A compact, earthquake-resistant high-voltage generator with liquid cooling and elastic support.

Abstract

This invention provides a compact, shock-resistant high-voltage generator with liquid cooling and elastic support, belonging to the field of engine technology. It solves the technical problem of excessively high generator temperatures leading to accelerated aging of the generator's insulation materials. The compact, shock-resistant high-voltage generator with liquid cooling and elastic support includes a generator protective shell, an installation chamber within the protective shell, and a generator body housed within the installation chamber. A sealing plate is bolted to the opening of the installation chamber, and the protruding portion of the sealing plate engages with the generator body shell for pressure limiting. A support base is fixed to the bottom of the generator protective shell, and a liquid cooling chamber filled with coolant is provided within the support base. A circulation assembly for circulating and supplying the coolant is also provided within the support base. This invention has the advantage of achieving liquid cooling through shock-absorbing movement.

Description

Technical Field

[0001] This invention belongs to the field of generator technology and relates to an anti-vibration high-voltage generator, particularly a compact anti-vibration high-voltage generator with liquid cooling and elastic support. Background Technology

[0002] A generator set is a mechanical device that converts other forms of energy into electrical energy. It converts the energy generated by fuel combustion into mechanical energy, which is then transferred to a generator, and finally converted into electrical energy for use by electrical equipment. It is a high-quality emergency power supply widely used in industrial and agricultural production in environments where electricity is inconvenient. During operation, generator sets generate a significant amount of vibration. If this vibration is not mitigated, excessively frequent vibration can easily lead to loosening of internal components, and in severe cases, even metal fatigue, affecting the lifespan of the generator set.

[0003] A search revealed a Chinese patent document disclosing a generator set anti-vibration bracket with a self-compensating structure [Application No.: 202310493386.3; Publication No.: CN 116293288 A]. This invention discloses a generator set anti-vibration bracket with a self-compensating structure. Vibration damping elements are respectively arranged in six directions—up / down, front / back, left / right—of the generator set body for elastic buffering support. The oil chambers a and b within two symmetrically positioned damping elements are connected via oil passage pipes. Combined with the elastic deformation of the oil passage pipe end walls and the discharge and replenishment of hydraulic oil in oil chambers a and b under pressure, reverse compensation for vibration is achieved. This effectively balances the vibration generated during generator set operation, reducing the vibration amplitude and improving the anti-vibration performance of the damping elements to a certain extent. This helps ensure the operational stability of the generator set body and effectively extends its service life.

[0004] While this patented technology helps reduce the vibration amplitude of the generator set during operation and improves the shock absorption performance of the damping components to a certain extent, thus ensuring the operational stability of the generator set and effectively extending its service life, the energy conversion process of this generator generates heat. If the temperature is too high, it will cause the generator's insulation materials to age faster, reducing their mechanical strength and insulation performance, thereby shortening the generator's service life. In severe cases, it may even cause malfunctions or burn out the equipment. Therefore, ensuring good heat dissipation and normal operating conditions of the generator is crucial. Summary of the Invention

[0005] The purpose of this invention is to address the aforementioned problems in existing technologies by proposing a compact, shock-resistant high-voltage generator with liquid cooling and elastic support. The technical problem this invention aims to solve is: how to achieve liquid cooling through vibration damping.

[0006] The objective of this invention can be achieved through the following technical solutions:

[0007] A compact, earthquake-resistant high-voltage generator with liquid cooling and elastic support includes a generator protective housing, an installation chamber within the generator protective housing, and a generator body disposed within the installation chamber. A sealing plate is bolted to the opening of the installation chamber, and the protruding part of the sealing plate engages with the generator body housing for pressure limiting. A support base is fixed to the bottom of the generator protective housing, and a liquid cooling chamber is formed within the support base, filled with coolant. A circulation assembly for circulating coolant is disposed within the support base, and an elastic support assembly is disposed within the support base, connected to the circulation assembly. A heat dissipation pipe is fixed within the generator protective housing, spirally wound around the installation chamber, and the circulation assembly is connected to the input and output ends of the heat dissipation pipe.

[0008] The working principle of this invention is as follows: the elastic support component can be used to reduce the vibration of the entire application, thereby achieving an anti-vibration effect and reducing the vibration caused by the generator operation. Furthermore, through the cooperation between the circulation component and the elastic support component, the vibration during generator operation is used to achieve active circulation of coolant, maintain the liquid cooling effect, and further improve the cooling effect.

[0009] The elastic support assembly includes a pair of support rods slidably disposed on both sides of the support base, and a pair of guide grooves I opened on both sides of the support base. Each guide groove I has a guide groove II. Each guide groove I is slidably connected to a guide block I. Each guide groove I is slidably connected to a guide block II. Each support rod is fixedly connected to a corresponding guide block I and guide block II. Each guide block I is fixedly connected to a corresponding guide groove I. Each guide block II is fixedly connected to a corresponding guide groove II. Each guide block II is vertically fixed with a toothed rod. Each toothed rod is connected to a circulation assembly.

[0010] By adopting the above structure, the combination of support spring one and support spring two can reduce shock, improve the elastic support effect, and further improve the shock absorption effect. Then, the rack moves up and down continuously during the shock absorption process, thereby driving the circulation component to operate through the up and down movement of the rack.

[0011] The circulation assembly includes a pair of drive gears rotatably connected to both sides of the support base, and a drive bevel gear 1 coaxially fixedly connected to each drive gear. Four drive bevel gears 2 are rotatably connected within the support base. Each drive bevel gear 1 meshes with a corresponding drive bevel gear 2. The pair of drive gears on the left side of the support base can only rotate in opposite directions, and the pair of drive gears on the right side of the support base can only rotate in opposite directions. Each drive bevel gear 2 is coaxially fixedly connected to a meshing gear 1. A pair of conveying pipes are fixed within the support base, with both ends of each conveying pipe connected to a liquid cooling chamber. A pair of mounting blocks are fixed within each conveying pipe, with a drive impeller rotatably connected to each mounting block. Each mounting block also has a meshing gear 2 rotatably connected to it, and each meshing gear 2 is coaxially fixedly connected to a corresponding drive impeller. A meshing toothed belt connects each meshing gear 2 to its corresponding meshing gear 1. Each drive gear meshes with a corresponding rack. The middle of each conveying pipe is connected to the corresponding input and output ends of a heat dissipation pipe.

[0012] With the above structure, the drive gear is rotated when the rack is lifted. The rotation of the drive gear then drives the first drive bevel gear to rotate, which in turn drives the second drive bevel gear to rotate. The second drive bevel gear then drives the first meshing gear to rotate, which in turn drives the second meshing gear to rotate via the meshing belt. The second meshing gear then drives the drive impeller to rotate, thereby achieving the effect of coolant delivery through the drive impeller.

[0013] The rack includes a main rod and multiple storage slots opened inside the main rod. A toothed block is slidably connected in each storage slot. A return spring is fixed between each toothed block and the bottom of the corresponding storage slot. Each toothed block meshes with a corresponding drive gear.

[0014] With the above structure, the tooth block can be greatly restricted and retracted into the storage groove through the cooperation of the storage groove and the return spring. That is, because the drive gear can only rotate in one direction, when the main body of the rack moves downward, the drive gear cannot be driven to rotate. At this time, the tooth block is restricted and retracts into the storage groove, thus not affecting the normal up and down movement of the main body of the rack.

[0015] The generator protective housing has an air-cooling channel that connects to the installation chamber. Both openings of the air-cooling channel are exposed outside the generator protective housing. Multiple air-cooling channels are rotatably connected to the generator protective housing, and each air-cooling channel is connected to the air-cooling channel. A ventilation frame is fixed in each air-cooling channel, and a cooling fan is rotatably connected to each ventilation frame. A drive worm gear is rotatably connected in each ventilation frame, and a drive worm is rotatably connected inside the generator protective housing. The drive worm meshes with each drive worm gear, and a transmission gear one is coaxially fixed on the drive worm. A transmission gear two is rotatably connected inside the generator protective housing, and a transmission belt connects the transmission gear one and the transmission gear two. An output gear is rotatably connected inside the generator protective housing. An external gear ring is coaxially fixed on the rotor shaft of the engine body, and the external gear ring meshes with the output gear. The output gear is coaxially fixedly connected to the transmission gear two.

[0016] With the above structure, the output shaft of the engine body drives the external gear ring to rotate during operation. The rotation of the external gear ring drives the output gear to rotate, which in turn drives the transmission gear two to rotate. The rotation of the transmission gear two then drives the transmission gear one to rotate via the transmission belt. The rotation of the transmission gear one then drives the drive worm to rotate, which in turn drives each drive worm wheel to rotate. Each drive worm wheel then drives the corresponding cooling fan to operate, thereby achieving air cooling and accelerating the heat dissipation process. Furthermore, the combination of air cooling and liquid cooling further improves the cooling effect.

[0017] The bottom of the support base is provided with a wear-resistant pad, which is fixedly connected to the bottom end of each support rod.

[0018] By adopting the above structure, the wear-resistant pad can be used as the contact structure with the ground, which can improve the friction with the ground and extend the service life through its wear resistance.

[0019] A heat-conducting metal plate is fixed inside the liquid cooling cavity, and a semiconductor cooler is fixed inside the support base. The cold end of the semiconductor cooler is connected to the heat-conducting metal plate.

[0020] With the above structure, the heat-conducting metal plate can be cooled by the semiconductor cooler, and the heat-conducting metal plate can further cool the coolant in the liquid cooling chamber, thereby maintaining the cooling effect of the coolant.

[0021] Multiple heat dissipation metal plates are fixed inside the air-cooled channel.

[0022] By adopting the above structure, the heat conduction effect can be improved through the heat dissipation metal sheet, and the contact area with air can be increased, thereby further improving the heat dissipation effect.

[0023] The support base is fixed with a supplementary interface, which is connected to the liquid cooling cavity, and a one-way valve with the flow direction towards the liquid cooling cavity is fixed inside the supplementary interface.

[0024] With the above structure, coolant can be added to the liquid cooling chamber through the replenishment interface, and a one-way valve can be used to prevent coolant from overflowing.

[0025] Compared with existing technologies, this liquid-cooled and elastically supported compact shock-resistant high-voltage generator has the following advantages:

[0026] 1. The entire application is subjected to vibration reduction through elastic support components, thereby achieving an anti-seismic effect and reducing the vibration caused by the generator operation.

[0027] 2. Through the cooperation between the circulation component and the elastic support component, the vibration during generator operation is used to achieve active circulation of coolant, maintain the liquid cooling effect, and further improve the cooling effect.

[0028] 3. By combining air cooling and liquid cooling, the cooling and heat dissipation effect is further improved. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the structure of the present invention.

[0030] Figure 2 This is a schematic diagram of the elastic support component in this invention.

[0031] Figure 3 This is a schematic diagram of the structure of the loop component in this invention.

[0032] Figure 4 This is a schematic diagram of the toothed rod structure in this invention.

[0033] Figure 5 This is a schematic diagram of the internal structure of the support base in this invention.

[0034] Figure 6 This is a schematic diagram of the vertical cross-section of the internal structure of the generator protective housing in this invention.

[0035] Figure 7 This is a top view schematic diagram of the internal structure of the generator protective casing in this invention.

[0036] Figure 8 In this invention Figure 3 A magnified schematic diagram of the structure of region a in the middle.

[0037] Figure 9 This is a schematic diagram of the heat dissipation pipe structure in this invention.

[0038] In the diagram, 1. Generator protective casing; 2. Mounting chamber; 3. Generator body; 4. Sealing plate; 5. Support base; 6. Liquid cooling chamber; 7. Coolant; 8. Heat dissipation pipe; 9. Support rod; 10. Guide groove one; 11. Guide groove two; 12. Guide block one; 13. Guide block two; 14. Support spring one; 15. Support spring two; 16. Gear rack; 17. Drive gear; 18. Drive bevel gear one; 19. Drive bevel gear two; 20. Meshing gear one; 21. Conveying pipe; 22. Mounting block; 23. Drive impeller; 24. Meshing gear two; 25. Meshing toothed belt; 26. Main rod; 27. Storage slot; 28. Tooth block; 29. ​​Return spring; 30. Air-cooling channel; 31. Air-cooling passage; 32. Ventilation frame; 33. Cooling fan; 34. Drive worm gear; 35. Drive worm; 36. Transmission gear one; 37. Transmission gear two; 38. Transmission toothed belt; 39. Output gear; 40. External gear ring; 41. Wear-resistant pad; 42. Cooling-conducting metal plate; 43. Semiconductor cooler; 44. Heat dissipation metal plate; 45. Supplementary interface; 46. One-way valve. Detailed Implementation

[0039] The following are specific embodiments of the present invention, which are described in conjunction with the accompanying drawings. However, the present invention is not limited to these embodiments.

[0040] like Figures 1-9 As shown, a compact, shock-resistant high-voltage generator with liquid cooling and elastic support includes a generator protective housing 1, an installation chamber 2 opened inside the generator protective housing 1, and a generator body 3 installed inside the installation chamber 2. A sealing plate 4 is bolted to the opening of the installation chamber 2, and the protruding part of the sealing plate 4 is in a top-pressing and limiting fit with the outer shell of the generator body 3. A support base 5 is fixed to the bottom of the generator protective housing 1. A liquid cooling chamber 6 is opened inside the support base 5 and filled with coolant 7. A circulation component for circulating and transporting coolant 7 is provided inside the support base 5, and an elastic support component is provided inside the support base 5. The elastic support component is connected to the circulation component. A heat dissipation pipe 8 is fixed inside the generator protective housing 1. The heat dissipation pipe 8 is spirally wound around the installation chamber 2, and the circulation component is connected to the input and output ends of the heat dissipation pipe 8.

[0041] The entire application can be vibration-damped by the elastic support components to achieve an anti-vibration effect and reduce the vibration caused by the generator operation. Through the cooperation between the circulation components and the elastic support components, the vibration during generator operation is used to achieve active circulation of coolant 7, maintain the liquid cooling effect, and further improve the cooling effect. The generator will generate vibration during operation, which is the result of the combined action of mechanical and electrical factors. The elastic support components absorb the kinetic energy generated during vibration, and the support springs 14 and 15 in the elastic support components convert the kinetic energy into potential energy. Since the generator generates steady-state vibration during operation, the kinetic energy and potential energy are continuously converted back and forth, and finally the usable mechanical work is output to drive the circulation components to operate.

[0042] The elastic support assembly includes a pair of support rods 9 slidably disposed on both sides of the support base 5, and a pair of guide grooves 10 opened on both sides of the support base 5. Each guide groove 10 has a guide groove 21. Each guide groove 10 is slidably connected to a guide block 12. Each guide groove 10 is slidably connected to a guide block 23. Each support rod 9 is fixedly connected to the corresponding guide block 12 and guide block 23. Each guide block 12 is fixedly connected to the corresponding guide groove 10. Each guide block 23 is fixedly connected to the corresponding guide groove 21 with a support spring 25. Each guide block 213 is vertically fixed with a toothed rod 16. Each toothed rod 16 is connected to the circulation assembly.

[0043] With the above structure, the combination of support spring 14 and support spring 2 15 can reduce shock, improve the elastic support effect, and further improve the shock absorption effect. In the process of shock absorption, the rack 16 is continuously driven to move up and down, thereby driving the circulation component to operate.

[0044] The circulation assembly includes a pair of drive gears 17 rotatably connected to both sides of the support base 5, and a drive bevel gear 18 coaxially fixedly connected to each drive gear 17. Four drive bevel gears 19 are rotatably connected inside the support base 5. Each drive bevel gear 18 meshes with a corresponding drive bevel gear 19. The pair of drive gears 17 on the left side of the support base 5 can only rotate in opposite directions, and the pair of drive gears 17 on the right side of the support base 5 can only rotate in opposite directions. Each drive bevel gear 19 is coaxially fixedly connected to a meshing gear 20. A pair of conveying pipes 21 are fixed inside the support base 5. Each conveying... Both ends of the pipe 21 are connected to the liquid cooling chamber 6, and a pair of mounting blocks 22 are fixed inside each conveying pipe 21. A drive impeller 23 is rotatably connected to each mounting block 22. A meshing gear 24 is rotatably connected inside each mounting block 22. Each meshing gear 24 is coaxially fixedly connected to the corresponding drive impeller 23. A meshing toothed belt 25 is connected between each meshing gear 24 and the corresponding meshing gear 20. Each drive gear 17 is meshed with the corresponding rack 16. The middle part of each conveying pipe 21 is connected to the corresponding input end and output end of the heat dissipation pipe 8.

[0045] With the above structure, the drive gear 17 can be rotated when the rack 16 is lifted. After the drive gear 17 rotates, it will drive the drive bevel gear 18 to rotate. After the drive bevel gear 18 rotates, it will drive the drive bevel gear 19 to rotate. After the drive bevel gear 19 rotates, it will drive the meshing gear 20 to rotate. After the meshing gear 20 rotates, it will drive the meshing gear 24 to rotate through the meshing belt 25. After the meshing gear 24 rotates, it will drive the drive impeller 23 to rotate. In this way, the coolant 7 can be transported through the drive impeller 23.

[0046] The rack 16 includes a main rod 26 and multiple storage slots 27 opened in the main rod 26. A tooth block 28 is slidably connected in each storage slot 27. A return spring 29 is fixed between each tooth block 28 and the bottom of the corresponding storage slot 27. Each tooth block 28 meshes with the corresponding drive gear 17.

[0047] With the above structure, the tooth block 28 can be greatly restricted and retracted into the storage groove 27 through the cooperation of the storage groove 27 and the return spring 29. That is, because the drive gear 17 can only rotate in one direction, when the main body of the rack 16 moves downward, the drive gear 17 cannot be driven to rotate. At this time, the tooth block 28 is restricted and retracts into the storage groove 27, thus not affecting the normal up and down movement of the main body of the rack 16.

[0048] The generator protective housing 1 has an air-cooling channel 30 that connects to the installation chamber 2. Both openings of the air-cooling channel 30 are exposed outside the generator protective housing 1. Multiple air-cooling channels 31 are rotatably connected to the generator protective housing 1, and each air-cooling channel 31 communicates with the air-cooling channel 30. A ventilation frame 32 is fixed within each air-cooling channel 31, and a cooling fan 33 is rotatably connected to each ventilation frame 32. A drive worm gear 34 is rotatably connected within each ventilation frame 32, and a drive worm gear 34 is rotatably connected inside the generator protective housing 1. The drive worm 35 meshes with each drive worm wheel 34, and a transmission gear 36 is coaxially fixed on the drive worm 35. A transmission gear 37 is rotatably connected inside the generator protective housing 1. A transmission belt 38 connects the transmission gear 36 and the transmission gear 37. An output gear 39 is rotatably connected inside the generator protective housing 1. An external gear ring 40 is coaxially fixed on the rotor shaft of the engine body. The external gear ring 40 meshes with the output gear 39. The output gear 39 is coaxially fixedly connected to the transmission gear 37.

[0049] With the above structure, the output shaft of the engine body drives the external gear ring 40 to rotate during operation. The rotation of the external gear ring 40 drives the output gear 39 to rotate, which in turn drives the transmission gear 37 to rotate. The rotation of the transmission gear 37 then drives the transmission gear 36 to rotate via the transmission belt 38. The rotation of the transmission gear 36 then drives the drive worm 35 to rotate, which in turn drives each drive worm wheel 34 to rotate. Each drive worm wheel 34 then drives the corresponding cooling fan 33 to operate, thereby achieving air cooling and accelerating the heat dissipation process. Furthermore, the combination of air cooling and liquid cooling further improves the cooling effect.

[0050] The bottom of the support base 5 is provided with a wear-resistant pad 41, which is fixedly connected to the bottom end of each support rod 9.

[0051] By adopting the above structure, the wear-resistant pad 41 can be used as the contact structure with the ground, which can improve the friction with the ground and extend the service life through its wear resistance.

[0052] A cooling metal plate 42 is fixed inside the liquid cooling cavity 6, and a semiconductor cooler 43 is fixed inside the support base 5. The cold end of the semiconductor cooler 43 is connected to the cooling metal plate 42.

[0053] With the above structure, the heat-conducting metal plate 42 can be cooled by the semiconductor cooler 43, and the heat-conducting metal plate 42 can further cool the coolant 7 in the liquid cooling cavity 6, thereby maintaining the cooling effect of the coolant 7.

[0054] Multiple heat dissipation metal plates 44 are fixed inside the air-cooled channel 30.

[0055] By adopting the above structure, the heat conduction effect can be improved through the heat dissipation metal plate 44, and the contact area with air can be increased, thereby further improving the heat dissipation effect.

[0056] A supplementary interface 45 is fixed on the support base 5. The supplementary interface 45 is connected to the liquid cooling cavity 6, and a one-way valve 46 with the flow direction towards the liquid cooling cavity 6 is fixed inside the supplementary interface 45.

[0057] With the above structure, coolant 7 can be added to the liquid cooling chamber 6 through the replenishment interface 45, and the coolant 7 can be prevented from overflowing through the one-way valve 46.

[0058] The working principle of this invention is as follows: The vibration generated during engine operation causes the guide block 13 to continuously drive the rack 16 up and down during shock absorption. When the rack 16 rises, it drives the drive gear 17 to rotate. The rotation of the drive gear 17 then drives the drive bevel gear 18 to rotate, which in turn drives the drive bevel gear 19 to rotate. The drive bevel gear 19 then drives the meshing gear 20 to rotate, which in turn drives the meshing gear 24 via the meshing belt 25. The rotation of the meshing gear 24 then drives the drive impeller 23 to rotate. This achieves the effect of coolant 7 being transported and circulated through the drive impeller 23. Furthermore, the cooperation between the receiving groove 27 and the return spring 29 causes the toothed block 28 to retract into the receiving groove 27 after being greatly restricted. Because the drive gear 17 can only rotate in one direction, when the rack 16 moves downwards, the drive gear 17 cannot be driven to rotate, and the toothed block 28 is then restricted. The retractable storage groove 27 is designed so as not to affect the normal up-and-down movement of the main body of the rack 16. When the engine body is operating, its output shaft drives the outer gear ring 40 to rotate. After the outer gear ring 40 rotates, it drives the output gear 39 to rotate. After the output gear 39 rotates, it drives the transmission gear 2 37 to rotate. After the transmission gear 2 37 rotates, it drives the transmission gear 1 36 to rotate through the transmission belt 38. After the transmission gear 1 36 rotates, it drives the drive worm 35 to rotate. After the drive worm 35 rotates, it drives each drive worm wheel 34 to rotate. After each drive worm wheel 34 rotates, it drives the corresponding cooling fan 33 to operate, thereby achieving air cooling effect and accelerating the heat dissipation process. Through the cooperation of air cooling and liquid cooling, the cooling effect is further improved. The semiconductor cooler 43 cools the heat-conducting metal plate 42, and the heat-conducting metal plate 42 further cools the coolant 7 in the liquid cooling cavity 6, thereby maintaining the cooling effect of the coolant 7.

[0059] In summary, the application as a whole is vibration-damped by the elastic support components, thereby achieving an anti-vibration effect and reducing the vibration caused by the generator operation. Furthermore, through the cooperation between the circulation components and the elastic support components, the vibration during generator operation is used to achieve active circulation of the coolant 7, maintain the liquid cooling effect, and further improve the cooling effect.

[0060] The specific embodiments described herein are merely illustrative of the spirit of the invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to substitute them, without departing from the spirit of the invention or exceeding the scope defined by the appended claims.

Claims

1. A compact liquid-cooled and elastically supported anti-vibration high-voltage generator, comprising a generator protective shell (1), an installation cavity (2) formed in the generator protective shell (1), and a generator body (3) arranged in the installation cavity (2), characterized in that, The sealing plate (4) is bolted at the cavity opening of the installation chamber (2), the protruding part of the sealing plate (4) is in abutting and limiting cooperation with the shell of the generator body (3), the bottom of the generator protective shell (1) is fixed with a support seat (5), the support seat (5) is provided with a liquid cooling cavity (6), the liquid cooling cavity (6) is filled with cooling liquid (7), the support seat (5) is provided with a circulating assembly for circulating the cooling liquid (7), the support seat (5) is provided with an elastic supporting assembly, the elastic supporting assembly is connected with the circulating assembly, the generator protective shell (1) is fixed with a heat dissipation pipeline (8), the heat dissipation pipeline (8) is spirally wound on the installation chamber (2), and the circulating assembly is connected with the input end and the output end of the heat dissipation pipeline (8); The elastic supporting assembly comprises a pair of supporting rods (9) slidably arranged on the left and right sides of the support seat (5), a pair of guide sliding grooves (10) formed on the left and right sides of the support seat (5), a guide sliding groove (11) formed on each guide sliding groove (10), a guide block (12) slidably connected with each guide sliding groove (10), a guide block (13) slidably connected with each guide sliding groove (10), each supporting rod (9) is fixedly connected with the corresponding guide block (12) and guide block (13), a supporting spring (14) is fixed between each guide block (12) and the corresponding guide sliding groove (10), a supporting spring (15) is fixed between each guide block (13) and the corresponding guide sliding groove (11), a gear rod (16) is vertically fixed on each guide block (13), and each gear rod (16) is connected with the circulating assembly.The circulating assembly comprises a pair of driving gears (17) rotatably connected on the left and right sides in a support seat (5), a driving bevel gear I (18) coaxially fixedly connected with each driving gear (17), four driving bevel gear II (19) rotatably connected in the support seat (5), each driving bevel gear I (18) meshing with the corresponding driving bevel gear II (19), the pair of driving gears (17) on the left side of the support seat (5) can only rotate in the same direction, the pair of driving gears (17) on the right side of the support seat (5) can only rotate in the opposite direction, each driving bevel gear II (19) is coaxially fixedly connected with a meshing gear I (20), a pair of conveying pipes (21) are fixed in the support seat (5), the two ends of each conveying pipe (21) are communicated with a liquid cooling cavity (6), a pair of mounting blocks (22) are fixed in each conveying pipe (21), a driving impeller (23) is rotatably connected on each mounting block (22), a meshing gear II (24) is rotatably connected in each mounting block (22), each meshing gear II (24) is coaxially fixedly connected with the corresponding driving impeller (23), and the meshing gear II (24) and the corresponding meshing gear I (20) are connected with a meshing gear belt (25), each driving gear (17) is meshingly and drivingly connected with the corresponding toothed rod (16), and the middle part of each conveying pipe (21) is connected with the corresponding input end and output end of a heat dissipation pipe (8).

2. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 1, characterized in that, The toothed rod (16) comprises a main rod (26), a plurality of receiving grooves (27) formed in the main rod (26), a tooth block (28) slidably connected in each receiving groove (27), a return spring (29) fixed between each tooth block (28) and the groove bottom of the corresponding receiving groove (27), and each tooth block (28) is engaged with the corresponding drive gear (17).

3. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 1, characterized in that, The generator protective shell (1) is provided with a wind cooling channel (30) communicating with the installation chamber (2), both openings of the wind cooling channel (30) are exposed outside the generator protective shell (1), a plurality of wind cooling channels (31) are rotatably connected to the generator protective shell (1), each wind cooling channel (31) communicates with the wind cooling channel (30), each wind cooling channel (31) is fixedly provided with a ventilation rack (32), each ventilation rack (32) is rotatably connected with a cooling fan (33), each ventilation rack (32) is rotatably connected with a drive worm wheel (34), and the generator protective shell (1) is rotatably connected with a drive worm (35), the drive worm (35) is engaged with each drive worm wheel (34), the drive worm (35) is coaxially fixed with a transmission gear one (36), the generator protective shell (1) is rotatably connected with a transmission gear two (37), the transmission gear one (36) and the transmission gear two (37) are connected with a transmission gear belt (38), the generator protective shell (1) is rotatably connected with an output gear (39), the rotor shaft of the engine body is coaxially fixed with an outer gear ring (40), the outer gear ring (40) is engaged with the output gear (39), and the output gear (39) is coaxially fixedly connected with the transmission gear two (37).

4. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 1, characterized in that, The support base (5) is provided with a wear-resistant pad (41) at the bottom, and the wear-resistant pad (41) is fixedly connected with the bottom end of each support rod (9).

5. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 1, characterized in that, The liquid cooling cavity (6) is fixedly provided with a cold conducting metal plate (42), and the support base (5) is fixedly provided with a semiconductor cooler (43), and the cold end of the semiconductor cooler (43) is connected with the cold conducting metal plate (42).

6. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 3, characterized in that, A plurality of heat dissipation metal sheets (44) are fixed in the wind cooling channel (30).

7. A liquid-cooled and resiliently supported compact anti-vibration high-voltage generator according to claim 1, characterized in that, The support base (5) is fixedly provided with a supplementary interface (45), the supplementary interface (45) communicates with the liquid cooling cavity (6), and the supplementary interface (45) is fixedly provided with a one-way valve (46) with a flow direction towards the liquid cooling cavity (6).

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