Automatic gas-liquid mixing nanometer generator for gas filling

Abstract

The utility model relates to the field of water quality purification, in particular to an automatic gas-liquid mixing nanometer generator for gas filling. And through the arrangement of the water inlet, the gas inlet and the deviated water port, the gas and the liquid can smoothly enter and be mixed in the second shell. The water diversion opening is used for guiding water flow and air flow and promoting contact between air and liquid. The water impeller plays a role in stirring, and the meshes are used for refining the flowing liquid, so that the gas and the liquid are more uniformly distributed. And the jet orifice jets out the gas-liquid mixture subjected to primary treatment at a high speed to form strong impact force. The impact cavity can produce turbulent flow, so that the collision opportunity of gas and liquid is increased, and the mixing efficiency is further improved. Under the condition of water pressure, only one small inflating pump needs to be additionally arranged, and a gas-liquid mixing pump does not need to be combined, so that a high-efficiency nanometer generator device can be realized. The problem that the cost and the maintenance difficulty of the system are increased because the conventional high-efficiency nano generator usually needs to be combined with a gas-liquid mixing pump is solved.

Description

TECHNICAL FIELD

[0001] The utility model relates to water quality purification technical field especially, it is a kind of automatic gas-liquid mixing nanometer generator of aeration. BACKGROUND

[0002] Nanometer generator is a kind of device for generating nanometer scale material or structure, is widely used in chemistry, physics, material science and biomedical fields etc..With the development of nanotechnology, the demand for efficiently, stably manufacturing nanometer material such as nanometer particle, nanometer fiber is increasing.Nanometer generator realizes the conversion of raw material into nanometer product with unique performance by controlling chemical reaction or physical process under certain conditions.Currently, high-efficiency nanometer generator usually needs to combine gas-liquid mixing pump to promote the full contact and reaction between raw materials, increases the cost and maintenance difficulty of system.

[0003] Therefore, an automatic gas-liquid mixing nanometer generator of aeration is needed. CONTENT OF UTILITY MODEL

[0004] To solve the problem that current high-efficiency nanometer generator usually needs to combine gas-liquid mixing pump, increases the cost and maintenance difficulty of system.

[0005] The utility model provides a kind of automatic gas-liquid mixing nanometer generator of aeration, including first shell, second shell and cover plate connected in sequence, second shell is equipped with the water inlet, gas inlet and water outlet that intercommunicate;A kind of automatic gas-liquid mixing nanometer generator of aeration further includes resistance flow piece, energy collection sheet and water impeller;Resistance flow piece is installed in the inside of first shell, and resistance flow piece is equipped with resistance flow outlet and impact chamber;Energy collection sheet is located at one side of resistance flow piece, and the center of energy collection sheet is equipped with injection port;Water impeller is installed in the inside of second shell, and the inside of water impeller is equipped with mesh, and the both ends of water impeller are equipped with impeller water inlet;Wherein, first cavity is formed between resistance flow piece and energy collection sheet, and first cavity, resistance flow outlet, impact chamber and injection port are interconnected, and the inside of second shell is divided into second cavity and third cavity by water impeller and mesh, and second cavity, impeller water inlet and injection port are interconnected, and third cavity is communicated with water outlet.

[0006] Preferably, cover plate is also equipped with screw rod, one side of cover plate is equipped with threaded groove, one end of screw rod is connected in threaded groove, and water impeller is rotatably connected in screw rod.

[0007] Preferably, mesh is fixedly connected in the inside of water impeller, and mesh is equipped with at least two, and the inside of water impeller is also equipped with outer ring and inner ring, and outer ring and inner ring are distributed between mesh and cover plate and between adjacent two meshes.

[0008] Preferably, mesh is equipped with three, and inner ring and outer ring are also equipped with three.

[0009] Preferably, one end of the first shell is provided with external threads, and one end of the second shell is provided with internal threads matching the external threads, and the first shell and the second shell are threadedly connected.

[0010] Preferably, the bottom of the impact cavity and the bottom of the flow resistance member are conical structures, and the impact cavity and the jet port are located on the same straight line.

[0011] The beneficial effects of the utility model lie in that, through the arrangement of the water inlet, the air inlet and the water deflection port, it is ensured that the gas and the liquid can smoothly enter and mix in the second shell. The water deflection port is used for guiding the water flow and the air flow, and promoting the contact between the gas and the liquid. The water impeller plays a stirring role, and the mesh performs fine treatment on the liquid flowing therethrough, so that the gas and the liquid are more uniformly distributed. The jet port sprays the gas-liquid mixture after preliminary treatment at high speed, forming strong impact force. The impact cavity can create turbulent flow, increase the collision opportunity of the gas and the liquid, and further improve the mixing efficiency. The utility model only needs to add a small air pump under the condition of water pressure, without combining the gas-liquid mixing pump, so that the high-efficiency nano generator device can be realized. The problem that the current high-efficiency nano generator usually needs to combine the gas-liquid mixing pump, increasing the cost and maintenance difficulty of the system is solved. BRIEF DESCRIPTION OF DRAWINGS

[0012] Figure 1 It is a perspective view of the automatic gas-liquid mixing nano generator provided by the utility model.

[0013] Figure 2 It is an explosion view of the automatic gas-liquid mixing nano generator provided by the utility model.

[0014] Figure 3 It is a sectional view of the automatic gas-liquid mixing nano generator provided by the utility model.

[0015] Figure 4 It is a structural schematic view of the automatic gas-liquid mixing nano generator provided by the utility model.

[0016] In the figure: 1-first shell;2-flow resistance member;3-flow resistance outlet;4-impact cavity;5-energy collecting sheet;6-water inlet;7-air inlet;8-screw;9-water impeller;10-mesh;11-outer ring;12-inner ring;13-cover plate;14-second shell;15-impeller water inlet;16-water deflection port;17-first cavity;18-jet port;19-second cavity;20-third cavity. DETAILED DESCRIPTION

[0017] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative effort belong to the scope of the present application.

[0018] With reference to Figures 1-4 The utility model provides an automatic gas liquid mixed nanometer generator of aerating, including first shell 1, second shell 14 and cover plate 13 connected in proper order, second shell 14 is equipped with the water inlet 6, air inlet 7 and the water outlet 16 of intercommunication, an automatic gas liquid mixed nanometer generator of aerating still includes resistance flow part 2, energy collecting sheet 5 and water impeller 9, resistance flow part 2 is installed in the inside of first shell 1, and resistance flow part 2 is equipped with resistance flow outlet 3 and impact chamber 4, energy collecting sheet 5 is located at one side of resistance flow part 2, and the center of energy collecting sheet 5 is equipped with injection port 18, water impeller 9 is installed in the inside of second shell 14, and the inside of water impeller 9 is equipped with screen 10, and the both ends of water impeller 9 are equipped with impeller water inlet 15, wherein, the first cavity 17 is formed between resistance flow part 2 and energy collecting sheet 5, and the first cavity 17, resistance flow outlet 3, impact chamber 4 and injection port 18 are interconnected, and water impeller 9 and screen 10 divide the inside of second shell 14 into second cavity 19 and third cavity 20, and the second cavity 19, impeller water inlet 15 and injection port 18 are interconnected, and third cavity 20 is communicated with water outlet 16.

[0019] The water under pressure enters through the water inlet 6, and the gas under pressure enters through the air inlet 7, and the water and the gas pass through the water outlet 16 and are sprayed on the blades of the water impeller 9, driving the water impeller 9 to rotate, and the water and the gas enter the third cavity 20, are cut and stirred into uniform water-gas mixture by the screen 10, enter the second cavity 19 through the impeller water inlet 15, are sprayed into the impact chamber 4 through the injection port 18, release energy and become micro-nano bubble water, and finally flow out through the first cavity 17 and the resistance flow outlet 3.

[0020] The water inlet 6, the air inlet 7 and the water outlet 16 ensure that the gas and the liquid can smoothly enter and mix in the second shell 14. The water outlet 16 is used for guiding the water flow and the gas flow, promoting the contact between the gas and the liquid. The water impeller 9 plays a stirring role, and the screen 10 refines the liquid flowing through, making the gas and the liquid more uniformly distributed. The injection port 18 sprays the preliminarily processed gas-liquid mixture at high speed, forming strong impact force. The impact chamber 4 can create turbulence, increasing the collision opportunities of the gas and the liquid, and further improving the mixing efficiency. The utility model only needs to add a small air pump under the condition of water pressure, without combining the gas-liquid mixing pump, to realize the high-efficiency nanometer generator device. The problem that the current high-efficiency nanometer generator usually needs to combine the gas-liquid mixing pump, increasing the cost and maintenance difficulty of the system is solved.

[0021] In some embodiments, the cover plate 13 is further provided with a screw rod 8, one side of the cover plate 13 is provided with a threaded groove, one end of the screw rod 8 is connected to the threaded groove, and the water impeller 9 is rotationally connected to the screw rod 8.

[0022] With reference to Figure 3 , the screw rod 8 is fixed on the cover plate 13 through the threaded groove, which provides a stable support point for the water impeller 9, preventing unnecessary displacement or shaking of the water impeller 9 during rotation. The threaded connection design makes the installation and disassembly of the screw rod 8 and the water impeller 9 simple and fast.

[0023] In some embodiments, the mesh 10 is fixedly connected to the inside of the water impeller 9, and the mesh 10 is provided with at least two, and the water impeller 9 is further provided with an outer ring 11 and an inner ring 12, which are distributed between the mesh 10 and the cover plate 13 and between adjacent two meshes 10.

[0024] With reference to Figures 2-3 , each layer of mesh 10 can refine and disperse the liquid flowing through, thereby promoting the formation of nanoscale bubble water. The arrangement of the outer ring 11 and the inner ring 12 provides physical support for the mesh 10, preventing the mesh 10 from being damaged due to deformation caused by high-speed rotation. On the other hand, the mesh 10 is not pasted on the cover plate 13, and there is enough space between adjacent meshes 10 to pass through the water-air mixture.

[0025] Preferably, the mesh 10 is provided with three pieces, and the inner ring 12 and the outer ring 11 are each provided with three.

[0026] The arrangement of the three pieces of mesh 10 increases the contact area between the gas and the liquid, allowing the gas and the liquid to mix thoroughly.

[0027] In some embodiments, one end of the first shell 1 is provided with an external thread, one end of the second shell 14 is provided with an internal thread matching the external thread, and the first shell 1 and the second shell 14 are threadedly connected.

[0028] With reference to Figure 3 , the first shell 1 and the second shell 14 are threadedly connected by interlocking engagement of the internal thread and the external thread. Threaded connection not only makes the first shell 1 and the second shell 14 easy to disassemble and assemble, but also allows fine adjustment of the relative position between the first shell 1 and the second shell 14 to ensure optimal assembly accuracy and alignment.

[0029] In some embodiments, the bottom of the impact chamber 4 and the bottom of the flow resistance piece 2 are conical structures, and the impact chamber 4 and the injection port 18 are located on the same straight line.

[0030] With reference to Figure 3By designing the conical structure of the impact cavity 4, the fluid is concentrated and a local high pressure area is generated, which can produce strong turbulent flow in a short time and quickly refine the micro-nano bubble water. By designing the conical structure of the flow resistance piece 2, it is beneficial for the micro-nano bubble water to flow out from the flow resistance outlet 3, reducing the area where the fluid stagnates or flows slowly, and avoiding the problem of local accumulation or blockage of the fluid. The impact cavity 4 and the injection port 18 are placed on the same straight line, ensuring that the fluid path from the impact cavity 4 to the injection port 18 is the shortest and most direct, reducing the energy loss of the fluid during transmission, and improving the transmission efficiency.

[0031] Although the embodiments of the utility model have been shown and described, it can be understood by those of ordinary skill in the art that various changes, modifications, replacements and variations can be made to these embodiments without departing from the principles and spirits of the utility model, and the scope of the utility model is defined by the appended claims and their equivalents.

Claims

1. An automatic gas-liquid mixing nanogenerator with aeration, comprising a first shell, a second shell and a cover plate connected in sequence, characterized in that: The second shell is provided with a water inlet, an air inlet and a water deflection port which are communicated with each other; further comprising a flow resistance member, an energy collecting sheet and a water impeller; the flow resistance member is installed in the interior of the first shell, and is provided with a flow resistance outlet and an impact cavity; the energy collecting sheet is located at one side of the flow resistance member, and the center of the energy collecting sheet is provided with a jet port; the water impeller is installed in the interior of the second shell, and the interior of the water impeller is provided with a mesh, and both ends of the water impeller are provided with impeller water passing ports; wherein the flow resistance member and the energy collecting sheet form a first cavity therebetween, the first cavity, the flow resistance outlet, the impact cavity and the jet port are communicated with each other, the water impeller and the mesh divide the interior of the second shell into a second cavity and a third cavity, the second cavity, the impeller water passing port and the jet port are communicated with each other, and the third cavity is communicated with the water deflection port.

2. The automatic gas-liquid mixing nanogenerator of claim 1, wherein: The cover plate is further provided with a screw rod, one side of the cover plate is provided with a threaded groove, one end of the screw rod is connected to the threaded groove, and the water impeller is rotationally connected to the screw rod.

3. The automatic gas-liquid mixing nanogenerator of claim 1, wherein: The mesh is fixedly connected to the interior of the water impeller, and the mesh is at least provided with two, and the interior of the water impeller is further provided with an outer ring and an inner ring, and the outer ring and the inner ring are distributed between the mesh and the cover plate and between two adjacent meshes.

4. The automatic gas-liquid mixing nanogenerator of claim 3, wherein: The mesh is provided with three, and the inner ring and the outer ring are also provided with three.

5. The automatic gas-liquid mixing nanogenerator of claim 1, wherein: One end of the first shell is provided with an external thread, one end of the second shell is provided with an internal thread which is matched with the external thread, and the first shell and the second shell are threadedly connected.

6. The automatic gas-liquid mixing nanogenerator of claim 1, wherein: The bottom of the impact cavity and the bottom of the flow resistance member are both conical structures, and the impact cavity and the jet port are located on the same straight line.

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