second water outlet pipe, so that water can enter the main body of the equipment, reducing the possibility that when the first chamber is connected to the first water outlet pipe, the water flowing out of the first water outlet pipe enters the second water outlet pipe, or reducing the possibility that when the second chamber is connected to the second water outlet pipe, the water flowing out of the second water outlet pipe enters the first water outlet pipe.
  • the switching assembly includes a switching block and a driving component.
  • the switching block is slidably mounted in the switching cavity.
  • a connecting groove communicating with the connecting pipe is formed on the side wall of the switching block near the connecting pipe.
  • a first flow channel and a second flow channel communicating with the connecting groove are formed on the side wall of the switching block away from the connecting pipe.
  • the inlet end of the first flow channel is used to connect to the first water outlet pipe, and the inlet end of the second flow channel is used to connect to the second water outlet pipe.
  • the driving component is disposed between the switching block and the rotating shaft to drive the switching block to slide.
  • the switching block is provided with a first flow channel and a second flow channel to correspond to the first water outlet pipe and the second water outlet pipe respectively.
  • the driving component drives the switching block to slide, forcing the first flow channel to connect to the outlet end of the first water outlet pipe or the second flow channel to connect to the outlet end of the second water outlet pipe, thereby improving the ease of opening and closing the first water outlet pipe and the second water outlet pipe and reducing the manufacturing cost of the overall structure.
  • the driving component includes a first gear, a second gear, and a rack.
  • the first gear is rotatably mounted on the top of the switching base.
  • the output shaft of the motor is coaxially connected to the first gear.
  • One end of the rotating shaft passes through the filter cartridge and is coaxially connected to the second gear.
  • the rack is slidably mounted on the top of the switching base.
  • the switching block is connected to a connecting rod. One end of the connecting rod passes through the switching base and is connected to the rack.
  • the rack and the switching block are connected as a whole by the connecting rod.
  • the first gear and the second gear, as well as the first gear and the rack mesh and transmit power.
  • the motor drives the first gear to rotate, thereby driving the rotating shaft to rotate, forcing the first chamber to connect with the first outlet pipe.
  • the rack slides down in the meshing of the first gear, thereby driving the first flow channel to connect with the outlet end of the first outlet pipe and close with the second flow channel. Water can enter the first flow channel from the first outlet pipe and flow to the main body of the equipment through the connecting pipe.
  • the motor When it is necessary to force water flow from the second outlet pipe to the main body of the equipment, the motor is driven to reverse, driving the rotating shaft to reverse, thereby forcing the second chamber to connect with the second outlet pipe.
  • the rack slides in the opposite direction, driving the second flow channel to connect with the outlet end of the second outlet pipe and close with the first flow channel. Water can flow into the second flow channel from the second outlet pipe and flow to the main body of the equipment through the connecting pipe. This greatly improves the ease of opening and closing the first and second outlet pipes and reduces the manufacturing cost of the overall structure.
  • the height of the inlet end of the first water outlet pipe and the height of the inlet end of the second water outlet pipe are both higher than the lowest position of the inner wall of the filter cylinder.
  • the water introduced by the inlet pipe accumulates in the first or second chamber. Large particles in the water sink under their own gravity.
  • the height of the inlet end of the first water outlet pipe and the height of the inlet end of the second water outlet pipe are both higher than the lowest position of the inner wall of the filter cylinder, avoiding the possibility that large particles cannot pass through the adsorption holes and cause the adsorption holes to become blocked.
  • the rotating component drives the isolation support plate to rotate, forcing the first chamber to connect to the first outlet pipe.
  • the outlet end of the inlet pipe is connected to the second chamber, and the first and second chambers are interconnected.
  • Water introduced by the inlet pipe flows sequentially through the second chamber, the first chamber, and the first outlet pipe to the main body of the equipment.
  • the adsorption component corresponding to the first outlet pipe can adsorb it, ensuring that the water quality entering the main body of the equipment meets certain standards.
  • the isolation support plate is driven to rotate, forcing the first chamber to connect to the inlet pipe.
  • the second chamber is connected to the second outlet pipe, and water introduced by the inlet pipe flows sequentially through the first chamber, the second chamber, and the second outlet pipe to the main body of the equipment.
  • the adsorption component corresponding to the second outlet pipe can adsorb it, ensuring that the water quality entering the main body of the equipment meets certain standards.
  • the adsorption component corresponding to the first outlet pipe can be disassembled without water outage, reducing the possibility of prolonged water outage during the disassembly and assembly of the adsorption component.
  • the first limiting strip of the first chamber blocks the adsorption seat corresponding to the first outlet pipe, thereby limiting the adsorption seat in the corresponding mounting groove.
  • the second outlet pipe is connected to the third chamber.
  • the third chamber does not have a first limiting strip, so when the first chamber is connected to the first outlet pipe, the other adsorption component (i.e., the adsorption component corresponding to the second outlet pipe) can be disassembled and assembled.
  • the first limiting strip of the second chamber blocks the adsorption seat corresponding to the second outlet pipe, thereby limiting the adsorption seat in the corresponding mounting groove.
  • the first outlet pipe is connected to the third chamber, so the adsorption component corresponding to the first outlet pipe can be disassembled and assembled, avoiding the need to stop the water supply when disassembling and assembling the adsorption component.
  • the switching block is provided with a first flow channel and a second flow channel to correspond to the first water outlet pipe and the second water outlet pipe respectively.
  • the driving component drives the switching block to slide, forcing the first flow channel to connect to the outlet end of the first water outlet pipe or the second flow channel to connect to the outlet end of the second water outlet pipe, thereby improving the ease of opening and closing the first water outlet pipe and the second water outlet pipe and reducing the manufacturing cost of the overall structure.
  • Figure 1 is a schematic diagram of the overall structure of Embodiment 1;
  • Figure 2 is a partial cross-sectional view of Embodiment 1 showing the isolation support plate
  • Figure 3 is an explosion diagram illustrating the adsorption component in Example 1;
  • Figure 4 is a partial cross-sectional view of the adsorption component in Example 1;
  • Figure 5 is a partial cross-sectional view of Embodiment 1 showing the first chamber connected to the first water outlet pipe;
  • Figure 6 is a partial cross-sectional view of Embodiment 1 showing the second chamber connected to the second water outlet pipe;
  • Figure 7 is a structural schematic diagram of the second limiting strip in Embodiment 2.
  • Figure 8 is a partial cross-sectional view of the internal structure of the switching seat in Embodiment 2;
  • Figure 9 is a partial cross-sectional view of the switching component in Embodiment 2.
  • This application discloses an intelligent integrated water supply system with superimposed pressure in a pipeline network.
  • a smart integrated water supply system with superimposed pressure in a pipeline network includes a main body (not shown in the figures) and a filter cylinder 1.
  • the filter cylinder 1 is installed at the inlet end of the main body to adsorb impurities in the water flowing into the main body, ensuring that the water quality entering the main body meets certain standards and reducing the possibility of impurities damaging the main body.
  • the filter cylinder 1 is a horizontally arranged hollow cylindrical structure, and a support is installed at the bottom of the filter cylinder 1, which is then supported on the ground.
  • the filter cylinder 1 is equipped with an inlet pipe 11, a first outlet pipe 12, and a second outlet pipe 13.
  • the inlet pipe 11 is vertically arranged and located at the top of the filter cylinder 1.
  • the outlet end of the inlet pipe 11 passes through the filter cylinder 1 and is connected to the inside of the filter cylinder 1.
  • the inlet end of the inlet pipe 11 is used to connect to the municipal water supply network.
  • the inlet end of the main body of the equipment is connected to a connecting pipe 6.
  • the outlet end of the connecting pipe 6 is connected to the inlet end of the main body of the equipment.
  • the first outlet pipe 12 and the second outlet pipe 13 are both arranged between the filter cylinder 1 and the main body of the equipment.
  • the inlet ends of the first outlet pipe 12 and the second outlet pipe 13 both penetrate the end face of the filter cylinder 1 near the main body of the equipment and are connected to the inside of the filter cylinder 1.
  • the outlet ends of the first outlet pipe 12 and the second outlet pipe 13 are both connected to the inlet end of the connecting pipe 6, so that the outlet ends of the first outlet pipe 12 and the second outlet pipe 13 are both connected to the inlet end of the main body of the equipment.
  • valves 16 are installed on both the first outlet pipe 12 and the second outlet pipe 13 to open or close the first outlet pipe 12 or the second outlet pipe 13.
  • the height of the inlet end of the first outlet pipe 12 and the height of the inlet end of the second outlet pipe 13 are both higher than the lowest position of the inner wall of the filter cylinder 1.
  • two mounting slots 14 are provided on the inner wall of the filter cylinder 1 near the main body of the device.
  • the inlet end of the first water outlet pipe 12 is connected to one of the mounting slots 14, and the inlet end of the second water outlet pipe 13 is connected to the other mounting slot 14.
  • Each mounting slot 14 is provided with an adsorption component 2 (i.e., the filter cylinder 1 is provided with an adsorption component 2 at the inlet end of the first water outlet pipe 12 and the inlet end of the second water outlet pipe 13).
  • the adsorption component 2 includes an adsorption seat 21 and an adsorption layer 22.
  • the shape of the adsorption seat 21 is adapted to the shape of the mounting slot 14.
  • the adsorption seat 21 is embedded in the mounting slot 14.
  • An adsorption cavity 211 is provided in the adsorption seat 21.
  • An opening is provided on the side wall of the adsorption seat 21 that communicates with the adsorption cavity 211.
  • a sealing plate 213 for opening and closing the opening is installed on the side wall of the adsorption seat 21 at the opening.
  • the sealing plate 213 is detachably installed on the adsorption seat 21 by means of bolt connection.
  • the two opposite sidewalls of the adsorption seat 21 are provided with a plurality of adsorption holes 212, and all adsorption holes 212 are connected to the adsorption chamber 211.
  • the adsorption layer 22 is set as activated carbon particles, which are filled in the adsorption chamber 211 to adsorb impurities in the water flowing through the adsorption chamber 211.
  • the end face of the filter cylinder 1 away from the main body of the equipment has a disassembly port 15.
  • Each disassembly port 15 is connected to the inside of the filter cylinder 1.
  • Each disassembly port 15 is equipped with a cover plate 5, which is used to open and close the corresponding disassembly port 15.
  • Multiple connecting rods 51 are installed between the cover plate 5 and the adsorption seat 21 in the corresponding mounting slot 14. One end of the connecting rod 51 is fixedly connected to the adsorption seat 21, and the other end is fixedly connected to the cover plate 5.
  • the cover plate 5 and the corresponding adsorption seat 21 are connected as one unit through the connecting rods 51.
  • the inner wall of the filter cylinder 1 has a relief groove 17 for avoiding the connecting rods 51.
  • the cover plate 5 is detachably installed on the side wall of the filter cylinder 1 located at the disassembly port 15 by means of bolt connection (bolt connection is not shown in the figure).
  • an isolation support plate 3 is rotatably installed inside the filter cylinder 1.
  • the filter cylinder 1 is provided with a rotating assembly 4 for driving the isolation support plate 3 to rotate.
  • the rotating assembly 4 includes a rotating shaft 41 and a motor 42.
  • the rotating shaft 41 is horizontally arranged, and its two ends are rotatably installed on two opposite inner walls of the filter cylinder 1.
  • the central axis of the rotating shaft 41 is coincident with the central axis of the filter cylinder 1.
  • the motor 42 is fixedly installed on the side wall of the filter cylinder 1 near the main body of the equipment.
  • the output shaft of the motor 42 is coaxially fixed to the rotating shaft 41 to drive the rotating shaft 41 to rotate around its own central axis.
  • the isolation support plate 3 includes multiple partition plates 35, which are all fixedly installed on the peripheral wall of the rotating shaft 41.
  • the multiple partition plates 35 are arranged at intervals around the central axis of the rotating shaft 41.
  • the side of each partition plate 35 away from the rotating shaft 41 abuts against the inner peripheral wall of the filter cylinder 1.
  • the multiple partition plates 35 divide the interior of the filter cylinder 1 into a first chamber 31, a second chamber 32, and a third chamber 33.
  • the partition plate 35 located between the first chamber 31 and the second chamber 32 has multiple connecting grooves 351 on its surface, and the first chamber 31 and the second chamber 32 are interconnected through the multiple connecting grooves 351.
  • a first limiting strip 34 is installed on the inner wall of the first chamber 31 and the inner wall of the second chamber 32.
  • the first limiting strip 34 is arc-shaped, and the virtual central axis of the first limiting strip 34 coincides with the central axis of the rotating shaft 41.
  • Embodiment 1 of this application is as follows: an isolation support plate 3 is rotatably installed inside the filter cylinder 1 to divide the interior of the filter cylinder 1 into a first chamber 31, a second chamber 32 and a third chamber 33. By driving the rotating shaft 41 to rotate, the water flow direction of the inlet pipe 11 can be switched so that the water flow can be discharged to the main body of the equipment through the first outlet pipe 12 or the second outlet pipe 13.
  • the first limiting strip 34 of the first chamber 31 blocks the adsorption seat 21 corresponding to the first outlet pipe 12, making the adsorption seat 21 unable to be disassembled. After being adsorbed by the adsorption seat 21, the water can flow to the main body of the equipment.
  • the rotating shaft 41 is driven to rotate, so that the second chamber 32 is connected to the inlet end of the second outlet pipe 13. At this time, the inlet end of the first outlet pipe 12 is closed, and the water can flow to the main body of the equipment through the second outlet pipe 13.
  • the adsorption seat 21 corresponding to the first outlet pipe 12 can be disassembled and assembled, which greatly improves the ease of disassembly and assembly of the adsorption seat 21 and reduces the possibility of long-term water outage during the replacement of the adsorption layer 22.
  • This application discloses an intelligent integrated water supply system with superimposed pressure in a pipeline network.
  • the end of the rotating shaft 41 away from the main body of the equipment passes through the filter cylinder 1 and is fixedly connected to a second limiting strip 411.
  • the second limiting strip 411 is arc-shaped, and the virtual central axis of the second limiting strip 411 coincides with the central axis of the rotating shaft 41.
  • a switching seat 7 is installed between the main body of the equipment and the filter cartridge 1.
  • the switching seat 7 is elongated and has a switching cavity 71 inside. Both ends of the switching cavity 71 extend along the length of the switching seat 7.
  • the inlet end of the connecting pipe 6 is installed on the side wall of the switching seat 7 near the main body of the equipment and is connected to the switching cavity 71.
  • the outlet ends of the first water outlet pipe 12 and the second water outlet pipe 13 are both installed on the side wall of the switching seat 7 near the filter cartridge 1, and the outlet ends of the first water outlet pipe 12 and the second water outlet pipe 13 are both connected to the switching cavity 71.
  • the switching seat 7 is provided with a switching component 8.
  • the switching component 8 opens the outlet end of the first water outlet pipe 12 and closes the outlet end of the second water outlet pipe 13.
  • the switching component 8 closes the outlet end of the first water outlet pipe 12 and opens the inlet end of the second water outlet pipe 13.
  • the switching assembly 8 includes a switching block 81 and a driving component.
  • the switching block 81 is slidably mounted in the switching cavity 71 so that it can slide along the length direction of the switching cavity 71.
  • a connecting groove 811 is formed on the side wall of the switching block 81 near the connecting pipe 6. The two ends of the connecting groove 811 extend along the length direction of the switching cavity 71 and are connected to the inlet end of the connecting pipe 6.
  • a first flow channel 812 and a second flow channel 813 are formed on the side wall of the switching block 81 away from the connecting pipe 6. Both the first flow channel 812 and the second flow channel 813 are connected to the connecting groove 811.
  • the inlet end of the flow channel 812 is used to connect to the first outlet pipe 12, and the inlet end of the second flow channel 813 is used to connect to the second outlet pipe 13.
  • the inlet end of the first flow channel 812 is connected to the outlet end of the first outlet pipe 12
  • the inlet end of the second flow channel 813 and the outlet end of the second outlet pipe 13 are offset to close at the outlet end of the second outlet pipe 13.
  • the inlet end of the second flow channel 813 is connected to the outlet end of the second outlet pipe 13
  • the inlet end of the first flow channel 812 and the outlet end of the first outlet pipe 12 are offset to close at the outlet end of the first outlet pipe 12.
  • a driving component is disposed between the switching block 81 and the rotating shaft 41 to drive the switching block 81 to slide.
  • the driving component includes a first gear 82, a second gear 83, and a rack 84.
  • a rotating rod 18 is rotatably mounted on the side wall of the filter cylinder 1 near the main body of the equipment.
  • the first gear 82 is coaxially fixed to the peripheral wall of the rotating rod 18 and is located at the top of the switching seat 7.
  • the output shaft of the motor 42 is coaxially connected to the rotating rod 18 to drive the rotating rod 18 to rotate.
  • One end of the rotating shaft 41 near the main body of the equipment passes through the filter cylinder 1 and is coaxially connected to the second gear 83.
  • the first gear 82 and the second gear 83 mesh and transmit power.
  • rack 84 is located on top of switching base 7. Both ends of rack 84 extend along the length direction of switching base 7 (i.e., the length direction of rack 84 is consistent with the moving direction of switching block 81). Both ends of switching block 81 are equipped with connecting rods 85. The end of connecting rod 85 away from switching block 81 passes through switching base 7 and is fixedly connected to rack 84. Rack 84 and switching block 81 are connected as one unit through connecting rod 85. Rack 84 is slidably installed on top of switching base 7 through connecting rod 85, and rack 84 meshes with first gear 82 for transmission.
  • Embodiment 2 of this application is as follows: When it is necessary to force water flow from the first outlet pipe 12 to the main body of the equipment, the motor 42 drives the first gear 82 to rotate, thereby driving the rotating shaft 41 to rotate, forcing the first chamber 31 to connect to the first outlet pipe 12. At this time, the rack 84 slides down in the meshing of the first gear 82, thereby driving the first flow channel 812 to connect to the outlet end of the first outlet pipe 12 and close to the second flow channel 813. Water can enter the first flow channel 812 from the first outlet pipe 12 and flow to the main body of the equipment through the connecting pipe 6.
  • the drive motor 42 When it is necessary to force water to flow from the second outlet pipe 13 to the main body of the equipment, the drive motor 42 is reversed, which drives the rotating shaft 41 to reverse so that the second chamber 32 is connected to the second outlet pipe 13.
  • the rack 84 slides in the opposite direction, which drives the second flow channel 813 to connect to the outlet end of the second outlet pipe 13 and close to the first flow channel 812.
  • Water can flow from the second outlet pipe 13 into the second flow channel 813 and flow to the main body of the equipment through the connecting pipe 6.
  • the opening and closing of the first outlet pipe 12, the opening and closing of the second outlet pipe 13, and the rotation of the rotating shaft 41 are carried out synchronously, reducing the number of operation steps and thus improving the ease of operation of the overall structure.

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  • Life Sciences & Earth Sciences (AREA)
  • Hydrology & Water Resources (AREA)
  • Engineering & Computer Science (AREA)
  • Environmental & Geological Engineering (AREA)
  • Water Supply & Treatment (AREA)
  • Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Water Treatment By Sorption (AREA)

Abstract

本申请涉及供水设备的技术领域，提供了一种智慧型管网叠压供水一体化机，包括设备主体和过滤筒，过滤筒分别连接有进水管、第一出水管以及第二出水管，过滤筒设有吸附组件，第一出水管的出口端、第二出水管的出口端均连接于设备主体的进口端；过滤筒内转动安装有隔离支板，隔离支板将过滤筒内部分隔形成第一腔室、第二腔室以及第三腔室，第一腔室连通于第二腔室；过滤筒设有转动组件，当第一腔室转动至与第一出水管相连通时，进水管连通于第二腔室，当第一腔室转动至与进水管相连通时，第一出水管连通于第三腔室。本申请的一种智慧型管网叠压供水一体化机能够降低吸附组件拆装过程中，造成长时间停水的可能性。

Description

一种智慧型管网叠压供水一体化机 技术领域
本申请涉及供水设备的技术领域，特别是涉及一种智慧型管网叠压供水一体化机。
背景技术
智慧型管网叠压供水一体化机是一种集成了现代化科技与传统供水设备的先进系统。这种设备通过智慧控制系统，实时监控和调整供水压力，以满足不同时间和不同用水需求，实现高效、节能的供水方式。这种设备广泛应用于城市供水、工业供水等领域，提高了供水系统的效率和可靠性，降低了能耗和水资源的浪费。
现有技术中，为了确保进入智慧型管网叠压供水一体化机(以下简称设备主体)的水质达到一定的标准，在设备主体的进口端通常设置有吸附组件；吸附组件包括孔板和吸附层，孔板设置有两个并间隔安装于设备主体的进水管道内，吸附层通常为活性炭颗粒，填充在两个孔板之间以用于吸附水中的杂质，防止杂质或颗粒物对设备主体造成损害。然而，此类设备主体中，吸附层为消耗品，当需要拆卸吸附组件以更换吸附层时，吸附组件的拆装过程较为繁琐，需要长时间进行停水处置，对居民的日常生活造成不便，因此需要进一步改进。
发明内容
为了降低吸附组件拆装过程中，造成长时间停水的可能性，本申请提供了一种智慧型管网叠压供水一体化机。
本申请提供的一种智慧型管网叠压供水一体化机采用如下技术方案：
一种智慧型管网叠压供水一体化机，包括设备主体和过滤筒，所述过滤筒分别连接有进水管、第一出水管以及第二出水管，所述过滤筒位于第一出水管的进口端、第二出水管的进口端均设有吸附组件，所述第一出水管的出口端、第二出水管的出口端均连接于设备主体的进口端；所述过滤筒内转动安装有隔离支板，所述隔离支板将过滤筒内部分隔形成第一腔室、第二腔室以及第三腔室，所述第一腔室连通于第二腔室；所述过滤筒设有用于驱使隔离支板转动的转动组件，当所述第一腔室转动至与第一出水管的进口端相连通时，所述进水管的出口端连通于第二腔室且第二出水管的进口端连通于第三腔室，当所述第一腔室转动至与进水管的出口端相连通时，所述第一出水管的进口端连通于第三腔室且第二出水管的进口端连通于第二腔室。
通过采用上述的技术方案，通过隔离支板的设置，初始状态时，通过转动组件驱使隔离支板转动，迫使第一腔室连通于第一出水管，此时进水管的出口端连通于第二腔室，第一腔室与第二腔室之间相互连通，进水管引入的水依次通过第二腔室、第一腔室以及第一出水管流向设备主体，水进入第一出水管时，第一出水管对应的吸附组件能够对其进行吸附，确保进入设备主体的水质达到一定的标准；当需要对第一出水管对应的吸附组件进行拆卸时，驱使隔离支板转动，迫使第一腔室连通于进水管，此时第二腔室连通于第二出水管，进水管引入的水依次通过第一腔室、第二腔室以及第二出水管流向设备主体，水进入第二出水管时，第二出水管对应的吸附组件能够对其进行吸附，确保进入设备主体的水质达到一定的标准，此时可对第一出水管对应的吸附组件进行拆卸，无需进行停水处置，降低吸附组件拆装过程中，造成长时间停水的可能性。
可选的，所述过滤筒的内壁开设有两个安装槽，两个所述安装槽分别与两个吸附组件对应设置；所述吸附组件包括吸附座和吸附层，所述吸附座安装于对应的安装槽内，所述吸附座内具有吸附腔，所述吸附层设置于吸附腔内，所述吸附座的外壁开设有多个连通于吸附腔的吸附孔。
通过采用上述的技术方案，通过吸附座和吸附层的设置，进水管引入的水由第一腔室流向第一出水管或由第二腔室流向第二出水管的过程中，水流通过吸附孔进入吸附腔，吸附腔内的吸附层能够吸附水中的杂质，降低杂质或颗粒物对设备主体造成损害的可能性。
可选的，所述第一腔室的内壁、第二腔室的内壁均安装有第一限位条，当所述第一腔室转动至与第一出水管相连通时，所述第一腔室的第一限位条抵接于第一出水管对应的吸附座，当所述第二腔室转动至与第二出水管相连通时，所述第二腔室的第一限位条抵接于第二出水管对应的吸附座。
通过采用上述的技术方案，通过第一限位条的设置，当水流由第一腔室流向第一出水管时，此时第一腔室的第一限位条阻挡于第一出水管所对应的吸附座，从而将此吸附座限位在对应的安装槽内；第一腔室连通于第一出水管时，此时第二出水管连通于第三腔室，第三腔室未设置第一限位条，从而使得第一腔室连通于第一出水管时，可以对另一个吸附组件(即第二出水管对应的吸附组件)进行拆装。当水流由第二腔室流向第二出水管时，此时第二腔室的第一限位条阻挡于第二出水管所对应的吸附座，从而将此吸附座限位在对应的安装槽内；第二腔室连通于第二出水管时，此时第一出水管连通于第三腔室，从而可以对第一出水管对应的吸附组件进行拆装，避免吸附组件拆装时需要停水处置的情况。
可选的，所述过滤筒远离设备主体的端面开设有连通于过滤筒内部的拆装口，所述拆装口设置有两个并与两个安装槽对应设置；所述拆装口设有盖板，所述盖板与对应安装槽内的吸附座之间连接有对接杆，所述盖板与对应的吸附座之间通过对接杆连为一体。
通过采用上述的技术方案，通过盖板和对接杆的设置，对第一出水管所对应的吸附座进行拆卸时，转动隔离支板，迫使第二腔室连通于第二出水管，然后向外拉动盖板，能够将第一出水管对应的吸附座和盖板一并拉出；对第二出水管所对应的吸附座进行拆卸时，迫使第一腔室连通于第一出水管，然后向外拉动盖板，能够将第二出水管对应的吸附座和盖板一并拉出，大大提高了吸附座的拆装便捷性，进而提高吸附层的更换便捷性。
可选的，所述转动组件包括转动轴和电机，所述转动轴转动安装于过滤筒内，所述隔离支板设置于转动轴的周壁，所述隔离支板通过转动轴转动安装于过滤筒内；所述电机设置于转动轴以用于驱使转动轴转动。
通过采用上述的技术方案，通过转动轴和电机的设置，驱使电机的输出轴转动，带动转动轴转动，从而带动隔离支板转动，以切换第一腔室、第二腔室以及第三腔室的位置，进而切换进水管引入的水流方向。
可选的，所述转动轴的一端穿出过滤筒靠近盖板的端面并连接有第二限位条，当所述第一腔室转动至与第一出水管相连通时，所述第二限位条抵紧于第一出水管对应的盖板，当所述第二腔室转动至与第二出水管相连通时，所述第二限位条抵紧于第二出水管对应的盖板。
通过采用上述的技术方案，通过第二限位条的设置，当第一腔室连通于第一出水管时，此时第二限位条抵紧于第一出水管所对应的盖板，迫使此盖板牢牢抵紧于过滤筒位于拆装口的侧壁，提高第一腔室的密封效果；当第二腔室连通于第二出水管时，此时第二限位条抵紧于第二出水管所对应的盖板，迫使此盖板牢牢抵紧于过滤筒位于拆装口的侧壁，提高第二腔室的密封效果。
可选的，所述设备主体的进口端连接有连接管，所述连接管的进口端设有切换座，所述切换座内具有切换腔，所述第一出水管的出口端、第二出水管的出口端均连通于切换腔；所述切换座设有切换组件，当所述第一腔室转动至与第一出水管相连通时，所述切换组件开启第一出水管的出口端并闭合第二出水管的出口端，当所述第二腔室转动至与第二出水管相连通时，所述切换组件闭合第一出水管的出口端并开启第二出水管的进口端。
通过采用上述的技术方案，通过切换座和切换组件的设置，切换组件用于启闭第一出水管的出口端和第二出水管的出口端，以使水流能够进入设备主体，降低当第一腔室连通于第一出水管时，第一出水管流出的水进入第二出水管的可能性，或降低当第二腔室连通于第二出水管时，第二出水管流出的水进入第一出水管的可能性。
可选的，所述切换组件包括切换块和驱动件，所述切换块滑移安装于切换腔，所述切换块靠近连接管的侧壁开设有连通于连接管的连接槽，所述切换块远离连接管的侧壁分别开设有连通于连接槽的第一流道和第二流道，所述第一流道的进口端用于连通第一出水管，所述第二流道的进口端用于连通第二出水管；当所述第一流道的进口端连通第一出水管的出口端时，所述第二流道的进口端与第二出水管的出口端呈错位设置，当所述第二流道的进口端连通第二出水管的出口端时，所述第一流道的进口端与第一出水管的出口端呈错位设置；所述驱动件设置于切换块和转动轴之间以用于驱使切换块滑移。
通过采用上述的技术方案，通过切换块和驱动件的设置，通过在切换块开设有第一流道和第二流道，以分别对应第一出水管和第二出水管，当通过转动轴驱使隔离支板转动，以切换进水管的流向时，驱动件驱使切换块滑移，迫使第一流道连通于第一出水管的出口端或第二流道连通于第二出水管的出口端，提高第一出水管和第二出水管的启闭便捷性，降低整体结构的制造成本。
可选的，所述驱动件包括第一齿轮、第二齿轮以及齿条，所述第一齿轮转动设置于切换座的顶部，所述电机的输出轴同轴连接于第一齿轮，所述转动轴的一端穿出过滤筒并同轴连接于第二齿轮；所述齿条滑移安装于切换座的顶部，所述切换块连接有连接杆，所述连接杆的一端穿出切换座并连接于齿条，所述齿条和切换块之间通过连接杆连为一体，所述第一齿轮和第二齿轮之间、第一齿轮和齿条之间均啮合传动。
通过采用上述的技术方案，通过第一齿轮、第二齿轮以及齿条的设置，当需要迫使水流由第一出水管流向设备主体时，通过电机驱使第一齿轮转动，以带动转动轴转动，迫使第一腔室连通于第一出水管，此时齿条在第一齿轮的啮合下滑移，从而带动第一流道连通于第一出水管的出口端并闭合于第二流道，水流能够由第一出水管进入第一流道，并由连接管流向设备主体；当需要迫使水流由第二出水管流向设备主体时，驱使电机反转，带动转动轴反转以迫使第二腔室连通于第二出水管，此时齿条反向滑移，带动第二流道连通于第二出水管的出口端并闭合于第一流道，水流能够由第二出水管流入第二流道，并由连接管流向设备主体，大大提高了第一出水管和第二出水管的启闭便捷性，降低整体结构的制造成本。
可选的，所述第一出水管的进口端高度、第二出水管的进口端高度均高于过滤筒内壁的最低位置。
通过采用上述的技术方案，当第一腔室连通于第一出水管时或第二腔室连通于第二出水管时，进水管引入的水流在第一腔室内或第二腔室内积聚，水中大颗粒异物在自身重力下下沉，第一出水管的进口端高度、第二出水管的进口端高度均高于过滤筒内壁的最低位置，避免大颗粒异物无法通过吸附孔而造成吸附孔发生堵塞的可能性。
综上所述，本申请包括以下至少一种有益技术效果：
1.通过隔离支板的设置，初始状态时，通过转动组件驱使隔离支板转动，迫使第一腔室连通于第一出水管，此时进水管的出口端连通于第二腔室，第一腔室与第二腔室之间相互连通，进水管引入的水依次通过第二腔室、第一腔室以及第一出水管流向设备主体，水进入第一出水管时，第一出水管对应的吸附组件能够对其进行吸附，确保进入设备主体的水质达到一定的标准；当需要对第一出水管对应的吸附组件进行拆卸时，驱使隔离支板转动，迫使第一腔室连通于进水管，此时第二腔室连通于第二出水管，进水管引入的水依次通过第一腔室、第二腔室以及第二出水管流向设备主体，水进入第二出水管时，第二出水管对应的吸附组件能够对其进行吸附，确保进入设备主体的水质达到一定的标准，此时可对第一出水管对应的吸附组件进行拆卸，无需进行停水处置，降低吸附组件拆装过程中，造成长时间停水的可能性；
2.通过第一限位条的设置，当水流由第一腔室流向第一出水管时，此时第一腔室的第一限位条阻挡于第一出水管所对应的吸附座，从而将此吸附座限位在对应的安装槽内；第一腔室连通于第一出水管时，此时第二出水管连通于第三腔室，第三腔室未设置第一限位条，从而使得第一腔室连通于第一出水管时，可以对另一个吸附组件(即第二出水管对应的吸附组件)进行拆装。当水流由第二腔室流向第二出水管时，此时第二腔室的第一限位条阻挡于第二出水管所对应的吸附座，从而将此吸附座限位在对应的安装槽内；第二腔室连通于第二出水管时，此时第一出水管连通于第三腔室，从而可以对第一出水管对应的吸附组件进行拆装，避免吸附组件拆装时需要停水处置的情况；
3.通过切换块和驱动件的设置，通过在切换块开设有第一流道和第二流道，以分别对应第一出水管和第二出水管，当通过转动轴驱使隔离支板转动，以切换进水管的流向时，驱动件驱使切换块滑移，迫使第一流道连通于第一出水管的出口端或第二流道连通于第二出水管的出口端，提高第一出水管和第二出水管的启闭便捷性，降低整体结构的制造成本。
附图说明
图1是实施例1的整体结构示意图；
图2是实施例1体现隔离支板的局部剖视图；
图3是实施例1体现吸附组件的爆炸示意图；
图4是实施例1体现吸附组件的局部剖视图；
图5是实施例1体现第一腔室连通于第一出水管的局部剖视图；
图6是实施例1体现第二腔室连通于第二出水管的局部剖视图；
图7是实施例2体现第二限位条的结构示意图；
图8是实施例2体现切换座内部结构的局部剖视图；
图9是实施例2体现切换组件的局部剖视图。
附图标记说明：1、过滤筒；11、进水管；12、第一出水管；13、第二出水管；14、安装槽；15、拆装口；16、阀门；17、避让槽；18、转动杆；2、吸附组件；21、吸附座；211、吸附腔；212、吸附孔；213、封板；22、吸附层；3、隔离支板；31、第一腔室；32、第二腔室；33、第三腔室；34、第一限位条；35、分隔板；351、连通槽；4、转动组件；41、转动轴；411、第二限位条；42、电机；5、盖板；51、对接杆；6、连接管；7、切换座；71、切换腔；8、切换组件；81、切换块；811、连接槽；812、第一流道；813、第二流道；82、第一齿轮；83、第二齿轮；84、齿条；85、连接杆。
具体实施方式
以下结合附图1-附图9对本申请作进一步详细说明。
实施例1：
本申请实施例公开了一种智慧型管网叠压供水一体化机。
参照图1、图2，一种智慧型管网叠压供水一体化机，包括设备主体(图中未体现)和过滤筒1，过滤筒1用于安装于设备主体的进口端，以对进入设备主体的水流进行杂质的吸附，确保进入设备主体的水质达到一定的标准，减小杂质对设备主体造成损害的可能性；本实施例中，过滤筒1为水平设置的空心圆筒状结构，过滤筒1的底部安装有支架，过滤筒1通过支架架设于地面。
参照图1、图3，过滤筒1分别安装有进水管11、第一出水管12以及第二出水管13，进水管11呈竖直设置并位于过滤筒1的顶部，进水管11的出口端贯穿过滤筒1并连通于过滤筒1内部，进水管11的进口端用于连接市政自来水管网；设备主体的进口端连接有连接管6，连接管6的出口端与设备主体的进口端相连通，第一出水管12和第二出水管13均设置于过滤筒1和设备主体之间。
第一出水管12的进口端、第二出水管13的进口端均贯穿过滤筒1靠近设备主体的端面并连通于过滤筒1内部，第一出水管12的出口端、第二出水管13的出口端均连通于连接管6的进口端，以使第一出水管12的出口端、第二出水管13的出口端均连通于设备主体的进口端；本实施例中，第一出水管12和第二出水管13均安装有阀门16，以用于启闭第一出水管12或第二出水管13，第一出水管12的进口端高度、第二出水管13的进口端高度均高于过滤筒1内壁的最低位置。
参照图3、图4，过滤筒1靠近设备主体的内壁开设有两个安装槽14，第一出水管12的进口端连通于其中一个安装槽14，第二出水管13的进口端连通于另一个安装槽14，每一安装槽14内均设置有吸附组件2(即过滤筒1位于第一出水管12的进口端、第二出水管13的进口端均设有吸附组件2)；本实施例中，吸附组件2包括吸附座21和吸附层22，吸附座21的形状与安装槽14的形状相适配，吸附座21嵌装于安装槽14内，吸附座21内开设有吸附腔211，吸附座21的侧壁开设有连通于吸附腔211的开口，吸附座21位于开口处的侧壁安装有用于启闭开口的封板213，封板213通过螺栓连接的方式可拆卸安装于吸附座21。
参照图3、图4，吸附座21两相对的侧壁均开设有多个吸附孔212，所有吸附孔212均连通于吸附腔211；本实施例中，吸附层22设置为活性炭颗粒，活性炭颗粒填充于吸附腔211内，以对经过吸附腔211的水流进行杂质的吸附。
参照图1、图3，过滤筒1远离设备主体的端面开设有拆装口15，拆装口15设置有两个并与两个安装槽14对应设置，每一拆装口15均连通于过滤筒1内部；每一拆装口15均安装有盖板5，盖板5用于启闭对应的拆装口15，盖板5与对应安装槽14内的吸附座21之间安装有多个对接杆51，对接杆51一端固定连接于吸附座21，另一端固定连接于盖板5，盖板5与对应的吸附座21之间通过对接杆51连为一体，过滤筒1的内壁开设有用于避让对接杆51的避让槽17；需要说明的是，本实施例中，盖板5通过螺栓连接的方式(图中未体现螺栓连接)可拆卸安装于过滤筒1位于拆装口15的侧壁。
参照图2、图3，过滤筒1内转动安装有隔离支板3，过滤筒1设置有用于驱使隔离支板3转动的转动组件4，转动组件4包括转动轴41和电机42，转动轴41呈水平设置，转动轴41的两端分别转动安装于过滤筒1两相对的内壁，转动轴41的中轴线与过滤筒1的中轴线重合设置；本实施例中，电机42固定安装于过滤筒1靠近设备主体的侧壁，电机42的输出轴同轴固定于转动轴41，以用于驱使转动轴41绕自身中轴线转动。
参照图2、图5、图6，隔离支板3包括多个分隔板35，多个分隔板35均固定安装于转动轴41的周壁，多个分隔板35绕转动轴41的中轴线间隔排布，每一分隔板35远离转动轴41的一侧均抵接于过滤筒1的内周壁，多个分隔板35将过滤筒1内部分隔形成第一腔室31、第二腔室32以及第三腔室33，位于第一腔室31和第二腔室32之间的分隔板35的板面开设有多个连通槽351，第一腔室31和第二腔室32之间通过多个连通槽351相互连通。
当第一腔室31转动至与第一出水管12的进口端相连通时，进水管11的出口端连通于第二腔室32且第二出水管13的进口端连通于第三腔室33，当第一腔室31转动至与进水管11的出口端相连通时，第一出水管12的进口端连通于第三腔室33且第二出水管13的进口端连通于第二腔室32。
参照图5、图6，本实施例中，第一腔室31的内壁、第二腔室32的内壁均安装有第一限位条34，第一限位条34呈弧形设置，且第一限位条34的虚拟中轴线重合于转动轴41的中轴线；当第一腔室31转动至与第一出水管12相连通时，第一腔室31的第一限位条34抵接于第一出水管12对应的吸附座21表面，当第二腔室32转动至与第二出水管13相连通时，第二腔室32的第一限位条34抵接于第二出水管13对应的吸附座21表面。
本申请实施例1的实施原理为：在过滤筒1内转动安装隔离支板3，以将过滤筒1内部分隔形成第一腔室31、第二腔室32以及第三腔室33，通过驱使转动轴41转动，能够切换进水管11的水流方向，使水流能够通过第一出水管12或第二出水管13排至设备主体。
当水流由第一出水管12排至设备主体时，此时第一腔室31的第一限位条34阻挡于第一出水管12对应的吸附座21，使得此吸附座21无法被拆卸，水流经此吸附座21吸附处理后能够流向设备主体；当第一出水管12对应的吸附座21需要拆卸时，驱使转动轴41转动，使第二腔室32连通于第二出水管13的进口端，此时第一出水管12的进口端闭合，水流能够通过第二出水管13流向设备主体，此时可以对第一出水管12对应的吸附座21进行拆装，大大提高了吸附座21的拆装便捷性，并降低对吸附层22进行更换的过程中，造成长时间停水的可能性。
实施例2：
本申请实施例公开了一种智慧型管网叠压供水一体化机。
参照图7，本申请实施例公开的一种智慧型管网叠压供水一体化机与实施例1的区别在于：
本实施例中，转动轴41远离设备主体的一端穿出过滤筒1并固定连接有第二限位条411，第二限位条411呈弧形状，且第二限位条411的虚拟中轴线重合于转动轴41的中轴线；当第一腔室31转动至与第一出水管12相连通时，第二限位条411抵紧于第一出水管12对应的盖板5，当第二腔室32转动至与第二出水管13相连通时，第二限位条411抵紧于第二出水管13对应的盖板5。
参照图8、图9，设备主体和过滤筒1之间安装有切换座7，切换座7呈长条状，切换座7内开设有切换腔71，切换腔71的两端沿切换座7的长度方向延伸设置，连接管6的进口端安装于切换座7靠近设备主体的侧壁并与切换腔71相连通；第一出水管12的出口端、第二出水管13的出口端均安装于切换座7靠近过滤筒1的侧壁，且第一出水管12的出口端、第二出水管13的出口端均连通于切换腔71。
参照图8、图9，切换座7设置有切换组件8，当第一腔室31转动至与第一出水管12的进口端相连通时，切换组件8开启第一出水管12的出口端并闭合第二出水管13的出口端，当第二腔室32转动至与第二出水管13的进口端相连通时，切换组件8闭合第一出水管12的出口端并开启第二出水管13的进口端。
参照图8、图9，切换组件8包括切换块81和驱动件，切换块81滑移安装于切换腔71以能够沿切换腔71的长度方向滑移，切换块81靠近连接管6的侧壁开设有连接槽811，连接槽811的两端沿切换腔71的长度方向延伸设置，连接槽811连通于连接管6的进口端；切换块81远离连接管6的侧壁分别开设有第一流道812和第二流道813，第一流道812和第二流道813均连通于连接槽811，第一流道812的进口端用于连通第一出水管12，第二流道813的进口端用于连通第二出水管13；当第一流道812的进口端连通第一出水管12的出口端时，第二流道813的进口端与第二出水管13的出口端呈错位设置，以闭合于第二出水管13的出口端，当第二流道813的进口端连通第二出水管13的出口端时，第一流道812的进口端与第一出水管12的出口端呈错位设置，以闭合于第一出水管12的出口端。
参照图8、图9，驱动件设置于切换块81和转动轴41之间以用于驱使切换块81滑移，驱动件包括第一齿轮82、第二齿轮83以及齿条84，过滤筒1靠近设备主体的侧壁转动安装有转动杆18，第一齿轮82同轴固定于转动杆18的周壁，且第一齿轮82位于切换座7的顶部，本实施例中，电机42的输出轴同轴连接于转动杆18，以用于驱使转动杆18转动；转动轴41靠近设备主体的一端穿出过滤筒1并同轴连接于第二齿轮83，第一齿轮82和第二齿轮83之间啮合传动。
参照图8、图9，齿条84位于切换座7的顶部，齿条84的两端沿切换座7的长度方向延伸设置(即齿条84的长度方向与切换块81的移动方向一致)，切换块81的两端均安装有连接杆85，连接杆85远离切换块81的一端穿出切换座7并固定连接于齿条84，齿条84和切换块81之间通过连接杆85连为一体，齿条84通过连接杆85滑移安装于切换座7的顶部，且齿条84与第一齿轮82之间啮合传动。
本申请实施例2的实施原理为：当需要迫使水流由第一出水管12流向设备主体时，通过电机42驱使第一齿轮82转动，以带动转动轴41转动，迫使第一腔室31连通于第一出水管12，此时齿条84在第一齿轮82的啮合下滑移，从而带动第一流道812连通于第一出水管12的出口端并闭合于第二流道813，水流能够由第一出水管12进入第一流道812，并由连接管6流向设备主体。
当需要迫使水流由第二出水管13流向设备主体时，驱使电机42反转，带动转动轴41反转以迫使第二腔室32连通于第二出水管13，此时齿条84反向滑移，带动第二流道813连通于第二出水管13的出口端并闭合于第一流道812，水流能够由第二出水管13流入第二流道813，并由连接管6流向设备主体，大大提高了第一出水管12和第二出水管13的启闭便捷性，从而无需在第一出水管12和第二出水管13安装阀门16，降低整体结构的制造成本，且第一出水管12的启闭、第二出水管13的启闭、转动轴41的转动同步进行，减少操作步骤，进而提高整体结构的操作便捷性。
以上为本申请的较佳实施例，并非依此限制本申请的保护范围，故：凡依本申请的结构、形状、原理所做的等效变化，均应涵盖于本申请的保护范围之内。

Claims (10)

  1. 一种智慧型管网叠压供水一体化机，其特征在于：包括设备主体和过滤筒(1)，所述过滤筒(1)分别连接有进水管(11)、第一出水管(12)以及第二出水管(13)，所述过滤筒(1)位于第一出水管(12)的进口端、第二出水管(13)的进口端均设有吸附组件(2)，所述第一出水管(12)的出口端、第二出水管(13)的出口端均连接于设备主体的进口端；所述过滤筒(1)内转动安装有隔离支板(3)，所述隔离支板(3)将过滤筒(1)内部分隔形成第一腔室(31)、第二腔室(32)以及第三腔室(33)，所述第一腔室(31)连通于第二腔室(32)；所述过滤筒(1)设有用于驱使隔离支板(3)转动的转动组件(4)，当所述第一腔室(31)转动至与第一出水管(12)的进口端相连通时，所述进水管(11)的出口端连通于第二腔室(32)且第二出水管(13)的进口端连通于第三腔室(33)，当所述第一腔室(31)转动至与进水管(11)的出口端相连通时，所述第一出水管(12)的进口端连通于第三腔室(33)且第二出水管(13)的进口端连通于第二腔室(32)。
  2. 根据权利要求1所述的一种智慧型管网叠压供水一体化机，其特征在于：所述过滤筒(1)的内壁开设有两个安装槽(14)，两个所述安装槽(14)分别与两个吸附组件(2)对应设置；所述吸附组件(2)包括吸附座(21)和吸附层(22)，所述吸附座(21)安装于对应的安装槽(14)内，所述吸附座(21)内具有吸附腔(211)，所述吸附层(22)设置于吸附腔(211)内，所述吸附座(21)的外壁开设有多个连通于吸附腔(211)的吸附孔(212)。
  3. 根据权利要求2所述的一种智慧型管网叠压供水一体化机，其特征在于：所述第一腔室(31)的内壁、第二腔室(32)的内壁均安装有第一限位条(34)，当所述第一腔室(31)转动至与第一出水管(12)相连通时，所述第一腔室(31)的第一限位条(34)抵接于第一出水管(12)对应的吸附座(21)，当所述第二腔室(32)转动至与第二出水管(13)相连通时，所述第二腔室(32)的第一限位条(34)抵接于第二出水管(13)对应的吸附座(21)。
  4. 根据权利要求2所述的一种智慧型管网叠压供水一体化机，其特征在于：所述过滤筒(1)远离设备主体的端面开设有连通于过滤筒(1)内部的拆装口(15)，所述拆装口(15)设置有两个并与两个安装槽(14)对应设置；所述拆装口(15)设有盖板(5)，所述盖板(5)与对应安装槽(14)内的吸附座(21)之间连接有对接杆(51)，所述盖板(5)与对应的吸附座(21)之间通过对接杆(51)连为一体。
  5. 根据权利要求4所述的一种智慧型管网叠压供水一体化机，其特征在于：所述转动组件(4)包括转动轴(41)和电机(42)，所述转动轴(41)转动安装于过滤筒(1)内，所述隔离支板(3)设置于转动轴(41)的周壁，所述隔离支板(3)通过转动轴(41)转动安装于过滤筒(1)内；所述电机(42)设置于转动轴(41)以用于驱使转动轴(41)转动。
  6. 根据权利要求5所述的一种智慧型管网叠压供水一体化机，其特征在于：所述转动轴(41)的一端穿出过滤筒(1)靠近盖板(5)的端面并连接有第二限位条(411)，当所述第一腔室(31)转动至与第一出水管(12)相连通时，所述第二限位条(411)抵紧于第一出水管(12)对应的盖板(5)，当所述第二腔室(32)转动至与第二出水管(13)相连通时，所述第二限位条(411)抵紧于第二出水管(13)对应的盖板(5)。
  7. 根据权利要求5所述的一种智慧型管网叠压供水一体化机，其特征在于：所述设备主体的进口端连接有连接管(6)，所述连接管(6)的进口端设有切换座(7)，所述切换座(7)内具有切换腔(71)，所述第一出水管(12)的出口端、第二出水管(13)的出口端均连通于切换腔(71)；所述切换座(7)设有切换组件(8)，当所述第一腔室(31)转动至与第一出水管(12)相连通时，所述切换组件(8)开启第一出水管(12)的出口端并闭合第二出水管(13)的出口端，当所述第二腔室(32)转动至与第二出水管(13)相连通时，所述切换组件(8)闭合第一出水管(12)的出口端并开启第二出水管(13)的进口端。
  8. 根据权利要求7所述的一种智慧型管网叠压供水一体化机，其特征在于：所述切换组件(8)包括切换块(81)和驱动件，所述切换块(81)滑移安装于切换腔(71)，所述切换块(81)靠近连接管(6)的侧壁开设有连通于连接管(6)的连接槽(811)，所述切换块(81)远离连接管(6)的侧壁分别开设有连通于连接槽(811)的第一流道(812)和第二流道(813)，所述第一流道(812)的进口端用于连通第一出水管(12)，所述第二流道(813)的进口端用于连通第二出水管(13)；当所述第一流道(812)的进口端连通第一出水管(12)的出口端时，所述第二流道(813)的进口端与第二出水管(13)的出口端呈错位设置，当所述第二流道(813)的进口端连通第二出水管(13)的出口端时，所述第一流道(812)的进口端与第一出水管(12)的出口端呈错位设置；所述驱动件设置于切换块(81)和转动轴(41)之间以用于驱使切换块(81)滑移。
  9. 根据权利要求8所述的一种智慧型管网叠压供水一体化机，其特征在于：所述驱动件包括第一齿轮(82)、第二齿轮(83)以及齿条(84)，所述第一齿轮(82)转动设置于切换座(7)的顶部，所述电机(42)的输出轴同轴连接于第一齿轮(82)，所述转动轴(41)的一端穿出过滤筒(1)并同轴连接于第二齿轮(83)；所述齿条(84)滑移安装于切换座(7)的顶部，所述切换块(81)连接有连接杆(85)，所述连接杆(85)的一端穿出切换座(7)并连接于齿条(84)，所述齿条(84)和切换块(81)之间通过连接杆(85)连为一体，所述第一齿轮(82)和第二齿轮(83)之间、第一齿轮(82)和齿条(84)之间均啮合传动。
  10. 根据权利要求1所述的一种智慧型管网叠压供水一体化机，其特征在于：所述第一出水管(12)的进口端高度、第二出水管(13)的进口端高度均高于过滤筒(1)内壁的最低位置。
PCT/CN2025/102774 2024-07-24 2025-06-23 一种智慧型管网叠压供水一体化机 Pending WO2026021089A1 (zh)

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Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN118529810B (zh) * 2024-07-24 2024-11-19 上海晨菲水务科技有限公司 一种智慧型管网叠压供水一体化机

Citations (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5423349A (en) * 1993-03-20 1995-06-13 Plenty Limited Diverting fluid flow
KR20050089678A (ko) * 2004-03-05 2005-09-08 주식회사 승광 온도세분화 및 자동재생이 가능한 냉온연수기
CN204017674U (zh) * 2014-09-01 2014-12-17 福建宏远集团有限公司 一种净水过滤器
CN115350594A (zh) * 2022-10-20 2022-11-18 河北成达水处理科技有限公司 一种玻璃钢膜壳过滤装置
CN219279545U (zh) * 2023-03-28 2023-06-30 上海坤铧环保设备有限公司 一种可更换过滤罐的软水机
CN219481871U (zh) * 2023-03-24 2023-08-08 江苏分米环保科技有限公司 一种带滤芯寿命显示便捷更换滤芯的家用净水设备
CN220182814U (zh) * 2023-06-06 2023-12-15 浙江精汇印染有限公司 一种纺织印染废水处理设备
CN220328113U (zh) * 2023-07-10 2024-01-12 安徽省中茂世嘉纸业有限公司 纸巾加工使用的废液回收处理系统
CN117989118A (zh) * 2024-02-01 2024-05-07 上海金联热电有限公司 一种汽电联驱锅炉给水泵的压力调节控制设备及其系统
CN220939400U (zh) * 2023-10-20 2024-05-14 江苏泷膜环境科技有限公司 一种生产制药用水的多腔膜过滤器
CN118529810A (zh) * 2024-07-24 2024-08-23 上海晨菲水务科技有限公司 一种智慧型管网叠压供水一体化机

Family Cites Families (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP3049769U (ja) * 1997-12-15 1998-06-26 ウエン ル チ ろ水器用水流切換弁
CN214050640U (zh) * 2020-12-17 2021-08-27 上海特德拉化工有限公司 一种节能环保型水处理器
CN215980945U (zh) * 2021-06-28 2022-03-08 浙江博科阀门科技有限公司 一种防堵型气动阀门
CN217870766U (zh) * 2022-07-19 2022-11-22 青岛青山机电设备工程有限公司 一种智慧型管网叠压供水一体化机
CN218931779U (zh) * 2022-10-26 2023-04-28 山西月明堂生物科技有限公司 一种活性炭过滤结构
CN116425226A (zh) * 2023-04-12 2023-07-14 江苏创一佳科技股份有限公司 自清洁净水设备

Patent Citations (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5423349A (en) * 1993-03-20 1995-06-13 Plenty Limited Diverting fluid flow
KR20050089678A (ko) * 2004-03-05 2005-09-08 주식회사 승광 온도세분화 및 자동재생이 가능한 냉온연수기
CN204017674U (zh) * 2014-09-01 2014-12-17 福建宏远集团有限公司 一种净水过滤器
CN115350594A (zh) * 2022-10-20 2022-11-18 河北成达水处理科技有限公司 一种玻璃钢膜壳过滤装置
CN219481871U (zh) * 2023-03-24 2023-08-08 江苏分米环保科技有限公司 一种带滤芯寿命显示便捷更换滤芯的家用净水设备
CN219279545U (zh) * 2023-03-28 2023-06-30 上海坤铧环保设备有限公司 一种可更换过滤罐的软水机
CN220182814U (zh) * 2023-06-06 2023-12-15 浙江精汇印染有限公司 一种纺织印染废水处理设备
CN220328113U (zh) * 2023-07-10 2024-01-12 安徽省中茂世嘉纸业有限公司 纸巾加工使用的废液回收处理系统
CN220939400U (zh) * 2023-10-20 2024-05-14 江苏泷膜环境科技有限公司 一种生产制药用水的多腔膜过滤器
CN117989118A (zh) * 2024-02-01 2024-05-07 上海金联热电有限公司 一种汽电联驱锅炉给水泵的压力调节控制设备及其系统
CN118529810A (zh) * 2024-07-24 2024-08-23 上海晨菲水务科技有限公司 一种智慧型管网叠压供水一体化机

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