A central tube structure for a water purifying device

Abstract

The application discloses a water purifying device center tube structure, which comprises a center tube, a disinfecting device, a heating structure and a flow channel partition plate structure, wherein the disinfecting device and the heating structure are arranged in the center tube, the heating structure comprises a heating structure A and a heating structure B, the flow channel partition plate structure is arranged on the heating structure, and the flow channel partition plate structure comprises a flow channel partition plate structure A and a flow channel partition plate structure B. The cavity structure and the disinfecting device are arranged, so that the multi-angle disinfection of the inside of the center tube is realized; the heating structure is arranged, so that the heating efficiency of water bodies is increased; and the flow channel partition plate structure is arranged, so that the contact area and the heating time of the water bodies are increased. The application not only solves the problem of center tube pollution cleaning, but also integrates the heating function in the center tube, so that the advantages of filtration, heating and disinfection integration are realized.

Description

Technical Field

[0001] This invention belongs to the field of water purification technology, and particularly relates to a central tube structure for a water purification device. Background Technology

[0002] In the process of water purification using spiral reverse osmosis membranes, raw water is filtered through the reverse osmosis membrane and gradually converges into the central tube to produce pure water. Over long-term use, bacteria can easily grow on the inner wall of the central tube, causing water pollution. This requires regular cleaning of the central tube. The inner wall of the central tube is relatively closed, making frequent cleaning inconvenient. On the other hand, water purifiers often include an additional heating device after purification, which occupies a certain amount of space. Therefore, a central tube that can solve the above problems is needed.

[0003] Patent document WO2022116365A1 discloses a UV lamp disinfection water purification reactor and its manufacturing method, including a reactor cavity with an inlet and an outlet; a UV disinfection lamp is installed inside the reactor cavity; and a rectifier device with rectifying orifices is installed inside the reactor cavity. By using a rectifier device in conjunction with the UV disinfection lamp, the water flow is rectified after passing through the rectifying orifices of the rectifier device, effectively reducing turbulence or eddies. Combined with UV disinfection, this achieves better purification and disinfection results. However, this water purifier places the disinfection lamp in a large space within the reactor cavity and lacks a water heating function. Summary of the Invention

[0004] To solve the above-mentioned technical problems, the present invention provides a central pipe structure for a water purification device.

[0005] The present invention is achieved through the following technical solutions.

[0006] The present invention provides a central tube structure for a water purification device, comprising a central tube, a disinfection device, a heating structure, and a flow channel baffle structure. The disinfection device and the heating structure are disposed inside the central tube. The heating structure includes heating structure A and heating structure B. The flow channel baffle structure is disposed on the heating structure and includes flow channel baffle structure A and flow channel baffle structure B.

[0007] Preferably, the central tube has an annular columnar structure, with one end closed and the other end open. The central tube is provided with a water collection hole, a cavity structure, and a boss, and the disinfection device is disposed inside the cavity structure.

[0008] Preferably, the disinfection device includes a circuit board, a light-emitting chip, circuit wires, electrodes, and electrode leads. The light-emitting chip is disposed on the circuit board and connected to the electrodes through circuit wires. The electrodes are connected to the electrode leads of the disinfection device, and the electrode leads of the disinfection device extend from one end of the central tube.

[0009] Preferably, the heating structure A includes a heating tube and a heating element A. The heating element A includes a heating wire heat source and a heating wire electrode lead. The heating wire heat source is disposed inside the heating tube. The heating tube is made of calcium oxide ceramic and zirconium oxide ceramic. The flow channel baffle structure is disposed on the heating tube. The heating wire electrode lead is led out from one end of the heating tube. One end of the heating tube is the bottom, which is connected to the flow channel baffle structure. The other end of the heating tube is the outlet end. A connection is provided on the heating tube. One end of the flow channel baffle structure is sealed to the heating tube and the inner wall of the central tube through the connection.

[0010] Preferably, the heating structure B includes a heating tube and a heating element B. A conductive layer and an insulating layer are disposed on the heating tube, with the conductive layer disposed between the heating tube and the insulating layer. The heating element B is disposed on the surface of the heating tube, and the electrode lead of the heating element B is led out from one end of the heating tube.

[0011] Preferably, the flow channel baffle structure A includes a flow channel baffle, the flow channel baffle has a spiral structure, the material of the flow channel baffle includes PEEK and PPSU, one end of the flow channel baffle is connected to the heating tube, and the other end of the flow channel baffle is connected to the central tube.

[0012] Preferably, the flow channel baffle structure B includes a flow channel baffle and a sealing element. Two flow channel baffles are provided, and the two flow channel baffles form an inlet spiral flow channel and an outlet spiral flow channel on the flow channel baffle structure B. The outlet end of the inlet spiral flow channel is sealed by the sealing element on the central tube, and one end of the inlet spiral flow channel is connected to the outlet spiral flow channel at the connection point of the double spiral flow channel of the heating structure.

[0013] Preferably, the light-emitting chip is an LED light-emitting chip, using ultraviolet semiconductor InGaN / AlGaN and MgZnO / ZnO heterojunction and quantum well light-emitting diode as the light source, and several light-emitting chips are connected in parallel on the circuit board.

[0014] Preferably, the heating element B is prepared by printing a thick film, and the insulating layer material includes glass glaze.

[0015] Preferably, the central tube is made of quartz glass, and the cavity structure is a vacuum.

[0016] The beneficial effects of this invention are as follows:

[0017] This invention achieves multi-angle disinfection of the central tube's interior through a cavity structure and disinfection device; it increases the efficiency of water heating through a heating structure; and it increases the contact area and heating time of the heated water through a flow channel baffle structure. This invention not only solves the problem of cleaning a contaminated central tube but also integrates the heating function within the central tube, achieving the advantages of integrated filtration, heating, and disinfection. Attached Figure Description

[0018] Figure 1 This is an exploded view of Embodiment 1 of the present invention;

[0019] Figure 2 This is an axial cross-sectional view of the central tube in Embodiment 1 of the present invention;

[0020] Figure 3 This is a schematic diagram of the water flow direction in Embodiment 1 of the present invention;

[0021] Figure 4 This is a radial cross-sectional view of Embodiment 1 of the present invention;

[0022] Figure 5 This is an axial cross-sectional view of the central tube in Embodiment 1 of the present invention;

[0023] Figure 6 This is a radial cross-sectional view of the central tube in Embodiment 1 of the present invention;

[0024] Figure 7 This is a fractured view of the disinfection device of the present invention;

[0025] Figure 8 This is a fracture view of the heating element in Embodiment 1 of the present invention;

[0026] Figure 9 This is a schematic diagram of the partition of the present invention;

[0027] Figure 10 This is a schematic diagram of the heating element A of the present invention;

[0028] Figure 11 This is an axial cross-sectional view of Embodiment 2 of the present invention;

[0029] Figure 12 This is a schematic diagram of the double-helix water flow direction in Embodiment 2 of the present invention;

[0030] Figure 13 This is a schematic diagram of the heating tube and flow channel baffle structure B in Embodiment 2 of the present invention;

[0031] Figure 14 This is a schematic diagram of the heating structure B7 in Embodiment 3 of the present invention.

[0032] In the diagram: 1-Central tube, 101-Water collection hole, 102-Cavity structure, 103-Boss, 2-Disinfection device, 201-Circuit board, 202-Light-emitting chip, 203-Circuit wire, 204-Electrode, 205-Disinfection device electrode lead, 3-Heating tube, 301-Bottom, 302-Outlet end, 303-Connection, 4-Flow channel baffle, 5-Heating element A, 501-Heating wire heat source, 502-Heating wire electrode lead, 6-Flow channel baffle structure B, 601-Inlet spiral flow channel, 602-Outlet spiral flow channel, 603-Sealing component, 604-Connection, 605-Flow channel outlet, 7-Heating structure B, 701-Heating element B, 702-Conductive layer, 703-Electrode lead, 704-Insulating layer. Detailed Implementation

[0033] The technical solution of the present invention is further described below, but the scope of protection is not limited to what is described.

[0034] like Figures 1 to 14 As shown, a central pipe structure for a water purification device includes a central pipe 1, a disinfection device 2, a heating structure, and a flow channel baffle structure. The disinfection device 2 and the heating structure are disposed within the central pipe 1. The heating structure includes heating structure A and heating structure B7. The flow channel baffle structure is disposed on the heating structure and includes flow channel baffle structure A and flow channel baffle structure B6. The flow channel baffle structure forms a certain water flow channel in the space between the outer wall of the heating pipe 3 and the inner wall of the central pipe 1.

[0035] The central tube 1 has an annular columnar structure, with one end closed and the other end open. The central tube 1 is provided with several water collection holes 101, cavity structures 102, and protrusions 103. The cavity structures 102 are arranged in a cross pattern, and the disinfection device 2 is disposed within each cavity structure 102. Generally, the divergence angle of an ultraviolet light-emitting tube is approximately 120°. To ensure uniform emission intensity in all directions, multiple cavity structures 102 are provided, with four cavity structures 102 evenly arranged around the inner circumference of the central tube 1. A water collection hole 101 is provided between each cavity structure 102, allowing water to flow into the central tube 1 from the water collection hole 101.

[0036] The disinfection device 2 has an ultraviolet emission function. The disinfection device 2 includes a long strip circuit board 201, a light-emitting chip 202, circuit wires 203, electrodes 204, and electrode leads 205. The light-emitting chip 202 is mounted on the circuit board 201 and is connected to the electrodes 204 via the circuit wires 203. The electrodes 204 are connected to the electrode leads 205 of the disinfection device, which extend from one end of the central tube 1. The circuit board 201 is a PCB circuit board.

[0037] The heating structure A includes a heating tube 3 and a heating element A5. The heating tube 3 is a heating carrier located in the inner wall space of the central tube 1. The heating element A5 is a resistance heating heat source, and the heating method can be resistance wire heating. The heating element A5 includes a heating wire heat source 501 and a heating wire electrode lead 502. The heating wire heat source 501 is disposed inside the heating tube 3. The heating tube 3 is made of calcium oxide ceramic and zirconium oxide ceramic, which have high thermal conductivity and insulation characteristics. The flow channel partition structure is disposed on the heating tube 3. The resistance wire of the heating element A5 is encapsulated inside the heating tube. The heating wire electrode lead 502 is led out from one end of the heating tube 3.

[0038] One end of the heating element 3 is the bottom 301, which is connected to the flow channel baffle structure. The other end of the heating element 3 is the outlet end 302, where pure water flows out. A connection 303 is provided on the heating element 3. One end of the flow channel baffle structure is sealed to the heating element 3 and the inner wall of the central tube 1 through the connection 303. Figure 4 The water flow path shown is as follows: water flows through the water collection hole 101 and enters the inner wall of the central tube 1. It flows to the bottom 301 of the heating tube in the flow channel formed by the spiral baffle 4, and then flows out of the central tube 1 from the inner wall of the heating tube 3 towards the outlet end 302 of the heating tube.

[0039] The heating structure B7 includes a heating tube 3 and a heating element B701. A conductive layer 702 and an insulating layer 704 are disposed on the heating tube 3. The conductive layer 702 is obtained by coating the ceramic substrate surface of the heating tube 3 with conductive paste to form a conductive heating circuit. The conductive layer 702 is disposed between the heating tube 3 and the insulating layer 704. The heating element B701 is disposed on the surface of the heating tube 3 and is in contact with the water, which improves the water heating efficiency. The electrode lead 703 of the heating element B701 is led out from one end of the heating tube 3. The flow channel baffle structure is disposed on the heating tube 3.

[0040] The flow channel baffle structure A includes a flow channel baffle 4, which has a spiral structure to fully heat the water, increase the water heating time, and increase the water's heated surface area. The flow channel baffle 4 is made of materials including PEEK and PPSU. One end of the flow channel baffle 4 is connected to the heating tube 3, and the other end of the flow channel baffle 4 is connected to the central tube 1.

[0041] The flow channel baffle structure B6 includes flow channel baffles 4 and a sealing element 603. The flow channel baffles 4 are arranged in parallel directions to form a double spiral channel, so as to increase the length of the spiral flow channel of the flow channel baffles 4 and the heated surface area of ​​the water body, and ensure that the inner wall of the central tube 1 can be disinfected by ultraviolet light. The two flow channel baffles 4 form an inlet spiral flow channel 601 and an outlet spiral flow channel 602 on the flow channel baffle structure B6. The outlet end of the inlet spiral flow channel 601 is sealed by the sealing element 603 on the central tube 1. One end of the inlet spiral flow channel 601 and the outlet spiral flow channel 602 are connected at the double spiral flow channel connection 604 at the bottom of the heating tube 3 of the heating structure. The other end of the inlet spiral flow channel 601 is connected to the water collection hole 101. The water flows out of the central tube 1 through the flow channel outlet 605 of the outlet spiral flow channel 602.

[0042] The light-emitting chip 202 is an LED light-emitting chip, using ultraviolet semiconductor InGaN / AlGaN and MgZnO / ZnO heterojunction and quantum well light-emitting diode as light source. Several light-emitting chips 202 are connected in parallel on the circuit board 201 to ensure ultraviolet light illumination.

[0043] The heating element B701 is prepared by printing a thick film to improve heating efficiency, and the insulating layer 704 is made of glass glaze.

[0044] The central tube 1 is made of quartz glass to improve ultraviolet light transmittance. The cavity structure 102 is a vacuum. During the manufacturing process, the sterilization device 2 is first inserted into the cavity structure 102 from one end. After the vacuum is drawn, the open port of the cavity structure 102 is sealed by flame sintering.

[0045] Example 1:

[0046] like Figures 1 to 10 As shown, a water purification device has a central pipe structure, including a central pipe 1, a disinfection device 2, a heating structure A, and a flow channel baffle structure A.

[0047] Example 2:

[0048] like Figures 9 to 13 As shown, a water purification device has a central pipe structure, including a central pipe 1, a disinfection device 2, a heating structure B6, and a flow channel baffle structure B6.

[0049] Example 3:

[0050] like Figure 9 , 10 As shown in Figures 1 and 14, a central pipe structure for a water purification device includes a central pipe 1, a disinfection device 2, a heating structure B7, and a flow channel baffle structure A.

Claims

1. A central pipe structure for a water purification device, characterized in that: It includes a central tube (1), a disinfection device (2), a heating structure and a flow channel baffle structure. The disinfection device (2) and the heating structure are disposed inside the central tube (1). The heating structure includes heating structure A and heating structure B (7). The flow channel baffle structure is disposed on the heating structure. The flow channel baffle structure includes flow channel baffle structure A and flow channel baffle structure B (6). The central tube (1) has an annular columnar structure. One end of the central tube (1) is closed and the other end is open. The central tube (1) is provided with a water collection hole (101), a cavity structure (102) and a boss (103). The disinfection device (2) is installed inside the cavity structure (102). The heating structure A includes a heating tube (3) and a heating element A (5). The heating element A (5) includes a heating wire heat source (501) and a heating wire electrode lead (502). The heating wire heat source (501) is disposed inside the heating tube (3). The heating tube (3) is made of calcium oxide ceramic and zirconium oxide ceramic. The flow channel partition structure is disposed on the heating tube (3). The heating wire electrode lead (502) is led out from one end of the heating tube (3). One end of the heating tube (3) is the bottom (301), which is connected to the flow channel partition structure. The other end of the heating tube (3) is the outlet end (302). A connection point (303) is provided on the heating tube (3). One end of the flow channel partition structure is sealed to the inner wall of the heating tube (3) and the central tube (1) through the connection point (303). The heating structure B (7) includes a heating tube (3) and a heating element B (701). A conductive layer (702) and an insulating layer (704) are provided on the heating tube (3). The conductive layer (702) is disposed between the heating tube (3) and the insulating layer (704). The heating element B (701) is disposed on the surface of the heating tube (3). The electrode lead (703) of the heating element B (701) is led out from one end of the heating tube (3). The central tube (1) is made of quartz glass, and the cavity structure (102) is a vacuum.

2. The central pipe structure of a water purification device as described in claim 1, characterized in that: The disinfection device (2) includes a circuit board (201), a light-emitting chip (202), a circuit wire (203), an electrode (204), and an electrode lead (205). The light-emitting chip (202) is disposed on the circuit board (201). The light-emitting chip (202) is connected to the electrode (204) through the circuit wire (203). The electrode (204) is connected to the electrode lead (205) of the disinfection device. The electrode lead (205) of the disinfection device is led out from one end of the central tube (1).

3. The central pipe structure of a water purification device as described in claim 1, characterized in that: The flow channel baffle structure A includes a flow channel baffle (4), which has a spiral structure. The material of the flow channel baffle (4) includes PEek and PPSU. One end of the flow channel baffle (4) is connected to the heating tube (3), and the other end of the flow channel baffle (4) is connected to the central tube (1).

4. The central pipe structure of a water purification device as described in claim 1, characterized in that: The flow channel baffle structure B (6) includes a flow channel baffle (4) and a sealing member (603). Two flow channel baffles (4) are provided, and the two flow channel baffles (4) form an inlet spiral flow channel (601) and an outlet spiral flow channel (602) on the flow channel baffle structure B (6). The outlet end of the inlet spiral flow channel (601) is sealed by the sealing member (603) on the central tube (1). One end of the inlet spiral flow channel (601) is connected to the outlet spiral flow channel (602) at the connection point (604) of the double spiral flow channel of the heating structure.

5. The central pipe structure of a water purification device as described in claim 2, characterized in that: The light-emitting chip (202) is an LED light-emitting chip, using ultraviolet semiconductor InGaN / AlGaN and MgZnO / ZnO heterojunction and quantum well light-emitting tube as light source, and several light-emitting chips (202) are connected in parallel on the circuit board (201).

6. The central pipe structure of a water purification device as described in claim 1, characterized in that: The heating element B (701) is prepared by printing a thick film, and the insulating layer (704) is made of glass glaze.

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