Mobile sound wave generating device based on high-pressure combustible gas detonation

Abstract

The invention discloses a mobile sound wave generating device based on high-pressure combustible gas detonation, and relates to the technical crossing field of combustible gas detonation and sound wave generation, the mobile sound wave generating device comprises a detonation reaction cavity and a chassis located below the detonation reaction cavity, and at least four all-terrain rubber tires distributed in a matrix are rotatably erected at the bottom of the chassis; all-terrain rubber tires are arranged on the chassis, each all-terrain rubber tire is connected with the chassis through a hydraulic damping system, a gun body support for supporting the detonation reaction cavity is arranged at the top of the chassis, a gun barrel elevation angle positioner is further arranged between the gun body support and the detonation reaction cavity, and the gun barrel elevation angle positioner is used for adjusting the inclination angle of the detonation reaction cavity. Through the design of directional energy release, detonation wave energy can be concentrated at the front end, lateral loss is reduced, crushing can be controlled through the action of the fragment unit, high-frequency noise interference is reduced, and the infrasonic wave purity is improved.

Description

Technical Field

[0001] The present invention relates to the cross - field of combustible gas detonation and acoustic wave generation technology, and particularly to a mobile acoustic wave generating device based on high - pressure combustible gas detonation. Background Art

[0002] Acoustic wave generating devices are widely used in fields such as seismic wave simulation and atmosphere monitoring. Infrasound (frequency below 20 Hz) has the characteristics of long propagation distance and strong penetrability. Traditional infrasound generators mostly rely on mechanical vibration or explosive devices. For the acoustic waves generated by mechanical vibration synthesis, the system complexity and design cost are high, there is phase noise and signal distortion, and the energy efficiency is low; when infrasound is generated by explosive explosion, its propagation characteristics make it difficult to control and monitor, the detection technology is complex and costly, and there are potential hazards to the human body and the ecosystem. Summary of the Invention

[0003] The purpose of the present invention is to provide a mobile acoustic wave generating device based on high - pressure combustible gas detonation to solve the problems raised in the above - mentioned background art.

[0004] To achieve the above - mentioned purpose, the present invention provides the following technical solution: A mobile acoustic wave generating device based on high - pressure combustible gas detonation, comprising: a detonation reaction cavity and a chassis located below the detonation reaction cavity, and at least four all - terrain rubber tires distributed in a matrix are rotatably mounted at the bottom of the chassis. Each all - terrain rubber tire is connected to the chassis through a hydraulic damping system. A gun body support for supporting the detonation reaction cavity is arranged on the top of the chassis, and a gun barrel elevation locator is further arranged between the gun body support and the detonation reaction cavity. The gun barrel elevation locator is used to adjust the inclination angle of the detonation reaction cavity. The two ends of the detonation reaction cavity are respectively in an open state and a closed state;

[0005] It further comprises: a detonation initiation unit for controlling the time of the detonation reaction inside the detonation reaction cavity, and the detonation initiation unit is arranged at the closed - end port of the detonation reaction cavity;

[0006] A fragment unit, the fragment unit is arranged at the open - end port of the detonation reaction cavity. The detonation initiation unit generates high - pressure energy inside the detonation reaction cavity, and then the high - pressure energy is discharged through the fragment unit to directionally emit acoustic waves;

[0007] An air injection unit for injecting a mixed combustible gas into the inside of the detonation reaction cavity to provide detonation fuel for the detonation initiation unit, and the air injection unit is located between the detonation initiation unit and the fragment unit.

[0008] Preferably, a moving platform is fixedly arranged at the bottom of the gun body support, and a hydraulic lifting device is arranged between the moving platform and the chassis. The fixed end and the telescopic end of the hydraulic lifting device are respectively fixed to the chassis and the moving platform. The gun barrel elevation positioner includes rotating shafts fixed to two pairs of sides outside the detonation reaction cavity, and a turntable is rotatably sleeved on the outer surface of each rotating shaft. Each turntable is fixedly mounted on the top of the gun body support. An end of one of the rotating shafts is fixedly provided with a swing arm, and a first pin hole is formed in the swing arm. A plurality of second pin holes are formed in the turntable at equal circumferential intervals, and a pin is movably inserted into the first pin hole and the second pin holes together. An electronic digital display angle meter is also fixedly arranged on the outer wall of the detonation reaction cavity, and the electronic digital display angle meter is used to detect the inclination angle of the detonation reaction cavity.

[0009] Preferably, the initiating unit includes a pre-explosion chamber formed inside the closed port of the detonation reaction cavity, and a through hole is connected between the pre-explosion chamber and the detonation reaction cavity. An initiator is arranged inside the pre-explosion chamber, and the initiator is an electric spark plug. A connector is fixedly arranged outside the pre-explosion chamber, and the connector is electrically connected to the initiator. An excitation device is arranged outside the detonation reaction cavity, and the position of the excitation device is relatively fixed with respect to the chassis. The detonation reaction cavity is also electrically connected to the connector, and the excitation device is remotely wirelessly regulated through a remote control exciter.

[0010] Preferably, the fragment unit includes fragments assembled inside the open port of the detonation reaction cavity. A V-shaped groove in a radiation grid shape is formed on one end face of the fragment, and the V-shaped groove can guide the fragmentation form of the fragment. A replacement component is also arranged outside the fragment, and the replacement component is used for quickly replacing and loading and unloading the fragment. A film breaker is also arranged on the end face of the open port of the detonation reaction cavity.

[0011] Preferably, the replacement component includes a docking cylinder designed to be separated from the open port of the detonation reaction cavity. The inner and outer diameters of the docking cylinder are the same as the inner and outer diameters of the detonation reaction cavity. A sealing ring is fixedly arranged on the outer edge of the fragment, and the sealing ring is limited at the connection between the detonation reaction cavity and the docking cylinder. The sealing ring is used to ensure the sealing state inside the detonation reaction cavity. A positioning member is arranged between the inside of the docking cylinder and the open end of the detonation reaction cavity, and the positioner plays a positioning role in the docking of the docking cylinder and the detonation reaction cavity. A locking device is also arranged between the connection of the docking cylinder and the detonation reaction cavity, and the locking device plays a fixing role in the docking cylinder and the detonation reaction cavity.

[0012] Preferably, the positioning member includes at least two positioning holes formed at one end of the detonation reaction cavity close to the docking cylinder or at one end of the docking cylinder close to the detonation reaction cavity. At least two positioning columns are fixedly arranged at one end of the docking cylinder close to the detonation reaction cavity or at one end of the detonation reaction cavity close to the docking cylinder. The positioning columns and the positioning holes are slidably assembled.

[0013] Preferably, the locking device is an adjustable clamp.

[0014] Preferably, the gas injection unit includes a gas injection port, a pressurizing device, and an automatic high-efficiency gas injection device. The positions of the pressurizing device and the automatic high-efficiency gas injection device are relatively fixed with respect to the chassis. The gas injection port is fixed outside the detonation reaction cavity and the two are in communication with each other. The gas injection port is located on one side close to the pre-explosion chamber. Air pipes are fixedly connected between the output end of the automatic high-efficiency gas injection device and the input end of the pressurizing device, and between the output end of the pressurizing device and the port of the gas injection port.

[0015] Preferably, the cavity of the gas injection port and the internal cavity of the detonation reaction cavity are both cylindrical, and the included angle between their axes is between 15° and 30°.

[0016] Preferably, a buffer member is further arranged outside the detonation reaction cavity. The buffer member includes a damping buffer fixed at one end of the detonation reaction cavity away from the fragment. The damping buffer is a telescopic damping device that can be elastically reset. A recoil plate is further arranged at one end of the damping buffer away from the detonation reaction cavity. The recoil plate is fixed outside the chassis and does not contact the chassis.

[0017] A chassis locator is arranged on the outer side of each all-terrain rubber tire, and the chassis locator is assembled inside the chassis. The chassis locator includes an internal thread sleeve, a threaded rod, and a turning wheel and a toothed footrest respectively fixed at the top and bottom of the threaded rod.

[0018] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0019] Through the design of directional energy release, the present invention can concentrate the detonation wave energy at the front end, reduce lateral loss. Through the action of the fragment unit, the fragmentation can be controlled, the high-frequency noise interference can be reduced, and the infrasonic purity can be improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0021] Figure 2 It is a schematic diagram of the internal structure of the detonation reaction cavity of the present invention;

[0022] Figure 3 This is a schematic diagram of the fragment and V-shaped groove structure of the present invention.

[0023] In the figure: 1, positioning member; 2, film breaker; 3, fragment; 4, sealing ring; 5, locking device; 6, vortex; 7, gas injection port; 8, pressurizing equipment; 9, automatic and efficient gas injection device; 10, remote control exciter; 11, excitation device; 12, connector; 13, detonator; 14, V-shaped groove; 15, pre-explosion chamber; 16, detonation reaction cavity; 17, gun barrel elevation positioner; 18, chassis positioner; 19, chassis; 20, electronic digital display angle meter; 21, recoil plate; 22, damping buffer; 23, gun body support. Specific embodiments

[0024] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0025] Embodiment: Please refer to Figures 1 - 3 , a mobile acoustic wave generating device based on high-pressure combustible gas detonation in the figure, includes: a detonation reaction cavity 16 and a chassis 19 located below the detonation reaction cavity 16, and at least four all-terrain rubber tires distributed in a matrix are rotatably mounted on the bottom of the chassis 19. Each all-terrain rubber tire is connected to the chassis 19 through a hydraulic shock absorption system, so as to reduce the bumpiness of the all-terrain rubber tires during walking. A gun body support 23 for supporting the detonation reaction cavity 16 is provided on the top of the chassis 19, and a gun barrel elevation positioner 17 is further provided between the gun body support 23 and the detonation reaction cavity 16. The gun barrel elevation positioner 17 is used to adjust the inclination angle of the detonation reaction cavity 16. The two ends of the detonation reaction cavity 16 are respectively in an open state and a closed state;

[0026] It further includes: a detonation initiation unit for controlling the detonation reaction time inside the detonation reaction cavity 16, and the detonation initiation unit is arranged at the closed port of the detonation reaction cavity 16;

[0027] A fragment unit, the fragment unit is arranged at the open port of the detonation reaction cavity 16. The detonation initiation unit generates high-pressure energy inside the detonation reaction cavity 16, so as to discharge the high-pressure energy through the fragment unit and emit acoustic waves in a directional manner;

[0028] An air injection unit for injecting a mixed combustible gas into the detonation reaction cavity 16 to provide detonation fuel for the detonation initiation unit, and the air injection unit is located between the detonation initiation unit and the fragment unit.

[0029] The detonation reaction cavity 16 is made of a thick-walled seamless alloy steel pipe with a pressure resistance strength ≥ 1000 MPa. The detonation reaction takes place inside it, and the high-temperature and high-pressure gas formed finally rushes out through the end fragment 3.

[0030] A moving platform is also fixedly arranged at the bottom of the gun body support 23, and a hydraulic lifting device is arranged between the moving platform and the chassis 19. The fixed end and the telescopic end of the hydraulic lifting device are respectively fixed to the chassis 19 and the moving platform. The hydraulic lifting device can adjust the height of the gun body support 23. The gun barrel elevation locator 17 includes rotating shafts fixed on the outer sides of two pairs of sides of the detonation reaction cavity 16, and a turntable is rotatably sleeved on the outer surface of each rotating shaft. Each turntable is fixedly mounted on the top of the gun body support 23. An end of one of the rotating shafts is fixedly provided with a swing arm, and a first pin hole is formed in the swing arm. A plurality of second pin holes are formed in the turntable at equal circumferential intervals, and a pin is movably inserted into the first pin hole and the second pin hole together. An electronic digital display angle gauge 20 is also fixedly arranged on the outer wall of the detonation reaction cavity 16. The electronic digital display angle gauge 20 is used to detect the inclination angle of the detonation reaction cavity 16. After pulling out the pin, the inclination angle of the detonation reaction cavity 16 can be adjusted by swinging the swing arm, and after the adjustment is completed, the pin is inserted between the first pin hole and the second pin hole to fix the detonation reaction cavity 16.

[0031] The initiating unit includes a pre-explosion chamber 15 opened inside the closed port of the detonation reaction cavity 16, and a through hole is connected between the pre-explosion chamber 15 and the detonation reaction cavity 16. An initiator 13 is arranged inside the pre-explosion chamber 15, and the initiator 13 is an electric spark plug. A connector 12 is fixedly arranged outside the pre-explosion chamber 15, and the connector 12 is electrically connected to the initiator 13. An excitation device 11 is arranged outside the detonation reaction cavity 16, and the excitation device 11 is relatively fixed to the position of the chassis 19. The detonation reaction cavity 16 is also electrically connected to the connector 12. The excitation device 11 is remotely wirelessly regulated through a remote control exciter 10. The staff can remotely control the excitation device 11 through the remote control exciter 10, and under the docking of the connector 12, the initiator 13 is connected to the current to complete ignition inside the pre-explosion chamber 15.

[0032] The fragment unit includes a fragment 3 assembled inside the open port of the detonation reaction cavity 16. One end face of the fragment 3 is provided with a V-shaped groove 14 in a radiation grid pattern. The V-shaped groove 14 can guide the fragmentation pattern of the fragment 3. An adapter component is also provided outside the fragment 3, which is used for the quick replacement and loading / unloading of the fragment 3. The end face of the open port of the detonation reaction cavity 16 is also provided with a film breaker 2, which is used to ensure the stiffness with the fragment 3 at the sealing surface under the static pressure of high-pressure gas, so that the high-pressure gas does not leak. During detonation, it cuts off the preset rupture part of the fragment 3 to release the high-temperature and high-pressure gas inside the detonation reaction cavity and generate a shock wave.

[0033] The adapter component includes a docking cylinder that is designed to be separated from the open port of the detonation reaction cavity 16. The inner and outer diameters of the docking cylinder are the same as those of the detonation reaction cavity 16. A sealing ring 4 is fixedly arranged on the outer edge of the fragment 3, and the sealing ring 4 is limited at the connection between the detonation reaction cavity 16 and the docking cylinder. The sealing ring 4 is used to ensure the sealing state inside the detonation reaction cavity 16. A positioning member 1 is arranged between the inside of the docking cylinder and the open end of the detonation reaction cavity 16. The positioner plays a positioning role in the docking of the docking cylinder and the detonation reaction cavity 16. A locking device 5 is also arranged between the connection of the docking cylinder and the detonation reaction cavity 16, and the locking device 5 plays a fixing role for the docking cylinder and the detonation reaction cavity 16.

[0034] The positioning member 1 includes at least two positioning holes opened at one end of the detonation reaction cavity 16 close to the docking cylinder or at one end of the docking cylinder close to the detonation reaction cavity 16. At least two positioning columns are fixedly arranged at one end of the docking cylinder close to the detonation reaction cavity 16 or at one end of the detonation reaction cavity 16 close to the docking cylinder. The positioning columns and the positioning holes are slidably assembled.

[0035] The locking device 5 is an adjustable clamp, which is used to fix or release between the detonation reaction cavity 16 and the docking cylinder.

[0036] The gas injection unit includes a gas injection port 7, a pressurizing device 8, and an automatic and efficient gas injection device 9. The positions of the pressurizing device 8 and the automatic and efficient gas injection device 9 are relatively fixed with respect to the chassis 19. The gas injection port 7 is fixed outside the detonation reaction cavity 16 and the two are in communication with each other. The gas injection port 7 is located on the side close to the pre-explosion chamber 15. Gas pipes are fixedly connected and arranged between the output end of the automatic and efficient gas injection device 9 and the input end of the pressurizing device 8, and between the output end of the pressurizing device 8 and the port of the gas injection port 7. The pressurizing device 8 pressurizes the combustible gas provided by the automatic and efficient gas injection device 9 and injects it into the inside of the detonation reaction cavity 16 through the gas injection port 7.

[0037] The cavities of the gas injection port 7 and the internal cavity of the detonation reaction cavity 16 are both cylindrical, and the included angle between their axes is between 15° and 30°. The inner wall of the cavity of the detonation reaction cavity 16 is provided with spiral grooves like the vortex 6, so that when the mixed gas flows into the internal cavity of the detonation reaction cavity 16, a rotating fluid is generated, and the mixing efficiency of the combustible gas is increased by 50%.

[0038] A buffer component is also arranged outside the detonation reaction cavity 16. The buffer component includes a damping buffer 22 fixed at one end of the detonation reaction cavity 16 away from the fragment 3. The damping buffer 22 is a telescopic damper that can be elastically reset. A recoil plate 21 is also arranged at one end of the damping buffer 22 away from the detonation reaction cavity 16. The recoil plate 21 is fixed on the outside of the chassis 19 and does not contact the chassis 19.

[0039] A chassis locator 18 is arranged on the outer side of each all-terrain rubber tire, and the chassis locator 18 is assembled inside the chassis 19. The chassis locator 18 includes an internal thread sleeve, a threaded rod, and a turning wheel and a toothed footrest respectively fixed at the top and bottom of the threaded rod. By rotating the threaded rod through the turning wheel, the lifting height of the toothed footrest at its bottom can be adjusted.

[0040] Working principle: After the fragment 3 is sealed and installed, a methane-oxygen mixed gas (volume ratio 1:3 - 5) is injected into the internal cavity of the detonation reaction cavity 16, and the inflation pressure is 3 - 25 MPa. When the mixed gas is injected through the gas injection port 7, it is forced to swirl through the spiral groove-shaped vortex 6, so that the methane and oxygen are diffused at the molecular level and the mixing uniformity reaches 98% (detected by a gas chromatograph);

[0041] The detonator 13 is started, the excitation device 11 is remotely controlled through the remote control exciter 10, and the electric spark plug is ignited under the action of the connector 12. The electric spark plug ignites the local gas to form an initial detonation wave and propagates forward; the front-end detonation wave accelerates, and the rear-end reflected wave enhances the energy density. At this time, the detonation reaction occurs, and high-temperature and high-pressure energy is generated inside the detonation reaction cavity 16. When the detonation pressure reaches a certain value, the metal fragment 3 ruptures regularly along the V-shaped groove 14, releases high-pressure gas and excites the resonance of the detonation reaction cavity 16; the resonance frequency (simulated calculation is 8 Hz ± 2 Hz) is superimposed with the fragmentation noise of the fragment 3 to form a subsonic pulse with a main frequency of about 15 Hz. This subsonic wave can be released directionally. At the moment of detonation, the damping buffer 22 can automatically adjust the damping force through the pressure sensor signal. When the tail end of the damping buffer 22 contacts the recoil plate 21, it can suppress the vibration of the detonation reaction cavity 16 and maintain the stability of the chassis 19.

[0042] In this solution, the following purposes can be achieved:

[0043] 1. Directional energy release: The matching design of the pre-ignition position of the initiator 13 and the length of the detonation reaction cavity 16 (the length-diameter ratio is greater than 10:1) makes the detonation wave energy concentrated at the front end, reducing lateral loss;

[0044] 2. Controllable fragmentation structure: The grid of the V-shaped groove 14 makes the fragmentation size of the fragment 3 uniform (the average fragment area is 4 cm 2 ), reducing high-frequency noise interference and improving the purity of infrasound;

[0045] 3. Quick and repeated reloading: The quick-release and sealed design of the modular fragment 3 and the locking device 5 enables gas filling and replacement of the fragment 3 to be completed within 5 - 10 minutes;

[0046] 4. Through the collaborative design of the spiral mixing of the vortex 6 and the snap-in seal of the locking device 5, both the mixing efficiency and operation convenience are considered, breaking through the efficiency bottleneck of traditional devices.

[0047] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device comprising a series of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article or device.

[0048] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A mobile acoustic wave generating device based on the detonation of high-pressure combustible gas, characterized in that, Comprising: A detonation reaction cavity (16) and a chassis (19) located below the detonation reaction cavity (16), and at least four all-terrain rubber tires arranged in a matrix are rotatably mounted on the bottom of the chassis (19). A gun body support (23) for supporting the detonation reaction cavity (16) is provided on the top of the chassis (19), and a gun barrel elevation locator (17) is further provided between the gun body support (23) and the detonation reaction cavity (16). The two ends of the detonation reaction cavity (16) are respectively in an open state and a closed state; Further comprising: An initiation unit for controlling the detonation reaction time inside the detonation reaction cavity (16), and the initiation unit is arranged at the closed port of the detonation reaction cavity (16); A fragmentation unit, the fragmentation unit is arranged at the open port of the detonation reaction cavity (16). The initiation unit causes high-pressure energy to be generated inside the detonation reaction cavity (16), so as to discharge the high-pressure energy through the fragmentation unit and direct the emission of sound waves; An air injection unit for injecting a mixed combustible gas into the inside of the detonation reaction cavity (16) to provide detonation fuel for the initiation unit, and the air injection unit is located between the initiation unit and the fragmentation unit.

2. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 1, characterized in that: The gun barrel elevation locator (17) includes rotating shafts fixed on two pairs of sides outside the detonation reaction cavity (16), and a turntable is rotatably sleeved on the outer surface of each rotating shaft. Each turntable is fixedly mounted on the top of the gun body support (23). An end of one of the rotating shafts is fixedly provided with a swing arm, a first pin hole is opened in the swing arm, a plurality of second pin holes are opened in the turntable and are circumferentially and equidistantly distributed, and a pin is inserted into the first pin hole and the second pin hole together. An electronic digital display angle gauge (20) is also fixedly provided on the outer wall of the detonation reaction cavity (16).

3. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 1, characterized in that: The initiation unit includes a pre-explosion chamber (15) opened inside the closed port of the detonation reaction cavity (16), and a through hole is connected between the pre-explosion chamber (15) and the detonation reaction cavity (16). An initiator (13) is arranged inside the pre-explosion chamber (15), a connector (12) is fixedly provided outside the pre-explosion chamber (15), and the connector (12) is electrically connected to the initiator (13). An excitation device (11) is provided outside the detonation reaction cavity (16), and the detonation reaction cavity (16) is also electrically connected to the connector (12). The excitation device (11) is remotely and wirelessly regulated by a remote control exciter (10).

4. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 2, characterized in that: The fragmentation unit includes a fragment (3) assembled inside the open port of the detonation reaction cavity (16). A V-shaped groove (14) in a radiation grid shape is opened on one end face of the fragment (3), and a replacement component is further provided outside the fragment (3), and the replacement component is used for the quick replacement and loading and unloading of the fragment (3).

5. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 4, wherein: The replacement part includes a docking cylinder that is designed to be separated from the open port of the detonation reaction cavity (16). A sealing ring (4) is fixedly arranged on the outer edge of the fragment (3), and the sealing ring (4) is defined at the connection between the detonation reaction cavity (16) and the docking cylinder. A positioning member (1) is arranged between the interior of the docking cylinder and the open end of the detonation reaction cavity (16). A locking device (5) is also arranged at the connection between the docking cylinder and the detonation reaction cavity (16), and the locking device (5) plays a role in fixing the docking cylinder and the detonation reaction cavity (16).

6. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 5, wherein: The positioning member (1) includes at least two positioning holes opened at one end of the detonation reaction cavity (16) close to the docking cylinder or at one end of the docking cylinder close to the detonation reaction cavity (16). At least two positioning posts are fixedly arranged at one end of the docking cylinder close to the detonation reaction cavity (16) or at one end of the detonation reaction cavity (16) close to the docking cylinder, and the positioning posts and the positioning holes are in sliding fit.

7. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 5, wherein: The locking device (5) is an adjustable clamp.

8. A mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 3, characterized in that: The gas injection unit includes a gas injection port (7), a pressurizing device (8), and an automatic high-efficiency gas injection device (9). The positions of the pressurizing device (8) and the automatic high-efficiency gas injection device (9) are relatively fixed with respect to the chassis (19). The gas injection port (7) is fixed outside the detonation reaction cavity (16) and the two are in communication with each other. The gas injection port (7) is located on the side close to the pre-explosion chamber (15). Air pipes are fixedly connected and arranged between the output end of the automatic high-efficiency gas injection device (9) and the input end of the pressurizing device (8), and between the output end of the pressurizing device (8) and the port of the gas injection port (7).

9. The mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 8, wherein: The cavity of the gas injection port (7) and the internal cavity of the detonation reaction cavity (16) are both cylindrical, and the included angle between their axes is between 15° and 30°.

10. A mobile acoustic wave generating device based on high-pressure combustible gas detonation according to claim 4, characterized in that: A buffer part is also arranged outside the detonation reaction cavity (16). The buffer part includes a damping buffer (22) fixed at one end of the detonation reaction cavity (16) away from the fragment (3), and a recoil plate (21) is further arranged at one end of the damping buffer (22) away from the detonation reaction cavity (16).

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