Using method of device for providing power for fluid movement of water particle swarm by phase change latent heat

Abstract

The invention discloses a device for providing power for water particle swarm fluid motion by phase change latent heat, belongs to the technical field of gas atomization water particle swarm fluid, and is characterized by solving the problems that gas atomization turbulent fluid pulse motion is high in energy consumption, short in pulse period and operation distance, incapable of being effectively applied to industrial sites and low in energy consumption due to a large amount of turbulent flow in the existing industrial field. According to the device and the using method of the device, power is provided for movement of the water particle swarm fluid through phase change latent heat, and a road is paved for long-acting and industrialization of the water particle swarm pulse fluid.

Description

Technical Field

[0001] The present invention relates to a method for using a device for powering the movement of a water particle group fluid by phase change latent heat, which belongs to the field of providing power for industrial and scientific research work sites. Specifically, it relates to a method for using a device that generates phase change latent heat energy by accompanying the relative movement of aerodynamic force and the interface of water particle group to provide new kinetic energy for aerodynamic force and water particle group, so that the relative movement of aerodynamic force and the interface of water particle group can be achieved continuously. The device used in this method forms energy support generated by dynamic fluid, which enables the dynamic fluid of water particle group to move farther and transport more water particle group fluid. In addition, the phase change latent heat effect is continuously generated by the relative movement of aerodynamic force and the interface of water particle group. The pulsation period of the dynamic fluid movement of water particle group is 2-7 times per second, and the movement duration is 0.5-4 seconds, so that the fluid has the ability to drill gaps during movement. The device used in this method has a simple structure, easy operation, and reliable performance, and has great research and application value in scientific research and industrial fields. Background Art

[0002] The pulsation of a group of water particles is a kind of motion that consumes a lot of energy. Generally speaking, if there is no new energy involved, it is normal that it does not go far, or the pulse period is very short; the pulsating fluid with large mass consumes more energy, and its pulsating form of motion is even more difficult. In this way, many pulsating fluids have lost their scientific research and engineering value, and are usually treated only as interference waves or energy consumption waves. Application No. CN201921460049.X A heat dissipation device that utilizes phase change heat transfer, including a box body, a heat conducting block, a working fluid and a heat transfer component, the box body includes a first shell plate and a second shell plate, a cavity is enclosed between the first shell plate and the second shell plate, and the first shell plate is provided with a through hole; the heat conducting block is installed corresponding to the through hole and a part of the area is formed inside the cavity, and the other part of the area is exposed to the outside of the first shell plate; the working fluid is arranged in the cavity and in contact with the heat conducting block; the heat transfer component has a heating section, which is installed in the cavity and is used to absorb the heat brought by the working fluid after the phase change. Heat; This device does not convert the fluid into a new independent fluid; CN201921552905.4, an acoustic field enhanced nanofluid phase change heat transfer microchannel heat exchanger, realizes the application of ultrasonic enhanced heat transfer technology in microchannel heat exchangers, so that the ultrasonic transducer is built into the heat exchanger, which can directly act on the heat transfer medium, promote the growth and detachment of boiling bubbles, and combine nanofluid enhanced heat transfer technology; The above turbulence only plays the role of a high-quality heat transfer medium, without the generation of an independent industrial fluid, and the fluid cannot function and be applied in more fields. Summary of the Invention

[0003] The purpose of the method of using the device for powering the movement of water particle group fluid by phase change latent heat of the present invention is to solve the problem that the pulse motion of aerosol turbulent fluid with a large amount of turbulence in the existing industrial field has high energy consumption, short pulse period and running distance, cannot be effectively applied to industrial sites, and wastes a lot of energy. Thus, a device for powering the movement of water particle group fluid by phase change latent heat is provided, which effectively solves the problem that the movement of water particle group fluid is powered by phase change latent heat, and paves the way for the long-term and industrialization of water particle group pulse fluid.

[0004] The device of the present invention, in which the motion of a water particle group fluid is powered by the latent heat of phase change, is characterized in that it is an effective solution to the problem that a large amount of turbulence in the existing industrial field exists, the pulse motion of aerosol turbulent fluid has high energy consumption, short pulse period and running distance, cannot be effectively applied to industrial sites, and wastes a lot of energy. The device is powered by the latent heat of phase change of the motion of water particle group fluid, paving the way for the long-term and industrialization of the pulse fluid of water particle group. The device mainly comprises a basic fluid pressure air 1, a basic fluid pressure water 2, a pressure air pipeline 3, a pressure water pipeline 4, an aerosol water particle group fluid generator 5, a water particle group coarse regulator 6, a pressure air coarse regulator 7, a first water particle group fluid interface temperature detection sensor 8, a second water particle group fluid interface temperature detection sensor 9, a third water particle group fluid interface temperature detection sensor 10, a fourth water particle group fluid interface temperature detection sensor 11, an aerosol water particle group flow motion state detection sensor 12, and a control regulator 1 3. The pressure gas fine regulator 14 and the water particle group fine regulator 15 are composed of a basic fluid pressure air 1 with a working pressure of 0.4-0.8Mpa, which is connected to the pressure air coarse regulator 7 through a pressure air pipeline with a diameter of 5-7 mm, and then connected to the pressure gas fine regulator 14. The pressure gas fine regulator 14 is connected to the pressure gas inlet on the lower left side of the aerosol water particle group fluid generator 5. The pressure air coarse regulator 7 adjusts the pressure gas flow through the valve opening; the pressure gas fine regulator 14 is controlled by the control regulator 13 to adjust the gas volume of the pressure gas inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary gas path; working The basic fluid pressure water 2 with a pressure of 0.3-0.5Mpa passes through a pressure water pipeline 4 with a diameter of 3-5 mm, and is connected to the water particle group fine regulator 15 through a water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5. The water particle group coarse regulator 12 dynamically adjusts the size range of the water output of the tapered contact surface by adjusting the spring adjustment button thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel. The water volume of the pressure water inlet on the side; three aerosol water particle group jet channels with a diameter of 1.8-2.8 mm are installed at intervals of 30-45 mm on the right side of the aerosol water particle group fluid generator 5. The jet outlet of the sealed right triangular cone has a diameter of 1.7-2.3 mm and a jet outlet length of 3-3.5 mm. The center line of the triangular cone with a diameter of 6-8 mm is sealed and connected to the center line of the aerosol water particle group jet channel. The fluid flowing through the aerosol water particle group jet channel with a diameter of 1.8-2.8 mm interacts with the right triangular cone and is ejected through the jet outlet with a diameter of 1.7-2.3 mm, which is 0.2-0.A first water particle group fluid interface temperature detection sensor 8 is installed at 3 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 is installed at 0.5-0.6 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 is installed at 1.0-1.1 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 is installed at 1.5-1.6 meters from the triangular cone jet outlet, and an aerosol water particle group flow motion state detection sensor 12 is installed at 1.7-1.8 meters from the triangular cone jet outlet. The aerosol water particle group flow motion state detection sensor 12, the water particle group coarse regulator 6, the pressure air coarse regulator 7, the first water particle group fluid interface temperature detection sensor 8, the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, the fourth water particle group fluid interface temperature detection sensor 11, the pressure air fine regulator 14, and the water particle group fine regulator 15 are respectively connected to the control regulator 13 via control detection wires and receive instructions from the control regulator 13.

[0005] The device in which the movement of the water particle group fluid is powered by phase change latent heat is characterized in that the device generates surface tension changes and interface polarity effects through the relative movement of aerodynamic force and the water particle group interface, causing the temperature of the water particle group fluid contact interface to change. This is based on the physical property that the density between water molecules is maximum at 4°C. The high-frequency change in the distance scale between water molecules generates phase change latent heat energy, which provides power to the atomized dynamic fluid, so that the pulsed motion of the water particle group fluid continuously generates new power.

[0006] The device in which the movement of the water particle group fluid is powered by the latent heat of phase change is characterized in that the device generates surface tension changes and interface polarity effects through the relative movement of aerodynamic force and the water particle group interface, causing the temperature of the water particle group fluid contact interface to change. This is achieved by a series of high-frequency changes in the distance scales between water molecules, so that the pulse period of the pulse motion of the water particle group fluid is 2-7 times per second, and the movement duration is 0.5-4 seconds, so that the fluid has the ability to drill through cracks of 0.05-2 microns during movement.

[0007] The method for using the device in which the motion of the water particle group fluid is powered by the latent heat of phase change is as follows: In the first step, the base fluid pressure air 1 with a working pressure of 0.4-0.8 MPa is connected to the pressure air coarse regulator 7 through a pressure air pipeline with a diameter of 5-7 mm, and then connected to the pressure air fine regulator 14. The pressure air fine regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The pressure air coarse regulator 7 adjusts the pressure air flow rate passing through by the valve opening; the pressure air fine regulator 14 is controlled by the control regulator 13 by connecting or closing the capillary air path to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5; In the second step, the basic fluid pressure water 2 with a working pressure of 0.3-0.5 MPa is passed through the pressure water pipeline 4 with a diameter of 3-5 mm and connected to the water particle group fine regulator 15 through the water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5. The water particle group coarse regulator 12 dynamically adjusts the water output range of the tapered contact surface by adjusting the spring adjustment knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; The third step is to install a first water particle group fluid interface temperature detection sensor 8 at 0.2-0.3 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 at 0.5-0.6 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 at 1.0-1.1 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 at 1.5-1.6 meters from the triangular cone jet outlet, and an aerosol water particle group flow motion state detection sensor 12 at 1.7-1.8 meters from the triangular cone jet outlet; In the fourth step, the aerosol water particle group flow motion state detection sensor 12, the water particle group coarse regulator 6, the pressure air coarse regulator 7, the first water particle group fluid interface temperature detection sensor 8, the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, the fourth water particle group fluid interface temperature detection sensor 11, the pressure air fine regulator 14, and the water particle group fine regulator 15 are respectively connected to the control regulator 13 via control detection wires and receive instructions from the control regulator 13; In the fifth step, the pressure air fine regulator 14 and the water particle group fine regulator 15 are first adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12; secondly, the water particle group coarse regulator 6 and the pressure air coarse regulator 7 are adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12 so that the contact interface of the two interacting basic fluids in the aerosol water particle group fluid generator 5 changes. After multiple interactions, the water particle group fluid interface temperature at a distance of 0.2 meters from the triangular cone jet outlet is sensed by the first water particle group fluid interface temperature detection sensor 8. When the sensed temperature value is greater than 8°C, the amount of water involved in the interaction is reduced by adjusting the water particle group coarse regulator 6 so that the sensed temperature value varies within the range of 6°C-8°C. The pressure air coarse regulator 7 valve can also be appropriately opened to increase the air intake to adjust the temperature value sensed by the first water particle group fluid interface temperature detection sensor 8 within the range of 6°C-8°C. When the temperature is lower than 6°C, the adjustment method is opposite to the above method. The sixth step is to adjust the temperature value range of the first water particle group fluid interface temperature detection sensor 8 within 6°C-8°C according to the information fed back by the aerosol water particle group flow motion state detection sensor 12, so that the temperature change range of the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is 3°C-5°C; the specific adjustment method is that when it is higher than 5°C, the capillary air path of the pressure gas fine regulator 14 is increased to increase the aerodynamic force of the interaction in the aerosol water particle group fluid generator 5, so that the contact interface of the two basic fluids changes, so that the temperature of the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is reduced, and the The temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to a range of 3°C-5°C. The capillary water channel of the water particle group fine regulator 15 can also be closed to reduce the amount of water entering the aerosol water particle group fluid generator 5 for interaction, so that the contact interface of the two basic fluids changes, so that the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11 are reduced, and the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to a range of 3°C-5°C. When the temperature is below 3°C, the adjustment method is opposite to the above method; The seventh step is to continuously provide new power to the atomized dynamic fluid by the new phase change latent heat energy, so that the pulse period of the water particle group fluid pulse motion is 2-7 times per second, and the motion duration is 0.5-4 seconds, so that the fluid has the ability to drill in the 0.05-2 micron cracks during the motion. The advantages of the method for using the device for providing power for the motion of water particle groups by phase change latent heat are as follows: 1. The present invention is a device that generates surface tension changes and interfacial polarity effects through the relative motion of aerodynamic forces and the interface of water particle groups, and is powered by the latent heat of phase change. This device effectively solves the problem that the pulsed motion of atomized turbulent fluid has high energy consumption, short pulse period, and short running distance, which cannot be effectively applied in industrial sites. The device uses the latent heat of phase change to power the fluid motion of water particle groups.

[0008] 2. The technical solution of this invention paves the way for the long-term and industrialization of water particle group pulse fluids. The device of this invention has a simple, reliable structure, and is easy to implement, enabling the delivery of larger quantities of water particle group fluids and greater distances. The dynamic pulsation cycle of the water particle group fluid is 2-7 times per second, lasting for 0.5 to 4 seconds or more. This allows the fluid to penetrate gaps during movement, solving tasks that are urgently needed in existing industrial processes but are not met by existing fluids.

[0009] 3. The advent of this device is an urgently needed technology for industrial and scientific research field work. It not only overcomes the shortcomings of existing pulse fluids, such as high energy consumption, short running distance, and short pulse period, but also provides a method of generating surface tension changes and interface polarity effects through the relative movement of aerodynamic force and the interface of water particle groups, so that the temperature of the water particle group fluid contact interface changes. Relying on the physical property that the density between water molecules is the largest at 4°C, a series of high-frequency changes in the distance scales between water molecules generate phase change latent heat energy, which provides power to the atomized dynamic fluid, so that the pulse motion of the water particle group fluid generates new power.

[0010] 4. This device, along with the new boundary between aerodynamic forces and water particle swarms, significantly extends the pulse period and duration of the water particle swarm fluid's pulse motion, enabling the transport of water particle swarm fluid over great distances. As the water particles involved in the pulse motion become smaller, the water particle swarm fluid possesses the ability to penetrate gaps. This device, powered by the latent heat of phase change, effectively addresses the challenges of aerosolized turbulent fluid pulse motion, which suffers from high energy consumption, short pulse periods, and limited travel distances, hindering its effective industrial application. Powering water particle swarm fluid motion with latent heat of phase change paves the way for the long-term and industrialization of water particle swarm pulse fluids. BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 The device that provides power for the fluid motion of water particle groups by the latent heat of phase change is labeled as follows: 1. Basic fluid pressure air 2. Basic fluid pressure water 3. Pressure air pipeline 4. Pressure water pipeline 5. Aerosol and water particle group fluid generator 6. Water particle group coarse adjuster 7. Pressure air coarse regulator 8. First water particle group fluid interface temperature detection sensor 9. Second water particle group fluid interface temperature detection sensor 10. Third water particle group fluid interface temperature detection sensor 11. Fourth water particle group fluid interface temperature detection sensor 12. Aerosol and water particle group flow motion state detection sensor 13. Control Regulator 14. Pressure gas regulator 15. Water particle group fine adjuster Implementation Method

[0011] The device mainly consists of a basic fluid pressure air 1, a basic fluid pressure water 2, a pressure air pipeline 3, a pressure water pipeline 4, an aerosol water particle group fluid generator 5, a water particle group coarse regulator 6, a pressure air coarse regulator 7, a first water particle group fluid interface temperature detection sensor 8, a second water particle group fluid interface temperature detection sensor 9, a third water particle group fluid interface temperature detection sensor 10, a fourth water particle group fluid interface temperature detection sensor 11, an aerosol water particle group flow motion state detection sensor 12, a control regulator 13, a pressure air fine regulator 14 and a water particle group fine regulator 15. The basic fluid pressure air 1 with a working pressure of 0.4 MPa is passed through a pressure air pipeline with a diameter of 5 mm. The pressure air coarse regulator 7 is connected to the pressure air fine regulator 14, and the pressure air fine regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The pressure air coarse regulator 7 adjusts the pressure air flow through the valve opening; the pressure air fine regulator 14 is controlled by the control regulator 13 to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting the capillary air path or closing the capillary air path; the working pressure is 0.3Mpa, the basic fluid pressure water 2 is connected to the water particle group fine regulator 15 through the pressure water pipeline 4 with a diameter of 3 mm through the water particle group coarse regulator 6, and the water particle group fine regulator 15 is connected to the aerosol water particle group fluid generator 5 At the pressure water inlet on the upper left side, the water particle group coarse regulator 12 dynamically adjusts the size range of the water output of the tapered contact surface by adjusting the spring adjustment button thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; three aerosol water particle group jet channels with a diameter of 1.8 mm are installed at an interval of 30 mm in front of the right side of the aerosol water particle group fluid generator 5, and the sealed docking right triangular cone jet outlet has a diameter of 1.7 mm, a jet outlet length of 3 mm, and a diameter along the bottom of the triangular cone is The center line of the 6 mm is sealed and connected to the center line of the aerosol water particle group jet channel, so that the fluid flowing through the aerosol water particle group jet channel with a diameter of 1.8 mm interacts with the regular triangular cone and is ejected through a jet outlet with a diameter of 1.7 mm. A first water particle group fluid interface temperature detection sensor 8 is installed at 0.2 m from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 is installed at 0.5 m from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 is installed at 1.0 m from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 is installed at 1.5 m from the triangular cone jet outlet, and a fourth water particle group fluid interface temperature detection sensor 8 is installed at 1.A sensor 12 for detecting the motion state of the aerosol water particle swarm flow is installed 7 meters away. The sensor 12, the water particle swarm coarse regulator 6, the pressure air coarse regulator 7, the first water particle swarm fluid interface temperature sensor 8, the second water particle swarm fluid interface temperature sensor 9, the third water particle swarm fluid interface temperature sensor 10, the fourth water particle swarm fluid interface temperature sensor 11, the pressure air fine regulator 14, and the water particle swarm fine regulator 15 are connected to the control regulator 13 via control detection wires and receive commands from the control regulator 13. This device uses the relative motion of aerodynamic forces and the water particle swarm interface to generate surface tension changes and interfacial polarity effects, causing the temperature of the water particle swarm fluid contact interface to change. This device relies on the physical property that the density of water molecules is maximum at 4°C. By generating phase change latent heat energy through high-frequency changes in the distance scale between water molecules, this latent heat energy provides power to the aerosolized dynamic fluid, allowing the pulsed motion of the water particle swarm fluid to continuously generate new power.

[0012] The device generates surface tension changes and interfacial polarity effects through the relative movement of aerodynamic forces and the interface of water particle groups, causing the temperature of the water particle group fluid contact interface to change. It is through a series of high-frequency changes in the distance scales between water molecules that the pulse period of the water particle group fluid pulse motion is 2 times per second and the motion duration is 0.5 seconds, allowing the fluid to have the ability to drill through 0.05 micron cracks during motion. Method for using the device wherein the motion of the water particle group fluid is powered by the latent heat of phase change: In the first step, the base fluid pressure air 1 with a working pressure of 0.4 MPa is connected to the coarse pressure air regulator 7 through a pressure air pipeline with a diameter of 5 mm, and then connected to the fine pressure air regulator 14. The fine pressure air regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The coarse pressure air regulator 7 adjusts the pressure air flow rate passing through by the valve opening; the fine pressure air regulator 14 is controlled by the control regulator 13 to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary air path; In the second step, the basic fluid pressure water 2 with a working pressure of 0.3 MPa is passed through the pressure water pipeline 4 with a diameter of 3 mm, and is connected to the water particle group fine regulator 15 through the water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5. The water particle group coarse regulator 12 dynamically adjusts the water output range of the tapered contact surface by adjusting the spring adjustment knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; The third step is to install a first water particle group fluid interface temperature detection sensor 8 at 0.2 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 at 0.5 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 at 1.0 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 at 1.5 meters from the triangular cone jet outlet, and an aerosol water particle group flow motion state detection sensor 12 at 1.7 meters from the triangular cone jet outlet; In the fourth step, the aerosol water particle group flow motion state detection sensor 12, the water particle group coarse regulator 6, the pressure air coarse regulator 7, the first water particle group fluid interface temperature detection sensor 8, the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, the fourth water particle group fluid interface temperature detection sensor 11, the pressure air fine regulator 14, and the water particle group fine regulator 15 are respectively connected to the control regulator 13 via control detection wires and receive instructions from the control regulator 13; In the fifth step, the pressure air fine regulator 14 and the water particle group fine regulator 15 are first adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12; secondly, the water particle group coarse regulator 6 and the pressure air coarse regulator 7 are adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12 so that the contact interface of the two interacting basic fluids in the aerosol water particle group fluid generator 5 changes. After multiple interactions, the water particle group fluid interface temperature at a distance of 0.2 meters from the triangular cone jet outlet is sensed by the first water particle group fluid interface temperature detection sensor 8. When the sensed temperature value is greater than 8°C, the amount of water participating in the interaction is reduced by adjusting the water particle group coarse regulator 6 so that the sensed temperature value is 6°C. The pressure air coarse regulator 7 valve can also be appropriately opened to increase the air intake to adjust the temperature so that the first water particle group fluid interface temperature detection sensor 8 senses a temperature value of 6°C. When the temperature is lower than 6°C, the adjustment method is the opposite of the above method. The sixth step is to adjust the temperature value of the first water particle group fluid interface temperature detection sensor 8 to 6°C; adjust the pressure gas regulator 14 and the water particle group fine regulator 15 through the information fed back by the aerosol water particle group flow motion state detection sensor 12, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is 3°C; the specific adjustment method is that when it is higher than 5°C, the capillary air path of the pressure gas regulator 14 is increased to increase the aerodynamic force of the interaction in the aerosol water particle group fluid generator 5, so that the contact interface of the two basic fluids changes, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is reduced, and the first The temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to a range of 3°C-5°C. The contact interface of the two basic fluids can also be changed by closing the capillary water channel of the water particle group fine regulator 15 to reduce the amount of water entering the aerosol water particle group fluid generator 5 for interaction, so that the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced, and the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to 3°C. When the temperature is below 3°C, the adjustment method is opposite to the above method; The seventh step is to continuously provide new power to the atomized dynamic fluid by the new phase change latent heat energy, so that the pulse period of the pulse motion of the water particle group fluid is 2 times per second, and the motion duration is 0.5 seconds, so that the fluid has the ability to drill through 0.05 micron cracks during motion. Implementation Method

[0013] The device mainly consists of a basic fluid pressure air 1, a basic fluid pressure water 2, a pressure air pipeline 3, a pressure water pipeline 4, an aerosol water particle group fluid generator 5, a water particle group coarse regulator 6, a pressure air coarse regulator 7, a first water particle group fluid interface temperature detection sensor 8, a second water particle group fluid interface temperature detection sensor 9, a third water particle group fluid interface temperature detection sensor 10, a fourth water particle group fluid interface temperature detection sensor 11, an aerosol water particle group flow motion state detection sensor 12, a control regulator 13, a pressure air fine regulator 14 and a water particle group fine regulator 15. The basic fluid pressure air 1 with a working pressure of 0.8 MPa is passed through a pressure air pipeline with a diameter of 7 mm. The pressure air coarse regulator 7 is connected to the pressure air fine regulator 14, and the pressure air fine regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The pressure air coarse regulator 7 adjusts the pressure air flow through the valve opening; the pressure air fine regulator 14 is controlled by the control regulator 13 to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary air path; the working pressure is 0.5Mpa, and the basic fluid pressure water 2 is connected to the water particle group fine regulator 15 on the lower left side of the aerosol water particle group fluid generator 5 through the pressure water pipeline 4 with a diameter of 5 mm through the water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the left side of the aerosol water particle group fluid generator 5. At the pressure water inlet on the upper side, the water particle group coarse regulator 12 dynamically adjusts the size range of the water output of the tapered contact surface by adjusting the spring regulating knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; three aerosol water particle group jet channels with a diameter of 2.8 mm are installed at an interval of 45 mm in front of the right side of the aerosol water particle group fluid generator 5, and the sealed docking right triangular cone jet outlet has a diameter of 2.3 mm and a jet outlet length of 3.5 mm, along the diameter of the bottom of the triangular cone The center line of the 8 mm diameter aerosol water particle group jet channel is sealed and connected to the center line of the 8 mm diameter aerosol water particle group jet channel, so that the fluid flowing through the 2.8 mm diameter aerosol water particle group jet channel interacts with the regular triangular cone and is ejected through a jet outlet with a diameter of 2.3 mm. A first water particle group fluid interface temperature detection sensor 8 is installed 0.3 m away from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 is installed 0.6 m away from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 is installed 1.1 m away from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 is installed 1.6 m away from the triangular cone jet outlet, and a fourth water particle group fluid interface temperature detection sensor 8 is installed 1.6 m away from the triangular cone jet outlet.An aerosol water particle group flow motion state detection sensor 12 is installed at 8 meters. The aerosol water particle group flow motion state detection sensor 12, water particle group coarse regulator 6, pressure air coarse regulator 7, first water particle group fluid interface temperature detection sensor 8, second water particle group fluid interface temperature detection sensor 9, third water particle group fluid interface temperature detection sensor 10, fourth water particle group fluid interface temperature detection sensor 11, pressure air fine regulator 14, and water particle group fine regulator 15 are connected to the control regulator 13 via control detection wires and receive commands from the control regulator 13. This device uses the relative motion of aerodynamic forces and the water particle group interface to generate surface tension changes and interfacial polarity effects, causing the temperature of the water particle group fluid contact interface to change. This device relies on the physical property that the density of water molecules is maximum at 4°C. By generating phase change latent heat energy through high-frequency changes in the distance scale between water molecules, this latent heat energy provides power to the aerosol dynamic fluid, allowing the pulsed motion of the water particle group fluid to continuously generate new power.

[0014] The device generates surface tension changes and interfacial polarity effects through the relative movement of aerodynamic forces and the interface of water particle groups, causing the temperature of the water particle group fluid contact interface to change. It achieves this by causing a series of high-frequency changes in the distance scales between water molecules, resulting in a pulse period of 7 times per second and a movement duration of 4 seconds for the water particle group fluid pulse motion, enabling the fluid to drill through 2-micron cracks during motion.

[0015] Method for using the device wherein the motion of the water particle group fluid is powered by the latent heat of phase change: In the first step, the base fluid pressure air 1 with a working pressure of 0.8 MPa is connected to the coarse pressure air regulator 7 through a pressure air pipeline with a diameter of 7 mm, and then connected to the fine pressure air regulator 14. The fine pressure air regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The coarse pressure air regulator 7 adjusts the flow rate of the pressure air passing through by the valve opening; the fine pressure air regulator 14 is controlled by the control regulator 13 to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary air path; In the second step, the basic fluid pressure water 2 with a working pressure of 0.5 MPa is passed through the pressure water pipeline 4 with a diameter of 5 mm, and is connected to the water particle group fine regulator 15 through the water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5. The water particle group coarse regulator 12 dynamically adjusts the water output range of the tapered contact surface by adjusting the spring adjustment knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; The third step is to install a first water particle group fluid interface temperature detection sensor 8 at 0.3 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 at 0.6 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 at 1.1 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 at 1.6 meters from the triangular cone jet outlet, and an aerosol water particle group flow motion state detection sensor 12 at 1.8 meters from the triangular cone jet outlet; In the fourth step, the aerosol water particle group flow motion state detection sensor 12, the water particle group coarse regulator 6, the pressure air coarse regulator 7, the first water particle group fluid interface temperature detection sensor 8, the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, the fourth water particle group fluid interface temperature detection sensor 11, the pressure air fine regulator 14, and the water particle group fine regulator 15 are respectively connected to the control regulator 13 via control detection wires and receive instructions from the control regulator 13; In the fifth step, the pressure air fine regulator 14 and the water particle group fine regulator 15 are first adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12; secondly, the water particle group coarse regulator 6 and the pressure air coarse regulator 7 are adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12 so that the contact interface of the two interacting basic fluids in the aerosol water particle group fluid generator 5 changes. After multiple interactions, the water particle group fluid interface temperature at a distance of 0.2 meters from the triangular cone jet outlet is sensed by the first water particle group fluid interface temperature detection sensor 8. When the sensed temperature value is greater than 8°C, the amount of water participating in the interaction is reduced by adjusting the water particle group coarse regulator 6 so that the sensed temperature value is 8°C. The pressure air coarse regulator 7 valve can also be appropriately opened to increase the air intake to adjust the temperature so that the first water particle group fluid interface temperature detection sensor 8 senses a temperature value of 8°C. When the temperature is lower than 6°C, the adjustment method is the opposite of the above method. The sixth step is to adjust the temperature value of the first water particle group fluid interface temperature detection sensor 8 to 8°C according to the information fed back by the aerosol water particle group flow motion state detection sensor 12, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is 5°C; the specific adjustment method is that when the temperature is higher than 5°C, the capillary air path of the pressure gas fine regulator 14 is increased to increase the aerodynamic force of the interaction in the aerosol water particle group fluid generator 5, so that the contact interface of the two basic fluids changes, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 decreases, The temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11 are lowered to 5°C. Alternatively, the capillary water channel of the water particle group fine regulator 15 is closed to reduce the amount of water that interacts with the aerosol water particle group fluid generator 5, thereby changing the contact interface between the two basic fluids. This lowers the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11, and lowers the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, and the fourth water particle group fluid interface temperature detection sensor 11 to 5°C. When the temperature is below 3°C, the adjustment method is opposite to the above method. In the seventh step, the new phase change latent heat energy continuously provides new power to the atomized dynamic fluid, so that the pulse period of the pulse motion of the water particle group fluid is 7 times per second, and the motion duration is 4 seconds, so that the fluid has the ability to drill through 2-micron cracks during motion. Implementation Method

[0016] The device mainly consists of a basic fluid pressure air 1, a basic fluid pressure water 2, a pressure air pipeline 3, a pressure water pipeline 4, an aerosol water particle group fluid generator 5, a water particle group coarse regulator 6, a pressure air coarse regulator 7, a first water particle group fluid interface temperature detection sensor 8, a second water particle group fluid interface temperature detection sensor 9, a third water particle group fluid interface temperature detection sensor 10, a fourth water particle group fluid interface temperature detection sensor 11, an aerosol water particle group flow motion state detection sensor 12, a control regulator 13, a pressure air fine regulator 14 and a water particle group fine regulator 15. The basic fluid pressure air 1 with a working pressure of 0.6 MPa is connected to the pressure air pipeline with a diameter of 6 mm. To the pressure air coarse regulator 7, and then connected to the pressure air fine regulator 14, the pressure air fine regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5, and the pressure air coarse regulator 7 adjusts the pressure air flow through the valve opening; the pressure air fine regulator 14 is controlled by the control regulator 13 to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary air path; the working pressure is 0.4Mpa, and the basic fluid pressure water 2 is connected to the water particle group fine regulator 15 through the pressure water pipeline 4 with a diameter of 4 mm through the water particle group coarse regulator 6, and the water particle group fine regulator 15 is connected to the pressure inlet on the upper left side of the aerosol water particle group fluid generator 5. Water inlet, the water particle group coarse regulator 12 dynamically adjusts the size range of the water output of the tapered contact surface by adjusting the spring adjustment button thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressurized gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; three aerosol water particle group jet channels with a diameter of 2.4 mm are installed at an interval of 30-45 mm in front of the right side of the aerosol water particle group fluid generator 5, and the sealed docking right triangular cone jet outlet has a diameter of 2.0 mm, a jet outlet length of 3.2 mm, and a diameter of 7 mm along the bottom of the triangular cone. The center line is sealed and connected to the center line of the aerosol water particle group jet channel, so that the fluid flowing through the aerosol water particle group jet channel with a diameter of 1.8-2.8 mm interacts with the regular triangular cone and is ejected through a jet outlet with a diameter of 2.0 mm. A first water particle group fluid interface temperature detection sensor 8 is installed at 0.25 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 is installed at 0.55 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 is installed at 1.05 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 is installed at 1.55 meters from the triangular cone jet outlet, and a fourth water particle group fluid interface temperature detection sensor 8 is installed at 1.A sensor 12 for detecting the motion state of the aerosol water particle swarm flow is installed at 75 meters. The sensor 12, the water particle swarm coarse regulator 6, the pressure air coarse regulator 7, the first water particle swarm fluid interface temperature sensor 8, the second water particle swarm fluid interface temperature sensor 9, the third water particle swarm fluid interface temperature sensor 10, the fourth water particle swarm fluid interface temperature sensor 11, the pressure air fine regulator 14, and the water particle swarm fine regulator 15 are each connected to the control regulator 13 via control detection wires and receive commands from the control regulator 13. This device uses the relative motion of aerodynamic forces and the water particle swarm interface to generate surface tension changes and interfacial polarity effects, causing the temperature of the water particle swarm fluid contact interface to change. This device relies on the physical property that the density of water molecules is maximum at 4°C. By generating phase change latent heat energy through high-frequency changes in the distance scale between water molecules, this latent heat energy provides power to the aerosolized dynamic fluid, allowing the pulsed motion of the water particle swarm fluid to continuously generate new power. This device uses the relative motion of aerodynamic forces and the water particle interface to generate surface tension changes and interfacial polarity effects, causing the temperature of the water particle fluid contact interface to change. This is achieved through a series of high-frequency changes in the distance scale between water molecules, resulting in a pulse cycle of 5 times per second and a motion duration of 3 seconds. This allows the fluid to penetrate cracks as small as 1.5 microns during motion.

[0017] Method for using the device wherein the motion of the water particle group fluid is powered by the latent heat of phase change: In the first step, the base fluid pressure air 1 with a working pressure of 0.6 MPa is connected to the coarse pressure air regulator 7 through a pressure air pipeline with a diameter of 6 mm, and then connected to the fine pressure air regulator 14. The fine pressure air regulator 14 is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5. The coarse pressure air regulator 7 adjusts the pressure air flow rate passing through by the valve opening; the fine pressure air regulator 14 is controlled by the control regulator 13 by opening or closing the capillary air path to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator 5; In the second step, the basic fluid pressure water 2 with a working pressure of 0.4 MPa is passed through the pressure water pipeline 4 with a diameter of 4 mm, and is connected to the water particle group fine regulator 15 through the water particle group coarse regulator 6. The water particle group fine regulator 15 is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator 5. The water particle group coarse regulator 12 dynamically adjusts the water output range of the tapered contact surface by adjusting the spring adjustment knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator 15 is controlled by the control regulator 13 to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator 5 by connecting or closing the capillary water channel; The third step is to install a first water particle group fluid interface temperature detection sensor 8 at 0.25 meters from the triangular cone jet outlet, a second water particle group fluid interface temperature detection sensor 9 at 0.55 meters from the triangular cone jet outlet, a third water particle group fluid interface temperature detection sensor 10 at 1.05 meters from the triangular cone jet outlet, a fourth water particle group fluid interface temperature detection sensor 8 at 1.55 meters from the triangular cone jet outlet, and an aerosol water particle group flow motion state detection sensor 12 at 1.75 meters from the triangular cone jet outlet; In the fourth step, the aerosol water particle group flow motion state detection sensor 12, the water particle group coarse regulator 6, the pressure air coarse regulator 7, the first water particle group fluid interface temperature detection sensor 8, the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10, the fourth water particle group fluid interface temperature detection sensor 11, the pressure air fine regulator 14, and the water particle group fine regulator 15 are respectively connected to the control regulator 13 via control detection wires and receive instructions from the control regulator 13; In the fifth step, the pressure air fine regulator 14 and the water particle group fine regulator 15 are first adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12; secondly, the water particle group coarse regulator 6 and the pressure air coarse regulator 7 are adjusted according to the information fed back by the aerosol water particle group flow motion state detection sensor 12 so that the contact interface of the two interacting basic fluids in the aerosol water particle group fluid generator 5 changes. After multiple interactions, the water particle group fluid interface temperature at a distance of 0.2 meters from the triangular cone jet outlet is sensed by the first water particle group fluid interface temperature detection sensor 8. When the sensed temperature value is greater than 8°C, the amount of water participating in the interaction is reduced by adjusting the water particle group coarse regulator 6 so that the sensed temperature value is 7°C. The pressure air coarse regulator 7 valve can also be appropriately opened to increase the air intake to adjust the temperature so that the first water particle group fluid interface temperature detection sensor 8 senses a temperature value of 7°C. When the temperature is lower than 6°C, the adjustment method is the opposite of the above method. The sixth step is to adjust the temperature value of the first water particle group fluid interface temperature detection sensor 8 to 7°C according to the information fed back by the aerosol water particle group flow motion state detection sensor 12, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is 4°C; the specific adjustment method is that when it is higher than 5°C, the capillary air path of the pressure gas fine regulator 14 is increased to increase the aerodynamic force of the interaction in the aerosol water particle group fluid generator 5, so that the contact interface of the two basic fluids changes, so that the temperature on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 is reduced, and the The temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to 4°C. The capillary water channel of the water particle group fine regulator 15 can also be closed to reduce the amount of water entering the aerosol water particle group fluid generator 5 for interaction, so that the contact interface of the two basic fluids changes, so that the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced, and the temperatures on the second water particle group fluid interface temperature detection sensor 9, the third water particle group fluid interface temperature detection sensor 10 and the fourth water particle group fluid interface temperature detection sensor 11 are reduced to a range of 4°C. When the temperature is lower than 3°C, the adjustment method is opposite to the above method.

[0018] The seventh step is to continuously provide new power to the atomized dynamic fluid by the new phase change latent heat energy, so that the pulse period of the pulse motion of the water particle group fluid is 5 times per second, and the motion duration is 3 seconds, so that the fluid has the ability to drill through 1.5 micron cracks during motion.

Claims

1. The method for using the device for providing power for the movement of water particle group fluid by phase change latent heat is characterized in that This device effectively addresses the existing challenges of turbulent flow in existing industrial fields, such as high energy consumption, short pulse period and travel distance, and ineffective industrial application due to the high energy consumption of atomized turbulent fluid pulse motion. The device, powered by the latent heat of phase change in the motion of water particle swarm fluid, paves the way for the long-term and industrialization of water particle swarm pulse fluid. The specific steps are as follows: In the first step, the basic fluid pressure air (1) with a working pressure of 0.4-0.8 MPa is connected to the pressure air coarse regulator (7) through a pressure air pipeline with a diameter of 5-7 mm, and then connected to the pressure air fine regulator (14). The pressure air fine regulator (14) is connected to the pressure air inlet on the lower left side of the aerosol water particle group fluid generator (5). The pressure air coarse regulator (7) adjusts the pressure air flow through the valve opening; the pressure air fine regulator (14) is controlled by the control regulator (13) to adjust the air volume of the pressure air inlet on the lower left side of the aerosol water particle group fluid generator (5) by connecting or closing the capillary air path; In the second step, the working pressure is 0.3-0.5Mpa, the basic fluid pressure water (2) is connected to the water particle group fine regulator (15) through the pressure water pipeline (4) with a diameter of 3-5 mm through the water particle group coarse regulator (6), and the water particle group fine regulator (15) is connected to the pressure water inlet on the upper left side of the aerosol water particle group fluid generator (5). The water particle group coarse regulator 12 dynamically adjusts the size range of the water output of the tapered contact surface by adjusting the spring adjustment knob thereon, thereby providing a dynamically variable turbulent water volume for the interaction process between the pressure gas and the water particle group; the water particle group fine regulator (15) is controlled by the control regulator (13) to adjust the water volume of the pressure water inlet connected to the upper left side of the aerosol water particle group fluid generator (5) by connecting or closing the capillary water channel; The third step is to install a first water particle group fluid interface temperature detection sensor 8 at a distance of 0.2-0.3 meters from the triangular cone jet outlet, install a second water particle group fluid interface temperature detection sensor (9) at a distance of 0.5-0.6 meters from the triangular cone jet outlet, install a third water particle group fluid interface temperature detection sensor (10) at a distance of 1.0-1.1 meters from the triangular cone jet outlet, install a fourth water particle group fluid interface temperature detection sensor (8) at a distance of 1.5-1.6 meters from the triangular cone jet outlet, and install an aerosol water particle group flow motion state detection sensor (12) at a distance of 1.7-1.8 meters from the triangular cone jet outlet; In the fourth step, the aerosol water particle group flow motion state detection sensor (12), the water particle group coarse regulator (6), the pressure air coarse regulator (7), the first water particle group fluid interface temperature detection sensor (8), the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10), the fourth water particle group fluid interface temperature detection sensor (11), the pressure air fine regulator (14) and the water particle group fine regulator (15) are respectively connected to the control regulator (13) through the control detection wire and receive the command of the control regulator (13); The fifth step is to first adjust the pressure gas fine regulator (14) and the water particle group fine regulator (15) according to the information fed back by the aerosol water particle group flow motion state detection sensor (12); secondly, adjust the water particle group coarse regulator (6) and the pressure air coarse regulator (7) according to the information fed back by the aerosol water particle group flow motion state detection sensor (12) so that the contact interface of the two basic fluids interacting in the aerosol water particle group fluid generator (5) changes. After multiple interactions, the water particle group fluid interface temperature at a distance of 0.2 meters from the triangular cone jet outlet is sensed by the first water particle group fluid interface temperature detection sensor (8). When the sensed temperature value is greater than 8°C, the amount of water participating in the interaction is reduced by adjusting the water particle group coarse regulator (6) so that the sensed temperature value varies within the range of 6°C-8°C. The pressure air coarse regulator 7 valve can also be opened appropriately to increase the air intake to adjust the temperature value sensed by the first water particle group fluid interface temperature detection sensor 8 within the range of 6°C-8°C. When the temperature is lower than 6°C, the adjustment method is opposite to the above method. The sixth step is to adjust the pressure gas regulator (14) and the water particle group fine regulator (15) according to the temperature value range of the first water particle group fluid interface temperature detection sensor (8) within the range of 6°C-8°C; and adjust the pressure gas regulator (14) and the water particle group fine regulator (15) through the information fed back by the aerosol water particle group flow motion state detection sensor (12), so that the temperature change range of the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10) and the fourth water particle group fluid interface temperature detection sensor (11) is 3°C-5°C; the specific adjustment method is that when the temperature is higher than 5°C, the capillary gas path is increased by opening the pressure gas regulator (14), so that the aerodynamic force of the interaction in the aerosol water particle group fluid generator (5) causes the contact interface of the two basic fluids to change, so that the temperature of the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10) and the fourth water particle group fluid interface temperature detection sensor (11) is reduced, and The temperature on the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10) and the fourth water particle group fluid interface temperature detection sensor (11) is reduced to a range of 3°C-5°C. Alternatively, the capillary water path of the water particle group fine regulator (15) is closed to reduce the amount of water that interacts with the aerosol water particle group fluid generator (5), so that the contact interface of the two basic fluids changes, so that the temperature on the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10) and the fourth water particle group fluid interface temperature detection sensor (11) is reduced, and the temperature on the second water particle group fluid interface temperature detection sensor (9), the third water particle group fluid interface temperature detection sensor (10) and the fourth water particle group fluid interface temperature detection sensor (11) is reduced to a range of 3°C-5°C. When the temperature is lower than 3°C, the adjustment method is opposite to the above method. The seventh step is to continuously provide new power to the atomized dynamic fluid by the new phase change latent heat energy, so that the pulse period of the pulse motion of the water particle group fluid is 2-7 times per second, and the motion duration is 0.5-4 seconds, so that the fluid has the ability to drill through cracks of 0.05-2 microns during motion.

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