Generator for manufacturing mixed water dissolved in carbon dioxide gas

Abstract

The invention relates to the technical field of carbonate spring preparation, in particular to a carbon dioxide gas dissolved mixed water manufacturing generator which comprises a shell and a mixing bin mounted in the shell, two mixing cavities are formed in the mixing bin, and a fixing seat communicated with the corresponding mixing cavity is fixedly mounted on one side of the mixing bin. A piston block matched with the mixing cavity is arranged in the mixing cavity; a water injection turntable is rotationally mounted at the bottom of the fixed seat; according to the invention, the two groups of mixing cavities are combined with the piston blocks which move in opposite directions, so that the effect of staying type mixing in different cavities is realized while alternative continuous discharge of solutions is carried out, the discharge continuity is ensured, and the mixing and dissolving time is prolonged; then, by means of the water injection process, the mixing assembly is promoted to operate, and in combination with convection type contact of carbon dioxide and water, the dissolving and mixing effect of carbon dioxide and water can be further enhanced, and then preparation of high-concentration carbonate spring is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of carbonated spring preparation, and in particular to a generator for manufacturing carbon dioxide gas dissolved mixed water. Background Art

[0002] The main component of carbonated springs is free carbon dioxide. When the content of this component exceeds 1 gram per liter, it can be called a carbonated spring. According to the concentration difference of free carbon dioxide, it can be divided into three types: low concentration, medium concentration and high concentration. In addition to naturally formed carbonated springs, artificially prepared carbonated springs are also very popular.

[0003] Traditional carbonated spring preparation technology, especially carbonated spring generators, mainly rely on stirring methods and fusing liquid and gas under a specific pressure to generate carbonated spring water. For example, a fusion device for preparing high-concentration carbonated spring water with publication number CN111115787A in the prior art injects gas-liquid mixed water into a gas-liquid fusion chamber through the grooves or concave holes on the internal baffle plate thereof and combines with the narrow channel between the baffle plate and the gas-liquid fusion chamber;

[0004] Although it is possible to cause the gas-liquid mixed water to form fine turbulence, promote the fusion of carbon dioxide gas and water, and realize the preparation of carbonated spring, the single-channel flow path is used for continuous preparation and discharge, which cannot achieve stationary dissolution and mixing, resulting in a short contact time between carbon dioxide gas and water, making it difficult to promote pressurized fusion of more carbon dioxide and water, which is not conducive to ensuring the efficient discharge of carbonated spring liquid while preparing high-concentration carbonated spring.

[0005] In view of the above technical defects, a solution is now proposed. Summary of the invention

[0006] The object of the present invention is to provide a generator for manufacturing carbon dioxide gas dissolved mixed water to solve the above-mentioned technical defects.

[0007] The object of the present invention can be achieved through the following technical solutions: a generator for manufacturing mixed water of dissolved carbon dioxide gas, comprising a shell, and a mixing chamber installed inside the shell, wherein two groups of mixing chambers are opened inside the mixing chamber, and a fixing seat communicating with the corresponding mixing chamber is fixedly installed on one side of the mixing chamber, a piston block adapted to the mixing chamber is arranged in the mixing chamber, and a spiral air inlet pipe is fixedly connected between one side of the piston block and the mixing chamber, a plurality of air inlet nozzles are installed on the outer wall of the spiral air inlet pipe and on the inner side of the spiral, and a water injection turntable is rotatably installed on the bottom of the fixing seat;

[0008] A mixing assembly matched with a fixed seat is arranged in the mixing chamber, and the mixing assembly includes an auxiliary disk rotatably mounted on a piston block, and multiple sets of self-rotating telescopic sleeves are rotatably mounted between the auxiliary disk and the water injection turntable, and multiple auxiliary plates are fixedly mounted on the telescopic sleeves.

[0009] Preferably, a plurality of inclined water injection ports are formed through the annular inner wall of the water injection turntable, and the inlet size of the water injection port is larger than the outlet size, and a plurality of auxiliary protrusions are fixedly connected to the annular inner wall of the fixing seat.

[0010] Preferably, a connecting pipe for connecting the two groups of mixing chambers is fixedly connected to a side of the mixing chamber body away from the fixing seat, and the two groups of piston blocks move in opposite directions in the corresponding mixing chambers.

[0011] Preferably, a water injection pipe that rotates with a fixed seat is fixedly installed on the water injection turntable, and a rotating joint is installed at the end of the water injection pipe. The rotating joints are connected by a second water inlet pipe, and the second water inlet pipe is connected to the first water inlet pipe through a water inlet three-way solenoid valve.

[0012] Preferably, a drainage cavity communicating with the interior of the fixed seat is opened on the side wall, a water wheel is fixedly connected to the water injection pipe in the drainage cavity, a second water outlet pipe is fixedly connected between the drainage cavities, and the second water outlet pipe is connected to the first water outlet pipe through a three-way water outlet solenoid valve.

[0013] Preferably, a second air intake pipe is connected between the ends of the spiral air intake pipe, and the second air intake pipe is connected to the first air intake pipe via an air intake three-way solenoid valve.

[0014] Preferably, a gear ring is fixedly connected to the annular inner wall of the fixing seat, and a gear meshing with the gear ring is fixedly connected to the telescopic sleeve rod.

[0015] Preferably, the air intake nozzle is installed in an inclined manner, and a one-way valve is provided in the air intake nozzle.

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

[0017] (1) The present invention uses two groups of mixing chambers arranged in the mixing chamber body, so that during the liquid discharge process, the mixing chamber on one side simultaneously performs chamber-by-chamber dwelling dissolution and mixing, and then cooperates with the piston block moving in the opposite direction to realize the alternating continuous discharge of the carbonated spring solution, thereby ensuring the continuity of the solution discharge and extending the mixing and dissolution time to improve the mixing and dissolution effect, and can effectively avoid the problem that the concentration of the carbonated spring solution prepared is not good due to the short contact time between some water and carbon dioxide, which makes it difficult to fully dissolve, mix and discharge;

[0018] In addition, by spraying water from the water injection port arranged obliquely on the water injection turntable, combined with the auxiliary protrusion on the inner wall of the fixed seat, and driving the water wheel to rotate when discharging liquid, the water injection turntable is rotated when liquid is inlet and outlet, and then the telescopic sleeve rod equipped with the auxiliary plate is carried to rotate circumferentially, which can achieve full mixing treatment of water and carbon dioxide before discharge, thereby improving the quality of mixed dissolution;

[0019] (2) The present invention also utilizes the water injection turntable to drive the circumferential rotation of the telescopic sleeve, and combines the meshing of the gear on the telescopic sleeve with the gear ring on the fixed seat to promote the synchronous rotation of the telescopic sleeve, thereby increasing the disturbance effect on the solution in the mixing chamber and improving the mixed dissolution effect. In addition, the carbon dioxide in the spiral air inlet pipe is sprayed out through multiple inclined air inlet nozzles, so that the spray direction of carbon dioxide is opposite to the movement direction of water driven by the rotating auxiliary plate, thereby realizing convection contact, further strengthening the dissolution and mixing of carbon dioxide and water, and thus ensuring the preparation of high-concentration carbonated spring. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The present invention will be further described below in conjunction with the accompanying drawings;

[0021] Figure 1 It is a schematic diagram of the structure of the present invention;

[0022] Figure 2 It is a schematic diagram of the internal structure of the housing of the present invention;

[0023] Figure 3 It is a schematic diagram of the internal structure of the mixing bin of the present invention;

[0024] Figure 4 It is a schematic diagram of the structure of the mixing bin of the present invention;

[0025] Figure 5 It is a structural schematic diagram of the fixing seat of the present invention;

[0026] Figure 6 It is a schematic diagram of the cooperation between the piston block and the fixing seat of the present invention;

[0027] Figure 7 is a schematic diagram of the structure of the mixing assembly of the present invention;

[0028] Figure 8 It is a structural schematic diagram of the water injection turntable of the present invention;

[0029] Fig. 9 It is a schematic diagram of the convection mixing of carbon dioxide and water in the present invention.

[0030] Legend:

[0031] 1. Shell;

[0032] 2. Mixing chamber; 21. Mixing chamber; 22. Fixed seat; 23. Piston block; 24. Spiral air inlet pipe; 25. Air inlet nozzle; 26. Auxiliary protrusion; 27. Connecting pipe; 28. Drainage chamber; 29. ​​Second water outlet pipe; 210. Water outlet three-way solenoid valve; 211. First water outlet pipe; 212. Second air inlet pipe; 213. Air inlet three-way solenoid valve; 214. First air inlet pipe; 215. Gear ring;

[0033] 3. Water filling turntable; 31. Water filling port; 32. Water filling pipe; 33. Rotary joint; 34. Second water inlet pipe; 35. Water inlet three-way solenoid valve; 36. First water inlet pipe; 37. Water wheel;

[0034] 4. Mixing assembly; 41. Auxiliary disk; 42. Telescopic sleeve; 43. Auxiliary plate; 44. Gear. DETAILED DESCRIPTION

[0035] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0036] Example 1: Please refer to Figure 1-Figure 8 As shown, the method of using a single-channel flow path for continuous preparation and discharge in the prior art cannot achieve stationary dissolution and mixing, resulting in a short contact time between carbon dioxide gas and water. This problem can be solved by the following solution;

[0037] In this embodiment, a generator for manufacturing carbon dioxide gas dissolved mixed water includes a housing 1, a controller is provided on the housing 1 for controlling the opening state of each solenoid valve, and a mixing chamber 2 installed inside the housing 1, two groups of mixing chambers 21 are provided inside the mixing chamber 2, and a fixing seat 22 communicating with the corresponding mixing chamber 21 is fixedly installed on one side of the mixing chamber 2, and the fixing seat 22 is used for installing the water injection turntable 3 and the mixing assembly 4, and a piston block 23 adapted thereto is provided in the mixing chamber 21;

[0038] Two groups of mixing chambers 21 are provided, so that during the process of discharging carbonated spring liquid, the mixing chamber 21 on one side is used, and the mixing chamber 21 on the other side is used to synchronously perform chamber dwelling dissolution and mixing, so as to prolong the mixing and dissolving time of carbon dioxide and water, and then cooperate with the piston blocks 23 in the two groups of mixing chambers 21 to realize alternating continuous discharge of carbonated spring solution, while ensuring the continuity of solution discharge, and prolonging the mixing time by using the method of only inlet and no outlet, so as to improve the mixing and dissolving effect, which can effectively avoid the short contact time between some water and carbon dioxide, making it difficult to fully dissolve, mix and discharge, and reduce the problem of poor concentration of carbonated spring liquid preparation;

[0039] A spiral air intake pipe 24 is fixedly connected between one side of the piston block 23 and the mixing chamber 21, and a plurality of air intake nozzles 25 are installed on the outer wall of the spiral air intake pipe 24 and on the inner side of the spiral. The spiral air intake pipe 24 and the plurality of air intake nozzles 25 are arranged to realize multi-point dispersed discharge, and the position of the air intake spray can be adjusted in real time synchronously with the movement of the piston block 23, thereby improving the large-scale diffusion effect of carbon dioxide in the mixing chamber 21, and assisting the dissolution and mixing efficiency of carbon dioxide in water. A water injection turntable 3 is rotatably installed at the bottom of the fixed seat 22, which is used to inject water into the fixed seat 22 and into the mixing chamber 21 communicated therewith;

[0040] A mixing assembly 4 matched with the fixing seat 22 is arranged in the mixing chamber 21, and the mixing assembly 4 includes an auxiliary disk 41 rotatably mounted on the piston block 23, and multiple sets of self-rotating telescopic sleeves 42 are rotatably mounted between the auxiliary disk 41 and the water injection turntable 3, and multiple auxiliary plates 43 are fixedly mounted on the telescopic sleeves 42;

[0041] By rotating the water injection turntable 3, the multiple telescopic sleeves 42 are driven to revolve, and combined with the multiple auxiliary plates 43 on the telescopic sleeves 42, the water in the mixing chamber 21 is disturbed, thereby increasing the mixed dissolution rate of carbon dioxide and water, and realizing the preparation of high-concentration carbonated springs. The auxiliary plates 43 are L-shaped, and the multiple auxiliary plates 43 are spirally distributed along the length of the telescopic sleeve 42, or the lateral lengths of the auxiliary plates 43 are increased successively, so as to avoid interference with the contraction of the telescopic sleeve 42, thereby affecting the movement of the piston block 23 in the mixing chamber 21.

[0042] A plurality of inclined water injection ports 31 are provided on the annular inner wall of the water injection turntable 3. The inclined arrangement of the water injection ports 31 allows the impact force of water ejected from the water injection turntable 3 to form a force for the water injection turntable 3 to rotate, thereby achieving the effect of synchronous rotation of the water injection turntable 3 while injecting water, and the inlet size of the water injection port 31 is larger than the outlet size;

[0043] It is used to further increase the flow rate of water sprayed from the water injection turntable 3, thereby increasing the rotational force on the water injection turntable 3, increasing the rotational speed of the water injection turntable 3, ensuring that the telescopic sleeve 42 can better carry the multiple auxiliary plates 43 to rotate, and disturb the water in the mixing chamber 21. Multiple auxiliary protrusions 26 are fixedly connected to the annular inner wall of the fixed seat 22. Through the auxiliary protrusions 26 on the inner wall of the fixed seat 22, after the water is sprayed out from the water injection turntable 3, a better reverse force is formed to ensure the rotation effect of the water injection turntable 3.

[0044] A connecting pipe 27 for connecting the two groups of mixing chambers 21 is fixedly connected to one side of the mixing chamber body 2 away from the fixing seat 22, and is used for mutual flow of auxiliary liquid between the two groups of mixing chambers 21. A liquid injection valve (not shown) is provided on the connecting pipe 27, and is used for filling the auxiliary liquid between the piston blocks 23 in the two groups of mixing chambers 21, and controlling the distance between the two groups of piston blocks 23 to be the maximum;

[0045] When water is injected into the A mixing chamber 21, the water pushes the piston block 23 to move upward, and the auxiliary liquid filled in the A mixing chamber 21 is injected into the B mixing chamber 21 through the connecting pipe 27, causing the piston block 23 in the B mixing chamber 21 to move downward synchronously, and the liquid discharge step is performed synchronously. Through the movement resistance of the two groups of piston blocks 23, the water is forced to be injected into the mixing chamber 21 under pressure, thereby realizing the pressurization in the mixing chamber 21, which can further increase the dissolution rate of carbon dioxide in water and ensure the high-concentration preparation of carbonated springs. The two groups of piston blocks 23 move in opposite directions in the corresponding mixing chambers 21.

[0046] A water injection pipe 32 is fixedly mounted on the water injection turntable 3 and rotates with the fixed seat 22, and a rotating joint 33 is installed at the end of the water injection pipe 32 to avoid interference with the rotation of the water injection turntable 3. The rotating joints 33 are connected by a second water inlet pipe 34, and the second water inlet pipe 34 is connected to the first water inlet pipe 36 through a water inlet three-way electromagnetic valve 35;

[0047] When water is injected into the A mixing chamber 21, the water inlet three-way solenoid valve 35 controls the first water inlet pipe 36 to communicate with the A mixing chamber 21. At this time, a blockage is formed between the B mixing chamber 21 and the first water inlet pipe 36, so that when the B mixing chamber 21 is discharged, the contact between the solutions in the A mixing chamber 21 and the B mixing chamber 21 is avoided. After the A mixing chamber 21 is filled, the water inlet three-way solenoid valve 35 controls the first water inlet pipe 36 to communicate with the B mixing chamber 21. At this time, a blockage is formed between the A mixing chamber 21 and the first water inlet pipe 36, so as to realize the contactless discharge of the carbonated spring in the A mixing chamber 21 and the contactless injection of water into the B mixing chamber 21.

[0048] A drainage chamber 28 communicating with the interior thereof is provided on the side wall of the fixed seat 22, a water wheel 37 is fixedly connected to the water injection pipe 32 in the drainage chamber 28, a second water outlet pipe 29 is fixedly connected between the drainage chambers 28, and the second water outlet pipe 29 is connected to the first water outlet pipe 211 through a water outlet three-way solenoid valve 210. When water is injected into the A mixing chamber 21, the water outlet three-way solenoid valve 210 controls the first water outlet pipe 211 to communicate with the B mixing chamber 21, so that only water inlet but no outlet is achieved in the A mixing chamber 21, and the liquid outlet of the B mixing chamber 21 is opened synchronously. When water is injected into the B mixing chamber 21, the water outlet three-way solenoid valve 210 controls the first water outlet pipe 211 to communicate with the A mixing chamber 21, and the liquid outlet of the A mixing chamber 21 is opened synchronously;

[0049] And in the process of draining liquid, the water wheel 37 in the drainage chamber 28 is caused to rotate, and the water wheel 37 drives the corresponding water injection turntable 3 to rotate, thereby causing the carbonated spring to be discharged while continuously mixing and stirring to ensure the effect after dissolution, and the water injection is combined with the rotation of the water injection turntable 3, so that the water injection turntable 3 rotates during both liquid inlet and liquid outlet, and then the telescopic sleeve rod 42 equipped with the auxiliary plate 43 is carried to rotate circumferentially, which can realize the full-process mixing treatment of water and carbon dioxide before discharge, thereby improving the quality of mixed dissolution.

[0050] A second air intake pipe 212 is connected between the ends of the spiral air intake pipe 24, and the second air intake pipe 212 is connected to the first air intake pipe 214 through an air intake three-way solenoid valve 213. While water is injected into the A mixing chamber 21, the air intake three-way solenoid valve 213 controls the first air intake pipe 214 to communicate with the A mixing chamber 21, and injects carbon dioxide gas into the spiral air intake pipe 24 through the first air intake pipe 214, the air intake three-way solenoid valve 213 and the second air intake pipe 212, and simultaneously injects it into the A mixing chamber 21. While water is injected into the B mixing chamber 21, the air intake three-way solenoid valve 213 controls the first air intake pipe 214 to communicate with the B mixing chamber 21, and synchronously injects carbon dioxide gas into the B mixing chamber 21.

[0051] Example 2: Please refer to Figure 5-Figure 9 As shown, the problem that it is difficult to further improve the quality of the dissolution and mixing of carbon dioxide and water by only revolving the telescopic sleeve can be solved by the following solution;

[0052] In this embodiment, a gear ring 215 is fixedly connected to the annular inner wall of the fixed seat 22, and a gear 44 meshing with the gear ring 215 is fixedly connected to the telescopic sleeve 42. The impact force of the discharged water is used to impact the auxiliary protrusion 26 on the inner wall of the fixed seat 22. Combined with the inclined spraying, the auxiliary water injection turntable 3 rotates, thereby driving multiple groups of telescopic sleeves 42 to rotate circumferentially. During the circumferential rotation, combined with the meshing of the gear 44 and the gear ring 215, the telescopic sleeve 42 carries multiple auxiliary plates 43 to rotate, thereby stirring the water in the A mixing chamber 21, increasing the disturbance effect on the solution in the mixing chamber 21, and improving the mixed dissolution effect.

[0053] The air intake nozzle 25 is installed at an angle, and a one-way valve is arranged inside the air intake nozzle 25. Through the revolution and rotation of the auxiliary plate 43, the water in the mixing chamber 21 is disturbed, and the carbon dioxide in the spiral air intake pipe 24 is ejected through multiple inclined air intake nozzles 25. The ejection direction of the carbon dioxide is opposite to the movement direction of the water caused by the rotating auxiliary plate 43, and convection contact is performed to enhance the dissolution and mixing of carbon dioxide and water to form carbonated spring. When the carbonated spring in the mixing chamber 21 is discharged, the one-way valve in the air intake nozzle 25 can prevent the carbonated spring from entering the spiral air intake pipe 24.

[0054] Example 3: Please refer to Figure 1-Figure 9 As shown, the present invention also provides a method for using a generator for manufacturing carbon dioxide gas dissolved mixed water, comprising the following steps:

[0055] Step 1: The water inlet three-way solenoid valve 35 controls the first water inlet pipe 36 to communicate with the A mixing chamber 21, the air inlet three-way solenoid valve 213 controls the first air inlet pipe 214 to communicate with the A mixing chamber 21, and the water outlet three-way solenoid valve 210 controls the first water outlet pipe 211 to communicate with the B mixing chamber 21, and water is injected into the corresponding water injection turntable 3 through the first water inlet pipe 36, the water inlet three-way solenoid valve 35, the second water inlet pipe 34 and the rotary joint 33, and carbon dioxide gas is simultaneously injected into the spiral air inlet pipe 24 through the first air inlet pipe 214, the air inlet three-way solenoid valve 213 and the second air inlet pipe 212, and the auxiliary liquid is filled between the piston blocks 23 in the A mixing chamber 21 and the B mixing chamber 21 with the help of the connecting pipe 27, and the distance between the two groups of piston blocks 23 is controlled to be maximum;

[0056] Step 2: The water in the water injection turntable 3 is sprayed into the interior of the fixed seat 22 through a plurality of obliquely distributed water injection ports 31, and enters the A mixing chamber 21 connected thereto, and is in a state of pressurized injection, causing the piston block 23 in the A mixing chamber 21 to move upward, and during the upward process, the auxiliary liquid filled in the A mixing chamber 21 is injected into the B mixing chamber 21 through the connecting pipe 27, causing the piston block 23 in the B mixing chamber 21 to move downward synchronously;

[0057] Step 3: Use the impact force of the discharged water to impact the auxiliary protrusion 26 on the inner wall of the fixed seat 22, combined with the inclined spraying, the auxiliary water injection turntable 3 rotates, and then drives the multiple sets of telescopic sleeves 42 to rotate circumferentially. In the process of circumferential rotation, combined with the meshing of the gear 44 and the gear ring 215, the telescopic sleeve 42 carries the multiple auxiliary plates 43 to rotate, and then the water in the A mixing chamber 21 is stirred. The carbon dioxide in the spiral air intake pipe 24 is sprayed out through multiple inclined air intake nozzles 25. The carbon dioxide spraying direction is opposite to the movement direction of the water caused by the rotating auxiliary plates 43, and the convection contact is carried out to strengthen the dissolution and mixing of carbon dioxide and water to form carbonated springs;

[0058] Step 4: With the movement of the piston block 23 in the A mixing chamber 21, the spiral air inlet pipe 24 and the telescopic sleeve rod 42 are synchronously driven to move, so that in the process of water intake and air intake, the efficient dissolution and mixing of carbon dioxide and water are always maintained. After the A mixing chamber 21 is filled, the water inlet three-way solenoid valve 35 controls the first water inlet pipe 36 to communicate with the B mixing chamber 21, the air inlet three-way solenoid valve 213 controls the first air inlet pipe 214 to communicate with the B mixing chamber 21, and the water outlet three-way solenoid valve 210 controls the first water outlet pipe 211 to communicate with the A mixing chamber 21, and water and carbon dioxide are injected into the B mixing chamber 21. The above operations are synchronized during the injection process to achieve efficient dissolution and mixing of carbon dioxide and water;

[0059] Step 5: As the piston block 23 in the B mixing chamber 21 moves upward, the auxiliary liquid in the B mixing chamber 21 on the other side of the piston block 23 flows back to the A mixing chamber 21, causing the piston block 23 in the A mixing chamber 21 to move downward synchronously, injecting the dissolved and mixed carbonated spring into the drainage chamber 28 in the fixed seat 22, and then discharged through the second water outlet pipe 29, the water outlet three-way solenoid valve 210 and the first water outlet pipe 211. During the discharge process, the water wheel 37 in the drainage chamber 28 is driven to rotate, and the water wheel 37 drives the corresponding water injection turntable 3 to rotate, thereby causing the carbonated spring to be discharged while continuously mixing and stirring to ensure the effect after dissolution.

[0060] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A generator for producing carbon dioxide gas dissolved mixed water, comprising a housing (1) and a mixing chamber (2) installed inside the housing (1), characterized in that: Two groups of mixing chambers (21) are provided inside the mixing chamber body (2), and a fixing seat (22) communicating with the corresponding mixing chamber (21) is fixedly installed on one side of the mixing chamber body (2), a piston block (23) adapted thereto is arranged in the mixing chamber (21), and a spiral air inlet pipe (24) is fixedly connected between one side of the piston block (23) and the mixing chamber (21), a plurality of air inlet nozzles (25) are installed on the outer wall of the spiral air inlet pipe (24) and on the inner side of the spiral, and a water injection turntable (3) is rotatably installed at the bottom of the fixing seat (22); A mixing assembly (4) matched with a fixing seat (22) is arranged in the mixing chamber (21), and the mixing assembly (4) comprises an auxiliary disk (41) rotatably mounted on a piston block (23), and a plurality of groups of self-rotating telescopic sleeves (42) are rotatably mounted between the auxiliary disk (41) and the water injection turntable (3), and a plurality of auxiliary plates (43) are fixedly mounted on the telescopic sleeves (42).

2. A generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: The annular inner wall of the water injection turntable (3) is penetrated by a plurality of inclined water injection ports (31), and the inlet size of the water injection port (31) is larger than the outlet size. The annular inner wall of the fixing seat (22) is fixedly connected with a plurality of auxiliary protrusions (26).

3. The generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: A connecting pipe (27) for connecting the two groups of mixing chambers (21) is fixedly connected to one side of the mixing chamber body (2) away from the fixing seat (22), and the two groups of piston blocks (23) move in opposite directions in the corresponding mixing chambers (21).

4. The generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: A water injection pipe (32) is fixedly mounted on the water injection turntable (3) and rotates with the fixed seat (22), and a rotating joint (33) is mounted at the end of the water injection pipe (32). The rotating joints (33) are connected via a second water inlet pipe (34), and the second water inlet pipe (34) is connected to the first water inlet pipe (36) via a water inlet three-way electromagnetic valve (35).

5. A generator for producing carbon dioxide gas dissolved mixed water according to claim 4, characterized in that: A drainage cavity (28) communicating with the interior of the fixed seat (22) is provided on the side wall thereof, a water wheel (37) is fixedly connected to the water injection pipe (32) in the drainage cavity (28), a second water outlet pipe (29) is fixedly connected between the drainage cavities (28), and the second water outlet pipe (29) is connected to the first water outlet pipe (211) via a water outlet three-way electromagnetic valve (210).

6. The generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: A second air intake pipe (212) is connected between the ends of the spiral air intake pipe (24), and the second air intake pipe (212) is connected to the first air intake pipe (214) via an air intake three-way solenoid valve (213).

7. The generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: A gear ring (215) is fixedly connected to the annular inner wall of the fixing seat (22), and a gear (44) meshing with the gear ring (215) is fixedly connected to the telescopic sleeve rod (42).

8. The generator for producing carbon dioxide gas dissolved mixed water according to claim 1, characterized in that: The air intake nozzle (25) is installed in an inclined manner, and a one-way valve is arranged inside the air intake nozzle (25).

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