Multi-air-source bubble generating device

Abstract

The utility model discloses a multi-gas-source bubble generating device which comprises a mounting frame, a mounting transverse plate and a partition plate which are mounted on the mounting frame, a gas generating structure which is mounted at the top of the mounting transverse plate and can generate various pure gases, and a gas storage component which is mounted on the mounting frame and is connected with the gas generating structure, the bubble generation assembly is installed on the installation frame and connected with the gas storage assembly, the protection plate is installed on the installation frame, the heat dissipation structure is installed on the protection plate and used for conducting heat dissipation on the gas making structure, the controller is installed on the installation frame, and the moving part is installed at the bottom of the installation frame. When the gas source is switched, the gas storage bottle does not need to be replaced, so that the labor intensity of workers is reduced, the gas can be supplemented in time through the gas making structure, the situation that the equipment still runs after the gas in the gas storage bottle is used up is avoided, and the service life of the equipment is ensured.

Description

Technical Field

[0001] The utility model relates to the technical field of bubble generating devices, in particular to a multi-gas source bubble generating device. Background Art

[0002] A micro-nano bubble generator is a bubble generator that can generate bubbles with diameters ranging from a few microns to hundreds of nanometers. Micro-nano bubbles have the characteristics of large specific surface area, long residence time, self-pressurized dissolution, free radical generation, and enhanced mass transfer efficiency. They are widely used in environmental pollution control fields such as water oxygenation, flotation technology, enhanced ozonation, and enhanced biological activity.

[0003] When the existing micro-nano bubble generating device is used for water treatment, the bubbles formed by different gases and clean water have different effects in the water treatment process, so the gas source needs to be replaced according to the changes in water quality; specifically, when the water body is in anoxic state, it is necessary to introduce bubble water formed by a mixture of oxygen and clean water into the water body, and when there are pollutants that are difficult to decompose in the water body, it is necessary to introduce bubble water formed by a mixture of ozone and clean water. The existing micro-nano bubble generating device is generally connected to a gas cylinder that stores the corresponding gas. When the gas needs to be replaced, the gas cylinder needs to be replaced, and the gas storage capacity is limited. When the gas in the gas cylinder is used up, the worker still needs to replace it, which is very troublesome and the labor intensity of the workers is high. When the gas in the gas cylinder is used up, the staff does not replace it in time, and the micro-nano bubble generating device will not stop, affecting the normal operation of the gas-liquid mixing pump and the service life of the gas-liquid mixing pump.

[0004] Therefore, it is an urgent problem to provide a device that can replace the gas source without the need for a gas cylinder and can automatically replenish the gas in the gas cylinder. Utility Model Content

[0005] The utility model aims to provide a multi-gas source bubble generating device to solve the problem that the existing micro-nano bubble generating device in the background technology needs to frequently replace the gas cylinder, which is very troublesome and leads to high labor intensity for workers.

[0006] In order to achieve the above-mentioned purpose, the utility model proposes a multi-gas source bubble generating device, which includes a mounting frame, a mounting horizontal plate and a partition plate mounted on the mounting frame, a gas making structure installed on the top of the mounting horizontal plate and capable of generating a variety of pure gases, a gas storage assembly installed on the mounting frame and connected to the gas making structure, a bubble generating assembly installed on the mounting frame and connected to the gas storage assembly, a protective plate installed on the mounting frame, a heat dissipation structure installed on the protective plate for dissipating heat from the gas making structure, a controller installed on the mounting frame, and a moving part installed at the bottom of the mounting frame.

[0007] Optionally, the gas production structure, gas storage component and bubble generating component are all connected to a controller.

[0008] Optionally, the gas production structure includes a plurality of gas generating devices connected to a controller, and a gas production pipe installed at a gas outlet of the gas generating device; the gas production pipe is connected to a gas storage assembly.

[0009] Optionally, the gas storage assembly is composed of multiple gas storage structures of the same structure, which include a gas bottle installed on a mounting frame, an outlet pipe installed at the gas outlet of the gas bottle, a booster valve installed at the gas inlet of the gas bottle, and a protective structure installed on the gas bottle.

[0010] Optionally, the air outlet pipe is connected to the bubble generating assembly; the boost valve is connected to the air making pipe in the air making structure; and the protective structure is connected to the controller.

[0011] Optionally, a first solenoid valve connected to a controller is installed on the air outlet pipe; and a first exhaust valve is installed on one end of the gas storage bottle.

[0012] Optionally, the protection structure includes a connecting pipe installed on the gas cylinder and connected to the inside of the gas cylinder, a safety valve installed at the end of the connecting pipe, and a first pressure gauge installed on the connecting pipe and connected to the controller.

[0013] Optionally, the bubble generating assembly includes a gas-liquid mixing pump mounted on a mounting frame, a liquid inlet pipe mounted at the liquid inlet of the gas-liquid mixing pump, an air inlet pipe mounted at the air inlet of the gas-liquid mixing pump, a one-way valve mounted on the air inlet pipe, a gas flow meter mounted on the air inlet pipe away from the gas-liquid mixing pump, a flow tube mounted at the air inlet end of the gas flow meter, and a gas-liquid pipe mounted at the liquid outlet of the gas-liquid mixing pump.

[0014] Optionally, a gas distribution row is installed on the gas flow tube, the gas distribution row is connected to the gas outlet pipe, and the gas flow meter is connected to the controller.

[0015] Optionally, an air intake pipe is installed on the air distribution row, a second solenoid valve is installed on the air intake pipe, and the second solenoid valve is connected to the controller.

[0016] Optionally, the number of the gas storage structures is the same as the number of the gas generating devices.

[0017] Optionally, a nozzle is installed on the end of the gas-liquid pipe away from the gas-liquid mixing pump, and a second pressure gauge, a gas dissolving chamber and a water valve are sequentially provided on the gas-liquid pipe along the moving direction of the bubble water, and the water valve and the second pressure gauge are both connected to the controller; a second exhaust valve is installed on the top of the gas dissolving chamber.

[0018] Optionally, the moving part is a universal wheel; the heat dissipation structure includes two mounting holes arranged on the protective plate, and ventilation fans located at the mounting holes, and the moving directions of air at the two ventilation fans are parallel.

[0019] Optionally, a heat sink is installed on the outer wall of the protective plate, the heat sink is located at one of the mounting holes, and tapered holes are evenly distributed on the heat sink. A graphene heat sink is also installed on the heat sink.

[0020] Optionally, air enters from the point where the diameter of the cone hole is the largest, leaves from the point where the diameter of the cone hole is the smallest, then contacts one of the ventilation fans and enters the space formed by the mounting frame and the protective plate; a grille plate is installed on the protective plate, and the grille plate is located at the opening of another mounting hole for protecting the other ventilation fan.

[0021] Compared with the prior art, the utility model provides a multi-gas source bubble generating device, which has the following beneficial effects:

[0022] The multi-gas source bubble generating device can generate a variety of pure gases through a gas making structure, and then store the pure gases through a gas storage component. When switching the gas source, there is no need to replace the gas cylinder, thereby reducing the labor intensity of workers. Although the gas storage capacity of the gas storage component is limited, it can be replenished in time through the gas making structure, and the situation where the equipment is still running after the gas in the gas cylinder is used up will not occur, thereby ensuring the service life of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the overall structure of the utility model.

[0024] Figure 2 It is a schematic diagram of the overall structure of the utility model from another perspective.

[0025] Figure 3 It is a connection diagram of the gas production structure, gas storage component and bubble generation component of the utility model.

[0026] Figure 4 It is a structural schematic diagram of the gas storage component and the bubble generating component of the utility model.

[0027] Figure 5 It is a structural schematic diagram of the gas storage component and the bubble generating component of the utility model from another perspective.

[0028] Figure 6 It is a structural schematic diagram of the bubble generating component of the utility model.

[0029] Figure 7 It is a structural schematic diagram of the mounting frame of the utility model.

[0030] Figure 8 It is a schematic diagram of the heat dissipation structure of the utility model.

[0031] Fig. 9 It is a structural schematic diagram of the heat sink block and the graphene heat sink of the utility model.

[0032] Markings in the figure: 1. Mounting frame; 11. Mounting horizontal plate; 12. Partition plate; 2. Gas making structure; 21. Gas generating device; 22. Gas making pipe; 3. Gas storage assembly; 31. Gas storage bottle; 32. Gas outlet pipe; 321. First solenoid valve; 33. Pressure boosting valve; 34. Protection structure; 341. Connecting pipe; 342. Safety valve; 343. First pressure gauge; 35. First exhaust valve; 4. Bubble generating assembly; 41. Gas-liquid mixing pump; 42. Liquid inlet pipe; 43. Gas inlet pipe; 44 , one-way valve; 45, gas flow meter; 46, flow tube; 461, gas distribution row; 462, air intake pipe; 463, second solenoid valve; 47, gas-liquid pipe; 471, second pressure gauge; 472, gas dissolution chamber; 473, water valve; 474, second exhaust valve; 48, nozzle; 5, protective plate; 51, heat sink; 52, cone hole; 53, graphene heat sink; 54, grille plate; 6, heat dissipation structure; 61, mounting hole; 62, ventilation fan; 7, controller; 8, moving parts. DETAILED DESCRIPTION

[0033] The following is a detailed description in conjunction with the accompanying drawings and specific implementations. In the following description, many specific details are set forth to facilitate a full understanding of the present utility. However, the present utility can be implemented in many other ways different from those described herein, and those skilled in the art can make similar generalizations without violating the connotation of the present utility, so the present utility is not limited by the specific embodiments disclosed below.

[0034] A multi-gas source bubble generating device of the present application can be used in water treatment where frequent switching of gas sources is required, and sewage is treated with bubble water formed by a mixture of different gases and water. Of course, it can also be used in other similar application scenarios. A multi-gas source bubble generating device is described in detail below.

[0035] See attached Figure 1 — Fig. 9As shown, a schematic structural diagram of a preferred embodiment of a multi-gas source bubble generating device of the present application is shown. The multi-gas source bubble generating device comprises a mounting frame 1, a mounting horizontal plate 11 and a partition plate 12 mounted on the mounting frame 1, a gas-making structure 2 mounted on the top of the mounting horizontal plate 11, a gas storage component 3 mounted on the mounting frame 1 and connected to the gas-making structure 2, a bubble generating component 4 mounted on the mounting frame 1 and connected to the gas storage component 3, a protective plate 5 mounted on the mounting frame 1, a heat dissipation structure 6 mounted on the protective plate 5 for dissipating heat from the gas-making structure 2, a controller 7 mounted on the mounting frame 1, and a moving part 8 mounted on the bottom of the mounting frame 1; wherein the gas-making structure 2, the gas storage component 3 and the bubble generating component 4 are all connected to the controller 7.

[0036] The utility model provides an installation position for the gas-making structure 2 by installing a horizontal plate 11; separates the gas-making structure 2 and the controller 7 by a partition plate 12 to prevent the heat generated by the gas-making structure 2 during gas-making operation from affecting the controller 7; separately stores the pure gas produced by the gas-making structure 2 by the gas storage component 3 to ensure that the gas can be mixed with the liquid to form bubble water when the bubble generating component 4 is in operation; mixes the gas and the liquid to form bubble water by the bubble generating component 4; separates the gas-making structure 2, the gas storage component 3 and the bubble generating component 4 from the external space by a protective plate 5 to prevent the staff from accidentally contacting the device when the device is in operation, thereby protecting the staff; dissipates heat for the gas-making structure 2 by a heat dissipation structure 6 to prevent the ambient temperature of the gas-making structure 2 from being too high, thereby affecting the gas-making performance of the gas-making equipment, avoiding overheating and damage of the electrical components of the gas-making equipment, and avoiding the high-temperature environment from affecting the separation effect of the separation membrane in the gas-making equipment, thereby ensuring the quality of the pure gas.

[0037] See attached Figure 1 — Figure 3 As shown, in the present invention, the gas production structure 2 includes a plurality of gas generating devices 21 connected to the controller 7 , and a gas production pipe 22 installed at the gas outlet of the gas generating device 21 ; the gas production pipe 22 is connected to the gas storage assembly 3 .

[0038] The utility model is provided with a plurality of gas generating devices 21, so that different pure gases, such as oxygen, ozone, nitrogen and the like, can be prepared, so that different pure gases can be formed according to the specific conditions of the sewage to carry out symptomatic treatment of the sewage; the gas making pipe 22 is provided to guide the gas generated by the gas generating device 21 to flow into the corresponding gas storage cylinder 31.

[0039] See attached Figure 3 — Figure 5As shown, in the utility model, the gas storage assembly 3 is composed of a plurality of gas storage structures of the same structure, which includes a gas cylinder 31 mounted on the mounting frame 1, an outlet pipe 32 mounted at the gas outlet of the gas cylinder 31, a booster valve 33 mounted at the gas inlet of the gas cylinder 31, and a protective structure 34 on the gas cylinder 31; the outlet pipe 32 is connected to the bubble generating assembly 4; the booster valve 33 is connected to the gas making pipe 22 in the gas making structure 2; and the protective structure 34 is connected to the controller 7. It should be particularly noted that the number of the gas storage structures is the same as the number of the gas generating devices 21.

[0040] The utility model is used to temporarily store the pure gas generated by the gas generating device 21 through the provision of the gas cylinder 31; is used to guide the gas in the gas cylinder 31 through the provision of the gas outlet pipe 32; is used to pressurize the gas through the provision of the booster valve 33 to ensure that the gas generated by the gas generating device 21 can enter the gas cylinder 31; is used to protect the gas cylinder 31 through the provision of the protective structure 34 to prevent the gas pressure in the gas cylinder 31 from being too high, thereby avoiding damage or explosion of the gas cylinder, thereby providing protection for the safety of the staff.

[0041] See attached Figure 3 — Figure 5 As shown, in the utility model, a first solenoid valve 321 connected to the controller 7 is installed on the air outlet pipe 32; a first exhaust valve 35 is installed on one end of the gas cylinder 31; the protection structure 34 includes a connecting pipe 341 installed on the gas cylinder 31 and connected to the inside of the gas cylinder 31, a safety valve 342 installed at the end of the connecting pipe 341, and a first pressure gauge 343 installed on the connecting pipe 341 and connected to the controller 7.

[0042] The utility model is used to control the opening and closing of the gas outlet pipe 32 through the setting of the first electromagnetic valve 321, and the opening of the first electromagnetic valve 321 can be adjusted by the controller 7 to adjust the flow rate of the gas; the first exhaust valve 35 can be used to release the gas in the gas cylinder 31 to ensure the purity of the gas in the gas cylinder 31. Specifically, when the gas in the gas cylinder 31 is partially used and is not needed for a long time, the gas in the gas cylinder 31 can be discharged through the first exhaust valve 35 to prevent the gas cylinder 31 from being in a high-pressure state for a long time and causing accidents, thereby providing a guarantee for the safety of the staff. When the corresponding gas cylinder needs to store gas again, the purity of the gas in the gas cylinder 31 can be ensured by storing and releasing the gas multiple times; in addition, if the present bubble generating device is used to deal with an emergency, the gas in the gas cylinder 31 needs to be replaced, so the first exhaust valve 35 is required to release the gas; the connecting pipe 341 is used to provide a safety The full valve 342 and the first pressure gauge 343 provide installation positions; the setting of the safety valve 342 prevents the gas pressure in the gas cylinder 31 from being too high, which may cause damage or explosion of the gas cylinder 31; the setting of the first pressure gauge 343 is used to monitor the gas pressure in the gas cylinder 31, and cooperate with the controller 7 so that when the gas pressure in the gas cylinder 31 is lower than the specified pressure, the corresponding gas generating device 21 starts to make gas; specifically, the pressure range is set by the controller 7, and a gas making pressure point is set within the pressure range. When the gas pressure in the gas cylinder 31 is lower than the minimum value of the pressure range, it means that the gas cylinder 31 cannot provide sufficient pure gas, and the bubble generating component 4 cannot work. When the gas pressure in the gas cylinder 31 is within the pressure range, but lower than the gas making pressure point, the controller 7 starts to control the corresponding gas generating device 21 to start working, and the gas making speed of the gas generating device 21 is greater than the exhaust speed of the gas cylinder 31 through the outlet pipe 32, thereby ensuring the stability of the equipment operation.

[0043] See attached Figure 3 — Figure 6 As shown, in the utility model, the bubble generating assembly 4 includes a gas-liquid mixing pump 41 installed on the mounting frame 1, a liquid inlet pipe 42 installed at the liquid inlet of the gas-liquid mixing pump 41, an air inlet pipe 43 installed at the air inlet of the gas-liquid mixing pump 41, a one-way valve 44 installed on the air inlet pipe 43, a gas flow meter 45 installed on the air inlet pipe 43 away from the gas-liquid mixing pump 41, a gas flow tube 46 installed at the air inlet end of the gas flow meter 45, and a gas-liquid pipe 47 installed at the liquid outlet of the gas-liquid mixing pump 41; wherein, a gas distribution row 461 is installed on the gas flow tube 46, and the gas distribution row 461 is connected to the air outlet pipe 32, and the gas flow meter 45 is connected to the controller 7.

[0044] The utility model provides a gas-liquid mixing pump 41, which is a power source for mixing gas and liquid, so that gas and liquid can be mixed to form a gas-liquid mixture (bubble water); the liquid inlet pipe 42 is provided, so that liquid such as clean water can flow into the gas-liquid mixing pump 41; the air inlet pipe 43 is provided, so that various pure gases and air can enter the gas-liquid mixing pump 41; the one-way valve 44 is provided, so as to prevent the gas from flowing back and causing the gas-liquid mixture or liquid to flow into the air inlet pipe 43; the gas flow meter 45 is provided, so as to monitor the flow of gas, and the gas flow can be controlled by the cooperation of the first solenoid valve 321 and the second solenoid valve 463, so as to control the mixing ratio of gas and liquid; the gas-liquid pipe 47 is provided, so as to discharge the bubble water formed by the mixing of gas and liquid; the gas distribution discharge 461 is provided, so that a variety of pure gases can enter the gas-liquid mixing pump 41 through the same pipeline without interfering with each other.

[0045] See attached Figure 3 — Figure 6 As shown, in the utility model, an air intake pipe 462 is installed on the air distribution row 461, and a second solenoid valve 463 is installed on the air intake pipe 462, and the second solenoid valve 463 is connected to the controller 7; a nozzle 48 is installed on the end of the gas-liquid pipe 47 away from the gas-liquid mixing pump 41, and a second pressure gauge 471, a gas dissolving chamber 472 and a water valve 473 are sequentially provided on the gas-liquid pipe 47 along the moving direction of the bubble water, and the water valve 473 and the second pressure gauge 471 are both connected to the controller 7; wherein a second exhaust valve 474 is installed on the top of the gas dissolving chamber 472.

[0046] The utility model provides an air intake pipe 462 so that air can enter the air distribution row 461 and mix with the liquid; the second solenoid valve 463 can be used to control the flow of air in the air intake pipe 462; the second pressure gauge 471 can be used to monitor the state of bubbles in the gas-liquid mixture. Specifically, the second pressure gauge 471 is installed on the gas-liquid pipe 47, and then when there are no bubbles or the number of bubbles is very small, the reading of the second pressure gauge 471 is recorded as a reference value to indicate the normal pressure state of the fluid in the pipeline, and then the pressure gauge reading is observed and recorded. As the bubbles move or gather in the pipeline, the reading of the second pressure gauge 471 will change, thereby monitoring the state of the bubble water; the gas dissolving chamber 472 and the second exhaust valve 474 can be used to discharge the excess gas in the bubble water that cannot be dissolved in the liquid, thereby ensuring the smooth flow of the gas-liquid mixture and the bubble water and preventing the flow of the bubble water from being affected by excessive air pressure in the pipeline.

[0047] See attached Figure 1 , Figure 7 — Fig. 9 As shown, in the present invention, the moving part 8 is a universal wheel; the heat dissipation structure 6 includes two mounting holes 61 arranged on the protective plate 5, and a ventilation fan 62 located at the mounting holes 61, and the moving directions of the air at the two ventilation fans 62 are parallel.

[0048] It should be particularly noted that a heat sink 51 is installed on the outer wall of the protective plate 5, and the heat sink 51 is located at one of the mounting holes 61, and the heat sink 51 is evenly distributed with conical holes 52, and a graphene heat sink 53 is also installed on the heat sink 51; air enters from the largest diameter of the conical hole 52, leaves from the smallest diameter of the conical hole 52, and then contacts one of the ventilation fans 62, and enters the space enclosed by the mounting frame 1 and the protective plate 5; a grille plate 54 is also installed on the protective plate 5, and the grille plate 54 is located at the orifice of another mounting hole 61, and is used to protect the other ventilation fan 62.

[0049] The utility model provides a universal wheel to facilitate the movement of the multi-gas source bubble generating device of the present application. In an emergency, the bubble generating device can be moved to a designated location for emergency treatment; the ventilation fan 62 can be provided to dissipate heat from the ambient space of the gas generating device 21; the pushing direction of the air by the ventilation fan 62 is limited so that one ventilation fan 62 draws external air into the space where the gas generating device 21 is located, and the other ventilation fan 62 blows the gas in the space where the gas generating device 21 is located outward, so that the air in the space where the gas generating device 21 is located can be circulated, thereby reducing the temperature in the space and protecting the gas generating device 21; the heat dissipation block 51 is provided to cool the incoming air so that the air entering the space where the gas generating device 21 is located can be cooled. The temperature of the space is lower, ensuring that the ambient temperature will not affect the gas generating device 21, and the gas generating device 21 can be heat-dissipated to prevent the heat dissipation effect of the gas generating device 21 from being affected by the excessively high ambient temperature; specifically, through the setting of the conical hole 52, the air enters from the largest diameter of the conical hole 52 and leaves from the smallest diameter. Due to the changes in air pressure and density, the increase in the thermal conductivity of the small hole wall and the heat dissipation effect of the small hole wall, the temperature of the air will drop. Combined with the setting of the graphene heat sink 53, heat is transferred to the heat sink 51 to prevent the temperature of the heat sink 51 from rising, thereby ensuring that the drawn gas can lower the ambient temperature of the gas generating device 21; through the setting of the grille plate 54, it is prevented that the ventilation fan 62 is in danger of contact with the staff during operation.

[0050] See attached Figure 1 — Fig. 9 As shown, the use process of the utility model is as follows:

[0051] The staff selects air and liquid to be mixed, or pure gas and liquid to be mixed through the controller 7; after the selection is completed, the device is started through the controller 7 to start working;

[0052] When the staff selects to mix air and liquid, the controller 7 controls the second solenoid valve 463 on the air intake pipe 462 to open, and the first solenoid valve 321 on the gas storage bottle 31 to close, so that the air can enter the gas distribution row 461 along the air intake pipe 462, and enter the gas flow meter 45 along the flow pipe 46 through the gas distribution row 461, and then enter the gas-liquid mixing pump 41 through the intake pipe 43. At the same time, the liquid enters the gas-liquid mixing pump 41 through the liquid intake pipe 42 for gas-liquid mixing, and the mixed bubble water (gas-liquid mixture) flows out through the gas-liquid pipe 47;

[0053] When the staff selects pure gas to mix with liquid, first, the controller 7 monitors whether the air pressure in the gas cylinder 31 is within the specified air pressure range through the first pressure gauge 343. If it is higher than the specified minimum air pressure, the controller 7 opens the first solenoid valve 321 on the air outlet pipe 32 and closes the second solenoid valve 463 on the air inlet pipe 462. The pure gas in the gas cylinder 31 enters the gas distribution row 461 through the air outlet pipe 32, moves along the flow tube 46 through the gas distribution row 461, passes through the gas flow meter 45, and then enters the gas-liquid mixing pump 41 through the air inlet pipe 43. At the same time, the liquid enters the gas-liquid mixing pump 41 through the liquid inlet pipe 42 for gas-liquid mixing, and the mixed bubble water (gas-liquid mixture) flows out through the gas-liquid pipe 47. When the air pressure in the controller 7 is When the pressure drops below the specified value, the controller 7 controls the gas generating device 21 to start working, generates pure gas and fills the gas into the gas cylinder 31 through the gas pipe 22 and the booster valve 33; when the controller 7 is started, if the air pressure is lower than the minimum value of the specified air pressure range, the controller 7 will not open the two solenoid valves or start the gas-liquid mixing pump 41, but will start the gas generating device 21 first until the air pressure in the gas cylinder 31 reaches the maximum value of the specified range, and the gas generating speed of the gas generating device 21 is greater than the exhaust speed of the gas cylinder 31. Specifically, when the gas generating device 21 starts to generate gas, even if the opening of the first solenoid valve 321 on the outlet pipe 32 is adjusted to the maximum, the volume of gas entering the gas cylinder 31 within the same period of time is greater than the volume of gas leaving the gas cylinder 31.

[0054] The above embodiments are descriptions of the present application, not limitations of the present application. Any solution that is a simple transformation of the present application belongs to the protection scope of the present application.

Claims

1. A multi-gas source bubble generating device, characterized in that: The invention comprises a mounting frame (1), a mounting horizontal plate (11) and a partition plate (12) mounted on the mounting frame (1), a gas production structure (2) mounted on the top of the mounting horizontal plate (11) and capable of generating a plurality of pure gases, a gas storage component (3) mounted on the mounting frame (1) and connected to the gas production structure (2), a bubble generating component (4) mounted on the mounting frame (1) and connected to the gas storage component (3), a protective plate (5) mounted on the mounting frame (1), a heat dissipation structure (6) mounted on the protective plate (5) and used for dissipating heat from the gas production structure (2), a controller (7) mounted on the mounting frame (1), and a moving part (8) mounted on the bottom of the mounting frame (1); The gas production structure (2), the gas storage component (3) and the bubble generation component (4) are all connected to a controller (7).

2. The multi-gas source bubble generating device according to claim 1, characterized in that: The gas production structure (2) comprises a plurality of gas generating devices (21) connected to a controller (7), and a gas production pipe (22) installed at a gas outlet of the gas generating device (21); The gas production pipe (22) is connected to the gas storage assembly (3).

3. The multi-gas source bubble generating device according to claim 2, characterized in that: The gas storage assembly (3) is composed of a plurality of gas storage structures of the same structure, wherein the gas storage structure comprises a gas storage bottle (31) mounted on a mounting frame (1), a gas outlet pipe (32) mounted at a gas outlet of the gas storage bottle (31), a booster valve (33) mounted at a gas inlet of the gas storage bottle (31), and a protective structure (34) mounted on the gas storage bottle (31); The air outlet pipe (32) is connected to the bubble generating assembly (4); the pressure boosting valve (33) is connected to the air making pipe (22) in the air making structure (2); and the protective structure (34) is connected to the controller (7).

4. The multi-gas source bubble generating device according to claim 3, characterized in that: The gas outlet pipe (32) is provided with a first solenoid valve (321) connected to the controller (7); one end of the gas storage bottle (31) is provided with a first exhaust valve (35); The protection structure (34) comprises a connecting pipe (341) mounted on the gas storage cylinder (31) and connected to the interior of the gas storage cylinder (31), a safety valve (342) mounted at the end of the connecting pipe (341), and a first pressure gauge (343) mounted on the connecting pipe (341) and connected to the controller (7).

5. The multi-gas source bubble generating device according to claim 3, characterized in that: The bubble generating assembly (4) comprises a gas-liquid mixing pump (41) mounted on a mounting frame (1), a liquid inlet pipe (42) mounted at a liquid inlet of the gas-liquid mixing pump (41), an air inlet pipe (43) mounted at an air inlet of the gas-liquid mixing pump (41), a one-way valve (44) mounted on the air inlet pipe (43), a gas flow meter (45) mounted on the air inlet pipe (43) away from the gas-liquid mixing pump (41), a flow pipe (46) mounted at an air inlet end of the gas flow meter (45), and a gas-liquid pipe (47) mounted at a liquid outlet of the gas-liquid mixing pump (41); The gas flow tube (46) is provided with a gas distribution row (461), the gas distribution row (461) is connected to the gas outlet pipe (32), and the gas flow meter (45) is connected to the controller (7).

6. The multi-gas source bubble generating device according to claim 5, characterized in that: An air intake pipe (462) is installed on the air distribution row (461), and a second solenoid valve (463) is installed on the air intake pipe (462). The second solenoid valve (463) is connected to the controller (7).

7. The multi-gas source bubble generating device according to claim 3, characterized in that: The number of the gas storage structures is the same as the number of the gas generating devices (21).

8. The multi-gas source bubble generating device according to claim 5, characterized in that: A nozzle (48) is installed on one end of the gas-liquid pipe (47) away from the gas-liquid mixing pump (41); a second pressure gauge (471), a gas dissolving chamber (472) and a water valve (473) are sequentially provided on the gas-liquid pipe (47) along the moving direction of the bubble water; the water valve (473) and the second pressure gauge (471) are both connected to the controller (7); and a second exhaust valve (474) is installed on the top of the gas dissolving chamber (472).

9. The multi-gas source bubble generating device according to claim 1, characterized in that: The moving part (8) is a universal wheel; the heat dissipation structure (6) comprises two mounting holes (61) arranged on the protective plate (5), and ventilation fans (62) located at the mounting holes (61); the moving directions of air at the two ventilation fans (62) are parallel.

10. The multi-gas source bubble generating device according to claim 9, characterized in that: A heat sink (51) is mounted on the outer wall of the protective plate (5), the heat sink (51) is located at one of the mounting holes (61), and tapered holes (52) are evenly distributed on the heat sink (51), and a graphene heat sink (53) is also mounted on the heat sink (51); The air enters from the point where the diameter of the conical hole (52) is the largest, leaves from the point where the diameter of the conical hole (52) is the smallest, then contacts one of the ventilation fans (62) and enters the space enclosed by the mounting frame (1) and the protective plate (5); A grille plate (54) is mounted on the protection plate (5); the grille plate (54) is located at the opening of another mounting hole (61) and is used to protect another ventilation fan (62).

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