A shock-absorbing and noise-reducing gas compressor

Abstract

This invention discloses a vibration-damping and noise-reducing gas compressor, relating to the field of gas compressors, including a scroll compressor. The scroll compressor has a base and an exhaust pipe installed at its top and bottom, respectively. An intake pipe is installed on one side of the scroll compressor. A support ring seat mounted on top of the base is fitted around the bottom of the scroll compressor. Several composite support rods are arranged circumferentially around the support ring seat, and elastic frames are slidably installed within each composite support rod. When used in combination with the scroll compressor, the multi-functional buffer device formed by the support ring seat, internally threaded sleeve, multiple composite support rods, and their respective elastic frames, damping cylinders, and positioning components, the vibration energy generated during the operation of the scroll compressor is buffered and dissipated step-by-step through various methods such as damping and friction energy dissipation, fully ensuring the stability and low-noise operation of the scroll compressor.

Description

Technical Field

[0001] This invention relates to the field of gas compressors, and in particular to a shock-absorbing and noise-reducing gas compressor. Background Technology

[0002] A scroll compressor is a positive displacement compressor. The compression component consists of a moving scroll and a stationary scroll. Compared with traditional compressors, it does not have a reciprocating motion mechanism, so it has a simple structure, small size, light weight, fewer parts, and high reliability. In addition, it has small torque variation, high balance, low vibration, and smooth operation, making it easy to operate and automate. It also has low noise, so it is often used in household appliances such as air conditioners, refrigerators, or range hoods.

[0003] In recent years, with the further use of scroll compressors, applicants have found that as the usage time increases, the overall vibration and noise of the compressors tend to increase after the various components have undergone certain wear and tear. Therefore, scroll compressors also need related buffering and noise reduction protection. However, although some buffering device technical solutions have been disclosed in the prior art, such as patent documents with application numbers CN201920622127.5 and CN201721193250.7, the buffering devices used have the disadvantage of large footprint and encroachment on the installation space of the scroll compressor, making it difficult to meet the actual production and use needs. Secondly, in terms of electronic system control, the prior art discloses balancing systems and pneumatic bearing systems, etc., to balance and reduce noise from inside the scroll compressor, but the cost of use is high and the failure rate is high. Summary of the Invention

[0004] This application proposes a vibration-damping and noise-reducing gas compressor to solve the technical problems mentioned in the background.

[0005] To achieve the above objectives, this application adopts the following technical solution: a vibration-damping and noise-reducing gas compressor, comprising a scroll compressor, wherein a base and an exhaust pipe are respectively installed at the top and bottom of the scroll compressor, and an intake pipe is installed on one side of the scroll compressor. A support ring seat installed on the top of the base is fitted around the bottom of the scroll compressor, and a plurality of composite support rods are arranged and installed along the circumference of the support ring seat. An elastic frame is slidably installed inside the composite support rod, and a damping cylinder that rolls and rubs against the surface of the scroll compressor is fitted inside the elastic frame. The top of each of the composite support rods is fitted with a positioning component that makes limiting contact with the top surface of the scroll compressor, and the top end surface of each of the composite support rods is provided with an external thread and is threadedly connected to an internal threaded sleeve. During the threaded locking process with the composite support rod, the internal threaded sleeve can gradually reduce the distance between the elastic frame and the scroll compressor, so that the damping cylinder and the scroll compressor can dissipate energy through friction.

[0006] When used in conjunction with a scroll compressor, a multi-functional buffer device consisting of a support ring seat, an internal threaded sleeve, multiple composite support rods, and corresponding elastic frames, damping cylinders, and positioning components, is used to progressively buffer and dissipate the vibration energy generated during the operation of the scroll compressor through various methods such as damping and friction energy dissipation. This ensures the stability and low-noise operation of the scroll compressor. The multi-functional buffer device is compact, multifunctional, and reacts progressively, thus providing sufficient direct buffering and noise reduction for the scroll compressor without occupying too much installation space. It is flexible and convenient to use.

[0007] Preferably, the support ring seat has several mounting slots arranged sequentially along the circumference of its top structure, and the mounting slots are fitted with the bottom structure of the corresponding composite support rod through bearings.

[0008] Preferably, the top of the base has several screw holes arranged circumferentially along the structure of the scroll compressor, and the two sides of the bottom of the support ring seat are fixed with assembly sleeves, which can be installed and fixed to the corresponding screw holes by screws.

[0009] Preferably, the composite support rod has a first clearance groove inside, and the elastic frame includes a curved spring plate. Several first T-shaped rods are arranged from top to bottom on the side surface of the curved spring plate away from the scroll compressor. One end of each of the several first T-shaped rods extends into the interior of the first clearance groove for movable engagement.

[0010] The first T-shaped rod is configured as a V-shaped structure, and damping cylinders that roll and rub against the surface of the scroll compressor are fitted on both sides of the first T-shaped rod.

[0011] Preferably, the top surface of the internal threaded sleeve is provided with a plurality of arc-shaped bosses along its circumferential direction, and the edges of the arc-shaped bosses are rounded.

[0012] Preferably, the bottom of the composite support rod is fitted with an auxiliary air hole that communicates with the internal space of the first clearance groove. A partition plate that divides its own space into two flow channel spaces is fixedly nested in the middle of the auxiliary air hole. A baffle is snapped into the inside of the first clearance groove. A third spring is fitted on the outside of the first T-shaped rod. The two ends of the third spring are respectively fixed to the surface of the baffle and the inner wall of the first clearance groove. One end of the first T-shaped rod is fixed to the surface of the baffle and can be synchronously displaced.

[0013] Preferably, a second clearance groove is provided in the top end of the composite support rod. The positioning component includes a second T-shaped rod, a pressure sensor, and a first spring. One end of the second T-shaped rod is respectively engaged with the pressure sensor inside the second clearance groove and fixedly sleeved inside the second clearance groove. The two ends of the first spring are respectively fixedly connected to the inner wall of the second clearance groove and the surface of one end of the second T-shaped rod. The other end of the second T-shaped rod extends to the outer top of the composite support rod.

[0014] Preferably, the other end of the second T-shaped rod is configured as a hemispherical structure, and the surface of the top of the scroll compressor is provided with a guide hole that fits with the other end of the second T-shaped rod.

[0015] Preferably, a sound insulation component is provided between the inner side of the internally threaded sleeve and the exhaust pipe. The sound insulation component includes a sound-absorbing ring and a transition ring plate. The sound-absorbing ring and the transition ring plate are fitted inside the internally threaded sleeve, and the inner middle part of the sound-absorbing ring and the inner middle part of the transition ring plate are both fitted outside the exhaust pipe.

[0016] Preferably, the top structure of the internal threaded sleeve has a positioning hole, and a third T-shaped rod fixed to the top of the transition ring plate is fitted inside the positioning hole. A second spring is fitted on one end of the third T-shaped rod between the third T-shaped rod and the top of the internal threaded sleeve.

[0017] Preferably, the scroll compressor is equipped with a gyroscope component and an active balancer, and the gyroscope component is wirelessly connected to a dynamic balance control module. The dynamic balance control module can receive real-time data from the gyroscope component monitoring the rotor inside the scroll compressor and actively adjust the rotational attitude of the rotor inside the scroll compressor through the active balancer.

[0018] Preferably, a gas bearing assembly is provided between the compressor rotor and the housing, and the gas bearing assembly includes a gas film pressure module and an adaptive damping structure.

[0019] In summary, the present invention has the following beneficial effects:

[0020] 1. When the multi-functional buffer device, which is formed by the set support ring seat, internal threaded sleeve, multiple composite support rods and the corresponding elastic frame, damping cylinder and positioning component of each composite support rod, is used in combination with the scroll compressor, the vibration energy generated during the operation of the scroll compressor will be buffered and dissipated in stages through various methods such as damping buffer and friction energy dissipation, so as to fully ensure the stability of the scroll compressor during operation and the corresponding low noise operation.

[0021] 2. The multi-functional buffer device is designed with a small overall size, multiple functions, and step-by-step response. This allows for sufficient direct buffering and noise reduction of the scroll compressor without taking up too much installation space. It is flexible and convenient to use.

[0022] 3. The multi-functional buffer device is equipped with a second T-shaped rod inside multiple positioning components. The second T-shaped rod synchronously transmits the vibration generated by the scroll compressor to the first spring and causes the continuous pressure sensor to output pressure data. When the pressure data of a certain pressure sensor changes abruptly, it indicates that the installation status of the scroll compressor or the multi-functional buffer device is abnormal, and timely repair is required to reduce losses caused by device failure.

[0023] 4. By using the sound insulation components as a further noise reduction measure, and combining them with the aforementioned multi-functional buffer device, the noise of the exhaust gas will be absorbed and reduced, further improving the noise reduction effect on the scroll compressor. Attached Figure Description

[0024] Figure 1 This is a three-dimensional schematic diagram of the present invention;

[0025] Figure 2 This is a rear view schematic diagram of the present invention;

[0026] Figure 3 This is a top view of the present invention;

[0027] Figure 4 This is the present invention. Figure 1 Enlarged view of point A in the middle;

[0028] Figure 5 This is a three-dimensional schematic diagram of the composite support rod of the present invention;

[0029] Figure 6 This is a cross-sectional schematic diagram of the composite support rod of the present invention;

[0030] Figure 7 This is the present invention. Figure 6 Enlarged view of point B in the middle;

[0031] Figure 8 This is an enlarged schematic diagram of the positioning component of the present invention;

[0032] Figure 9 This is a cross-sectional schematic diagram of the positioning component of the present invention;

[0033] Figure 10 This is a cross-sectional schematic diagram of the sound insulation component of the present invention.

[0034] Explanation of reference numerals in the attached figures:

[0035] 1. Scroll compressor; 2. Base; 3. Exhaust pipe; 4. Intake pipe; 5. Support ring seat; 6. Composite support rod; 7. Elastic frame; 71. Curved spring plate; 72. First T-shaped rod; 8. Damping cylinder; 9. Positioning component; 91. Second T-shaped rod; 92. Pressure sensor; 93. First spring; 10. Internal threaded sleeve; 11. Sound insulation component; 111. Sound-absorbing ring; 112. Transition ring plate; 113. Third T-shaped rod; 114. Second spring; 12. First clearance groove; 13. Third spring; 14. Baffle; 15. Auxiliary air hole; 16. Second clearance groove; 17. Divider plate. Detailed Implementation

[0036] like Figure 1-6 A vibration-damping and noise-reducing gas compressor includes a scroll compressor 1. The top and bottom of the scroll compressor 1 are respectively equipped with a base 2 and an exhaust pipe 3. An intake pipe 4 is installed on one side of the scroll compressor 1. The bottom of the scroll compressor 1 is fitted with a support ring seat 5 installed on the top of the base 2, and the support ring seat 5 is equipped with several composite support rods 6 arranged circumferentially along its own structure.

[0037] The support ring seat 5 has several mounting slots arranged sequentially along the circumference of its top structure. The mounting slots are fitted with the bottom structure of the corresponding composite support rod 6 through bearings. This allows the composite support rod 6 to flexibly flip and make room during disassembly and maintenance, providing convenience for subsequent replacement or maintenance personnel and improving the corresponding work efficiency. The top of the base 2 has several screw holes arranged along the circumference of the structure of the scroll compressor 1. Assembly plates are fixed on both sides of the bottom of the support ring seat 5. The assembly plates can be installed and fixed to the corresponding screw holes with screws. This allows the structure set on the support ring seat 5 to have modular replacement or disassembly conditions during subsequent maintenance, further optimizing the overall use effect of the device and the turnover efficiency of related structures.

[0038] An elastic frame 7 is slidably installed inside the composite support rod 6, and a damping cylinder 8 that rolls and rubs against the surface of the scroll compressor 1 is fitted inside the elastic frame 7. The top of several composite support rods 6 is fitted with a positioning component 9 that makes a limiting contact with the top surface of the scroll compressor 1. The top end surface of several composite support rods 6 is provided with external threads and is connected to an internal thread sleeve 10 by a common thread. During the threaded locking process with the composite support rod 6, the internal thread sleeve 10 can gradually reduce the distance between the elastic frame 7 and the scroll compressor 1, so that the damping cylinder 8 and the scroll compressor 1 can dissipate energy through friction.

[0039] The composite support rod 6 has a first clearance groove 12 inside. The elastic frame 7 includes a curved spring plate 71. Several first T-shaped rods 72 are arranged from top to bottom on the side surface of the curved spring plate 71 away from the scroll compressor 1. One end of each of the first T-shaped rods 72 extends into the interior of the first clearance groove 12 for movable connection. The first T-shaped rods 72 are set as a V-shaped structure. Both sides of the first T-shaped rods 72 are fitted with damping cylinders 8 that roll and rub against the surface of the scroll compressor 1. This achieves the effect of multi-position synchronous damping buffer and friction energy dissipation for shock absorption and noise reduction. Several arc-shaped bosses are installed sequentially along the circumference of the internal threaded sleeve 10 on the top surface. This provides convenient force support for the subsequent screwing of the internal threaded sleeve 10, allowing for flexible screwing and adjustment of the internal threaded sleeve 10. The edges of the surfaces of the several arc-shaped bosses are set as rounded corners to ensure a comfortable gripping and screwing effect.

[0040] In use, after the support ring seat 5 and the scroll compressor 1 are fixed on the top of the base 2, the composite support rods 6 set on the support ring seat 5 are flipped in sequence. After the multiple composite support rods 6 change from a horizontal state to a vertical state and surround the outside of the scroll compressor 1, the internal thread sleeve 10 is synchronously threaded to the top structure of the multiple composite support rods 6. This ensures the stability of the multiple composite support rods 6 during use around the scroll compressor 1. At the same time, the elastic frame 7 set on the composite support rod 6 will passively reduce the distance between itself and the surface of the scroll compressor 1 by means of structural expansion deformation during the threaded connection between the internal thread sleeve 10 and the composite support rod 6, thereby making the two damping cylinders 8 that are movably mounted on itself in close contact with the scroll compressor 1.

[0041] Subsequently, when the scroll compressor 1 vibrates during continuous use, multiple damping cylinders 8, together with their corresponding elastic frames 7 and composite support rods 6, dampen and buffer the vibration energy generated by the scroll compressor 1, initially eliminating the vibration energy. In further operation, the multiple damping cylinders 8 can also perform synchronous rolling friction on the surface of the scroll compressor 1 under the support of their respective elastic frames 7, thereby eliminating the vibration energy generated by the scroll compressor 1 again through friction energy dissipation.

[0042] like Figures 6-7 The bottom of the composite support rod 6 is fitted with an auxiliary air hole 15 that communicates with the internal space of the first clearance groove 12. The middle of the auxiliary air hole 15 is fixedly nested with a partition plate 17 that divides its own space into two flow channel spaces. A baffle 14 is snapped into the inside of the first clearance groove 12. A third spring 13 is fitted on the outside of the first T-shaped rod 72. The two ends of the third spring 13 are respectively fixed to the surface of the baffle 14 and the inner wall of the first clearance groove 12. One end of the first T-shaped rod 72 is fixed to the surface of the baffle 14 and can be moved synchronously.

[0043] In use, the baffle 14 extends as the first T-shaped rod 72 inside the elastic frame 7, and the baffle 14 moves synchronously with the first T-shaped rod 72. Thus, by utilizing the dual-channel space formed by the auxiliary air hole 15 and the partition plate 17, the air inside the first clearance groove 12 is accelerated to convect and exchange with the air in the external environment through the air in the dual-channel space. This reduces the temperature of the reciprocating deformation and reset third spring 13, extends the service life of the third spring 13, and the reciprocating output of the air inside the first clearance groove 12 can also indirectly consume the vibration energy transmitted by the third spring 13 and the first T-shaped rod 72, achieving a buffering effect.

[0044] like Figures 8-9 The top end of the composite support rod 6 is provided with a second clearance groove 16. The positioning component 9 includes a second T-shaped rod 91, a pressure sensor 92, and a first spring 93. One end of the second T-shaped rod 91 is respectively engaged with the pressure sensor 92 inside the second clearance groove 16 and fixedly sleeved inside the second clearance groove 16. The two ends of the first spring 93 are respectively fixedly connected to the inner wall of the second clearance groove 16 and the surface of one end of the second T-shaped rod 91. The other end of the second T-shaped rod 91 extends to the outer side of the top of the composite support rod 6 to provide structural support for subsequent pressing and positioning. The other end of the second T-shaped rod 91 is set as a hemispherical structure to avoid scratching the surface of the scroll compressor 1. The top surface of the scroll compressor 1 is provided with a guide hole for fitting with the other end of the second T-shaped rod 91, further improving the connection strength between the scroll compressor 1 and the second T-shaped rod 91 and ensuring the stable effect of subsequent continuous limiting use.

[0045] During use, during the threaded connection between the internal threaded sleeve 10 and the top end of the multiple composite support rods 6, the positioning components 9 associated with each of the multiple composite support rods 6 will make multiple position limiting contacts around the scroll compressor 1, thereby ensuring the stable effect of the spiral connection between the internal threaded sleeve 10 and the multiple composite support rods 6, and ensuring the stability and structural connection strength of the subsequent continuous use.

[0046] After all the structures are stably assembled, the multi-functional buffer device formed by the support ring seat 5, the internal threaded sleeve 10, multiple composite support rods 6, and the corresponding elastic frame 7, damping cylinder 8, and positioning component 9 of each composite support rod 6 is used in combination with the scroll compressor 1. During this process, the second T-shaped rod 91 inside the multiple positioning components 9 synchronously transmits the vibration generated by the scroll compressor 1 to the first spring 93 and causes the continuous pressure sensor 92 to output pressure data. When the pressure data of a certain pressure sensor 92 suddenly changes, it indicates that the installation status of the scroll compressor 1 or the multi-functional buffer device is abnormal and needs to be repaired in time.

[0047] like Figure 10A sound insulation component 11 is provided between the inner side of the internal threaded sleeve 10 and the exhaust pipe 3. The sound insulation component 11 includes a sound-absorbing ring 111 and a transition ring plate 112. The sound-absorbing ring 111 and the transition ring plate 112 are fitted inside the internal threaded sleeve 10, and the inner middle part of the sound-absorbing ring 111 and the inner middle part of the transition ring plate 112 are both fitted outside the exhaust pipe 3. The top structure of the internal threaded sleeve 10 is provided with a positioning hole. A third T-shaped rod 113 fixed to the top of the transition ring plate 112 is fitted inside the positioning hole. A second spring 114 is installed between the third T-shaped rod 113 and the top of the internal threaded sleeve 10.

[0048] In use, considering the noise problem of dust generated by exhaust pipe 3, in addition to using the above-mentioned multi-functional buffer device to buffer and dampen the scroll compressor 1 multiple times to reduce noise, the noise generated by airflow will be surrounded and soundproofed by the sound-absorbing ring 111 in the sound insulation component 11. The sound-absorbing ring 111 can be supported by the composite structure formed by the internal threaded sleeve 10 and multiple composite support rods 6 after being threaded together, so that it is limited and squeezed by the elastic compression structure formed by the transition ring plate 112, the third T-shaped rod 113 and the second spring 114 to limit and shield the sound-absorbing ring 111.

[0049] like Figure 1-2 The scroll compressor 1 is equipped with a gyroscope component and an active balancer. The gyroscope component is wirelessly connected to a dynamic balance control module. The dynamic balance control module can receive real-time data from the gyroscope component monitoring the rotor inside the scroll compressor 1 and actively adjust the rotational attitude of the rotor inside the scroll compressor 1 through the active balancer.

[0050] During use, the attitude changes detected by the gyroscope component include the tilt, offset, and oscillation of the compressor rotor in the direction of rotation axis. This directly reflects the unbalanced state and potential nutation or precession of the rotor inside the scroll compressor 1. The dynamic balance control module includes a signal processing and analysis module and an algorithm calculation module. The signal processing and analysis module can calculate the magnitude and orientation of the unbalanced amount accumulated during the operation of the compressor rotor, as well as any unwanted vibration modes. The algorithm calculation module can calculate the corrective force or adjustment action to be applied to counteract the detected vibration based on the preset control strategy and the calculated unbalance information. The control strategy includes PID control and adaptive control. Under the control of the dynamic balance control module, the active balancer can drive the small mass block in its internal balance ring to move to the precise position calculated by the dynamic balance control module, change the mass distribution of the rotor inside the scroll compressor 1, and generate a centrifugal force that is equal in magnitude and opposite in direction to the unbalanced force to counteract the vibration.

[0051] like Figure 1-2A gas bearing assembly is installed between the compressor rotor and the housing. The gas bearing assembly includes a gas film pressure module and an adaptive damping structure. The gas film pressure module includes a displacement sensor for detecting the real-time position of the compressor rotor and a gas film pressure field module. The adaptive damping structure includes a piezoelectric microvalve array, a flexible diaphragm cavity, and an eddy current generator. The piezoelectric microvalve array can locally open and close according to the position signal of the compressor rotor to adjust the gas flow rate. The flexible diaphragm cavity can deform to change the cross-section of the gas film flow channel and optimize the pressure distribution. The eddy current generator generates reverse vortices in the high-pressure area to suppress gas film oscillation.

[0052] In use, the gas bearing absorbs high-frequency micro-vibrations at the source end, the balancing system formed by the gyroscope assembly, active balancer and dynamic balance control module cancels out inertial excitation force in the mid-frequency range, and the external damping device formed by the support ring seat 5, composite support rod 6, elastic frame and other structures directly dampens and buffers the vibration of the entire device and dissipates frictional energy.

Claims

1. A vibration-damping and noise-reducing gas compressor, comprising a scroll compressor (1), wherein a base (2) and an exhaust pipe (3) are respectively installed at the top and bottom of the scroll compressor (1), and an intake pipe (4) is installed on one side of the scroll compressor (1), characterized in that: The bottom of the scroll compressor (1) is fitted with a support ring seat (5) installed on the top of the base (2), and the support ring seat (5) is fitted with several composite support rods (6) arranged circumferentially along its own structure. An elastic frame (7) is slidably installed inside the composite support rod (6), and a damping cylinder (8) that rolls and rubs against the surface of the scroll compressor (1) is fitted inside the elastic frame (7). The top of each of the composite support rods (6) is fitted with a positioning component (9) that makes a limiting contact with the top surface of the scroll compressor (1). The top end surfaces of each of the composite support rods (6) are provided with external threads and are connected to an internal threaded sleeve (10) by a common thread. During the threaded locking process with the composite support rod (6), the internal threaded sleeve (10) can gradually reduce the distance between the elastic frame (7) and the scroll compressor (1), so that the damping cylinder (8) and the scroll compressor (1) can dissipate energy through friction.

2. The vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: The support ring seat (5) has several mounting slots arranged sequentially along the circumference of its top structure. The mounting slots are fitted with the bottom structure of the corresponding composite support rod (6) through bearings. The top of the base (2) and the bottom of the support ring seat (5) can be detachably installed and fixed.

3. The vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: The composite support rod (6) has a first clearance groove (12) inside. The elastic frame (7) includes a curved spring plate (71). Several first T-shaped rods (72) are arranged from top to bottom on the side surface of the curved spring plate (71) away from the scroll compressor (1). One end of each of the first T-shaped rods (72) extends into the interior of the first clearance groove (12) for movable connection. The first T-shaped rod (72) is set as a V-shaped structure. Both sides of the first T-shaped rod (72) are fitted with damping cylinders (8) that roll and rub against the surface of the scroll compressor (1).

4. A vibration-damping and noise-reducing gas compressor according to claim 3, characterized in that: The bottom of the composite support rod (6) is fitted with an auxiliary air hole (15) that communicates with the internal space of the first clearance groove (12). The middle part of the auxiliary air hole (15) is fixedly nested with a partition plate (17) that divides its own space into two flow channel spaces. The inside of the first clearance groove (12) is fitted with a baffle (14). The outside of the first T-shaped rod (72) is fitted with a third spring (13). The two ends of the third spring (13) are respectively fixed to the surface of the baffle (14) and the inner wall of the first clearance groove (12). One end of the first T-shaped rod (72) is fixed to the surface of the baffle (14) and can be moved synchronously.

5. A vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: The top end of the composite support rod (6) is provided with a second clearance groove (16). The positioning component (9) includes a second T-shaped rod (91), a pressure sensor (92), and a first spring (93). One end of the second T-shaped rod (91) is respectively engaged with the pressure sensor (92) inside the second clearance groove (16) and fixedly sleeved inside the second clearance groove (16). The two ends of the first spring (93) are respectively fixedly connected to the inner wall of the second clearance groove (16) and the surface of one end of the second T-shaped rod (91). The other end of the second T-shaped rod (91) extends to the top outer side of the composite support rod (6).

6. A vibration-damping and noise-reducing gas compressor according to claim 5, characterized in that: The other end of the second T-shaped rod (91) is set as a hemispherical structure, and the top surface of the scroll compressor (1) is provided with a guide hole that fits with the other end of the second T-shaped rod (91).

7. A vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: A sound insulation component (11) is provided between the inner side of the internal threaded sleeve (10) and the exhaust pipe (3). The sound insulation component (11) includes a sound-absorbing ring (111) and a transition ring plate (112). The sound-absorbing ring (111) and the transition ring plate (112) are fitted inside the internal threaded sleeve (10), and the inner middle part of the sound-absorbing ring (111) and the inner middle part of the transition ring plate (112) are both fitted outside the exhaust pipe (3).

8. A vibration-damping and noise-reducing gas compressor according to claim 7, characterized in that: The top structure of the internal threaded sleeve (10) has a positioning hole, and a third T-shaped rod (113) fixed to the top of the transition ring plate (112) is fitted inside the positioning hole. A second spring (114) is fitted on one end of the third T-shaped rod (113) and installed between the third T-shaped rod (113) and the top of the internal threaded sleeve (10).

9. A vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: The scroll compressor (1) is equipped with a gyroscope component and an active balancer. The gyroscope component is wirelessly connected to a dynamic balance control module. The dynamic balance control module can receive real-time data from the gyroscope component monitoring the rotor inside the scroll compressor (1) and actively adjust the rotational attitude of the rotor inside the scroll compressor (1) through the active balancer.

10. A vibration-damping and noise-reducing gas compressor according to claim 1, characterized in that: A gas bearing assembly is provided between the compressor rotor and the housing, and the gas bearing assembly includes a gas film pressure module and an adaptive damping structure.

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