A carbonization tank and ice liner composite structure and a water purifier

Abstract

This utility model discloses a carbonization tank-ice liner composite structure and a water purifier, belonging to the field of water purifiers. It includes: an ice liner body with an ice liner cavity; a carbonization tank body fixed within the ice liner cavity, also containing a carbonization cavity; an air inlet pipe body including an inlet end and an outlet end, the outlet end located within the carbonization cavity and the inlet end located outside the ice liner body; a carbonization water inlet pipe body including a carbonization water inlet and a carbonization water outlet, the outlet located within the carbonization cavity and outside the ice liner body; and an aerator water outlet pipe body including an aerator water inlet and an aerator water outlet, the inlet located within the carbonization cavity and the outlet located outside the ice liner body. The carbonization tank body, located within the ice liner cavity, utilizes the ice water within the ice liner cavity for cooling, ensuring the carbonization effect while reducing overall volume.

Description

Technical Field

[0001] This utility model belongs to the field of water purifier technology, specifically relating to a carbonized tank ice liner composite structure and a water purifier. Background Technology

[0002] Food-grade carbon dioxide gas from a gas cylinder is mechanically injected into a bottle containing purified (drinking) water using a bubble machine. The resulting aqueous solution is soda water, also known as carbonated water, and is called sparkling water because it contains abundant air bubbles.

[0003] Existing sparkling water machines typically have carbonation devices that are separate from the ice chamber and placed at room temperature. This results in poor carbonation and an overly large machine size. Utility Model Content

[0004] The purpose of this invention is to provide a carbonization tank and ice liner composite structure and a water purifier, which can reduce the size occupied by the carbonization tank and ice liner.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a composite structure for a carbonization tank ice chamber, comprising: The ice chamber body has an ice chamber cavity inside; A carbonization tank, the carbonization tank being fixed inside the ice chamber, the carbonization tank being provided with a carbonization cavity; An air intake pipe body, comprising an air intake end and an air outlet end, wherein the air outlet end is located within the carbonization cavity and the air intake end is located outside the ice bladder body; A carbonized water inlet pipe body, the carbonized water inlet pipe body including a carbonized water inlet and a carbonized water outlet, the carbonized water outlet being located inside the carbonized cavity, and the carbonized water inlet being outside the ice bladder body; 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 ice chamber body.

[0006] Furthermore, the carbonization chamber opens to one side of the carbonization tank, the ice chamber body includes an upper shell and a base, the ice chamber cavity opens to one side of the upper shell, the ice chamber base seals the opening of the ice chamber cavity and the opening of the carbonization chamber, and the air inlet pipe and the carbonization water inlet pipe are both fixed on the ice chamber base.

[0007] Furthermore, the air outlet is located near the ice chamber base, the carbonized water outlet is located away from the ice chamber base, the opening of the carbonized water outlet faces the ice chamber base, and the carbonized water outlet is equipped with an atomizing nozzle.

[0008] Furthermore, the air intake pipe body and the ice chamber base are integrally formed.

[0009] Furthermore, the carbonized water inlet pipe body includes a first carbonized water inlet pipe body and a second carbonized water inlet pipe body. The first carbonized water inlet pipe body is integrally formed with the ice bladder base, and the second carbonized water inlet pipe body is connected to the first carbonized water inlet pipe body through a pipe joint.

[0010] Furthermore, a shell connecting ring is fixed at the opening of the upper shell of the ice chamber, a carbonized connecting ring is fixed at the opening of the carbonized cavity, a base connecting ring is fixed on the ice chamber base, the carbonized connecting ring is located between the shell connecting ring and the base connecting ring, and the carbonized connecting ring, the shell connecting ring and the base connecting ring are fixedly connected.

[0011] Furthermore, the bubble outlet pipe is fixed to the carbonization tank.

[0012] Furthermore, it also includes an electronic cooling device, the electronic cooling device comprising: A cooling element, which is fixed to the side wall of the ice chamber body; Cooling fins, wherein the cooling fins fix the cooling plate to the side facing the ice chamber; Heat dissipation fins are fixed to the side of the cooling plate facing away from the ice chamber.

[0013] A water purifier was also disclosed, including the aforementioned carbonized tank and ice chamber composite structure, and also including; The filter element includes a filter element inlet and a filter element outlet. The carbonization tank is provided with a main water inlet that communicates with the ice chamber. The filter element outlet is connected to the main water inlet. A carbon dioxide cylinder, wherein the carbon dioxide cylinder is provided with a cylinder outlet, and the cylinder outlet is connected to the inlet end; A pressure boosting valve, comprising a pressure boosting valve inlet and a pressure boosting valve outlet, wherein the ice chamber body is provided with a pressure boosting outlet communicating with the ice chamber cavity, the pressure boosting valve inlet communicating with the pressure boosting outlet, and the pressure boosting valve outlet communicating with the carbonization inlet; A bubble outlet valve, comprising a bubble valve inlet and a bubble valve outlet, wherein the bubble valve inlet is connected to the bubble outlet.

[0014] Furthermore, it also includes a cold water pump, which includes a cold water pump inlet and a cold water pump outlet. The side wall of the ice chamber body is provided with a cold water outlet communicating with the ice chamber cavity, and the cold water pump inlet is connected to the cold water outlet.

[0015] Compared with the prior art, the beneficial effects of this utility model are: (1) Since the carbonization tank is located inside the ice chamber, the carbonization tank can use the ice water inside the ice chamber to achieve cooling, which ensures the carbonization effect of the carbonization tank while reducing the overall volume occupancy. (2) The atomizing nozzle atomizes the water, and the atomized water can be fully mixed with the CO2 coming out of the gas outlet for carbonization, resulting in better carbonization effect of the bubble water; (3) The cooling fins can cool the water in the ice chamber. This method of cooling avoids the need for a more complex compressor and reduces the overall volume. (4) The pipeline distance between the pressurized water outlet and the carbonization water inlet is very short, which improves the carbonization effect of the carbonization tank. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the connection structure of the water purifier; Figure 2 A schematic diagram of the composite structure of the carbonization tank ice chamber; Figure 3 for Figure 2 A sectional view; Figure 4 This is a schematic diagram of the connection structure of the ice chamber base.

[0017] In the diagram: 1. Ice chamber body; 2. Ice chamber cavity; 3. Carbonization tank; 4. Air inlet pipe; 5. Air inlet end; 6. Air outlet end; 7. Carbonization water inlet pipe; 8. Carbonization water inlet; 9. Carbonization water outlet; 10. Bubble water outlet pipe; 11. Bubble water outlet; 12. Bubble water outlet; 13. Ice chamber upper shell; 14. Ice chamber base; 15. Atomizing nozzle; 16. Carbonization water inlet first pipe; 17. Carbonization water inlet second pipe; 18. Pipe joint; 19. Shell connecting ring; 20. Carbonization connecting ring; 21. Base connecting ring; 22. Cooling element; 23. Cooling fins; 24. Heat dissipation fins; 25. Carbon dioxide cylinder; 26. Cylinder outlet; 27. Pressure booster valve; 28. Pressure booster valve inlet; 29. ​​Pressure booster valve outlet; 30. Pressure booster outlet; 31. Bubble valve; 32. Bubble valve inlet; 33. Bubble valve outlet; 34. Filter element; 35. Filter element inlet; 36. Filter element outlet; 37. Main inlet; 38. Cold water pump; 39. Cold water pump inlet; 40. Cold water pump outlet; 41. Cold water outlet; 42. Heating device; 43. Coffee module; 44. Carbonization chamber; 45. High-pressure pump. 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 1-4 This utility model provides a composite structure of a carbonization tank and an ice chamber, as well as a technical solution for a water purifier.

[0020] A composite structure for a carbonization tank ice chamber includes: Ice chamber body 1, ice chamber body 1 has an ice chamber cavity 2 inside; Carbonization tank 3 is fixed inside ice chamber 2, and carbonization chamber 44 is provided inside carbonization tank 3. The air intake pipe body 4 includes an air intake end 5 and an air outlet end 6. The air outlet end 6 is located inside the carbonization cavity 44, and the air intake end 5 is located outside the ice bladder body 1. Carbonized water inlet pipe body 7 includes carbonized water inlet 8 and carbonized water outlet 9. Carbonized water outlet 9 is located inside carbonized cavity 44, and carbonized water inlet 8 is outside ice bladder body 1. The bubble outlet pipe body 10 includes a bubble outlet inlet 11 and a bubble outlet 12. The bubble outlet inlet 11 is located inside the carbonization chamber 44, and the bubble outlet 12 is located outside the ice chamber body 1.

[0021] Since the carbonization tank 3 is located inside the ice chamber 2, the carbonization tank 3 can use the ice water inside the ice chamber 2 to achieve cooling, ensuring the carbonization effect of the carbonization tank while reducing the overall volume.

[0022] The carbonization chamber 44 has an opening on one side of the carbonization tank 3. The ice chamber body 1 includes an upper shell 13 and an ice chamber base 14. The ice chamber cavity 2 has an opening on one side of the upper shell 13. The ice chamber base 14 seals the openings of the ice chamber cavity 2 and the carbonization chamber 44. The air inlet pipe 4 and the carbonization water inlet pipe 7 are both fixed to the ice chamber base 14. The ice chamber body 1 and the carbonization tank 3 share the ice chamber base 14, resulting in low cost.

[0023] like Figure 3 and Figure 4 As shown, the air outlet 6 is located near the ice chamber base 14, and the carbonized water outlet 9 is located away from the ice chamber base 14. The opening of the carbonized water outlet 9 faces the ice chamber base 14, and an atomizing nozzle 15 is installed on the carbonized water outlet 9.

[0024] The atomizing nozzle 15 atomizes the water, and the atomized water can be fully mixed with the CO2 coming out of the gas outlet 6 for carbonization, resulting in better carbonization of the bubble water.

[0025] like Figure 3 and Figure 4 As shown, the air intake pipe body 4 and the ice chamber base 14 are integrally formed, so the air intake pipe body 4 does not need to be installed separately, which can save costs.

[0026] like Figure 3 and Figure 4 As shown, the carbonized water inlet pipe body 7 includes a carbonized water inlet first pipe body 16 and a carbonized water inlet second pipe body 17. The carbonized water inlet first pipe body 16 is integrally formed with the ice bladder base 14, and the carbonized water inlet second pipe body 17 is connected to the carbonized water inlet first pipe body 16 through a pipe joint 18.

[0027] like Figure 3 and Figure 4 As shown, a shell connecting ring 19 is fixed at the opening of the upper shell 13 of the ice chamber, a carbonized connecting ring 20 is fixed at the opening of the carbonization cavity 44, and a base connecting ring 21 is fixed on the ice chamber base 14. The carbonized connecting ring 20 is located between the shell connecting ring 19 and the base connecting ring 21. The connecting bolt is moved out and passed through the carbonized connecting ring 20, the shell connecting ring 19, and the base connecting ring 21. Then, the connecting nut is tightened to fix the carbonized connecting ring 20, the shell connecting ring 19, and the base connecting ring 21 together. The installation is very convenient.

[0028] like Figure 4 As shown, the bubble outlet pipe 10 is fixed on the carbonization tank 3. The lower end of the bubble outlet pipe 10 is located near the ice chamber base 14. Preferably, the bubble outlet pipe 10 is integrally formed with the carbonization tank 3, eliminating the need for subsequent assembly and sealing.

[0029] The carbonization tank ice chamber composite structure also includes an electronic refrigeration device, which includes: Cooling element 22 is fixed to the side wall of the ice chamber body 1; Cooling fins 23 fix the cooling plate 22 to the side facing the ice chamber 2; Heat dissipation fins 24 are fixed on the side of the cooling plate 22 facing away from the ice chamber 2.

[0030] The cooling fins 23 can cool the water in the ice chamber 2. This method of cooling avoids the need for a more complex compressor and reduces the overall volume.

[0031] A water purifier was also disclosed, including the aforementioned carbonized tank and ice chamber composite structure, and also including; Filter element 34, which includes filter element inlet 35 and filter element outlet 36, and carbonization tank 3 is provided with a total water inlet 37 that communicates with ice chamber 2, and filter element outlet 36 is connected to the total water inlet 37. A carbon dioxide cylinder 25 is provided with a cylinder outlet 26, which is connected to the inlet 5. The pressure boosting valve 27 includes a pressure boosting valve inlet 28 and a pressure boosting valve outlet 29. The ice chamber body 1 is provided with a pressure boosting outlet 30 that communicates with the ice chamber cavity 2. The pressure boosting valve inlet 28 is connected to the pressure boosting outlet 30, and the pressure boosting valve outlet 29 is connected to the carbonization inlet 8. The bubble outlet valve 31 includes a bubble valve inlet 32 ​​and a bubble valve outlet 33, with the bubble valve inlet 32 ​​connected to the bubble outlet 12.

[0032] Water is introduced into the filter element inlet 35. After the filter element 34 filters the water, it is input into the ice chamber 2 through the main water inlet 37. After the carbon dioxide cylinder 25 is opened, carbon dioxide enters the carbonization chamber 44 from the gas outlet 6. The pressure boosting valve 27 can pressurize the cold water in the ice chamber 2 and input it into the carbonization chamber 44, thereby generating bubble water. After the bubble water outlet valve 31 is opened, the bubble water is output from the bubble valve outlet 33.

[0033] The booster outlet 30 is located near the carbonization inlet 8, so that the pipeline distance between them is very short, which improves the carbonization effect of the carbonization tank.

[0034] like Figure 3 As shown, the bubble outlet valve 31 is fixed on the outer wall of the ice chamber body 1, and the upper end of the bubble outlet pipe 10 is connected to the bubble valve inlet 32.

[0035] The water purifier also includes a cold water pump 38, which includes a cold water pump inlet 39 and a cold water pump outlet 40. A cold water outlet 41, communicating with the ice chamber 2, is located on the side wall of the ice chamber body 1. The cold water pump inlet 39 is connected to the cold water outlet 41. The cold water pump 38 draws cold water from the ice chamber 2, thus achieving the function of dispensing cold water.

[0036] The water purifier also includes a heating device 42 and a high-pressure pump 45. The high-pressure pump 45 draws the water filtered by the filter element 34 to the heating device 42, which heats the water and outputs it to provide hot water.

[0037] The water purifier also includes a coffee module 43, whose inlet receives hot water from the heating device 42 to make coffee.

[0038] Of course, water purifiers are not limited to the above functions; for example, the hot water they produce can be used to brew tea.

[0039] 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 carbonated can ice-chest composite structure, characterized by, include: The ice chamber body has an ice chamber cavity inside; A carbonization tank, the carbonization tank being fixed inside the ice chamber, the carbonization tank being provided with a carbonization cavity; An air intake pipe body, comprising an air intake end and an air outlet end, wherein the air outlet end is located within the carbonization cavity and the air intake end is located outside the ice bladder body; A carbonized water inlet pipe body, the carbonized water inlet pipe body including a carbonized water inlet and a carbonized water outlet, the carbonized water outlet being located inside the carbonized cavity, and the carbonized water inlet being outside the ice bladder body; 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 ice chamber body.

2. The carbonated can ice-chest composite structure of claim 1, wherein, The carbonization chamber has an opening on one side of the carbonization tank. The ice chamber body includes an upper shell and a base. The ice chamber cavity has an opening on one side of the upper shell. The ice chamber base covers the opening of the ice chamber cavity and the opening of the carbonization chamber. The air inlet pipe and the carbonization water inlet pipe are both fixed on the ice chamber base.

3. The carbonated can ice-chest composite structure of claim 2, wherein, The air outlet is located near the ice chamber base, and the carbonized water outlet is located away from the ice chamber base. The opening of the carbonized water outlet faces the ice chamber base, and an atomizing nozzle is installed on the carbonized water outlet.

4. The carbonated can ice-chest composite structure of claim 2, wherein, The air intake pipe body and the ice chamber base are integrally formed.

5. The carbonated can ice-chest composite structure of claim 2, wherein, The carbonized water inlet pipe body includes a first carbonized water inlet pipe body and a second carbonized water inlet pipe body. The first carbonized water inlet pipe body is integrally formed with the ice bladder base, and the second carbonized water inlet pipe body is connected to the first carbonized water inlet pipe body through a pipe joint.

6. The carbonated can ice-chest composite structure of claim 2, wherein, A shell connecting ring is fixed at the opening of the upper shell of the ice chamber, a carbonized connecting ring is fixed at the opening of the carbonized cavity, a base connecting ring is fixed on the ice chamber base, and the carbonized connecting ring is located between the shell connecting ring and the base connecting ring. The carbonized connecting ring, the shell connecting ring and the base connecting ring are fixedly connected.

7. The carbonated can ice-chest composite structure of claim 2, wherein, The bubble outlet pipe is fixed to the carbonization tank.

8. The carbonated can ice-chest composite structure of claim 1, wherein, It also includes an electronic cooling device, which comprises: A cooling element, which is fixed to the side wall of the ice chamber body; Cooling fins, wherein the cooling fins fix the cooling plate to the side facing the ice chamber; Heat dissipation fins are fixed to the side of the cooling plate facing away from the ice chamber.

9. A water purification machine characterized by: The composite structure of the carbonization tank ice chamber as described in any one of claims 1-8 further includes; The filter element includes a filter element inlet and a filter element outlet. The carbonization tank is provided with a main water inlet that communicates with the ice chamber. The filter element outlet is connected to the main water inlet. A carbon dioxide cylinder, wherein the carbon dioxide cylinder is provided with a cylinder outlet, and the cylinder outlet is connected to the inlet end; A pressure boosting valve, comprising a pressure boosting valve inlet and a pressure boosting valve outlet, wherein the ice chamber body is provided with a pressure boosting outlet communicating with the ice chamber cavity, the pressure boosting valve inlet communicating with the pressure boosting outlet, and the pressure boosting valve outlet communicating with the carbonization inlet; A bubble outlet valve, comprising a bubble valve inlet and a bubble valve outlet, wherein the bubble valve inlet is connected to the bubble outlet.

10. The water purifier of claim 9, wherein It also includes a cold water pump, which has a cold water pump inlet and a cold water pump outlet. The side wall of the ice chamber body is provided with a cold water outlet that communicates with the ice chamber cavity, and the cold water pump inlet is connected to the cold water outlet.

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