Preparation method of soda water

Abstract

The invention discloses a preparation method of soda water, and relates to the technical field of beverage production, in particular to a preparation method of soda water, which comprises the following raw materials in parts by weight: 20-40 parts of baking soda powder, 0.5-4 parts of lemon concentrated juice, 0.5-4 parts of momordica grosvenori extract, 0.01-2 parts of beverage containing natural electrolyte, 0.01-2 parts of potassium chloride and 0.01-5 parts of edible essence. Through cooperative arrangement of a split mounting plate, an exhaust plate, an umbrella-shaped gas leakage cap capable of rotating and moving up and down and a sealing part for intermittently releasing gas in an ascending channel, the umbrella-shaped gas leakage cap can continuously rotate and periodically ascend and descend in a solution; therefore, a stable air cushion structure which is easily formed by gathering at the top and a closed liquid film which is generated at an exhaust port due to interfacial tension are dynamically damaged, the problems of air resistance effect and exhaust port blockage are thoroughly eliminated, meanwhile, a three-dimensional spiral track is formed by bubble release points through the dynamic compound motion, the space distribution uniformity of bubbles in a solution is greatly optimized, and the stability of the solution is improved. And the residence time of bubbles and the gas-liquid contact area are effectively prolonged.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of beverage production, more particularly, the present application relates to a preparation method of soda water. BACKGROUND

[0002] Soda water is a sodium bicarbonate aqueous solution, which is weakly alkaline. In the medical field, it can achieve disinfection and sterilization effect when used externally, and can assist in adjusting the acid-base balance of the human body and improving the acidic constitution when drunk. In the soda water production process, one of the key processes is to introduce carbon dioxide gas into the solution. For example, a device for producing soda water with patent number 201710878158.2 discloses a device for introducing carbon dioxide gas into the solution. The device solves the technical problem that the existing technology cannot detect and control the gas pressure in the container in real time, thereby making it difficult to prepare soda water with the most suitable solubility of carbon dioxide. At the same time, through the structural design of the air jet disc, the particle size of the carbon dioxide bubbles in the aqueous solution can be reduced and the number of bubbles can be increased. Based on the mass transfer principle that the greater the contact area between gas and liquid, the higher the dissolution efficiency, the carbon dioxide in the solution can be fully dissolved, and the device has the technical advantage of excellent dissolution efficiency. However, the existing technology has significant defects. The umbrella-shaped air leakage cap is fixedly arranged. From the perspective of fluid mechanics, the continuously rising carbon dioxide gas is easy to gather at the top area of the fixed umbrella-shaped air leakage cap, forming a stable air cushion structure. This air cushion breaks the flow continuity of the rising gas, causing air resistance effect, thereby hindering the normal release of subsequent carbon dioxide bubbles. In addition, from the perspective of interfacial chemistry theory, when the carbon dioxide gas passes through the fifth through hole, the solution will form a stable liquid film at the hole due to the effect of the interfacial tension between the gas and the solution. Since the umbrella-shaped air leakage cap has no dynamic disturbance effect, the liquid film cannot be destroyed, eventually leading to the closure of the fifth through hole, seriously affecting the splitting process and the rising channel of the carbon dioxide bubbles, and greatly reducing the gas dissolution efficiency. SUMMARY

[0003] In view of the deficiencies of the prior art, the present application provides a preparation method of soda water, which solves the problems raised in the above background art.

[0004] The technical scheme of the present application is as follows: To achieve the above object, the present application is implemented by the following technical scheme: a preparation method of soda water, comprising the following raw materials in parts by weight: baking soda powder 20-40 parts, lemon concentrate 0.5-4 parts, momordica grosvenori extract 0.5-4 parts, drink containing natural electrolyte 0.01-2 parts, potassium chloride 0.01-2 parts and food flavoring 0.01-5 parts. The raw materials are mixed and dissolved, and then reacted with carbon dioxide gas in a reaction tank. The bottom of the inner circumferential surface of the reaction tank is sequentially fixedly connected from top to bottom with a split mounting plate and an exhaust plate, the upper surface of the split mounting plate is provided with a plurality of umbrella-shaped gas leakage caps capable of rotating and moving up and down, and the exhaust plate is provided with a plurality of one-way valves capable of discharging carbon dioxide gas to the corresponding umbrella-shaped gas leakage caps, a plurality of ascending channels capable of providing a path for the upward movement of carbon dioxide bubbles are formed in the split mounting plate, and a blocking component capable of intermittently releasing gas is arranged in the middle of the inner circumferential surface of the ascending channel, and a plurality of exhaust ports are uniformly formed in the top of the outer surface of the umbrella-shaped gas leakage cap.

[0005] Preferably, the top of the outer circumferential surface of the reaction tank is provided with a pressure reducing device capable of communicating therewith, and the upper surface of the reaction tank is provided with a liquid inlet pipe, the bottom of the outer circumferential surface of the reaction tank is provided with a liquid outlet pipe having one end communicating with the space above the exhaust plate, and the bottom of the outer circumferential surface of the reaction tank is further provided with an air inlet pipe having one end communicating with the space below the exhaust plate.

[0006] Preferably, the top end of the inner lateral surface of the umbrella-shaped gas leakage cap is fixedly connected with a driven barrel, a second rotating shaft extending into the ascending channel is slidably connected in the driven barrel, the bottom of the second rotating shaft is rotatably connected with a limiting ring, a plurality of first connecting columns are uniformly fixedly connected to the outer circumferential surface of the limiting ring, and the one ends of the plurality of first connecting columns away from the limiting ring are fixedly connected to the inner circumferential surface of the ascending channel.

[0007] Preferably, a plurality of limiting sliding grooves are uniformly formed in the inner circumferential surface of the driven barrel, and a plurality of limiting blocks having one end slidably connected in the corresponding limiting sliding groove are fixedly connected to the top of the second rotating shaft.

[0008] Preferably, a plurality of push plates are uniformly fixedly connected to the bottom of the outer surface of the umbrella-shaped gas leakage cap.

[0009] Preferably, a plurality of partition plates are uniformly fixedly connected to the inner surface of the umbrella-shaped gas leakage cap.

[0010] Preferably, a first rotating shaft extending into the reaction tank is rotatably connected to the upper surface of the reaction tank, the bottom end of the first rotating shaft is rotatably connected in the split mounting plate, a motor is fixedly connected to the center of the upper surface of the reaction tank, a driving shaft of the bottom end of the motor is fixedly connected to the first rotating shaft, and a plurality of stirring rods are fixedly connected to the outer circumferential surface of the first rotating shaft.

[0011] Preferably, the blocking component includes a lower sealing flow distribution plate fixedly connected to the middle of the inner circumferential surface of the ascending channel, and an upper sealing flow distribution plate is rotatably connected to the upper surface of the lower sealing flow distribution plate, a plurality of flow distribution ports are formed in the upper and lower sealing flow distribution plates, and the bottom end of the second rotating shaft is fixedly connected to the upper sealing flow distribution plate.

[0012] Preferably, a plurality of second connecting posts are fixedly connected to the middle of the second rotating shaft, and an arc-shaped connecting rod is fixedly connected to the end of the second connecting post away from the second rotating shaft. A plurality of plugging posts, one end of which is inserted into the corresponding exhaust port, are fixedly connected to the arc-shaped connecting rod.

[0013] Preferably, both the exhaust port and the plugging column are truncated cone shapes.

[0014] Beneficial effects This invention provides a method for preparing soda water, which has the following beneficial effects: This method for preparing soda water utilizes a synergistic arrangement of a split mounting plate, an exhaust plate, a rotatable and vertically movable umbrella-shaped leak cap, and a sealing component that intermittently releases gas within the rising channel. This allows the umbrella-shaped leak cap to continuously rotate and periodically rise and fall in the solution, dynamically disrupting the stable air cushion structure that easily accumulates at its top and the closed liquid film at the exhaust port caused by interfacial tension. This completely eliminates the gas resistance effect and the problem of exhaust port blockage. Simultaneously, this dynamic composite motion causes the bubble release point to form a three-dimensional spiral trajectory, greatly optimizing the spatial distribution uniformity of bubbles in the solution and effectively extending the bubble residence time and gas-liquid contact area. Ultimately, this results in a significant improvement in carbon dioxide gas dissolution efficiency and process stability. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a frontal cross-sectional structural diagram of the reaction vessel of the present invention; Figure 3 For the present invention Figure 2 Enlarged structural diagram at point A; Figure 4 This is a schematic diagram of the upper sealing flow divider of the present invention; Figure 5 This is a schematic diagram of the structure of the umbrella-shaped air-leaking cap and the push plate of the present invention.

[0016] In the diagram: 1. Reaction vessel; 2. Pressure reducing device; 3. Motor; 4. Liquid outlet pipe; 5. Gas inlet pipe; 6. First rotating shaft; 7. Stirring rod; 8. Exhaust plate; 9. Split mounting plate; 10. Ascending channel; 11. One-way valve; 12. Umbrella-shaped leak cap; 13. Push plate; 14. Lower sealing diversion plate; 15. Upper sealing diversion plate; 16. Second rotating shaft; 17. Limiting ring; 18. First connecting column; 19. Divider plate; 20. Driven barrel; 21. Exhaust port; 22. Blocking column; 23. Arc-shaped connecting rod; 24. Second connecting column; 25. Limiting groove; 26. Limiting block; 27. Diversion port. Detailed Implementation

[0017] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0018] Example 1 In existing technologies, the umbrella-shaped gas-leaking cap is fixed. From a fluid dynamics perspective, continuously rising carbon dioxide gas tends to accumulate at the top of the fixed umbrella-shaped gas-leaking cap, forming a stable air cushion structure. This air cushion disrupts the continuity of the rising gas flow, creating a gas resistance effect that hinders the normal release of subsequent carbon dioxide bubbles. Furthermore, from the perspective of interfacial chemistry theory, when carbon dioxide gas passes through the fifth through hole, it is affected by the interfacial tension between the gas and the solution, causing the solution to form a stable liquid film at the hole. Since the umbrella-shaped gas-leaking cap has no dynamic disturbance effect, this liquid film cannot be broken, ultimately leading to the closure of the fifth through hole. This severely affects the splitting process and rising channel of carbon dioxide bubbles, significantly reducing gas dissolution efficiency. This embodiment is invented to solve the above problems.

[0019] Please see Figures 1 to 5 The present invention provides a technical solution: a method for preparing soda water, comprising the following raw materials in the indicated weight ratios: 20-40 parts baking soda powder, 0.5-4 parts lemon concentrate, 0.5-4 parts monk fruit extract, 0.01-2 parts beverage containing naturally derived electrolytes, 0.01-2 parts potassium chloride, and 0.01-5 parts edible flavoring. The raw materials are mixed and dissolved, and then reacted with carbon dioxide gas in a reaction tank 1 to obtain soda water containing carbon dioxide gas. The bottom of the inner circumference of the reaction vessel 1 is fixedly connected from top to bottom to a split mounting plate 9 and an exhaust plate 8. By setting the exhaust plate 8, a gas storage space for temporary gas storage can be separated at the bottom of the reaction vessel 1, and there is also space between the exhaust plate 8 and the split mounting plate 9. The upper surface of the split mounting plate 9 is provided with a plurality of rotatable and vertically movable umbrella-shaped gas leak caps 12, and the exhaust plate 8 is provided with a plurality of one-way valves 11 that can discharge carbon dioxide gas to the corresponding umbrella-shaped gas leak caps 12. The split mounting plate 9 is provided with a plurality of rising channels 10 that can provide a path for carbon dioxide bubbles to rise, and the middle of the inner circumference of the rising channel 10 is provided with a sealing component that can intermittently release gas. The top of the outer surface of the umbrella-shaped gas leak cap 12 is uniformly provided with a plurality of exhaust ports 21.

[0020] Please see Figure 1The top of the outer periphery of the reaction tank 1 is equipped with a pressure reducing device 2 that can communicate with it. Since the pressure reducing device 2 is the same as that disclosed in the device with application number 201710878158.2, its working principle will not be described in detail. The upper surface of the reaction tank 1 is provided with a liquid inlet pipe, so personnel can fill the reaction tank 1 with the solution of the mixed solution through the liquid inlet pipe. The bottom of the outer periphery of the reaction tank 1 is provided with a liquid outlet pipe 4 that is connected to the space above the exhaust plate 8. The soda solution in the reaction tank 1 can be discharged through the liquid outlet pipe 4. The bottom of the outer periphery of the reaction tank 1 is also provided with an air inlet pipe 5 that is connected to the space below the exhaust plate 8. Carbon dioxide gas can be filled into the gas storage space through the air inlet pipe 5. When the carbon dioxide gas pressure in the gas storage space reaches the set threshold, the gas will be released almost simultaneously through multiple one-way valves 11 into the space between the split mounting plate 9 and the exhaust plate 8. At the same time, the carbon dioxide entering the solution will move upward in the form of bubbles and then enter the corresponding rising channel 10.

[0021] Please see Figures 2 to 5 The top of the inner side of the umbrella-shaped air-leaking cap 12 is fixedly connected to a driven barrel 20. A second rotating shaft 16 extending into the rising channel 10 is slidably connected inside the driven barrel 20. A limiting ring 17 is rotatably connected to the bottom of the second rotating shaft 16. A plurality of first connecting posts 18 are evenly fixedly connected to the outer circumferential surface of the limiting ring 17. The ends of the plurality of first connecting posts 18 away from the limiting ring 17 are all fixedly connected to the inner circumferential surface of the rising channel 10. The inner circumferential surface of the driven barrel 20 is evenly provided with a plurality of limiting grooves 25, and the top of the second rotating shaft 16 is fixedly connected with a plurality of limiting blocks 26, one end of which is slidably connected in the corresponding limiting groove 25. When the umbrella-shaped air-leaking cap 12 rotates, it can drive the driven barrel 20 to rotate synchronously, and through the engagement of the limiting slide groove 25 and the limiting block 26, it can drive the second rotating shaft 16 to achieve coaxial linkage rotation within the limiting ring 17. The upper surface of the reaction vessel 1 is rotatably connected to a first rotating shaft 6 that extends into the reaction vessel 1. The bottom end of the first rotating shaft 6 is rotatably connected to the split mounting plate 9. A motor 3 is fixedly connected to the center of the upper surface of the reaction vessel 1, and the drive shaft at the bottom end of the motor 3 is fixedly connected to the first rotating shaft 6. A plurality of stirring rods 7 are fixedly connected to the outer circumferential surface of the first rotating shaft 6. Therefore, when the motor 3 starts running, the rotation of its bottom drive shaft can drive the first rotating shaft 6 to rotate synchronously, thereby driving multiple stirring rods 7 to rotate synchronously. The rotation of the stirring rods 7 can agitate the solution inside the reaction tank 1 and drive the solution inside the reaction tank 1 to flow synchronously along the rotation direction of the stirring rods 7. Multiple push plates 13 are uniformly fixedly connected to the bottom of the outer surface of the umbrella-shaped air leakage cap 12, wherein the front side of the push plate 13 is set as a planar structure, and the back side is set as an arc surface structure. The inner surface of the umbrella-shaped air-leaking cap 12 is uniformly fixedly connected with multiple partition plates 19. Through the arrangement of multiple partition plates 19, the inner space of the umbrella-shaped air-leaking cap 12 can be uniformly divided into multiple centrifugal spaces. Therefore, when the solution in the reaction vessel 1 is in a flowing state and impacts the pusher plate 13, based on the principle of force difference of asymmetric structure in fluid mechanics, since the pusher plate 13 has a planar structure on the front side and an arc structure on the back side, the flow state and momentum transfer effect of the solution when it flows through the pusher plate 13 in different directions are significantly different. This makes the impact force and torque on the multiple pusher plates 13 on each umbrella-shaped vent cap 12 unevenly distributed, which in turn drives the pusher plate 13 to drive the umbrella-shaped vent cap 12 to generate a continuous rotational motion. When the umbrella-shaped vent cap 12 rotates, the partition plate 19 fixedly connected to its inner side will rotate synchronously, causing the solution in each centrifugal space to move in a circular motion synchronously. Under the action of centrifugal inertial force, the solution in the centrifugal space will generate an outward radial motion tendency, gradually gather towards the inner wall of the umbrella-shaped vent cap 12, and finally be discharged from the multiple exhaust ports 21 opened on the top of its outer surface. Therefore, the flowing solution creates a continuous dynamic disturbance to the internal space of the umbrella-shaped leak cap 12 and the exhaust port 21. On the one hand, it effectively disrupts the stable liquid film formed at the exhaust port 21 and related channels due to the surface tension of carbon dioxide bubbles, completely solving the technical problem of blockage at the exhaust port 21. On the other hand, it breaks the stable air cushion structure that easily accumulates at the top of the umbrella-shaped leak cap 12, eliminating the air resistance effect caused by the air cushion and ensuring the smooth release of subsequent carbon dioxide bubbles. At the same time, during the continuous rotation of the umbrella-shaped leak cap 12, the exhaust port 21 at its top forms a circular dynamic motion trajectory in the solution within the reaction vessel 1, rather than a fixed release point as in the prior art. The dynamic release mode can greatly avoid the local solution supersaturation caused by the concentrated release of bubbles in a fixed area, and at the same time reduce the merging behavior of adjacent bubbles due to close contact. This allows carbon dioxide bubbles to be evenly "seedled" in a wider water space in the reaction tank 1, significantly improving the uniformity of bubble distribution in the solution. In addition, the directional flow solution formed by the stirring rod 7 in the reaction tank 1 will have a continuous lateral drag effect on the rising carbon dioxide bubbles, changing the original vertical upward path of the bubbles and changing the upward trajectory of the bubbles from a straight line to a spiral curve. This greatly increases the residence time and contact area of ​​the bubbles in the solution, further improving the dissolution efficiency of carbon dioxide in the solution.

[0022] Example 2 While the above embodiments effectively address the technical issues of the stable air cushion structure formed on the inner side of the umbrella-shaped leak cap 12 and the blockage of the exhaust port 21, the diameter of the exhaust port 21 is fixed. Therefore, when a small amount of gas enters the centrifugal space inside the umbrella-shaped leak cap 12, the gas ejection speed is slow and the kinetic energy is insufficient. It cannot effectively overcome the interfacial tension between the solution and the gas to form small, dispersed bubbles. Instead, it easily aggregates into larger bubbles that rise rapidly, significantly shortening the contact time and contact area with the solution. Since the diffusion rate of gas molecules into the solution is positively correlated with the bubble dispersion and contact time, this leads to insufficient carbon dioxide dissolution. When a large amount of gas enters, the constant gap cross-section generates significant flow resistance. The gas that enters in a short time cannot be discharged through the gap in time and will accumulate rapidly in the centrifugal space inside the umbrella-shaped leak cap 12. The gas pressure continues to rise, and the excessively high internal pressure will inversely hinder the continuous influx of subsequent gas. At the same time, the accumulated gas is prone to forming a local high-pressure air cushion, disrupting the continuity of gas flow and causing poor exhaust. This embodiment is invented to solve the above problems.

[0023] Please see Figures 1 to 5 Based on the above embodiments, the technical solution adopted includes the following: the sealing component includes a lower sealing diversion plate 14 fixedly connected to the middle of the inner circumferential surface of the rising channel 10, and an upper sealing diversion plate 15 rotatably connected to the upper surface of the lower sealing diversion plate 14. A rotating shaft is fixedly connected to the center of the lower surface of the upper sealing diversion plate 15, one end of which extends into the lower sealing diversion plate 14. At the same time, the outer circumferential surface of the upper sealing diversion plate 15 is tightly fitted with the inner circumferential surface of the rising channel 10. Multiple diversion ports 27 are opened on both the lower sealing diversion plate 14 and the upper sealing diversion plate 15. The bottom end of the second rotating shaft 16 is fixedly connected to the upper sealing diversion plate 15. Therefore, when the umbrella-shaped leak cap 12 rotates under the drive of the solution fluid, the driven barrel 20 fixedly connected to the top of the inner side of the umbrella-shaped leak cap 12 will rotate synchronously. Through the interlocking and guiding action of the limiting groove 25 and the limiting block 26, the second rotating shaft 16 will be driven to rotate coaxially and synchronously within the limiting ring 17. Since the bottom end of the second rotating shaft 16 is fixedly connected to the upper sealing diversion plate 15, the upper sealing diversion plate 15 will be driven to rotate synchronously on the upper surface of the lower sealing diversion plate 14. Combining the intermittent conduction theory in fluid transportation, during the rotation of the upper sealing diversion plate 15, the multiple diversion ports 27 opened on its surface will interact with... The corresponding diversion ports 27 on the lower sealing diversion plate 14 form a periodic relative position change. When the upper and lower diversion ports 27 are misaligned, the middle channel of the rising channel 10 is closed. Carbon dioxide bubbles that continuously enter the rising channel 10 from below will be temporarily stored in the lower space of the rising channel 10, forming a phased gas accumulation state. When the umbrella-shaped leak cap 12 drives the upper sealing diversion plate 15 to rotate until the upper and lower diversion ports 27 are completely aligned and connected, the carbon dioxide gas previously accumulated in the rising channel 10 will form a pulsed airflow and quickly rush upward into the centrifugal space inside the umbrella-shaped leak cap 12. The second rotating shaft 16 is fixedly connected to a plurality of second connecting posts 24, and an arc-shaped connecting rod 23 is fixedly connected to one end of the second connecting post 24 away from the second rotating shaft 16. A plurality of blocking posts 22, one end of which is inserted into the corresponding exhaust port 21, are fixedly connected to the arc-shaped connecting rod 23, and there is always a gap between the blocking post 22 and the exhaust port 21. Both the exhaust port 21 and the blocking column 22 are frustoconical in shape. Therefore, when a pulsed gas flow of carbon dioxide enters the centrifugal space inside the umbrella-shaped leak cap 12, due to the large amount of carbon dioxide gas entering and the certain flow resistance between the exhaust port 21 and the blocking column 22, a large amount of gas cannot be quickly discharged from the gap in a short time. As a result, a temporary gas accumulation state is formed in the centrifugal space inside the umbrella-shaped leak cap 12. The gas pressure inside the umbrella-shaped leak cap 12 increases, forming an upward pushing force on the inner top of the umbrella-shaped leak cap 12. The core source of this pushing force is the collective action of the accumulated bubble group on the inner wall of the umbrella-shaped leak cap 12. A large number of bubbles gather in a limited space, and their upward expansion trend forms a continuous pushing effect. This pushing force can effectively overcome the weight of the umbrella-shaped leak cap 12 itself and the viscous resistance force generated by the solution, ultimately causing the umbrella-shaped leak cap 12 to move upward along the axial direction of the second rotating shaft 16. During this process, the umbrella-shaped leak cap 12 will simultaneously drive the driven barrel 20 fixedly connected to its inner top to slide along the axial direction of the second rotating shaft 16. Simultaneously, multiple push plates 13 fixedly connected to the bottom of its outer surface will also move upward synchronously with the umbrella-shaped vent cap 12, thereby changing the immersion depth of the push plates 13 in the solution. According to the velocity gradient distribution law in fluid mechanics, the flow velocity of the solution in the reaction tank 1 will increase with the increase of the liquid level, that is, the flow velocity of the upper solution is greater than that of the lower solution. Therefore, when the push plate 13 moves upward to a higher flow velocity region, the impact momentum of the solution on the push plate 13 will increase significantly. Combined with the principle of force difference of asymmetric structure, the rotational angular velocity of the umbrella-shaped vent cap 12 driven by the push plate 13 will be further increased. According to the centrifugal mechanics theory, the increase of rotational angular velocity can directly increase the centrifugal acceleration inside the umbrella-shaped vent cap 12, so that the solution and carbon dioxide gas in the centrifugal space can obtain a greater centrifugal inertial force, thereby accelerating the ejection speed of the gas from the gap between the exhaust port 21 and the blocking column 22. This accelerated ejection phenomenon conforms to the jet principle in gas dynamics, which can enhance the turbulent mixing degree between the gas and liquid phases and greatly improve the dissolution efficiency of carbon dioxide. Meanwhile, during the simultaneous axial lifting and circumferential rotation of the umbrella-shaped vent cap 12, the vents 21 on its surface form a three-dimensional spiral trajectory in the solution of the reaction tank 1. Compared to a single planar circular trajectory, this three-dimensional dynamic trajectory allows for a wider spatial distribution of bubble release points, effectively preventing localized solution oversaturation caused by concentrated bubble release in a fixed area. It also significantly reduces the fusion and aggregation of adjacent bubbles due to close contact, ensuring uniform bubble dispersion. Furthermore, during the periodic alignment and conduction of the diversion ports 27 of the upper sealing diversion plate 15 and the lower sealing diversion plate 14, the gas accumulated in the lower space of the rising channel 10... The amount of gas will fluctuate due to the difference in gas input during the conduction cycle, causing the pressure and flow rate of the pulsed airflow entering the umbrella-shaped gas leak cap 12 to change dynamically. This in turn causes the magnitude of the upward thrust generated by the gas accumulated inside the umbrella-shaped gas leak cap 12 to change continuously, and ultimately the distance of its axial rise is also dynamically adjusted. Therefore, this dynamic adjustment will directly change the gap width between the exhaust port 21 and the blocking column 22, forming an adaptive gap adjustment mechanism. This mechanism can accurately adapt to the gas inflow requirements of different flow rates, ensuring that the exhaust port 21 can still maintain a stable gas ejection state under the condition of gas flow fluctuation, avoiding the problem of poor exhaust due to excessive gas volume or insufficient dissolution due to insufficient gas volume.

[0024] In summary, when using this method for preparing soda water, the first rotating shaft 6 and the stirring rod 7 are driven to rotate by the motor 3, causing the solution in the reaction vessel 1 to flow in a directional manner. The flowing solution impacts multiple push plates 13 on the bottom of the outer surface of the umbrella-shaped vent cap 12. Based on the principle of force difference in asymmetrical structure, the umbrella-shaped vent cap 12 is driven to rotate continuously. At the same time, the partition plate 19 fixed on the inner surface of the umbrella-shaped vent cap 12 causes the solution in the centrifugal space to undergo centrifugal motion, creating dynamic disturbance to the internal space and the exhaust port 21, effectively destroying the air cushion structure and liquid film. The rotation of the umbrella-shaped vent cap 12 drives the second rotating shaft 16 to rotate through the cooperation of the driven barrel 20, the limiting slide groove 25 and the limiting block 26, which in turn drives the upper sealing diversion plate 15 to rotate on the upper surface of the lower sealing diversion plate 14, so that the diversion ports 27 of the two are periodically aligned, and the upper... The carbon dioxide gas accumulated at the lower part of the rising channel 10 is released into the umbrella-shaped leak cap 12 in a pulsed airflow. The influx of airflow causes the internal pressure of the umbrella-shaped leak cap 12 to increase, generating an upward thrust, which causes the umbrella-shaped leak cap 12 to rise axially along the second rotating shaft 16, driving the push plate 13 into a higher flow velocity region, further increasing the rotation speed and centrifugal force, accelerating the gas to be ejected from the gap between the exhaust port 21 and the blocking column 22. At the same time, the rising and falling of the umbrella-shaped leak cap 12 dynamically adjusts the size of the gap between the exhaust port 21 and the blocking column 22, forming an adaptive adjustment mechanism to ensure stable exhaust under different gas flow rates. The whole process realizes the three-dimensional spiral motion of the gas release point, the widespread uniformity of bubble distribution, and the significant improvement of gas-liquid contact time and area, thereby efficiently and stably preparing soda water with fully dissolved carbon dioxide.

[0025] It should be noted that in the description of this invention, terms such as "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," which indicate direction or positional relationships, are based on the direction or positional relationships shown in the accompanying drawings. These are used merely for ease of description and do not indicate or imply that the device or element must have a specific orientation, or be constructed and operated in a specific orientation; therefore, they should not be construed as limitations on this invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0026] Furthermore, it should be noted that, in the description of this invention, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0027] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A method for preparing soda water, characterized in that, The raw materials include the following parts by weight: 20-40 parts baking soda, 0.5-4 parts lemon concentrate, 0.5-4 parts monk fruit extract, 0.01-2 parts beverage containing naturally derived electrolytes, 0.01-2 parts potassium chloride, and 0.01-5 parts edible flavoring. The raw materials are mixed and dissolved and then reacted with carbon dioxide gas in a reaction vessel (1). The bottom of the inner circumferential surface of the reaction vessel (1) is fixedly connected from top to bottom to a split mounting plate (9) and an exhaust plate (8). The upper surface of the split mounting plate (9) is provided with a plurality of rotatable and vertically movable umbrella-shaped gas leak caps (12). The exhaust plate (8) is provided with a plurality of one-way valves (11) that can discharge carbon dioxide gas to the corresponding umbrella-shaped gas leak caps (12). The split mounting plate (9) is provided with a plurality of rising channels (10) that can provide a path for carbon dioxide bubbles to rise. The middle of the inner circumferential surface of the rising channel (10) is provided with a sealing component that can intermittently release gas. The top of the outer surface of the umbrella-shaped gas leak cap (12) is uniformly provided with a plurality of exhaust ports (21).

2. The method for preparing soda water according to claim 1, characterized in that: The top of the outer periphery of the reaction vessel (1) is provided with a pressure reducing device (2) that can communicate with it, and the upper surface of the reaction vessel (1) is provided with a liquid inlet pipe. The bottom of the outer periphery of the reaction vessel (1) is provided with a liquid outlet pipe (4) that is connected to the space above the exhaust plate (8) at one end, and the bottom of the outer periphery of the reaction vessel (1) is also provided with an air inlet pipe (5) that is connected to the space below the exhaust plate (8) at one end.

3. The method for preparing soda water according to claim 2, characterized in that: The top of the inner side of the umbrella-shaped air-leaking cap (12) is fixedly connected to a driven barrel (20). A second rotating shaft (16) extending into the rising channel (10) is slidably connected inside the driven barrel (20). A limiting ring (17) is rotatably connected to the bottom of the second rotating shaft (16). A plurality of first connecting posts (18) are evenly fixedly connected to the outer circumferential surface of the limiting ring (17). The ends of the plurality of first connecting posts (18) away from the limiting ring (17) are all fixedly connected to the inner circumferential surface of the rising channel (10).

4. The method for preparing soda water according to claim 3, characterized in that: The inner circumferential surface of the driven barrel (20) is evenly provided with multiple limiting grooves (25), and the top of the second rotating shaft (16) is fixedly connected with multiple limiting blocks (26) whose one end is slidably connected in the corresponding limiting groove (25).

5. The method for preparing soda water according to claim 4, characterized in that: Multiple push plates (13) are uniformly fixedly connected to the bottom of the outer surface of the umbrella-shaped air-leaking cap (12).

6. The method for preparing soda water according to claim 5, characterized in that: The inner surface of the umbrella-shaped air-leaking cap (12) is uniformly fixed with multiple partition plates (19).

7. The method for preparing soda water according to claim 6, characterized in that: The upper surface of the reaction vessel (1) is rotatably connected to a first rotating shaft (6) extending into the reaction vessel (1). The bottom end of the first rotating shaft (6) is rotatably connected to the split mounting plate (9). A motor (3) is fixedly connected to the center of the upper surface of the reaction vessel (1), and the drive shaft at the bottom end of the motor (3) is fixedly connected to the first rotating shaft (6). Multiple stirring rods (7) are fixedly connected to the outer circumferential surface of the first rotating shaft (6).

8. The method for preparing soda water according to claim 7, characterized in that: The sealing component includes a lower sealing diversion plate (14) fixedly connected to the middle of the inner circumferential surface of the rising channel (10), and an upper sealing diversion plate (15) is rotatably connected to the upper surface of the lower sealing diversion plate (14). Both the lower sealing diversion plate (14) and the upper sealing diversion plate (15) are provided with multiple diversion ports (27). The bottom end of the second rotating shaft (16) is fixedly connected to the upper sealing diversion plate (15).

9. A method for preparing soda water according to claim 8, characterized in that: The second rotating shaft (16) is fixedly connected to a plurality of second connecting posts (24), and an arc-shaped connecting rod (23) is fixedly connected to one end of the second connecting post (24) away from the second rotating shaft (16). A plurality of blocking posts (22) with one end inserted into the corresponding exhaust port (21) are fixedly connected to the arc-shaped connecting rod (23).

10. A method for preparing soda water according to claim 9, characterized in that: The exhaust port (21) and the plug column (22) are both frustum-shaped.

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