A high-efficiency generator set with stable operation

Abstract

The present invention discloses a high-efficiency generator set with stable operation, belonging to the field of power generation equipment, including: a Z-direction shock-absorbing and cooling component, which includes a Z-direction shock-absorbing component and a Z-direction damping liquid-cooling component. While the Z-direction damping liquid-cooling component cooperates with the Z-direction shock-absorbing component on the Z-direction shock-absorbing component to damp the generator set, it also conducts liquid-cooling heat dissipation for the generator set; an X-direction shock-absorbing and cooling component, which includes a circumferential support frame, an X-direction transmission shock-absorbing component and an X-direction damping liquid-cooling component. The X-direction damping liquid-cooling component cooperates with the X-direction transmission shock-absorbing component on the X-direction transmission shock-absorbing component to damp and conduct liquid-cooling heat dissipation for the generator set; a Y-direction shock-absorbing and cooling component, which includes a Y-direction shock-absorbing component and a Y-direction damping liquid-cooling component. The present invention has high shock-absorbing efficiency, low failure rate and low noise of the generator set, and can utilize the vibration force of the generator set to provide power for the coolant during the shock-absorbing process of the generator set, significantly improving the heat dissipation efficiency of the generator set.

Description

Technical Field

[0001] The present invention relates to the technical field of power generation equipment, and more specifically, to a high-efficiency power generation unit with stable operation. Background Art

[0002] A diesel generator set is a power generation device that uses a diesel engine as a power source. It generates electricity by burning diesel fuel to drive the generator. During the operation of the diesel generator set, the diesel generator set will vibrate due to factors such as engine imbalance, unstable fuel supply, and engine rotor imbalance. When the vibration of the diesel generator set is too severe, the vibration generated by the diesel generator set installed on the ground will collide with the ground, which may cause damage to some parts of the entire unit, and also reduce the working efficiency of the unit and generate huge noise. In addition, during the power generation process of the existing generator set, the generator will generate a lot of heat. If the generator is not cooled in time, it will significantly affect the power generation efficiency and significantly increase the failure rate of the generator. Summary of the invention

[0003] In order to overcome the above defects, the present invention provides a high-efficiency generator set with stable operation, which specifically adopts the following technical solutions:

[0004] A high-efficiency generator set with stable operation, comprising:

[0005] A Z-direction damping cooling member, which is arranged on the generator set, and includes a Z-direction damping member and a Z-direction damping liquid cooling member, the Z-direction damping member is arranged on the generator set, and the Z-direction damping liquid cooling member cooperates with the Z-direction damping member on the Z-direction damping member to damp the generator set and perform liquid cooling and heat dissipation on the generator set;

[0006] An X-direction damping cooling member is arranged on the generator set, the X-direction damping cooling member comprises a circumferential support frame, an X-direction transmission damping member and an X-direction damping liquid cooling member, the circumferential support frame is arranged at a predetermined installation position of the generator set, the X-direction transmission damping member is arranged on the circumferential support frame and the generator set at the same time, the X-direction damping liquid cooling member cooperates with the X-direction transmission damping member on the X-direction transmission damping member to damp the generator set while performing liquid cooling and heat dissipation on the generator set;

[0007] A Y-direction shock absorbing cooling component is arranged on the generator set. The Y-direction shock absorbing cooling component includes a Y-direction shock absorbing component and a Y-direction damping liquid cooling component. The Y-direction shock absorbing component is arranged on the generator set. The Y-direction damping liquid cooling component cooperates with the Y-direction shock absorbing component on the Y-direction shock absorbing component to reduce the shock of the generator set while performing liquid cooling and heat dissipation on the generator set.

[0008] Preferably, the Z-direction shock absorber includes a Z-direction articulated support and a Z-direction shock-absorbing carrier. The Z-direction articulated support is connected to the mounting base of the generator set, and the Z-direction shock-absorbing carrier is connected to the Z-direction articulated support to damp the generator set.

[0009] Preferably, multiple sets of the Z-direction shock absorbers are symmetrically distributed near the four corners of the bottom surface of the mounting base to support and damp the generator set.

[0010] Preferably, the Z-direction damping liquid cooler includes a Z-direction downward pressing damping liquid cooler and a Z-direction upward pressing damping liquid cooler. Both the Z-direction downward pressing damping liquid cooler and the Z-direction upward pressing damping liquid cooler are connected to the Z-direction shock absorber. By absorbing the vibration force of the generator set, the first coolant in the Z-direction shock absorber is squeezed and pushed into the stator of the generator set, absorbs heat from the stator, and then flows back into the Z-direction shock absorber.

[0011] Preferably, the X-direction transmission shock absorber includes a shock-absorbing transmission and an X-direction shock absorber. The shock-absorbing transmission is arranged on the mounting base and the circumferential support frame, and the X-direction shock absorber damps the generator set on the mounting base through the shock-absorbing transmission.

[0012] Preferably, the shock-absorbing transmission includes a shock-absorbing support transmission and an X-direction liquid-cooling amplifier. The shock-absorbing support transmission is connected to the X-direction shock absorber on the mounting base, and the shock-absorbing support transmission transmits vibration to the X-direction shock absorber through the X-direction liquid-cooling amplifier arranged on the circumferential support frame.

[0013] Preferably, the X-direction liquid-cooling amplifier includes an amplification transmission and an amplification ratio adjustment member. The amplification transmission is connected to the shock-absorbing support transmission, and the amplification ratio adjustment member is connected to the amplification transmission on the circumferential support frame. The amplification ratio adjustment member adjusts the vibration amplitude transmitted by the shock-absorbing support transmission to the X-direction shock absorber; multiple sets of the X-direction transmission shock absorbers are symmetrically distributed on both sides of the mounting base.

[0014] Preferably, the X-direction damping liquid cooler includes an X-direction downward pressing damping liquid cooler and an X-direction upward pressing damping liquid cooler. Both the X-direction downward pressing damping liquid cooler and the X-direction upward pressing damping liquid cooler are connected to the X-direction shock absorber. By absorbing the vibration force of the generator set, the second coolant in the X-direction shock absorber is squeezed and pushed into the stator, absorbs heat from the stator, and then flows back into the X-direction shock absorber.

[0015] Preferably, the Y-direction shock absorber includes a Y-direction hinge support and a Y-direction shock-absorbing carrier. The Y-direction hinge support is connected to the mounting base, and the Y-direction shock-absorbing carrier is connected to the Y-direction hinge support to damp the generator set.

[0016] Preferably, the Y-direction damping liquid cooler includes a Y-direction downward pressing damping liquid cooler and a Y-direction upward pressing damping liquid cooler. Both the Y-direction downward pressing damping liquid cooler and the Y-direction upward pressing damping liquid cooler are connected to the Y-direction shock absorber. By absorbing the shock force of the generator set, the third coolant in the Y-direction shock absorber is squeezed and pushed into the stator, and after absorbing heat from the stator, it flows back into the Y-direction shock absorber.

[0017] The present invention has at least the following beneficial effects:

[0018] 1) The high-efficiency generator set with stable operation of the present invention has high shock absorption efficiency, low failure rate and low noise of the generator set. During the shock absorption process of the generator set, the shock force of the generator set can be used to provide power for the coolant, significantly improving the heat dissipation efficiency of the generator set.

[0019] 2) The high-efficiency generator set with stable operation of the present invention is provided with a Z-direction shock absorption cooler, an X-direction shock absorption cooler and a Y-direction shock absorption cooler. The Z-direction shock absorption cooler, the X-direction shock absorption cooler and the Y-direction shock absorption cooler cooperate with each other to damp the six-degree-of-freedom cube of the generator set, and convert the shock force of the generator set into the flowing power of the coolant to cool and dissipate heat from the generator set itself, significantly improving the shock absorption efficiency and heat dissipation efficiency.

[0020] Other advantages, objectives and features of the present invention will be partially reflected by the following description, and partially will be understood by those skilled in the art through the research and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 is the front view of the high-efficiency generator set with stable operation of the present invention;

[0022] Figure 2 is the top view of the high-efficiency generator set with stable operation of the present invention;

[0023] Figure 3 is the bottom view of the high-efficiency generator set with stable operation of the present invention;

[0024] Figure 4 is the front-side three-dimensional structure schematic diagram of the high-efficiency generator set with stable operation of the present invention;

[0025] Figure 5 is the rear-side three-dimensional structure schematic diagram of the high-efficiency generator set with stable operation of the present invention;

[0026] Figure 6 Schematic perspective view of the high-efficiency generator set with stable operation of the present invention from bottom to top

[0027] Figure 7 High-efficiency generator set with stable operation of the present invention Figure 3 Schematic perspective view of the sectional structure in the A-A direction in the high-efficiency generator set with stable operation of the present invention

[0028] Figure 8 High-efficiency generator set with stable operation of the present invention Figure 7 Partial enlarged view of B in the high-efficiency generator set with stable operation of the present invention

[0029] Figure 9 High-efficiency generator set with stable operation of the present invention Figure 1 Schematic perspective view of the sectional structure in the C-C direction in the high-efficiency generator set with stable operation of the present invention

[0030] Figure 10 High-efficiency generator set with stable operation of the present invention Figure 9 Partial enlarged view of E in the high-efficiency generator set with stable operation of the present invention

[0031] Figure 11 High-efficiency generator set with stable operation of the present invention Figure 1 Schematic perspective view of the sectional structure in the D-D direction in the high-efficiency generator set with stable operation of the present invention

[0032] Figure 12 High-efficiency generator set with stable operation of the present invention Figure 11 Partial enlarged view of F in the high-efficiency generator set with stable operation of the present invention

[0033] Wherein: 1 - generator, 2 - mounting base, 3 - first spherical plain bearing, 4 - first hinge groove, 5 - Z-direction load-bearing seat, 6 - Z-direction load-bearing shaft, 7 - Z-direction load-bearing plate, 8 - first return spring, 9 - second return spring, 10 - Z-direction guide shaft, 11 - first one-way valve, 12 - first damping liquid cooling branch pipe, 13 - first liquid cooling radiator, 14 - second damping liquid cooling pipe, 15 - second damping liquid cooling branch pipe, 16 - second one-way valve, 17 - third one-way valve, 18 - third damping liquid cooling branch pipe, 19 - second liquid cooling radiator, 20 - fourth damping liquid cooling pipe, 21 - fourth damping liquid cooling branch pipe, 22 - fourth one-way valve, 23 - circumferential support frame, 24 - shock-absorbing support plate, 25 - shock-absorbing drive plate, 26 - second hinge groove, 28 - third hinge groove, 29 - fourth hinge groove, 30 - second spherical plain bearing, 31 - magnifying drive shaft, 32 - sliding long through hole, 33 - adjusting slider, 34 - screw, 35 - motor, 37 - X-direction load-bearing seat, 38 - X-direction load-bearing plate, 39 - third return spring, 40 - fourth return spring, 41 - sealing plate, 42 - drive block, 43 - fifth hinge groove, 44 - third spherical plain bearing, 46 - sixth hinge groove, 47 - Y-direction load-bearing seat, 48 - Y-direction load-bearing shaft, 49 - Y-direction load-bearing plate, 50 - fifth return spring, 51 - sixth return spring, 52 - Y-direction guide shaft Detailed implementation mode

[0034] The technical solution of the present invention will be described in detail below by way of embodiments with reference to the accompanying drawings. It should be noted here that the description of these embodiments is for helping to understand the present invention, but does not constitute a limitation to the present invention.

[0035] The term "and / or" in this article is merely a description of the association relationship of associated objects, indicating that there can be three relationships. For example, A and / or B can represent: A exists alone, B exists alone, and A and B exist simultaneously. The term " / and" in this article is a description of another association object relationship, indicating that there can be two relationships. For example, A / and B can represent: A exists alone, and A and B exist alone. In addition, the character " / " in this article generally represents that the front and rear associated objects are an "or" relationship.

[0036] According to Figures 1 - 12 As shown, a high-efficiency generator set with stable operation includes a Z-direction shock-absorbing and cooling member, an X-direction shock-absorbing and cooling member, and a Y-direction shock-absorbing and cooling member. The Z-direction shock-absorbing and cooling member, the X-direction shock-absorbing and cooling member, and the Y-direction shock-absorbing and cooling member are all arranged on the mounting base 2 of the generator set, and the Z-direction shock-absorbing and cooling member, the X-direction shock-absorbing and cooling member, and the Y-direction shock-absorbing and cooling member are all communicated with the generator set.

[0037] The Z-direction shock-absorbing and cooling member includes a Z-direction shock-absorbing member and a Z-direction damping liquid cooling member. The Z-direction shock-absorbing member is arranged on the generator set, and the Z-direction damping liquid cooling member is arranged on the Z-direction shock-absorbing member. The Z-direction shock-absorbing member includes a Z-direction articulated support member and a Z-direction shock-absorbing load-bearing member. The Z-direction articulated support member is connected to the generator set, and the Z-direction shock-absorbing load-bearing member is connected to the Z-direction articulated support member.

[0038] The Z-direction articulated support member includes a first spherical plain bearing 3, a first rotating shaft, and a first articulated groove 4. The first spherical plain bearing 3 is fixedly connected to the bottom surface of the mounting base 2. The first rotating shaft is installed in the first spherical plain bearing 3, and both ends of the first rotating shaft are respectively installed in the first transmission through holes on both side walls of the notch of the first articulated groove 4.

[0039] The Z-direction shock-absorbing bearing member includes a Z-direction bearing seat 5, a Z-direction bearing shaft 6, a Z-direction bearing plate 7, a first return spring 8, a second return spring 9, and a Z-direction guide shaft 10. The Z-direction bearing seat 5 is tubular, and the bottom surface of the Z-direction bearing seat 5 is fixedly arranged on the bottom surface of the installation groove prefabricated for installing the generator set. The Z-direction bearing shaft 6 is tubular, and one end of the Z-direction bearing shaft 6 slidably penetrates through a first sliding through hole on the top surface of the Z-direction bearing seat 5, so that the Z-direction bearing shaft 6 can reciprocate axially on the Z-direction bearing seat 5. And the axis of the Z-direction bearing shaft 6 coincides with the axis of the Z-direction bearing seat 5. Further, a first sliding sealing ring is fixedly embedded in the first sliding through hole to prevent the first coolant in the Z-direction bearing seat 5 from leaking out through the first sliding through hole.

[0040] The Z-direction bearing plate 7 is in the shape of a circular plate, the diameter of the Z-direction bearing plate 7 is not greater than the inner diameter of the Z-direction bearing seat 5, the Z-direction bearing plate 7 is fixedly arranged at one end of the Z-direction bearing shaft 6, and the axis of the Z-direction bearing plate 7 coincides with the axis of the Z-direction bearing seat 5. At the same time, a second sliding sealing ring is fixedly sleeved on the outer side surface of the Z-direction bearing plate 7 to divide the two ends of the Z-direction bearing seat 5 into a first top sealing cavity and a first bottom sealing cavity, and both the first top sealing cavity and the first bottom sealing cavity are filled with a first coolant. When the Z-direction bearing plate 7 moves axially in the Z-direction bearing seat 5 along with the Z-direction bearing shaft 6, it can squeeze the first coolant in the first top sealing cavity and the first bottom sealing cavity to the generator set for liquid cooling, and return the first coolant absorbing the heat of the generator set to the Z-direction bearing seat 5. The first return spring 8 is sleeved on the Z-direction bearing shaft 6 and then one end is connected to the top surface of the Z-direction bearing plate 7, and the other end of the first return spring 8 is connected to the inner side surface of the top surface of the Z-direction bearing seat 5. One end of the second return spring 9 is connected to the bottom surface of the Z-direction bearing plate 7, and the other end of the second return spring 9 is connected to the inner side surface of the bottom surface of the Z-direction bearing seat 5. Through the axial buffering of the Z-direction bearing plate 7 by the first return spring 8 and the second return spring 9, further, support and buffering are provided for the mounting seat 2 through the Z-direction guide shaft 10 and the Z-direction hinge support member.

[0041] The diameter of the Z-direction guide shaft 10 is not greater than the inner diameter of the Z-direction bearing shaft 6. One end of the Z-direction guide shaft 10 is vertically and fixedly arranged on the bottom surface of the Z-direction bearing seat 5. The other end of the Z-direction guide shaft 10 passes through the Z-direction bearing plate 7 and then is slidably embedded in the tube at one end of the Z-direction bearing shaft 6, and the axis of the Z-direction guide shaft 10 coincides with the axis of the Z-direction bearing shaft 6. To improve the radial stability of the Z-direction bearing shaft 6 in the Z-direction bearing seat 5.

[0042] There are four sets of the Z-direction shock absorbers, and the four sets of the Z-direction shock absorbers are symmetrically distributed near the four corners of the bottom surface of the mounting base 2 to support and shock-absorb the mounting base 2. And shock-absorb the torsional forces around the mounting base 2 in the transverse and longitudinal directions, that is, shock-absorb the torsional forces around the X-axis and Y-axis.

[0043] The Z-direction damping liquid cooler includes a Z-direction downward pressing damping liquid cooler and a Z-direction upward pressing damping liquid cooler, and both the Z-direction downward pressing damping liquid cooler and the Z-direction upward pressing damping liquid cooler are connected to the Z-direction shock absorber. The Z-direction downward pressing damping liquid cooler includes a first one-way valve 11, a first damping liquid cooling branch pipe 12, a first damping liquid cooling pipe, a first liquid cooling radiator 13, a second damping liquid cooling pipe 14, a second damping liquid cooling branch pipe 15 and a second one-way valve 16. One end of the first one-way valve 11 is connected to the Z-direction bearing seat 5, and the first one-way valve 11 communicates with the first bottom sealing cavity. There are four first one-way valves 11, and the four first one-way valves 11 correspond to the four Z-direction bearing seats 5 one by one. One end of the first damping liquid cooling branch pipe 12 is connected to the other end of the first one-way valve 11 in a communicating manner. The four first damping liquid cooling branch pipes 12 correspond to the four first one-way valves 11 one by one. It should be noted that the first one-way valve 11 facilitates the flow of the first coolant in the first bottom sealing cavity to the first damping liquid cooling branch pipe 12. One end of the first damping liquid cooling pipe is connected to the other ends of the four first damping liquid cooling branch pipes 12 in a communicating manner. The other end of the first damping liquid cooling pipe is connected to one end of a first heat absorption pipe on the generator 1 of the generator set, and the first heat absorption pipe is spirally distributed in the stator of the generator 1 to absorb heat and cool down the generator 1. The first liquid cooling radiator 13 is arranged on the bottom surface of the mounting base 2. One end of the first liquid cooling radiator 13 is connected to the other end of the first heat absorption pipe in a communicating manner. The other end of the first liquid cooling radiator 13 is connected to one end of the second damping liquid cooling pipe 14 in a communicating manner. One end of the second damping liquid cooling branch pipe 15 is connected to the other end of the second damping liquid cooling pipe 14 in a communicating manner. The other end of the second damping liquid cooling branch pipe 15 communicates with one end of the second one-way valve 16, and the other end of the second one-way valve 16 is connected to the Z-direction bearing seat 5 and communicates with the first top sealing cavity. The four second one-way valves 16 correspond to the four Z-direction bearing seats 5 one by one, and the four second damping liquid cooling branch pipes 15 correspond to the four second one-way valves 16 one by one. The second one-way valve 16 facilitates the flow of the first coolant in the second damping liquid cooling branch pipe 15 to the Z-direction bearing seat 5. Further, both the first damping liquid cooling branch pipe 12 and the second damping liquid cooling branch pipe 15 are high-pressure hoses.

[0044] The Z-axis upward pressing damping liquid cooler includes a third one-way valve 17, a third damping liquid cooling branch pipe 18, a third damping liquid cooling pipe, a second liquid cooler 19, a fourth damping liquid cooling pipe 20, a fourth damping liquid cooling branch pipe 21 and a fourth one-way valve 22. One end of the third one-way valve 17 is connected to the Z-axis bearing seat 5, and the third one-way valve 17 communicates with the first top sealing cavity. There are four third one-way valves 17, and the four third one-way valves 17 correspond to the four Z-axis bearing seats 5 one by one. One end of the third damping liquid cooling branch pipe 18 is connected to the other end of the third one-way valve 17 in a communicating manner. The four third damping liquid cooling branch pipes 18 correspond to the four third one-way valves 17 one by one. It should be noted that the third one-way valve 17 facilitates the flow of the first coolant in the first top sealing cavity to the third damping liquid cooling branch pipe 18. One end of the third damping liquid cooling pipe is connected to the other ends of the four third damping liquid cooling branch pipes 18 in a communicating manner. The other end of the third damping liquid cooling pipe is connected to one end of a second heat absorption pipe on the generator 1. The second heat absorption pipe is spirally distributed in the stator of the generator 1 to absorb heat from the generator 1 for cooling. The second liquid cooler 19 is arranged on the bottom surface of the mounting seat 2. One end of the second liquid cooler 19 is connected to the other end of the second heat absorption pipe in a communicating manner. The other end of the second liquid cooler 19 is connected to one end of the fourth damping liquid cooling pipe 20. One end of the fourth damping liquid cooling branch pipe 21 is connected to the other end of the fourth damping liquid cooling pipe 20 in a communicating manner. The other end of the fourth damping liquid cooling branch pipe 21 is connected to one end of the fourth one-way valve 22. The other end of the fourth one-way valve 22 is connected to the Z-axis bearing seat 5, and the fourth one-way valve 22 communicates with the first bottom sealing cavity. The four fourth one-way valves 22 correspond to the four Z-axis bearing seats 5 one by one, and the four fourth damping liquid cooling branch pipes 21 correspond to the four fourth one-way valves 22 one by one. The fourth one-way valve 22 facilitates the flow of the first coolant in the fourth damping liquid cooling branch pipe 21 to the Z-axis bearing seat 5. Further, both the third damping liquid cooling branch pipe 18 and the fourth damping liquid cooling branch pipe 21 are high-pressure hoses.

[0045] It should be noted that since the inner diameter of the Z-axis bearing seat 5 is much larger than the inner diameters of the first damping liquid cooling branch pipe 12, the second damping liquid cooling branch pipe 15, the third damping liquid cooling branch pipe 18 and the fourth damping liquid cooling branch pipe 21, the Z-axis bearing plate 7 can axially move slightly in the Z-axis bearing seat 5 to squeeze the first coolant into the first damping liquid cooling branch pipe 12 or the third damping liquid cooling branch pipe 18. During the process of squeezing the first coolant into the first damping liquid cooling branch pipe 12 and the third damping liquid cooling branch pipe 18, a damping effect is achieved, significantly improving the damping efficiency.

[0046] The X-direction shock-absorbing and cooling member includes a circumferential support frame 23 and an X-direction shock-absorbing and damping support member. The circumferential support frame 23 is fixedly arranged on the installation groove, and the X-direction shock-absorbing and damping support member is arranged on the mounting seat 2 and the installation groove. The circumferential support frame 23 is in a rectangular frame shape and is fixedly embedded on the inner wall of the installation groove.

[0047] The X-direction shock-absorbing and damping support member includes an X-direction transmission shock-absorbing member and an X-direction damping liquid-cooling member. The X-direction transmission shock-absorbing member is arranged on the mounting seat 2 and the circumferential support frame 23, and the X-direction damping liquid-cooling member is arranged on the X-direction transmission shock-absorbing member. The X-direction transmission shock-absorbing member includes a shock-absorbing transmission member and an X-direction shock-absorbing member. The shock-absorbing transmission member is arranged on the mounting seat 2 and the circumferential support frame 23, and the X-direction shock-absorbing member is arranged on the mounting seat 2. The shock-absorbing transmission member includes a shock-absorbing support transmission member and an X-direction liquid-cooling amplification member. The shock-absorbing support transmission member is arranged on the mounting seat 2, and the X-direction liquid-cooling amplification member is arranged on the circumferential support frame 23. The shock-absorbing support transmission member includes a shock-absorbing support plate 24 and a shock-absorbing transmission plate 25. One end of the shock-absorbing support plate 24 is horizontally and fixedly arranged on one end of the side surface of the mounting seat 2. One end of the shock-absorbing transmission plate 25 is provided with a second hinge groove 26, and a second rotating shaft is arranged in the notch of the second hinge groove 26. The second rotating shaft is fixedly embedded through a second sliding through hole at the other end of the shock-absorbing support plate 24. Further, the second sliding through hole is in a long strip hole shape, the length of the second sliding through hole is greater than the diameter of the second rotating shaft, and the longitudinal direction of the second sliding through hole is parallel to the longitudinal direction of the mounting seat 2.

[0048] The X-direction liquid-cooling amplification member includes an amplification transmission member and an amplification ratio adjustment member. The amplification transmission member is arranged on the shock-absorbing transmission member, and the amplification ratio adjustment member is arranged on the circumferential support frame 23. The amplification transmission member includes a third hinge groove 28, a fourth hinge groove 29, a second joint bearing 30, and an amplification transmission shaft 31. A third rotating shaft is fixedly arranged in the notch of the third hinge groove 28. The third rotating shaft is slidably embedded in a sliding long strip through hole 32 at one end of the shock-absorbing transmission plate 25. The length of the sliding long strip through hole 32 is less than half of the length of the shock-absorbing transmission plate 25, and the longitudinal direction of the sliding long strip through hole 32 is parallel to the longitudinal direction of the mounting seat 2. Further, the length of the third rotating shaft is greater than the thickness of the shock-absorbing transmission plate 25 to meet the requirement that the third rotating shaft rotates at a certain angle along the axial direction in the sliding long strip through hole 32. The fourth hinge groove 29 is fixedly arranged on the third hinge groove 28. The second joint bearing 30 is slidably embedded on a fourth rotating shaft in the notch of the fourth hinge groove 29. One end of the amplification transmission shaft 31 is fixedly connected to the second joint bearing 30.

[0049] The magnification ratio adjusting member includes an adjusting slider 33, a screw rod 34, and a motor 35. The adjusting slider 33 is in a T-shaped block form. The adjusting slider 33 is slidably fitted in a T-shaped hole on the circumferential support frame 23, and the top end of the adjusting slider 33 is fixedly connected to the other end of the magnification transmission shaft 31. One end of the screw rod 34 is rotatably arranged on the end face of the T-shaped hole after passing through a threaded hole on the adjusting slider 33 in a matching manner. The motor 35 is fixedly arranged on the circumferential support frame 23, and the rotating shaft of the motor 35 is drivingly connected to the other end of the screw rod 34. The motor 35 drives the screw rod 34 to rotate, and the rotating screw rod 34 drives the adjusting slider 33 to slide longitudinally in the T-shaped hole, so as to adjust the lengths of the two side force arms, and further adjust the extrusion drainage volume of the X-direction damping liquid cooling member.

[0050] The X-direction shock absorber includes an X-direction bearing seat 37, an X-direction bearing plate 38, a third return spring 39, a fourth return spring 40, a sealing plate 41, a transmission block 42, and a fifth hinge groove 43. The X-direction bearing seat 37 is in a tubular form. The bottom surface of the X-direction bearing seat 37 is fixedly arranged on the side surface of the mounting seat 2. The X-direction bearing plate 38 is in a circular plate form. The diameter of the X-direction bearing plate 38 is not greater than the inner diameter of the X-direction bearing seat 37. The X-direction bearing plate 38 is slidably fitted in the X-direction bearing seat 37, and the axis of the X-direction bearing plate 38 coincides with the axis of the X-direction bearing seat 37. At the same time, a third sliding sealing ring is fixedly sleeved on the outer side surface of the X-direction bearing plate 38 to divide both ends of the X-direction bearing seat 37 into a second top sealing cavity and a second bottom sealing cavity. Both the second top sealing cavity and the second bottom sealing cavity are filled with a second coolant. One end of the third return spring 39 is connected to the top surface of the X-direction bearing plate 38, and the other end of the third return spring 39 is connected to the inner side surface of the top surface of the X-direction bearing seat 37. One end of the fourth return spring 40 is connected to the bottom surface of the X-direction bearing plate 38, and the other end of the fourth return spring 40 is connected to the inner side surface of the bottom surface of the X-direction bearing seat 37. Through the axial buffering of the X-direction bearing plate 38 by the third return spring 39 and the fourth return spring 40, support and shock absorption are provided for the mounting seat 2 in the X-axis direction.

[0051] The sealing plate 41 is in the shape of an arc plate. The radius of the outer arc surface of the sealing plate 41 is the same as the radius of the inner side surface of the X-direction bearing seat 37. The inner arc surface of the sealing plate 41 is fixedly arranged on the side surface of the X-direction bearing plate 38. And the outer side surface of the sealing plate 41 is in sliding and sealing fit with the inner side surface of the X-direction bearing seat 37. At the same time, the sealing plate 41 corresponds to the driving long strip through hole on the side wall of the X-direction bearing seat 37. To prevent the second coolant in the X-direction bearing seat 37 from leaking out of the driving long strip through hole during the axial sliding of the X-direction bearing plate 38 in the X-direction bearing seat 37. The driving block 42 is in the shape of a rectangular block. One end of the driving block 42 passes through the driving long strip through hole and is fixedly arranged on the outer side surface of the sealing plate 41. The fifth hinge groove 43 is fixedly arranged at the other end of the shock-absorbing driving plate 25. And the fifth rotating shaft in the notch of the fifth hinge groove 43 is slidably installed in the third sliding through hole at the other end of the driving block 42. Further, the third sliding through hole is in the shape of a long strip hole. The length of the third sliding through hole is greater than the diameter of the fifth rotating shaft. And the longitudinal direction of the third sliding through hole is parallel to the longitudinal direction of the mounting seat 2. Further, a sliding sealing strip is arranged between the sealing plate 41 and the inner side surface of the X-direction bearing seat 37.

[0052] Four sets of X-direction driving shock-absorbing members are provided. The four sets of X-direction driving shock-absorbing members are symmetrically distributed on both sides of the mounting seat 2. To further improve the support shock-absorbing efficiency of the generator set along the X-axis direction and the rotation direction along the Z-axis.

[0053] The X-direction damping liquid cooler includes an X-direction downward pressing damping liquid cooler and an X-direction upward pressing damping liquid cooler, and both the X-direction downward pressing damping liquid cooler and the X-direction upward pressing damping liquid cooler are connected to the X-direction shock absorber. The X-direction downward pressing damping liquid cooler includes a fifth one-way valve, a fifth damping liquid cooling branch pipe, a fifth damping liquid cooling pipe, a third liquid cooler, a sixth damping liquid cooling pipe, a sixth damping liquid cooling branch pipe and a sixth one-way valve. One end of the fifth one-way valve is connected to the X-direction bearing seat 37, and the fifth one-way valve communicates with the second bottom sealing cavity. There are four fifth one-way valves, and the four fifth one-way valves correspond to the four X-direction bearing seats 37 one by one. One end of the fifth damping liquid cooling branch pipe is connected to the other end of the fifth one-way valve in a through manner. The four fifth damping liquid cooling branch pipes correspond to the four fifth one-way valves one by one. It should be noted that the fifth one-way valve facilitates the flow of the second coolant in the second bottom sealing cavity to the fifth damping liquid cooling branch pipe. One end of the fifth damping liquid cooling pipe is connected to the other ends of the four fifth damping liquid cooling branch pipes in a through manner. The other end of the fifth damping liquid cooling pipe is connected to one end of a third heat absorption pipe on the generator 1, and the third heat absorption pipe is spirally distributed in the stator of the generator 1 to absorb heat and cool down the generator 1. The third liquid cooler is arranged on the bottom surface of the mounting seat 2. One end of the third liquid cooler is connected to the other end of the third heat absorption pipe in a through manner. The other end of the third liquid cooler is connected to one end of the sixth damping liquid cooling pipe in a through manner. One end of the sixth damping liquid cooling branch pipe is connected to the other end of the sixth damping liquid cooling pipe in a through manner. The other end of the sixth damping liquid cooling branch pipe is connected to one end of the sixth one-way valve in a through manner. The other end of the sixth one-way valve is connected to the X-direction bearing seat 37, and the sixth one-way valve communicates with the second top sealing cavity. The four sixth one-way valves correspond to the four X-direction bearing seats 37 one by one, and the four sixth damping liquid cooling branch pipes correspond to the four sixth one-way valves one by one. The sixth one-way valve facilitates the flow of the second coolant in the sixth damping liquid cooling branch pipe to the Z-direction bearing seat 5. Further, both the fifth damping liquid cooling branch pipe and the sixth damping liquid cooling branch pipe are high-pressure hoses.

[0054] The X - upward pressure damping liquid - cooling component includes a seventh one - way valve, a seventh damping liquid - cooling branch pipe, a seventh damping liquid - cooling pipe, a fourth liquid - cooling radiator, an eighth damping liquid - cooling pipe, an eighth damping liquid - cooling branch pipe, and an eighth one - way valve. One end of the seventh one - way valve is connected to the X - direction bearing seat 37, and the seventh one - way valve communicates with the second top - end sealing cavity. There are four seventh one - way valves, and the four seventh one - way valves correspond to the four X - direction bearing seats 37 one by one. One end of the seventh damping liquid - cooling branch pipe is connected in communication with the other end of the seventh one - way valve. The four seventh damping liquid - cooling branch pipes correspond to the four seventh one - way valves one by one. It should be noted that the seventh one - way valve facilitates the flow of the second coolant in the second top - end sealing cavity to the seventh damping liquid - cooling branch pipe. One end of the seventh damping liquid - cooling pipe is connected in communication with the other ends of the four seventh damping liquid - cooling branch pipes. The other end of the seventh damping liquid - cooling pipe is connected in communication with one end of the fourth heat - absorbing pipe on the generator 1. The fourth heat - absorbing pipe is distributed in a spiral - tube shape inside the stator of the generator 1 to absorb heat and cool down the generator 1. The fourth liquid - cooling radiator is arranged on the bottom surface of the mounting seat 2. One end of the fourth liquid - cooling radiator is connected in communication with the other end of the fourth heat - absorbing pipe. The other end of the fourth liquid - cooling radiator is connected in communication with one end of the eighth damping liquid - cooling pipe. One end of the eighth damping liquid - cooling branch pipe is connected in communication with the other end of the eighth damping liquid - cooling pipe. The other end of the eighth damping liquid - cooling branch pipe is connected in communication with one end of the eighth one - way valve. The other end of the eighth one - way valve is connected to the X - direction bearing seat 37, and the eighth one - way valve communicates with the second bottom - end sealing cavity. The four eighth one - way valves correspond to the four X - direction bearing seats 37 one by one, and the four eighth damping liquid - cooling branch pipes correspond to the four eighth one - way valves one by one. The eighth one - way valve facilitates the flow of the second coolant in the eighth damping liquid - cooling branch pipe to the X - direction bearing seat 37. Further, both the seventh damping liquid - cooling branch pipe and the eighth damping liquid - cooling branch pipe are high - pressure hoses.

[0055] The Y - direction shock - absorbing and cooling component includes a Y - direction shock - absorbing component and a Y - direction damping liquid - cooling component. The Y - direction shock - absorbing component is arranged on the generator set, and the Y - direction damping liquid - cooling component is arranged on the Y - direction shock - absorbing component. The Y - direction shock - absorbing component includes a Y - direction hinged support component and a Y - direction shock - absorbing bearing component. The Y - direction hinged support component is connected to the generator set, and the Y - direction shock - absorbing bearing component is connected to the Y - direction hinged support component.

[0056] The Y - direction hinged support component includes a third spherical plain bearing 44, a sixth rotating shaft, and a sixth hinge groove 46. The third spherical plain bearing 44 is fixedly connected to the bottom surface of the mounting seat 2. The sixth rotating shaft is installed in the third spherical plain bearing 44, and both ends of the sixth rotating shaft are respectively installed in the second transmission through - holes on both side walls of the notch of the sixth hinge groove 46.

[0057] The Y-direction shock-absorbing bearing member includes a Y-direction bearing seat 47, a Y-direction bearing shaft 48, a Y-direction bearing plate 49, a fifth return spring 50, a sixth return spring 51, and a Y-direction guide shaft 52. The Y-direction bearing seat 47 is tubular, and the bottom surface of the Y-direction bearing seat 47 is fixedly arranged on one end of the circumferential support frame 23. The Y-direction bearing shaft 48 is tubular, and one end of the Y-direction bearing shaft 48 slidably penetrates through a fourth sliding through hole on the top surface of the Y-direction bearing seat 47, so that the Y-direction bearing shaft 48 can reciprocate axially on the Y-direction bearing seat 47. And the axis of the Y-direction bearing shaft 48 coincides with the axis of the Y-direction bearing seat 47. Further, a fourth sliding sealing ring is fixedly embedded in the fourth sliding through hole to prevent the third coolant in the Y-direction bearing seat 47 from leaking out through the fourth sliding through hole.

[0058] The Y-direction bearing plate 49 is in the shape of a circular plate, the diameter of the Y-direction bearing plate 49 is not greater than the inner diameter of the Y-direction bearing seat 47, the Y-direction bearing plate 49 is fixedly arranged on one end of the Y-direction bearing shaft 48, and the axis of the Y-direction bearing plate 49 coincides with the axis of the Y-direction bearing seat 47. At the same time, a fifth sliding sealing ring is fixedly sleeved on the outer side surface of the Y-direction bearing plate 49 to divide both ends of the Y-direction bearing seat 47 into a third top sealing cavity and a third bottom sealing cavity. Both the third top sealing cavity and the third bottom sealing cavity are filled with a third coolant. When the Y-direction bearing plate 49 moves axially in the Y-direction bearing seat 47 along with the Y-direction bearing shaft 48, it can squeeze the third coolant in the third top sealing cavity and the third bottom sealing cavity to the generator set for liquid cooling, and return the third coolant absorbing the heat of the generator set to the Y-direction bearing seat 47. The fifth return spring 50 is sleeved on the Y-direction bearing shaft 48 and then one end is connected to the top surface of the Y-direction bearing plate 49, and the other end of the fifth return spring 50 is connected to the inner side surface of the top surface of the Y-direction bearing seat 47. One end of the sixth return spring 51 is connected to the bottom surface of the Y-direction bearing plate 49, and the other end of the sixth return spring 51 is connected to the inner side surface of the bottom surface of the Y-direction bearing seat 47. Through the axial buffering of the fifth return spring 50 and the sixth return spring 51 on the Y-direction bearing plate 49, and then through the Y-direction guide shaft 52 and the Z-direction hinge support member, support and buffering are provided for the mounting seat 2.

[0059] The diameter of the Y-direction guide shaft 52 is not greater than the inner diameter of the Y-direction bearing shaft 48. One end of the Y-direction guide shaft 52 is vertically and fixedly arranged on the bottom surface of the Y-direction bearing seat 47. The other end of the Y-direction guide shaft 52 passes through the Y-direction bearing plate 49 and then is slidably embedded in the tube at one end of the Y-direction bearing shaft 48, and the axis of the Y-direction guide shaft 52 coincides with the axis of the Y-direction bearing shaft 48. To improve the radial stability of the Y-direction bearing shaft 48 in the Y-direction bearing seat 47.

[0060] There are four sets of the Y-direction shock absorbers, and the four sets of the Y-direction shock absorbers are symmetrically distributed at both ends of the mounting seat 2 to support and shock-absorb the mounting seat 2 along the Y-axis direction. And shock-absorb the torsional force around the vertical direction of the mounting seat 2, that is, shock-absorb the torsional force around the Z-axis direction.

[0061] The Y-direction damping liquid cooler includes a Y-direction downward pressing damping liquid cooler and a Y-direction upward pressing damping liquid cooler, and both the Y-direction downward pressing damping liquid cooler and the Y-direction upward pressing damping liquid cooler are connected to the Y-direction shock absorber. The Y-direction downward pressing damping liquid cooler includes a ninth one-way valve, a ninth damping liquid cooling branch pipe, a ninth damping liquid cooling pipe, a fifth liquid cooling radiator, a tenth damping liquid cooling pipe, a tenth damping liquid cooling branch pipe and a tenth one-way valve. One end of the ninth one-way valve is connected to the Y-direction bearing seat 47, and the ninth one-way valve communicates with the third bottom sealing cavity. There are four ninth one-way valves, and the four ninth one-way valves correspond to the four Y-direction bearing seats 47 one by one. One end of the ninth damping liquid cooling branch pipe is connected to the other end of the ninth one-way valve in a through manner. The four ninth damping liquid cooling branch pipes correspond to the four ninth one-way valves one by one. It should be noted that the ninth one-way valve facilitates the flow of the third cooling liquid in the third bottom sealing cavity to the ninth damping liquid cooling branch pipe. One end of the ninth damping liquid cooling pipe is connected to the other ends of the four ninth damping liquid cooling branch pipes in a through manner. The other end of the ninth damping liquid cooling pipe is connected to one end of the fifth heat absorption pipe on the generator 1, and the fifth heat absorption pipe is distributed in a spiral tube shape in the stator of the generator 1 to absorb heat and cool down the generator 1. The fifth liquid cooling radiator is arranged on the bottom surface of the mounting seat 2, one end of the fifth liquid cooling radiator is connected to the other end of the fifth heat absorption pipe in a through manner, the other end of the fifth liquid cooling radiator is connected to one end of the tenth damping liquid cooling pipe in a through manner, one end of the tenth damping liquid cooling branch pipe is connected to the other end of the tenth damping liquid cooling pipe in a through manner, the other end of the tenth damping liquid cooling branch pipe is connected to one end of the tenth one-way valve in a through manner, the other end of the tenth one-way valve is connected to the Y-direction bearing seat 47, and the tenth one-way valve communicates with the third top sealing cavity. The four tenth one-way valves correspond to the four Y-direction bearing seats 47 one by one, and the four tenth damping liquid cooling branch pipes correspond to the four tenth one-way valves one by one. The tenth one-way valve facilitates the flow of the third cooling liquid in the tenth damping liquid cooling branch pipe to the Y-direction bearing seat 47. Further, both the ninth damping liquid cooling branch pipe and the tenth damping liquid cooling branch pipe are high-pressure hoses.

[0062] The Y upward pressure damping liquid cooler includes an eleventh one-way valve, an eleventh damping liquid cooling branch pipe, an eleventh damping liquid cooling pipe, a sixth liquid cooling radiator, a twelfth damping liquid cooling pipe, a twelfth damping liquid cooling branch pipe and a twelfth one-way valve. One end of the eleventh one-way valve is connected to the Y-direction bearing seat 47, and the eleventh one-way valve communicates with the third top sealing cavity. Four eleventh one-way valves are provided, and the four eleventh one-way valves correspond to the four Y-direction bearing seats 47 one by one. One end of the eleventh damping liquid cooling branch pipe is connected to the other end of the eleventh one-way valve in a through manner. The four eleventh damping liquid cooling branch pipes correspond to the four eleventh one-way valves one by one. It should be noted that the eleventh one-way valve facilitates the flow of the third coolant in the third top sealing cavity to the eleventh damping liquid cooling branch pipe. One end of the eleventh damping liquid cooling pipe is connected to the other ends of the four eleventh damping liquid cooling branch pipes in a through manner. The other end of the eleventh damping liquid cooling pipe is connected to one end of a sixth heat absorption pipe on the generator 1. The sixth heat absorption pipe is spirally distributed in the stator of the generator 1 to absorb heat and cool down the generator 1. The sixth liquid cooling radiator is arranged on the bottom surface of the mounting seat 2. One end of the sixth liquid cooling radiator is connected to the other end of the sixth heat absorption pipe in a through manner. The other end of the sixth liquid cooling radiator is connected to one end of the twelfth damping liquid cooling pipe in a through manner. One end of the twelfth damping liquid cooling branch pipe is connected to the other end of the twelfth damping liquid cooling pipe in a through manner. The other end of the twelfth damping liquid cooling branch pipe is connected to one end of the twelfth one-way valve in a through manner. The other end of the twelfth one-way valve is connected to the Y-direction bearing seat 47, and the twelfth one-way valve communicates with the third bottom sealing cavity. The four twelfth one-way valves correspond to the four Y-direction bearing seats 47 one by one, and the four twelfth damping liquid cooling branch pipes correspond to the four twelfth one-way valves one by one. The twelfth one-way valve facilitates the flow of the third coolant in the twelfth damping liquid cooling branch pipe to the Y-direction bearing seat 47. Further, both the eleventh damping liquid cooling branch pipe and the twelfth damping liquid cooling branch pipe are high-pressure hoses.

[0063] It should be noted that since the inner diameter of the Y-direction bearing seat 47 is much larger than the inner diameters of the ninth damping liquid cooling branch pipe, the tenth damping liquid cooling branch pipe, the eleventh damping liquid cooling branch pipe and the twelfth damping liquid cooling branch pipe, the Y-direction bearing plate 49 can squeeze the third coolant into the ninth damping liquid cooling branch pipe and the eleventh damping liquid cooling branch pipe by moving axially a small amount in the Y-direction bearing seat 47. During the process of squeezing the third coolant into the ninth damping liquid cooling branch pipe and the eleventh damping liquid cooling branch pipe, a damping effect is achieved, significantly improving the damping efficiency.

[0064] Although the embodiments of the present invention have been disclosed as above, they are not limited to the applications listed in the specification and embodiments. It can be fully applied to various fields suitable for the present invention. For those skilled in the art, additional modifications can be easily made. Therefore, without departing from the general concept defined by the claims and the scope of equivalents, the present invention is not limited to the specific details and the illustrated examples described herein.

Claims

1. A high-efficiency generator set with stable operation, characterized in that: include: A Z-direction damping cooling member, which is arranged on the generator set, and includes a Z-direction damping member and a Z-direction damping liquid cooling member, the Z-direction damping member is arranged on the generator set, and the Z-direction damping liquid cooling member cooperates with the Z-direction damping member on the Z-direction damping member to damp the generator set and perform liquid cooling and heat dissipation on the generator set; An X-direction damping cooling member is arranged on the generator set, the X-direction damping cooling member comprises a circumferential support frame, an X-direction transmission damping member and an X-direction damping liquid cooling member, the circumferential support frame is arranged at a predetermined installation position of the generator set, the X-direction transmission damping member is arranged on the circumferential support frame and the generator set at the same time, the X-direction damping liquid cooling member cooperates with the X-direction transmission damping member on the X-direction transmission damping member to damp the generator set while performing liquid cooling and heat dissipation on the generator set; A Y-direction damping cooling member, which is arranged on the generator set, and the Y-direction damping cooling member includes a Y-direction damping member and a Y-direction damping liquid cooling member, the Y-direction damping member is arranged on the generator set, and the Y-direction damping liquid cooling member cooperates with the Y-direction damping member on the Y-direction damping member to damp the generator set while performing liquid cooling and heat dissipation on the generator set; The Z-direction shock absorber includes a Z-direction hinged support and a Z-direction shock absorber bearing member, the Z-direction hinged support member is connected to the mounting seat of the generator set, and the Z-direction shock absorber bearing member is connected to the Z-direction hinged support member to shock the generator set; the X-direction transmission shock absorber includes a shock absorbing transmission member and an X-direction shock absorber, the shock absorbing transmission member is arranged on the mounting seat and the circumferential support frame, and the X-direction shock absorber shocks the generator set on the mounting seat through the shock absorbing transmission member; the shock absorbing transmission member includes a shock absorbing support transmission member and an X-direction liquid-cooling amplifying member, the shock absorbing support transmission member is connected to the X-direction shock absorber on the mounting seat, and the shock absorbing support transmission member transmits vibration to the X-direction shock absorber through the X-direction liquid-cooling amplifying member arranged on the circumferential support frame; the X-direction liquid-cooling amplifying member includes an amplifying transmission member and an amplifying ratio adjusting member.

2. The stable and energy-efficient generator set according to claim 1, characterized in that: A plurality of sets of Z-direction shock absorbing members are symmetrically distributed on the bottom surface of the mounting base near the four corners to support and absorb shock to the generator set.

3. The stable and energy-efficient generator set according to claim 1, characterized in that: The Z-direction damping liquid cooling component includes a Z-downward pressure damping liquid cooling component and a Z-upward pressure damping liquid cooling component, and both the Z-downward pressure damping liquid cooling component and the Z-upward pressure damping liquid cooling component are connected to the Z-direction shock absorbing component, and the first coolant in the Z-direction shock absorbing component is squeezed and pushed into the stator of the generator set by absorbing the vibration force of the generator set, and the stator is absorbed and then flows back into the Z-direction shock absorbing component.

4. The stable and energy-efficient generator set according to claim 1, characterized in that: The amplifying transmission member is connected to the shock absorbing support transmission member, the amplifying ratio adjusting member is connected to the amplifying transmission member on the circumferential support frame, and the amplifying ratio adjusting member adjusts the vibration amplitude transmitted by the shock absorbing support transmission member to the X-direction shock absorbing member; multiple sets of the X-direction transmission shock absorbing members are symmetrically distributed on both sides of the mounting seat.

5. The stable and energy-efficient generator set according to claim 3 is characterized in that: The X-direction damping liquid cooling component includes an X-direction downward pressure damping liquid cooling component and an X-direction upward pressure damping liquid cooling component, and both the X-direction downward pressure damping liquid cooling component and the X-direction upward pressure damping liquid cooling component are connected to the X-direction shock absorbing component, and the second coolant in the X-direction shock absorbing component is squeezed and pushed into the stator by absorbing the vibration force of the generator set, and the stator is absorbed and then flows back into the X-direction shock absorbing component.

6. The stable and energy-efficient generator set according to claim 1, characterized in that: The Y-direction shock absorbing member comprises a Y-direction hinged support member and a Y-direction shock absorbing bearing member, wherein the Y-direction hinged support member is connected to the mounting seat, and the Y-direction shock absorbing bearing member is connected to the Y-direction hinged support member to absorb shock to the generator set.

7. The stable and energy-efficient generator set according to claim 3 is characterized in that: The Y-direction damping liquid cooling component includes a Y-direction downward pressure damping liquid cooling component and a Y-direction upward pressure damping liquid cooling component, and the Y-direction downward pressure damping liquid cooling component and the Y-direction upward pressure damping liquid cooling component are both connected to the Y-direction shock absorbing component, and the third coolant in the Y-direction shock absorbing component is squeezed and pushed into the stator by absorbing the vibration force of the generator set, and then flows back into the Y-direction shock absorbing component after absorbing heat from the stator.

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