A carbonization canister and a water purifier

Abstract

This utility model discloses a carbonization tank and a water purifier, belonging to the field of water purifiers. It includes: a carbonization tank body with a carbonization cavity inside, the tank body being made of conductive material, and conductive perforations at the bottom; a conductive tube passing through the conductive perforations and fixedly connected to the bottom of the carbonization tank body, one end of the tube located in the carbonization cavity, and the other end located outside the tank body; the tube being made of conductive material and insulated from the bottom of the tank body; the portion of the tube above the bottom of the carbonization cavity forming an isolation section and a conductive section, the conductive section being higher than the isolation section; an insulating tube sleeved on the isolation section, isolating water below the isolation section from the isolation section; and a current detection device electrically connected between the end of the conductive tube located outside the carbonization tank body and the tank body itself. This design integrates pressure relief and liquid level detection functions, occupies a small space, and has a simple structure.

Description

Technical Field

[0001] This utility model belongs to the field of water purifier technology, specifically relating to a carbonization tank and a water purifier. Background Technology

[0002] In existing technologies, carbonization tanks are typically designed with a tank body, a pressure relief pipe, a liquid level detector, a liquid inlet, an air inlet, and a liquid outlet. During the carbonization process, liquid is first filled into the tank through the liquid inlet, and then carbon dioxide gas is introduced into the liquid through the air inlet, causing the two to form bubble water. Furthermore, reducing the pressure inside the tank via a pressure relief valve allows the carbon dioxide gas and liquid to continuously react and generate bubble water. When the bubble water reaches the designated level, the liquid level detector activates to close the liquid inlet and air inlet.

[0003] However, the pressure relief pipe and the liquid level detector are two separate components with complex structures and occupy a relatively large space. Utility Model Content

[0004] The purpose of this invention is to provide a carbonization tank and a water purifier that integrates pressure relief and liquid level detection functions, while occupying a relatively small space.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a carbonization tank, comprising: A carbonization tank, wherein a carbonization cavity is provided inside the carbonization tank, the carbonization tank is made of conductive material, and conductive perforations are provided at the bottom of the carbonization tank; A conductive tube passes through the conductive perforation and is fixedly connected to the bottom of the carbonization tank. One end of the conductive tube is located in the carbonization cavity, and the other end is located outside the carbonization tank. The conductive tube is made of conductive material and is insulated from the bottom of the carbonization tank. The portion of the conductive tube above the bottom of the carbonization cavity is configured as an isolation section and a conductive section, with the conductive section being higher than the isolation section. An insulating tube is fitted over the isolation section, which isolates water below the level of the isolation section from the isolation section. A current detection device is electrically connected between one end of the conductive tube located outside the carbonization tank and the carbonization tank.

[0006] Furthermore, the carbonization tank includes a carbonization upper tank and a carbonization base. The carbonization cavity opens one side of the carbonization tank, and the carbonization base closes the opening of the carbonization cavity. The carbonization base is made of insulating material, and the conductive perforation is provided on the carbonization base.

[0007] Furthermore, it also includes a connecting sleeve, which includes a threaded section and a plug-in section. A connecting step is provided at the connection between the threaded section and the plug-in section. A first sealing ring is fitted on the plug-in section. A threaded hole is provided at the end of the conductive perforation away from the carbonization cavity. A sealing step is provided between the threaded hole and the conductive perforation. The threaded section is threadedly connected to the threaded hole. The first sealing ring is located between the connecting step and the sealing step. The conductive tube passes through the connecting sleeve.

[0008] Furthermore, the insulating tube is made of an elastic material, and the connecting sleeve also includes a tapered section located within the carbonized cavity, with the lower end of the insulating tube being interference-fitted with the tapered section.

[0009] Furthermore, the conductive tube has a limiting annular groove on a section of the outer wall outside the carbonization tank. The connecting sleeve also includes a limiting section located outside the carbonization tank. The limiting section has a transverse through groove, and a transverse limiting rod is inserted into the transverse through groove. The transverse limiting rod has a transverse limiting groove, and the bottom of the transverse limiting groove is inserted into the limiting annular groove.

[0010] Furthermore, the threaded section is provided with an inner sealing hole with an opening facing the limiting section. An inner sealing ring and an inner sealing sleeve are installed in the inner sealing hole. The inner sealing ring is located on the side of the inner sealing sleeve away from the transverse limiting rod. The inner sealing ring is in a compressed state, and the end of the inner sealing sleeve away from the inner sealing ring abuts against it.

[0011] Furthermore, it also includes: An air intake pipe body, the air intake pipe body includes an air intake end and an air outlet end, the air outlet end is located inside the carbonization cavity, the air outlet end is located near the bottom of the carbonization cavity, and the air intake end is located outside the carbonization tank body; A carbonized water inlet pipe body, comprising a carbonized water inlet and a carbonized water outlet, wherein the carbonized water outlet is located within the carbonization chamber and is positioned away from the bottom of the carbonization chamber, with its opening facing the bottom of the carbonization chamber, and an atomizing nozzle is installed at the carbonized water outlet, and the carbonized water inlet is located on the outside of the carbonization tank; The bubble outlet pipe includes a bubble outlet inlet and a bubble outlet. The bubble outlet inlet is located inside the carbonization chamber, and the bubble outlet is located outside the carbonization tank.

[0012] A water purifier was also disclosed, including the aforementioned carbonization canister, and further comprising: The ice chamber body includes an ice chamber cavity, and the ice chamber body is provided with an ice chamber inlet and an ice chamber outlet communicating with the ice chamber cavity. The ice chamber body is also provided with a refrigeration device. A booster pump, comprising a booster pump inlet and a booster pump outlet, wherein the booster pump inlet is connected to the ice chamber outlet and the booster pump outlet is connected to the carbonization inlet, and the current detection device is electrically connected to the booster pump; A carbon dioxide cylinder, the carbon dioxide cylinder including a cylinder outlet, the cylinder outlet being connected to the inlet; A sparkling water outlet valve, comprising a sparkling water valve inlet and a sparkling water valve outlet, wherein the sparkling water valve inlet is connected to the sparkling water outlet; The compensator includes a flow-stabilizing inlet and a flow-stabilizing outlet, and the outlet of the bubble water valve is connected to the flow-stabilizing inlet.

[0013] Furthermore, it also includes a filter element, which includes a filter inlet and a filter outlet, the filter outlet being connected to the water inlet of the ice chamber.

[0014] Furthermore, it also includes: A high-pressure pump, the high-pressure pump including a high-pressure pump inlet and a high-pressure pump outlet, the high-pressure pump inlet being connected to the filter outlet; A heating device, comprising a heating inlet and a heating outlet, wherein the heating inlet is connected to the outlet of the high-pressure pump.

[0015] Compared with the prior art, the beneficial effects of this utility model are: (1) When the height of the bubble water in the carbonization chamber is higher than the height of the insulating tube, the conductive section and the carbonization tank are connected through the bubble water. At this time, the current detection device can detect the current, indicating that the bubble water level has reached a high level. The above settings can realize the integrated functions of pressure relief and liquid level detection, occupying a relatively small space and having a simple structure. (2) The inner wall of the insulating tube can fit tightly against the outer wall of the tapered section to prevent water from flowing into the gap between the insulating tube and the conductive tube; (3) The bottom of the transverse limiting groove is inserted into the limiting ring groove, thereby limiting the upper and lower positions of the conductive tube and preventing the conductive tube from moving. (4) The inner sealing ring can provide the inner sealing sleeve with a rebound force, so that the inner sealing sleeve is pressed against the transverse limiting rod, thereby preventing the transverse limiting rod from moving laterally. The inner sealing ring can also increase the sealing between the threaded section and the conductive tube. (5) Water enters from the carbonization inlet and is eventually atomized from the atomizing nozzle. The atomized water and the carbon dioxide coming out from the outlet can be fully mixed and carbonized, resulting in better carbonization effect of the bubble water. (6) When the height of the bubble water in the carbonization chamber is higher than the height of the insulating tube, the conductive section and the carbonization tank are connected by the bubble water. At this time, the current detection device can detect the current and control the booster pump to stop feeding water into the carbonization chamber, thereby achieving water level control in the carbonization chamber. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the connection structure of the water purifier; Figure 2 This is a schematic diagram of the carbonization tank. Figure 3 for Figure 2 Top view; Figure 4 for Figure 3 Cross-sectional view at point AA; Figure 5 This is a schematic diagram of the internal structure of the carbonization tank; Figure 6 for Figure 5 Top view; Figure 7 for Figure 6 Cross-sectional view at point BB; Figure 8 for Figure 7 A magnified view of a section at point I; Figure 9 for Figure 6 Cross-sectional view at point C.

[0017] In the diagram: 1. Carbonization tank; 2. Carbonization cavity; 3. Conductive perforation; 4. Conductive pipe; 5. Isolation section; 6. Conductive section; 7. Insulating pipe; 8. Current detection device; 9. Upper carbonization tank; 10. Carbonization base; 11. Threaded section; 12. Insertion section; 13. Connecting step; 14. First sealing ring; 15. Threaded hole; 16. Sealing step; 17. Conical section; 18. Limiting ring groove; 19. Limiting section; 20. Transverse through groove; 21. Transverse limiting rod; 22. Transverse limiting groove; 23. Inner sealing hole; 24. Inner sealing ring; 25. Inner sealing sleeve; 26. Air inlet pipe; 27. Air inlet end; 28. Air outlet end; 29. ​​Carbonization water inlet pipe; 30. Carbonization water inlet; 31. Carbonization water outlet; 32. 33. Atomizing nozzle; 34. Bubble water outlet pipe; 35. Bubble water outlet; 36. Bubble water outlet; 37. Ice tank body; 38. Ice tank cavity; 39. Ice tank inlet; 40. Ice tank outlet; 41. Refrigeration unit; 42. Booster pump; 43. Booster pump inlet; 44. Booster pump outlet; 45. Carbon dioxide cylinder; 46. Cylinder outlet; 47. Bubble water outlet valve; 48. Bubble water valve inlet; 49. Compensator; 50. Flow stabilizer inlet; 51. Flow stabilizer outlet; 52. Filter element; 53. Filter inlet; 54. Filter outlet; 55. High-pressure pump; 56. High-pressure pump inlet; 57. High-pressure pump outlet; 58. Heating unit; 59. Heating inlet; 60. Heating outlet. Detailed Implementation

[0018] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0019] Please see Figures 1-9 This utility model provides a carbonization tank and a water purifier technical solution.

[0020] A carbonization vessel, comprising: Carbonization tank 1, carbonization chamber 2 is provided inside carbonization tank 1, carbonization tank 1 is made of conductive material, and conductive perforation 3 is provided at the bottom of carbonization tank 1; The conductive tube 4 passes through the conductive perforation 3 and is fixedly connected to the bottom of the carbonization tank 1. One end of the conductive tube 4 is located in the carbonization cavity 2, and the other end is located outside the carbonization tank 1. The conductive tube 4 is made of conductive material and is insulated from the bottom of the carbonization tank 1. The part of the conductive tube 4 above the bottom of the carbonization cavity 2 is set as an isolation section 5 and a conductive section 6, and the conductive section 6 is higher than the isolation section 5. Insulating pipe 7 is sleeved on isolation section 5, and insulating pipe 7 isolates water below the level of isolation section 5 from isolation section 5. The current detection device 8 is electrically connected between one end of the conductive tube 4 located outside the carbonization tank 1 and the carbonization tank 1.

[0021] The conductive tube 4 serves to relieve pressure and release air. When the height of the bubble-filled water in the carbonization chamber 2 is lower than the height of the insulating tube 7, there is no connection between the carbonization tank 1 and the conductive section 6, so the current detection device 8 cannot detect any current. When the height of the bubble-filled water in the carbonization chamber 2 is higher than the height of the insulating tube 7, the conductive section 6 and the carbonization tank 1 are connected through the bubble-filled water. At this time, the current detection device 8 can detect the current, indicating that the bubble-filled water level has reached a high level, and corresponding operations can be performed, such as stopping the introduction of water into the carbonization chamber 2. Through the above settings, the functions of pressure relief and liquid level detection can be integrated, occupying a small space and having a simple structure.

[0022] like Figures 4-8 As shown, the carbonization tank 1 includes an upper carbonization tank 9 and a carbonization base 10. The carbonization cavity 2 opens one side of the carbonization tank 1. The upper carbonization tank 9 and the carbonization base 10 are fixed together. The carbonization base 10 closes the opening of the carbonization cavity 2. The carbonization base 10 is made of insulating material, and conductive perforations 3 are provided on the carbonization base 10. The separate design facilitates the installation of the conductive tube 4.

[0023] like Figures 4-8 As shown, the carbonization tank also includes a connecting sleeve, which includes a threaded section 11 and a plug-in section 12. A connecting step 13 is provided at the connection between the threaded section 11 and the plug-in section 12. A first sealing ring 14 is fitted onto the plug-in section 12. A threaded hole 15 is provided at the end of the conductive perforation 3 away from the carbonization cavity 2. A sealing step 16 is provided between the threaded hole 15 and the conductive perforation 3. The threaded section 11 is threadedly connected to the threaded hole 15. The first sealing ring 14 is located between the connecting step 13 and the sealing step 16. The conductive tube 4 passes through the connecting sleeve. The first sealing ring 14 increases the sealing performance between the connecting sleeve and the conductive perforation 3.

[0024] like Figures 4-8 As shown, the insulating tube 7 is made of an elastic material, and the connecting sleeve also includes a tapered section 17 located inside the carbonization cavity 2. The lower end of the insulating tube 7 is press-fitted with the tapered section 17. The tapered section 17 allows the insulating tube 7 to be easily inserted into it. Because the insulating tube 7 is made of an elastic material, its inner wall can fit tightly against the outer wall of the tapered section 17, preventing water from flowing into the gap between the insulating tube 7 and the conductive tube 4. Of course, the inner wall of the insulating tube 7 and the outer wall of the conductive tube 4 also fit tightly together. The material of the insulating tube 7 is not limited to silicone; the conductive tube 4 is made of a metallic conductive material.

[0025] like Figures 7-8As shown, the conductive tube 4 has a limiting annular groove 18 on a section of the outer wall outside the carbonization tank 1. The connecting sleeve also includes a limiting section 19, which is located outside the carbonization tank 1. The limiting section 19 has a transverse through groove 20, and a transverse limiting rod 21 is inserted into the transverse through groove 20. The transverse limiting rod 21 has a transverse limiting groove 22, and the bottom of the transverse limiting groove 22 is inserted into the limiting annular groove 18, thereby limiting the upper and lower positions of the conductive tube 4 and preventing the conductive tube 4 from moving.

[0026] like Figures 7-8 As shown, the threaded section 11 has an inner sealing hole 23 with its opening facing the limiting section 19. An inner sealing ring 24 and an inner sealing sleeve 25 are installed within the inner sealing hole 23. The inner sealing ring 24 is positioned on the side of the inner sealing sleeve 25 away from the transverse limiting rod 21. The inner sealing ring 24 is in a compressed state, and the end of the inner sealing sleeve 25 away from the inner sealing ring 24 abuts against it. The inner sealing ring 24 provides a restoring force to the inner sealing sleeve 25, pressing it tightly against the transverse limiting rod 21, thereby preventing the transverse limiting rod 21 from moving laterally. Additionally, the inner sealing ring 24 also increases the sealing performance between the threaded section 11 and the conductive tube 4. Furthermore, the entire connecting sleeve is also made of insulating material.

[0027] like Figure 1 and Figures 4-8 As shown, the carbonization can also include: The intake pipe body 26 includes an intake end 27 and an outlet end 28. The outlet end 28 is located inside the carbonization chamber 2 and is located near the bottom of the carbonization chamber 2. The intake end 27 is located on the outside of the carbonization tank 1. The carbonized water inlet pipe body 29 includes a carbonized water inlet 30 and a carbonized water outlet 31. The carbonized water outlet 31 is located inside the carbonization chamber 2 and is located away from the bottom of the carbonization chamber 2. The opening of the carbonized water outlet 31 faces the bottom of the carbonization chamber 2. The carbonized water outlet 31 is equipped with an atomizing nozzle 32. The carbonized water inlet 30 is located on the outside of the carbonization tank 1. The bubble outlet pipe body 33 includes a bubble outlet inlet 34 and a bubble outlet 35. The bubble outlet inlet 34 is located inside the carbonization chamber 2, and the bubble outlet 35 is located outside the carbonization tank 1.

[0028] Furthermore, the air inlet pipe 26 and the carbonized water inlet pipe 29 are both fixed on the carbonized base 10, and the bubble outlet pipe 33 is fixed on the carbonized upper tank 9.

[0029] Water enters through the carbonization inlet 30 and is eventually atomized through the atomizing nozzle 32. The atomized water and the carbon dioxide coming out of the outlet 28 can be fully mixed and carbonized, resulting in better carbonization of the sparkling water.

[0030] A water purifier was also disclosed, including the aforementioned carbonization canister, and further comprising: Ice chamber body 36, ice chamber body 36 includes ice chamber cavity 37, ice chamber body 36 is provided with ice chamber inlet 38 and ice chamber outlet 39 communicating with ice chamber cavity 37, ice chamber body 36 is provided with refrigeration device 40. Booster pump 41 includes booster pump inlet 42 and booster pump outlet 43. Booster pump inlet 42 is connected to ice chamber outlet 39. Booster pump outlet 41 is connected to carbonization inlet 30. Current detection device 8 is electrically connected to booster pump 41. Carbon dioxide cylinder 44 includes a cylinder outlet 45, which is connected to the inlet 27. A sparkling water outlet valve 46 includes a sparkling water valve inlet 47 and a sparkling water valve outlet 48, with the sparkling water valve inlet 47 connected to the sparkling water outlet 35. Compensator 49 includes a flow stabilizing inlet 50 and a flow stabilizing outlet 51, and the bubble water valve outlet 48 is connected to the flow stabilizing inlet 50. It also includes filter element 52, which includes filter inlet 53 and filter outlet 54, and filter outlet 54 is connected to ice tank inlet 38.

[0031] Water is introduced into the inlet of filter element 52. After the filter element 52 filters the water, it is input into the ice chamber 37 through the ice chamber inlet 38. After the carbon dioxide cylinder 44 is opened, carbon dioxide enters the carbonization chamber 2 from the outlet 28. The booster pump 41 can pressurize the cold water in the ice chamber 37 and input it into the carbonization chamber 2, thereby producing sparkling water. After the sparkling water outlet valve 46 is opened, sparkling water is output from the sparkling water outlet 48 and guided to the compensator 49. The compensator 49 realizes the depressurization of sparkling water output, thereby realizing the functions of filtration and sparkling water.

[0032] When the height of the bubble-filled water in the carbonization chamber 2 is higher than the height of the insulating tube 7, the conductive section 6 and the carbonization tank 1 are connected through the bubble-filled water. At this time, the current detection device 8 can detect the current and control the booster pump 41 to stop supplying water to the carbonization chamber 2, thus realizing the high water level detection in the carbonization chamber 2. The current detection device 8 is a device for detecting whether the circuit is continuous, and it is an existing device, so it will not be described in detail.

[0033] Water purifiers also include: High pressure pump 55 includes high pressure pump inlet 56 and high pressure pump outlet 57. High pressure pump inlet 56 is connected to filter outlet 54. Heating device 58 includes heating inlet 59 and heating outlet 60, with heating inlet 59 connected to high pressure pump outlet 57.

[0034] The high-pressure pump 55 can pump the filtered water into the heating device 58, which heats the filtered water and outputs it, thus realizing the function of hot water.

[0035] The water purifier also includes a coffee module, which receives hot water from the heating device 58 at its inlet to make coffee.

[0036] Of course, water purifiers are not limited to the above functions. For example, the hot water can be used to brew tea, or the cold water in the ice chamber 37 can be extracted.

[0037] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A carbonization vessel, characterized in that, include: A carbonization tank, wherein a carbonization cavity is provided inside the carbonization tank, the carbonization tank is made of conductive material, and conductive perforations are provided at the bottom of the carbonization tank; A conductive tube passes through the conductive perforation and is fixedly connected to the bottom of the carbonization tank. One end of the conductive tube is located in the carbonization cavity, and the other end is located outside the carbonization tank. The conductive tube is made of conductive material and is insulated from the bottom of the carbonization tank. The portion of the conductive tube above the bottom of the carbonization cavity is configured as an isolation section and a conductive section, with the conductive section being higher than the isolation section. An insulating tube is fitted over the isolation section, which isolates water below the level of the isolation section from the isolation section. A current detection device is electrically connected between one end of the conductive tube located outside the carbonization tank and the carbonization tank.

2. A carbonization tank according to claim 1, characterized in that, The carbonization tank includes a carbonization upper tank and a carbonization base. The carbonization cavity has an opening on one side of the carbonization tank, and the carbonization base closes the opening of the carbonization cavity. The carbonization base is made of insulating material, and the conductive perforation is provided on the carbonization base.

3. A carbonization canister according to claim 2, characterized in that, It also includes a connecting sleeve, which includes a threaded section and a plug-in section. A connecting step is provided at the connection between the threaded section and the plug-in section. A first sealing ring is fitted on the plug-in section. A threaded hole is provided at the end of the conductive perforation away from the carbonization cavity. A sealing step is provided between the threaded hole and the conductive perforation. The threaded section is threadedly connected to the threaded hole. The first sealing ring is located between the connecting step and the sealing step. The conductive tube passes through the connecting sleeve.

4. A carbonization canister according to claim 3, characterized in that, The insulating tube is made of an elastic material, and the connecting sleeve further includes a tapered section located within the carbonized cavity. The lower end of the insulating tube is interference-fitted with the tapered section.

5. A carbonization canister according to claim 3, characterized in that, The conductive tube has a limiting annular groove on a section of the outer wall outside the carbonization tank. The connecting sleeve also includes a limiting section located outside the carbonization tank. The limiting section has a transverse through groove, and a transverse limiting rod is inserted into the transverse through groove. The transverse limiting rod has a transverse limiting groove, and the bottom of the transverse limiting groove is inserted into the limiting annular groove.

6. A carbonization tank according to claim 5, characterized in that, The threaded section has an inner sealing hole with an opening facing the limiting section. An inner sealing ring and an inner sealing sleeve are installed in the inner sealing hole. The inner sealing ring is located on the side of the inner sealing sleeve away from the transverse limiting rod. The inner sealing ring is in a compressed state, and the end of the inner sealing sleeve away from the inner sealing ring abuts against it.

7. A carbonization tank according to claim 1, characterized in that, Also includes: An air intake pipe body, the air intake pipe body includes an air intake end and an air outlet end, the air outlet end is located inside the carbonization cavity, the air outlet end is located near the bottom of the carbonization cavity, and the air intake end is located outside the carbonization tank body; A carbonized water inlet pipe body, comprising a carbonized water inlet and a carbonized water outlet, wherein the carbonized water outlet is located within the carbonization chamber and is positioned away from the bottom of the carbonization chamber, with its opening facing the bottom of the carbonization chamber, and an atomizing nozzle is installed at the carbonized water outlet, and the carbonized water inlet is located on the outside of the carbonization tank; The bubble outlet pipe includes a bubble outlet inlet and a bubble outlet. The bubble outlet inlet is located inside the carbonization chamber, and the bubble outlet is located outside the carbonization tank.

8. A water purifier, characterized in that, The carbonization canister of claim 7 further includes: The ice chamber body includes an ice chamber cavity, and the ice chamber body is provided with an ice chamber inlet and an ice chamber outlet communicating with the ice chamber cavity. The ice chamber body is provided with a refrigeration device. A booster pump, comprising a booster pump inlet and a booster pump outlet, wherein the booster pump inlet is connected to the ice chamber outlet and the booster pump outlet is connected to the carbonization inlet, and the current detection device is electrically connected to the booster pump; A carbon dioxide cylinder, the carbon dioxide cylinder including a cylinder outlet, the cylinder outlet being connected to the inlet; A sparkling water outlet valve, comprising a sparkling water valve inlet and a sparkling water valve outlet, wherein the sparkling water valve inlet is connected to the sparkling water outlet; The compensator includes a flow-stabilizing inlet and a flow-stabilizing outlet, and the outlet of the bubble water valve is connected to the flow-stabilizing inlet.

9. A water purifier according to claim 8, characterized in that, It also includes a filter element, which has a filter inlet and a filter outlet, and the filter outlet is connected to the water inlet of the ice tank.

10. A water purifier according to claim 9, characterized in that, Also includes: A high-pressure pump, the high-pressure pump including a high-pressure pump inlet and a high-pressure pump outlet, the high-pressure pump inlet being connected to the filter outlet; A heating device, comprising a heating inlet and a heating outlet, wherein the heating inlet is connected to the outlet of the high-pressure pump.

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