Continuous acoustic enhancement system and method

Abstract

The invention discloses a continuous acoustic strengthening system and method, and relates to the technical field of raw material treatment and process strengthening treatment, the continuous acoustic strengthening system comprises a bottle A, a pump set, a strengthening unit set, a mechanical resonator and a bottle B; the strengthening unit group is not less than one container with an inlet and an outlet; the pump set consists of a pipeline, a pump and a valve, and can be used for pumping contents in the bottle A / bottle B to the bottle B / bottle A through the strengthening unit set; the mechanical resonator is a multi-mass vibration system and forms a mechanical resonance system with the strengthening unit group, so that the strengthening unit group can generate mechanical resonance with the frequency ranging from 40Hz to 80Hz and the amplitude ranging from 2mm to 20mm; according to the continuous acoustic strengthening system and method, the materials continuously entering the strengthening unit group are subjected to continuous acoustic strengthening treatment, so that various treatment purposes of the materials, such as mixing, dispersing, coating, polishing, crushing, emulsifying, extracting, dissolving and chemical reaction strengthening of the raw materials can be completed.

Description

Technical Field

[0001] The present invention relates to a raw material processing and process intensification processing equipment and method, and in particular to a continuous acoustic enhancement system and method. Background Art

[0002] An acoustic enhancement system and method, publication number: CN117772584B, has been verified and scaled up in multiple fields since its invention, thanks to the continuous research and development and vigorous promotion of Shenzhen Huasheng Enhancement Technology Co., Ltd. (now Huasheng Enhancement (Shanghai) Technology Co., Ltd.).

[0003] Based on the acoustic enhancement system and method technology, publication number: CN117772584B, the current developed equipment has a maximum volume of 200L, which is still insufficient for certain materials manufactured in large quantities.

[0004] Since liquid materials are difficult to compress, there are problems such as insufficient stability of acoustic flow motion and large fluctuations in vibration process parameters when scaling up the production of liquid materials, which limits the scale-up production and scope of application of liquid materials.

[0005] As the container size increases, the heat dissipation area per unit volume of material decreases, thermal resistance increases rapidly, and heat is difficult to dissipate. Due to the influence of thermal effects, small-batch trial production processes are difficult to directly scale up and apply, limiting the scale-up production and application scope. Summary of the Invention

[0006] To address these issues, the present invention provides a continuous acoustic enhancement system and method. By providing a material inlet and outlet on a container, continuous material flow is achieved. By appropriately matching the container volume, inlet and outlet diameters, and positioning, the acoustic enhancement effect of continuous material flow is ensured. By continuously processing liquid materials, the system improves acoustic flow stability and enhances the acoustic enhancement effect, meeting the needs of large-scale production.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] A continuous acoustic enhancement system, comprising: a bottle A; a pump group; an enhancement unit group; a mechanical resonator; a bottle B;

[0009] The bottles A and B are containers with multiple pipe interfaces; bottles A and B are used to hold materials, such as bottle A is used to hold materials before processing, and bottle B is used to hold materials after processing; the interfaces are used to connect pipes for the entry and exit of container contents.

[0010] The pump group consists of pipes, pumps and valves. Bottle A, the strengthening unit group and bottle B are connected in sequence through the pipes, and the contents of bottle A or B are pumped from bottle A or bottle B through the strengthening unit group to bottle B or bottle A. The pump is used to drive the material into the strengthening unit group, and the valve is used to control the flow rate and flow direction.

[0011] The strengthening unit group is a container with no less than one inlet and outlet, which is the acoustic flow strengthening action area. The container volume is 0.01L-50L, and the matching inlet and outlet diameters are 0.3mm-30mm, so that the influence of the material entering and exiting the container on the first-order acoustic flow morphology can be ignored, so that the treatment effect is consistent with the single pot (the same specification without inlet and outlet containers) process to the greatest extent. At the same time, the smaller container volume can effectively avoid the problem that the heat inside the container cannot be discharged and the material temperature is too high. The strengthening unit group can be provided with a single container, or in order to further improve the processing capacity, multiple containers can also be provided, which are composed of pipes in series and / or in parallel, and fixedly connected to the mechanical resonator.

[0012] The mechanical resonator is a multi-mass vibration system. Together with the reinforcement unit, it creates a mechanical resonance system that generates a frequency within the 40Hz-80Hz range and an amplitude between 2mm and 20mm. This frequency is adaptively adjusted in real time to maintain resonance, offsetting fluctuations and interference caused by material entering and leaving the reinforcement unit. This vibration parameter range effectively enhances the acoustic flow of material continuously entering the container.

[0013] As a further optimization of this technical solution, the pump assembly includes a gas supply line to pump gas into the enhancement unit; the gas comes from bottles A / B, an external gas cylinder, or the atmosphere. For liquids that are not easily volatile or inherently insoluble in gas, adding gas is necessary to adjust the compressibility of the material and thus enhance the acoustic streaming enhancement effect.

[0014] To further optimize this technical solution, the pump assembly also has a bidirectional pumping function, pumping the contents of bottle A from bottle A to bottle B through the intensification unit assembly, or pumping the contents of bottle B from bottle B to bottle A through the intensification unit assembly. For difficult-to-process materials, multiple reciprocating cycles are required to increase the processing time of the material in the intensification unit assembly to ensure the processing effect.

[0015] To further optimize the technical solution, the bidirectional pumping function of the pump group can be achieved in the following way: the pump included in the pump group pumps the gas in bottle A into bottle B, or pumps the gas in bottle B into bottle A, and by changing the air pressure in bottle A and / or bottle B, the pressure is used to pump the material from bottle B to bottle A, or from bottle A to bottle B. The material circulation process does not enter the valve and pump, which prevents blockage and improves reliability.

[0016] Further optimizing this technical solution, the inlet and outlet of the strengthening unit assembly, including the container, are located in the middle of the container's sidewalls. This mid-position reduces the impact of pressure fluctuations at the bottom and top of the container, preventing inlet and outlet blockage. Filters with a pore size of 0.01-10mm are installed at the inlet and outlet. The container is filled with grinding beads with a size of 0.02mm-20mm and a volume fill rate of 1%-100%. The use of grinding beads enhances the material's friction and collision strength, increases shear force, and further enhances the treatment effect.

[0017] To further optimize this technical solution, the A bottle and / or the B bottle are filled with grinding beads, the grinding beads have a size of 0.01-10 mm, and a volume filling rate of less than 50%; the use of grinding beads can enhance the friction and collision strength of the material, increase the shear force, and further enhance the treatment effect.

[0018] To further optimize the technical solution, the bottle A and / or bottle B contains a stirring device; the stirring device is a paddle stirring, a magnetic stirring, or a gas bubbling stirring; stirring can prevent the solid components or grinding beads from precipitating in the liquid components.

[0019] To further optimize the present technical solution, the container included in the strengthening unit group contains microchannels with a channel diameter of 0.1mm-20mm for the passage of materials or heat exchange media; for materials with strong heat generation or extremely low temperature tolerance requirements, microchannels can be set to increase the heat dissipation surface area and thus improve the heat dissipation power.

[0020] To further optimize this technical solution, the continuous acoustic enhancement system further includes:

[0021] Pressure control system and / or temperature control system;

[0022] Raw material storage bottles and / or finished product storage bottles;

[0023] The raw material storage bottle has a larger volume than bottle A / bottle B and can store more raw materials. Before the strengthening treatment, the raw materials can be pumped from the raw material storage bottle to bottle A / bottle B through a pipeline;

[0024] The finished product storage bottle has a larger volume than bottle A / bottle B and can store more finished products. After the strengthening treatment, the finished products in bottle A / bottle B can be pumped to the finished product storage bottle through a pipeline;

[0025] The pressure control system is connected to the A bottle, B bottle, pump group, and enhancement unit group through pipelines, and can adjust the internal pressure so that the absolute pressure of the internal cavity is between 10Pa and 1MPa. By controlling the pressure, the acoustic flow enhancement effect of different materials can be optimized.

[0026] The temperature control system can control the temperature of the internal circulating material within a temperature control range of -30°C to 300°C, meeting the temperature tolerance range of the material. At the same time, the temperature control can reduce the impact of temperature on the internal pressure.

[0027] A continuous acoustic enhancement method is provided, which includes implementing the following steps based on the continuous acoustic enhancement system described above:

[0028] a. Place the processed material in bottle A;

[0029] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm. The frequency is adaptively adjusted in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3;

[0030] c. Turn on the pump group to pump the material through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0031] A continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0032] a. Place the processed material in bottle A;

[0033] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm. The frequency is adaptively adjusted in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3;

[0034] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0035] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0036] A continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0037] a. Place the processed material in bottle A;

[0038] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm. The frequency is adaptively adjusted in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3;

[0039] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0040] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0041] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0042] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0043] A continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0044] a. Place the material to be processed in bottle A and add grinding beads to bottle A and / or bottle B and / or the container included in the strengthening unit group; the use of grinding beads can enhance the friction and collision strength of the material, increase the shear force, and further enhance the treatment effect.

[0045] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm. The frequency is adaptively adjusted in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3;

[0046] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0047] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0048] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0049] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0050] A continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0051] a. Place the material to be processed in Bottle A, add grinding beads to Bottle A and / or Bottle B, and / or the container included in the intensification unit, and activate the stirring device in Bottle A and / or Bottle B. The use of grinding beads enhances the friction and collision strength of the material, increases shear force, and further enhances the treatment effect. Activating the stirring device prevents solid material or grinding beads from settling. The stirring device can use mechanical paddle stirring, magnetic stirring, or gas bubbling stirring.

[0052] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm. The frequency is adaptively adjusted in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3;

[0053] c. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume introduced into the enhancement unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the enhancement unit, thereby enhancing the acoustic flow enhancement effect.

[0054] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0055] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0056] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0057] A continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0058] a. Add grinding beads to Bottle A and / or Bottle B and / or the container included in the intensification unit. Turn on the stirring device in Bottle A and / or Bottle B. The use of grinding beads can enhance the friction and collision strength of the material, increase shear force, and further enhance the processing effect. Turning on the stirring device can prevent solid material or grinding beads from settling. The stirring device can use mechanical paddle stirring, magnetic stirring, or gas bubbling stirring.

[0059] b. Pump the processed material from the raw material storage bottle into bottle A to complete automatic feeding.

[0060] c. Set up a temperature control system and / or a pressure control system. The temperature control system can control the temperature of the internal circulating material within a range of -30°C to 300°C, meeting the material's temperature tolerance. Temperature control can also minimize the impact of temperature on internal pressure. The pressure control system can also control the internal pressure, maintaining the absolute pressure of the internal cavity between 10Pa and 1MPa, to optimize the acoustic streaming enhancement effect for different materials.

[0061] d. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adaptively adjust the frequency in real time to maintain the resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0062] e. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume introduced into the enhancement unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the enhancement unit, thereby enhancing the acoustic flow enhancement effect.

[0063] f. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0064] g. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the strengthening unit group; this increases the processing time of the material in the strengthening unit and enhances the processing effect.

[0065] h. Repeat steps f and g multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0066] i. Pump the finished material in bottle A / bottle B into the finished product storage bottle to complete automatic discharging.

[0067] j. Repeat bi until all the materials in the raw material storage bottle are processed. The automatic loading and unloading of materials further increases the processing capacity of a single machine.

[0068] To further optimize the technical solution, the uses of the above-mentioned acoustic enhancement method include but are not limited to fluidization, mixing, dispersion, coating, grinding, crushing, emulsification, extraction, dissolution, and chemical reaction enhancement of raw materials.

[0069] Compared with the prior art, the present invention provides a continuous acoustic enhancement system and method, which has the following beneficial effects:

[0070] 1. The acoustic enhancement treatment of continuous inflow and outflow of materials is realized, and the effect is equivalent to that of the single-pot process, so that the single-pot pilot process can be directly used in large-scale continuous production process.

[0071] 2. It enables small equipment to process large amounts of materials and has "upward compatibility" capabilities.

[0072] 3. It avoids the problem of excessively high material temperature in single-pot production and overcomes the thermal effect problem of process amplification. BRIEF DESCRIPTION OF THE DRAWINGS

[0073] Figure 1 This is a schematic structural diagram of a continuous acoustic enhancement system according to an embodiment of the present application;

[0074] Figure 2 This is a schematic diagram of a continuous acoustic enhancement system with an air supply pipe structure according to an embodiment of the present application;

[0075] Figure 3 This is a schematic structural diagram of a continuous acoustic enhancement system provided with a stirring device according to an embodiment of the present application;

[0076] Figure 4 A material handling system of a continuous acoustic enhancement system according to an embodiment of the present application is a schematic diagram of a closed system;

[0077] Figure 5 A schematic diagram of a continuous acoustic enhancement system according to an embodiment of the present application, which is provided with a pressure control system and a temperature control system;

[0078] Figure 6 This is a schematic flow chart of a third embodiment of a continuous acoustic enhancement method according to an embodiment of the present application;

[0079] Figure 7 This is a schematic flow chart of a fourth embodiment of a continuous acoustic enhancement method according to an embodiment of the present application;

[0080] Figure 8 This is a schematic flow chart of a fifth embodiment of a continuous acoustic enhancement method according to an embodiment of the present application;

[0081] Figure 9 This is a schematic flow chart of Example 6 of a continuous acoustic enhancement method according to an embodiment of the present application;

[0082] Figure 10 This is a flow chart of Example 8 of a continuous acoustic enhancement method according to an embodiment of the present application;

[0083] In the figure: 1. Bottle A; 2. Pump group; 2-1. Pump; 2-2. Gas filling pipeline; 2-3. Gas control valve; 3. Strengthening unit group; 4. Mechanical resonator; 5. Bottle B; 6. Stirring device; 7. Temperature control system; 8. Pressure control system; 9-1. Raw material storage bottle; 9-2. Loading valve; 10-1. Finished product storage bottle; 10-2. Discharge valve. DETAILED DESCRIPTION

[0084] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0085] Example 1:

[0086] like Figure 1 As shown, in some embodiments, a continuous acoustic enhancement system includes: A bottle 1; a pump group 2; an enhancement unit group 3; a mechanical resonator 4; a B bottle 5;

[0087] Bottles A 1 and B 5 are containers with multiple pipe connections. They can be made of stainless steel or, for easier viewing, glass. Bottles A 1 and B 5 are used to hold materials, such as pre-processed material and processed material, or vice versa. These connections connect pipes for the flow of materials into and out of the containers. These connections can be pagoda-style connectors, ferrule-style connectors, or quick-connect connectors. Quick-connect connectors are preferred for ease of operation. These connectors can be located on the container lid, sidewall, or bottom.

[0088] The pump group 2 consists of pipes, pumps, and valves. The pipes connect bottle A 1, the reinforcement unit group 3, and the bottle B 5 in sequence. The reinforcement unit group 3 vibrates violently, so the part connected to the reinforcement unit group 3 needs to be made of a hose, such as PU or polytetrafluoroethylene. The pump group 2 can pump the contents of bottle A 1 / or bottle B 5 from bottle A 1 / bottle B 5 through the reinforcement unit group 3 to bottle B 5 / bottle A 1. The pump is used to drive the material into the reinforcement unit group 3. A peristaltic pump, diaphragm pump, or gear pump can be used. The valve is used to control the flow rate and direction. A ball valve, diaphragm valve, pinch valve, etc. can be used.

[0089] The enhancement unit group 3, consisting of at least one container with an inlet and outlet, serves as the acoustic flow enhancement zone. The container volume ranges from 0.01L to 50L, with matching inlet and outlet diameters of 0.3mm to 30mm. This negligible effect of material entering and exiting the container on the first-order acoustic flow pattern is achieved, ensuring the treatment effect is largely consistent with a single-pot process (of the same specification without an inlet or outlet). Furthermore, the smaller container volume effectively prevents internal heat from being unable to be dissipated, leading to excessive material temperatures.

[0090] The strengthening unit group 3 can be provided with a single container, or in order to further improve the processing capacity, multiple containers can be provided, which are composed of pipes connected in series and / or in parallel and fixedly connected to the mechanical resonator 4.

[0091] The mechanical resonator 4 is a multi-body vibration system. The mechanical resonator 4 and the reinforcement unit group 3 constitute a mechanical resonance system, which enables the reinforcement unit group 3 to generate mechanical resonance with a frequency in the range of 40Hz-80Hz and an amplitude in the range of 2mm-20mm, and to adaptively adjust the frequency in real time to maintain the resonance state, so as to offset the fluctuations and interference generated when the material enters / leaves the reinforcement unit group 3. The vibration in this parameter range has a highly efficient acoustic flow enhancement effect on the material that continuously enters the container. The Hummingbird Acoustic Mixer series products of Huasheng Reinforcement (Shanghai) Technology Co., Ltd. can be selected as mechanical resonators. The device can adjust the frequency in real time to always keep the system in a resonant state, eliminating the fluctuations and interference caused by the material entering and / or leaving the reinforcement unit group 3 on the resonance system. When selecting any HAM machine, the container volume and quantity of the reinforcement unit group 3 should be set to meet the total weight within the load requirements of the HAM machine.

[0092] like Figure 2 As shown, in some embodiments, the pump group 2 includes a pump 2-1 and a gas filling pipe 2-2. The gas can be pumped into the enhancement unit group 3 by self-priming, or can be pumped by an air pump or pressed in by pressure; the gas comes from bottle A 1 / bottle B 5 or an external gas cylinder or the atmosphere; for liquids that are not easy to volatilize or liquids that do not dissolve gas themselves, gas needs to be added to adjust the compressibility of the material to improve the effect of the acoustic flow enhancement; a valve can be set on the gas filling pipe 2-2 or the gas filling amount can be adjusted by the diameter of the pipe.

[0093] The pump 2-1 included in the pump group 2 also has a bidirectional pumping function, for example: a peristaltic pump or a gear pump with forward and reverse rotation can be selected; the pump 2-1 can pump the contents of bottle A 1 from bottle A 1 through the strengthening unit group 3 to bottle B 5, and can also pump the contents of bottle B 5 from bottle B 5 through the strengthening unit group 3 to bottle A 1; for difficult-to-process materials, multiple reciprocating cycles are required to increase the processing time of the material in the strengthening unit group 3 to ensure the processing effect.

[0094] like Figure 3As shown, in some embodiments, the reinforcement unit group 3 includes multiple containers, which are connected in series and fixed on the mechanical resonator 4. The inlet and outlet of each container are located in the middle of the side wall of the container. The middle position can reduce the influence of the pressure fluctuation zone at the bottom and top of the container and prevent the inlet and outlet from being blocked.

[0095] To facilitate manufacturing and spatial arrangement, the cylindrical container can be placed horizontally, with the inlet and outlet set on the end cover of the cylinder; a filter screen is installed at the inlet and outlet, and the filter screen material can be stainless steel or ceramic materials such as silicon nitride and zirconia; the filter screen aperture is 0.01-10mm; the interior of the container is filled with grinding beads, such as zirconia balls, with a grinding bead size of 0.02mm-20mm and a volume filling rate of 1%-100%; the use of grinding beads can enhance the friction and collision strength of the material, increase shear force, and further enhance the treatment effect.

[0096] The A bottle 1 and / or the B bottle 5 are filled with grinding beads, such as zirconia balls, with a grinding bead size of 0.01-10 mm and a volume filling rate of less than 50%. The use of grinding beads can enhance the friction and collision strength of the material, increase the shear force, and further enhance the processing effect.

[0097] The A bottle 1 and / or the B bottle 5 contain a stirring device 6; the stirring device 6 is a paddle stirring device, a magnetic stirring device, or a gas bubbling stirring device.

[0098] like Figure 3 As shown, in some embodiments, gas bubbling is used to stir the liquid material, and a pump is used to pump gas to the bottom of the liquid for stirring; stirring can prevent solid components or grinding beads from precipitating in the liquid component.

[0099] To further optimize the present technical solution, the container included in the strengthening unit group contains microchannels with a channel diameter of 0.1mm-20mm for the passage of materials or heat exchange media; for materials with strong heat generation or extremely low temperature tolerance requirements, microchannels can be set to increase the heat dissipation surface area and thus improve the heat dissipation power.

[0100] like Figure 4As shown, in some embodiments, bottle A 1, bottle B 5, and reinforcement unit group 3 are all capable of withstanding both positive and negative pressures, and the material handling system is a closed system. Pump group 2 includes pump 2-1, gas supply pipe 2-2, and gas control valve 2-3. By controlling the opening and closing of the four gas control valves 2-3, pump 2-1 can pump the gas in bottle A 1 into bottle B 5, or pump the gas in bottle B 5 into bottle A 1, using pressure to pump the material from bottle B 5 to bottle A 1, or vice versa. The stirring device 6 uses a gas bubbling method to compress the air at the top of bottle A 1 and / or bottle B 5 and send it to the bottom of the bottle to form bubbles, preventing material precipitation. During the entire material circulation process, the material does not enter the valves and pumps, preventing blockage and improving reliability.

[0101] Example 2:

[0102] like Figure 5 As shown, in some embodiments, the technical solution is further optimized, and the continuous acoustic enhancement system further includes:

[0103] Pressure control system 8 and / or temperature control system 7;

[0104] Raw material storage bottle 9-1 and / or finished product storage bottle 10-1;

[0105] The raw material storage bottle 9-1 has a larger volume than the A bottle 1 / B bottle 5 and can store more raw materials. Before the strengthening treatment, the raw materials can be pumped from the raw material storage bottle 9-1 to the A bottle 1 / B bottle 5 through a pipeline. After the pumping is completed, the loading valve 9-2 can be closed to ensure the sealing of the system; of course, the process of pumping the raw materials from the raw material storage bottle 9-1 to the A bottle 1 / B bottle 5 can also be pumped in a gas transfer pressure generating manner as used in Example 4.

[0106] The finished product storage bottle 10-1 has a larger volume than the A bottle 1 / B bottle 5 and can store more finished products. After the strengthening treatment, the finished products in the A bottle 1 / B bottle 5 can be pumped to the finished product storage bottle 10-1 through the pipeline; after the pumping is completed, the discharge valve 10-2 can be closed to ensure the sealing of the system; of course, the process of pumping the finished products from the A bottle 1 / B bottle 5 to the finished product storage bottle 10-1 can also be pumped by using the gas transfer pressure generation method as used in Example 4.

[0107] The pressure control system 8 is connected to the A bottle 1, B bottle 5, pump group 2, and enhancement unit group 3 through a pipeline, and can adjust the internal pressure so that the absolute pressure of the internal cavity is 10Pa-1MPa; a gas compressor can be used to achieve positive pressure control or a vacuum pump can be used to achieve negative pressure control, and it can be connected to one of the A bottle 1, B bottle 5, pump group 2, and enhancement unit group 3 through a pipeline; by controlling the pressure, the acoustic flow enhancement effect of different materials can be optimized.

[0108] The temperature control system 7 can control the temperature of the internally circulating material within a temperature range of -30°C to 300°C, meeting the material's temperature tolerance. Temperature control can also reduce the impact of temperature on internal pressure. Heat exchange interlayers can be installed on bottles A 1 and B 5, or a cold tank can be installed in the delivery pipeline. Using a hot and cold integrated unit, heat exchange can be achieved between the materials to achieve temperature control.

[0109] Example 3:

[0110] like Figure 6 As shown, in some embodiments, a continuous acoustic enhancement method implements the following steps based on a continuous acoustic enhancement system:

[0111] a. Place the material to be processed in bottle A 1.

[0112] b. Turn on the mechanical resonator 4 to put the mechanical resonance system composed of the strengthening unit group 3 and the mechanical resonator 4 into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0113] c. Turn on the pump group to pump the material through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0114] Example 4:

[0115] like Figure 7 As shown, in some embodiments, a continuous acoustic enhancement method implements the following steps based on a continuous acoustic enhancement system:

[0116] a. Place the material to be processed in bottle A 1.

[0117] b. Turn on the mechanical resonator 4 to put the mechanical resonance system composed of the strengthening unit group 3 and the mechanical resonator 4 into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0118] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0119] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0120] Embodiment 5:

[0121] like Figure 8 As shown, in some embodiments, a continuous acoustic enhancement method implements the following steps based on a continuous acoustic enhancement system:

[0122] a. Place the processed material in bottle A;

[0123] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0124] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0125] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0126] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0127] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0128] Example 6:

[0129] like Figure 9 As shown, in some embodiments, a continuous acoustic enhancement method implements the following steps based on a continuous acoustic enhancement system:

[0130] a. Place the material to be processed in bottle A and add grinding beads to bottle A and / or bottle B and / or the container included in the strengthening unit group; the use of grinding beads can enhance the friction and collision strength of the material, increase the shear force, and further enhance the treatment effect.

[0131] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0132] c. Adjust the amount of gas added to ensure that the ratio of the gas volume to the material volume introduced into the strengthening unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the strengthening unit, thereby enhancing the effect of acoustic flow enhancement.

[0133] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0134] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0135] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0136] Embodiment seven:

[0137] like Figure 9 As shown, in some embodiments, a continuous acoustic enhancement method implements the following steps based on a continuous acoustic enhancement system:

[0138] a. Place the material to be processed in Bottle A, add grinding beads to Bottle A and / or Bottle B, and / or the container included in the intensification unit, and activate the stirring device in Bottle A and / or Bottle B. The use of grinding beads enhances the friction and collision strength of the material, increases shear force, and further enhances the treatment effect. Activating the stirring device prevents solid material or grinding beads from settling. The stirring device can use mechanical paddle stirring, magnetic stirring, or gas bubbling stirring.

[0139] b. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0140] c. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume introduced into the enhancement unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the enhancement unit, thereby enhancing the acoustic flow enhancement effect.

[0141] d. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0142] e. The pump group starts the reverse pumping function, pumping the material and / or gas from bottle B to bottle A through the strengthening unit group; increasing the processing time of the material in the strengthening unit and enhancing the processing effect.

[0143] f. Repeat steps d and e multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0144] Embodiment 8:

[0145] like Figure 10 As shown, in some embodiments, a continuous acoustic enhancement method is provided, which implements the following steps based on the above-mentioned continuous acoustic enhancement system:

[0146] a. Add grinding beads to Bottle A and / or Bottle B and / or the container included in the intensification unit. Turn on the stirring device in Bottle A and / or Bottle B. The use of grinding beads can enhance the friction and collision strength of the material, increase shear force, and further enhance the processing effect. Turning on the stirring device can prevent solid material or grinding beads from settling. The stirring device can use mechanical paddle stirring, magnetic stirring, or gas bubbling stirring.

[0147] b. Pump the processed material from the raw material storage bottle into bottle A to complete automatic feeding.

[0148] c. Set up a temperature control system and / or a pressure control system. The temperature control system can control the temperature of the internal circulating material within a range of -30°C to 300°C, meeting the material's temperature tolerance. Temperature control can also minimize the impact of temperature on internal pressure. The pressure control system can also control the internal pressure, maintaining the absolute pressure of the internal cavity between 10Pa and 1MPa, to optimize the acoustic streaming enhancement effect for different materials.

[0149] d. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibration with a frequency in the range of 40 Hz-80 Hz and an amplitude of 2 mm-20 mm, and adjust the frequency in real time to keep the system in a resonant state to offset the fluctuations and interference generated when the material enters / leaves the strengthening unit group 3.

[0150] e. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume introduced into the enhancement unit group per unit time is between 0.01-10; introducing gas at this ratio will enhance the compressibility of the material in the enhancement unit, thereby enhancing the acoustic flow enhancement effect.

[0151] f. Turn on the pump group to pump the material and gas through the enhancement unit group to bottle B; allow the material to continuously enter the acoustic flow enhancement area, continuously undergo acoustic flow enhancement treatment, and collect it in bottle B after completion.

[0152] g. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the strengthening unit group; this increases the processing time of the material in the strengthening unit and enhances the processing effect.

[0153] h. Repeat steps f and g multiple times until the material processing target is achieved, and increase the material processing time in the intensification unit multiple times until the processing effect meets the requirements.

[0154] i. Pump the finished material in bottle A / bottle B into the finished product storage bottle to complete automatic discharging.

[0155] j. Repeat bi until all the materials in the raw material storage bottle are processed. The automatic loading and unloading of materials further increases the processing capacity of a single machine.

[0156] In some embodiments, the present technical solution is further optimized, and the uses of the above-mentioned acoustic enhancement method include but are not limited to fluidization, mixing, dispersion, coating, grinding, crushing, emulsification, extraction, dissolution, and chemical reaction enhancement of raw materials.

[0157] In summary, the present invention provides a continuous acoustic enhancement system and method, which has the following beneficial effects:

[0158] 1. The acoustic enhancement treatment of continuous in-and-out materials is realized, and the effect is equivalent to that of the single-pot process, so that the single-pot pilot process can be directly used in large-scale continuous production process.

[0159] 2. The ability of small equipment to process large amounts of materials has been realized, and it has the ability of "upward compatibility".

[0160] 3. It avoids the problem of excessively high material temperature in single-pot production and overcomes the thermal effect problem of process amplification.

[0161] In the description of this application and its embodiments, it should be understood that the terms "top," "bottom," "height," and the like, indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings and are intended only to facilitate the description of this application and simplify the description. They do not indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limiting this application. In this application and its embodiments, unless otherwise expressly specified or limited, the terms "disposed," "installed," "connected," "connected," and "fixed" should be understood in a broad sense. For example, they can refer to fixed connections, detachable connections, or integration; mechanical connections, electrical connections, or communication; direct connections, indirect connections through an intermediate medium, internal connections between two components, or interactions between two components. A person of ordinary skill in the art can understand the specific meanings of the above terms in this application based on the specific circumstances. In this application and its embodiments, unless otherwise expressly specified or limited, a first feature being "above" or "below" a second feature can include the first and second features being in direct contact, or the first and second features not being in direct contact but contacting through another feature between them. Moreover, a first feature being "above," "above," and "above" a second feature includes the first feature being directly above and diagonally above the second feature, or simply means that the first feature is at a higher level than the second feature. A first feature being "below," "below," and "below" a second feature includes the first feature being directly above and diagonally above the second feature, or simply means that the first feature is at a lower level than the second feature. The above disclosure provides many different embodiments or examples for implementing different structures or methods of the present application. In order to simplify the disclosure of the present application, the components and settings of specific examples are described above. Of course, they are merely examples and are not intended to limit the present application. In addition, the present application may repeat reference numbers and / or reference letters in different examples. Such repetition is for the purpose of simplicity and clarity and does not itself indicate the relationship between the various embodiments and / or settings discussed.

[0162] Although preferred embodiments of the present application have been described, those skilled in the art may make additional changes and modifications to these embodiments once they are aware of the basic inventive concepts. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of this application. Obviously, those skilled in the art may make various changes and modifications to this application without departing from the spirit and scope of this application. Thus, if such changes and modifications fall within the scope of the claims of this application and their equivalents, then this application is intended to include such changes and modifications.

Claims

1. A continuous acoustic enhancement system, characterized in that: include: Bottle A; Pump set; Strengthening unit group; Mechanical resonator; Bottle B; The A bottle and the B bottle are containers with multiple pipe interfaces; The pump group consists of pipes, pumps and valves. Bottle A, the strengthening unit group and bottle B are connected in sequence through the pipes, and the contents of bottle A / or bottle B are pumped from bottle A / bottle B through the strengthening unit group to bottle B / bottle A; The strengthening unit group is at least one container with an inlet and an outlet, the container volume is 0.01L-50L, the inlet and outlet diameters are 0.3mm-30mm, and it is composed of pipes connected in series and / or in parallel and fixedly connected to the mechanical resonator; The mechanical resonator is a multi-mass vibration system. The mechanical resonator and the reinforcement unit group constitute a mechanical resonance system, so that the reinforcement unit group generates mechanical resonance with a frequency in the range of 40Hz-80Hz and an amplitude in the range of 2mm-20mm, and adaptively adjusts the frequency in real time to maintain the resonance state.

2. A continuous acoustic enhancement system according to claim 1, characterized in that: The pump group includes a gas filling pipeline, which can pump gas into the strengthening unit group; the gas comes from bottle A / bottle B or an external gas cylinder or the atmosphere.

3. A continuous acoustic enhancement system according to any one of claims 1-2, characterized in that: The pump group also has a bidirectional pumping function, which can pump the content of bottle A from bottle A to bottle B through the strengthening unit group, or pump the content of bottle B from bottle B to bottle A through the strengthening unit group.

4. A continuous acoustic enhancement system according to claim 3, characterized in that: The bidirectional pumping function of the pump group is achieved in the following way: the pump included in the pump group pumps the gas in bottle A into bottle B, or reversely pumps the gas in bottle B into bottle A. By changing the air pressure in bottles A and B, the material is transported from the high-pressure area to the low-pressure area by pressure, thereby realizing the pumping of the material between bottles A and B.

5. A continuous acoustic enhancement system according to any one of claims 1 to 4, characterized in that: The strengthening unit group includes a container with an inlet and an outlet located in the middle of the container side wall and a filter screen with an aperture of 0.01-10mm; the container is filled with grinding beads with a size of 0.02mm-20mm and a volume filling rate of 1%-100%.

6. The continuous acoustic enhancement system according to claim 5, characterized in that: The bottle A and / or bottle B is filled with grinding beads, the grinding beads have a size of 0.01-10 mm, and a volume filling rate of less than 50%.

7. A continuous acoustic enhancement system according to any one of claims 1 to 6, characterized in that: The bottle A and / or the bottle B contains a stirring device; the stirring device is a paddle stirring device, a magnetic stirring device or a gas bubbling stirring device.

8. The continuous acoustic enhancement system according to claim 7, characterized in that: The container included in the strengthening unit group contains microchannels with a channel diameter of 0.1mm-20mm for the passage of materials or heat exchange media.

9. A continuous acoustic enhancement system according to any one of claims 1 to 8, characterized in that: The continuous acoustic enhancement system further comprises: Pressure control system and / or temperature control system; Raw material storage bottles and / or finished product storage bottles; The pressure control system is connected to the A bottle, B bottle, pump group, and strengthening unit group through pipelines to adjust the internal pressure so that the absolute pressure of the internal cavity is 10Pa-1MPa; The temperature control system controls the temperature of the internal circulating material, and the temperature control range is -30°C to 300°C; The raw material storage bottle has a larger volume than bottle A / bottle B and can store more raw materials. The raw materials are pumped from the raw material storage bottle to bottle A / bottle B through a pipeline. The finished product storage bottle has a larger volume than bottle A / bottle B and can store more finished products. The finished products in bottle A / bottle B are pumped to the finished product storage bottle through a pipeline.

10. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 1: a. Place the processed material in bottle A; b. Turn on the mechanical resonator, so that the mechanical resonance system composed of the strengthening unit group and the mechanical resonator is in a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjusting the frequency in real time to maintain the resonant state; c. Turn on the pump group to allow the material to be pumped through the intensified unit group to bottle B.

11. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 2: a. Place the processed material in bottle A; b. Turn on the mechanical resonator, so that the mechanical resonance system composed of the strengthening unit group and the mechanical resonator is in a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjusting the frequency in real time to maintain the resonant state; c. Adjust the gas volume to ensure that the ratio of the gas volume to the material volume per unit time entering the strengthening unit group is between 0.01-10; d. Turn on the pump group to allow the material and gas to be pumped into bottle B through the intensified unit group.

12. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 4: a. Place the processed material in bottle A; b. Turn on the mechanical resonator, so that the mechanical resonance system composed of the strengthening unit group and the mechanical resonator is in a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjusting the frequency in real time to maintain the resonant state; c. Adjust the gas volume to ensure that the ratio of the gas volume to the material volume per unit time entering the strengthening unit group is between 0.01-10; d. Turn on the pump group to allow the material and gas to be pumped to bottle B through the intensification unit group; e. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the intensification unit group; f. Repeat steps d and e multiple times until the material processing goal is achieved.

13. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 6: a. The processed material is placed in bottle A, and the grinding beads are added to bottle A and / or bottle B and or a container comprising an intensifying unit group; b. Turn on the mechanical resonator, so that the mechanical resonance system composed of the strengthening unit group and the mechanical resonator is in a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjusting the frequency in real time to maintain the resonant state; c. Adjust the gas volume to ensure that the ratio of the gas volume to the material volume per unit time entering the strengthening unit group is between 0.01-10; d. Turn on the pump group to allow the material and gas to be pumped to bottle B through the intensification unit group; e. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the intensification unit group; f. Repeat steps d and e multiple times until the material processing goal is achieved.

14. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 8: a. The processed material is placed in bottle A, the grinding beads are added to the container containing the bottle A and / or bottle B and or the strengthening unit group, and the stirring device of the bottle A and / or bottle B is opened; b. Turn on the mechanical resonator, so that the mechanical resonance system composed of the strengthening unit group and the mechanical resonator is in a resonant state, generating vibrations with a frequency range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjusting the frequency in real time to maintain the resonant state; c. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume entering the strengthening unit group per unit time is between 0.01-10; d. Turn on the pump group to allow the material and gas to be pumped to bottle B through the intensification unit group; e. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the intensification unit group; f. Repeat steps d and e multiple times until the material processing goal is achieved.

15. A continuous acoustic enhancement method, comprising: performing the following steps based on the continuous acoustic enhancement system of claim 9: a. Add the grinding beads to the container containing the bottle A and / or bottle B and or strengthening unit group, open the bottle A and / or bottle B stirring device; b. Pump the processed material from the raw material storage bottle into bottle A; c. Set the temperature of the temperature control system and / or the pressure of the pressure control system; d. Turn on the mechanical resonator to put the mechanical resonance system composed of the strengthening unit group and the mechanical resonator into a resonant state, generating vibrations with a frequency in the range of 40Hz-80Hz and an amplitude of 2mm-20mm, and adaptively adjust the frequency in real time to maintain the resonant state; e. Adjust the gas flow rate to ensure that the ratio of the gas volume to the material volume entering the strengthening unit group per unit time is between 0.01-10; f. Turn on the pump group to allow the material and gas to be pumped to bottle B through the intensification unit group; g. The pump group starts the reverse pumping function to pump the material and / or gas from bottle B to bottle A through the intensification unit group; h. Repeat f and g multiple times until the material processing target is achieved; i. Pump the finished product material in bottle A / bottle B pump to the finished product storage bottle; j. Repeat step bi until all the materials in the raw material storage bottle have been processed.

16. The continuous acoustic enhancement method according to any one of claims 10 to 15, characterized in that: The uses of the continuous acoustic enhancement method include fluidization, mixing, dispersion, coating, grinding, crushing, emulsification, extraction, dissolution, and chemical reaction enhancement of raw materials.

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