Adjustable inerter suspension support structure and electric reactor

Abstract

The invention relates to the related technical field of electric reactors, in particular to an adjustable inerter suspension support structure and an electric reactor, the adjustable inerter suspension support structure is used for mounting an electric reactor body, and the adjustable inerter suspension support structure comprises: a mounting rack arranged in a U-like shape; the frame is movably arranged on the mounting frame, a vertical buffer mechanism is connected between the frame and the mounting frame, and the frame is further provided with a transverse buffer mechanism used for being connected with the reactor body; when the frame moves in the vertical direction, a rotating mechanism arranged on the mounting frame can be promoted to be triggered, so that inertia amplification is carried out on the movement of the frame, and the load of the rotating mechanism is gradually increased or decreased; finally, effective vibration reduction and energy absorption effects are achieved on the electric reactor body, the vibration problem of the electric reactor body is effectively controlled, safe and stable operation of electric related equipment is ensured, optimization of the equipment performance is facilitated, and the influence on the environment and personnel can be effectively reduced.

Description

Technical Field

[0001] The present invention relates to the technical field related to reactors, and in particular to an adjustable inertia suspension support structure and a reactor. Background Art

[0002] The reactor is an important electrical device, widely used in power systems and electronic equipment. Its main function is to regulate current, voltage and reactive power through the principle of electromagnetic induction, thereby improving the stability and efficiency of the power system.

[0003] Reactor vibration issues involve electromagnetic force, mechanical resonance, and structural design. The vibration of the reactor mainly comes from the mechanical vibration of its core and coil under the action of electromagnetic force. Since the reactor core usually has a multi-air gap structure, when current passes through, the change in magnetic flux density in the core will cause Maxwell force and magnetostrictive force, resulting in core vibration. In order to reduce vibration and noise, ensure the safe and stable operation of the equipment, and reduce the impact on the surrounding environment, the reactor is generally equipped with a corresponding shock-absorbing structure.

[0004] Existing shock-absorbing measures usually adopt vibration isolation devices, such as installing vibration isolation pads at the bottom of the reactor to reduce the transmission of vibration to the foundation structure. However, this vibration reduction measure is relatively simple, and because the operating environment of the reactor is mainly concentrated in altitude, temperature, humidity, surrounding environment, ventilation conditions and vibration, the vibration isolation pads will reduce the shock absorption effect after aging. In this regard, other vibration reduction measures are generally combined, such as using the principle of inertia container to achieve vibration reduction, that is, changing the vibration characteristics by increasing the inertia of the system. However, under the condition of certain inertial damping, when the amplitude of the reactor is too large, it has certain limitations. Although a certain vibration reduction effect can be achieved, the vibration amplitude is difficult to be effectively controlled according to the actual vibration conditions. Summary of the invention

[0005] The object of the present invention is to provide an adjustable inertia suspension support structure and a reactor to solve the problems raised in the above background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] An adjustable inertia suspension support structure, used for installing a reactor body, comprises:

[0008] The mounting frame is arranged in a "U" shape;

[0009] A frame, movably arranged on the mounting frame, a vertical buffer mechanism is connected to the mounting frame, and a horizontal buffer mechanism for connecting the reactor body is also arranged on the frame;

[0010] When the frame moves in the vertical direction, it can trigger the rotation mechanism disposed on the mounting frame to amplify the inertia of the movement of the frame, and the load of the rotation mechanism gradually increases.

[0011] As a further solution of the present invention: the rotating mechanism includes a rotating shaft rotatably installed on the mounting frame, a stroke amplification component arranged on the frame, and a sliding fitting component connected to the rotating shaft, and the stroke amplification component can amplify the movement of the frame and prompt the rotating shaft to perform a rotation action.

[0012] As a further solution of the present invention: the stroke amplification component includes a guide plate fixedly connected to the frame through two connecting arms, and the guide plate is provided with a guide groove, and a slider is slidably engaged in the guide groove. When the frame moves, the slider can slide in the guide groove and prompt the sliding fitting component to move.

[0013] As a further solution of the present invention: a pulley is installed on the side of the slider facing the inductor body, and a limiting plate is also fixed on the mounting frame, and a groove matching the pulley is obliquely provided on the limiting plate, and the pulley is placed in the groove and can roll along the groove.

[0014] As a further solution of the present invention: the sliding fitting assembly includes a driving tube slidingly mounted on the rotating shaft, the outer wall of the rotating shaft is also provided with a spiral groove, and a driving column adapted to the spiral groove is fixed on the driving tube. When the slider drives the driving tube to slide along the axial direction of the rotating shaft, the driving column can cause the rotating shaft to rotate through the spiral groove.

[0015] As a further solution of the present invention: the driving pipe is also fixedly connected to a follower plate, and a limiting groove is provided on the side of the follower plate facing the slider, a connecting block is slidably engaged in the limiting groove, and the connecting block is fixed to the slider.

[0016] As a further solution of the present invention: the mounting frame is further symmetrically provided with two groups of damping adjustment mechanisms, the damping adjustment mechanisms comprising two arc-shaped clamping members movably provided on the side of the mounting frame and abutting against the rotating shaft, the side of the mounting frame is provided with two slide grooves, and the slide grooves are slidably engaged with limit blocks;

[0017] The limit block is slidably provided with a connecting rod fixed to the arc-shaped clamping piece, and the outer periphery of the connecting rod is sleeved with a third spring whose two ends are respectively connected to the arc-shaped clamping piece and the limit block. The limit block is also fixedly connected to a boss, and the frame is fixedly connected to a guide plate through a fixed arm. The guide plate is provided with a through groove which is arranged in a "V" shape and is adapted to the boss, and the boss passes through the through groove and is slidably connected to the guide plate.

[0018] As a further solution of the present invention: the vertical buffer mechanism includes a sleeve slidably mounted on the frame and fixed to the mounting frame, and the frame is also fixed with a first annular protrusion slidably connected to the inner wall of the sleeve, and the sleeve is provided with two second springs mounted on the outer periphery of the frame, and the head ends of the two second springs are connected to the first annular protrusion, and the tail ends abut against the inner wall of the sleeve.

[0019] As a further solution of the present invention: two cross bars are also fixed on the frame, the transverse buffer mechanism includes two movable blocks symmetrically slidably arranged on the cross bars, a second annular protrusion located between the two movable blocks is fixed on the cross bar, and two first springs are respectively arranged on both sides of the second annular protrusion on the outer periphery of the cross bar, the head end of the first spring is connected to the second annular protrusion, and the tail end is in contact with the movable block;

[0020] The movable block is fixedly connected to two assembly racks, and the assembly racks are provided with installation positions for the reactor body.

[0021] A reactor comprises the adjustable inertia suspension support structure.

[0022] Compared with the prior art, the present invention has the following beneficial effects:

[0023] When the reactor body vibrates, the slider can have a larger displacement through the cooperation between the pulley and the groove, and then, the slider causes the sliding cooperation component to drive the rotating shaft to perform a rotation action during the sliding process in the guide groove, which effectively reduces vibration and absorbs energy for the reactor body, effectively controls the vibration problem of the reactor body, ensures the safe and stable operation of electrical related equipment, and reduces the impact on the surrounding environment;

[0024] Secondly, when the vibration of the reactor body causes the movement of the frame, the frame will drive the guide plate to move together through the fixed arm, and through the cooperation between the boss and the guide plate, the distance between the limit block and the arc-shaped clamping member will be reduced, the compression amount of the third spring will increase, and the pressure applied by the arc-shaped clamping member to the rotating shaft will increase. Therefore, during the vibration of the reactor body, the pressure applied by the arc-shaped clamping member to the rotating shaft can be automatically adjusted, so that the load of the rotating shaft during rotation gradually increases, thereby achieving effective control of the amplitude;

[0025] In addition, the reactor body 1 is fixedly mounted on the assembly frame 2 . During the operation of the reactor body 1 , the two first springs 7 can buffer the lateral vibration generated by the reactor body 1 , while achieving flexible assembly of the reactor body. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 An axonometric view of an embodiment of an adjustable inertial suspension support structure.

[0027] Figure 2 The present invention is a structural schematic diagram of an embodiment of an adjustable inertia suspension support structure.

[0028] Figure 3 This is a schematic structural diagram of an embodiment of an adjustable inertial suspension support structure from another angle.

[0029] Figure 4 The present invention is a structural schematic diagram of another angle of an embodiment of an adjustable inertial suspension support structure.

[0030] Figure 5 The figure is a schematic structural diagram of a reactor body in one embodiment of an adjustable inertia suspension support structure.

[0031] Figure 6 This is a schematic structural diagram of a frame in an embodiment of an adjustable inertial suspension support structure.

[0032] Figure 7 This is a schematic structural diagram of another angle of the frame in one embodiment of an adjustable inertial suspension support structure.

[0033] Figure 8 The present invention is a schematic structural diagram of a sliding fitting assembly in an embodiment of an adjustable inertial suspension support structure.

[0034] Fig. 9 for Figure 8 Schematic diagram of the structure from another angle.

[0035] Fig.10 The figure is a schematic structural diagram of a damping adjustment mechanism in one embodiment of an adjustable inertial suspension support structure.

[0036] Fig.11 for Figure 4 A magnified view of the structure at center.

[0037] In the figure: 1, reactor body; 2, assembly frame; 3, movable block; 4, frame; 5, cross bar; 6, first annular protrusion; 7, first spring; 8, second spring; 9, connecting arm; 10, guide plate; 1001, guide groove; 11, slider; 12, pulley; 13, sleeve; 14, rotating shaft; 1401, spiral groove; 15, driving pipe; 1501, driving column; 16, follower plate; 17, limiting plate; 1701, groove; 18, mounting frame; 1801, slide groove; 19, limiting block; 20, boss; 21, connecting rod; 22, arc clamping member; 23, third spring; 24, fixed arm; 25, guide plate; 2501, through groove; 26, second annular protrusion; 27, connecting block. DETAILED DESCRIPTION

[0038] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0039] In addition, when an element in the present invention is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and are not intended to be the only embodiment.

[0040] See also Figure 1-Figure 11 In an embodiment of the present invention, an adjustable inertia suspension support structure is used for installing a reactor body 1, and includes:

[0041] The mounting frame 18 is arranged in a "U" shape;

[0042] A frame 4 is movably mounted on the mounting frame 18, a vertical buffer mechanism is connected to the mounting frame 18, and a horizontal buffer mechanism for connecting the reactor body 1 is also provided on the frame 4;

[0043] When the frame 4 moves in the vertical direction, the rotation mechanism disposed on the mounting frame 18 can be triggered to inertia-amplify the movement of the frame 4, and the load of the rotation mechanism gradually increases.

[0044] Furthermore, the mounting frame 18 is provided with a plurality of mounting holes. In a specific implementation, the mounting frame 18 can be fixedly installed at the working position of the reactor body 1 through the mounting holes.

[0045] Specifically, during the operation of the reactor body 1, the transverse buffer mechanism can play a transverse buffering role on the reactor body 1, ensuring the transverse stability of the reactor body 1 during operation. When the reactor body 1 vibrates in the vertical direction, the transverse buffer mechanism will cause the frame 4 to be vertically displaced on the mounting frame 18. During this process, the rotation mechanism will be triggered, thereby achieving an inertia amplification effect, which has significant advantages in vibration reduction and energy absorption, ensuring the safe and stable operation of electrical-related equipment, and reducing the impact on the surrounding environment, effectively controlling the vibration problem of the reactor, extending the life of the equipment and ensuring the normal operation of the power system.

[0046] Please refer again Figure 6 , Figure 7 , Figure 8 as well as Fig. 9 The rotating mechanism includes a rotating shaft 14 rotatably mounted on the mounting frame 18, a stroke amplifying component provided on the frame 4, and a sliding matching component connected to the rotating shaft 14. The stroke amplifying component can amplify the movement of the frame 4 and cause the rotating shaft 14 to perform a rotating action. The stroke amplifying component includes a guide plate 10 fixedly connected to the frame 4 through two connecting arms 9. The guide plate 10 is provided with a guide groove 1001. A slider 11 is slidably engaged in the guide groove 1001. When the frame 4 moves, the slider 11 can slide in the guide groove 1001 and cause the sliding matching component to move. A pulley 12 is installed on the side of the slider 11 facing the reactor body 1, and a limiting plate 17 is also fixed on the mounting frame 18. A groove 1701 adapted to the pulley 12 is obliquely provided on the limiting plate 17. The pulley 12 is placed in the groove 1701 and can roll along the groove 1701.

[0047] Furthermore, when the reactor body 1 vibrates and the frame 4 and the mounting frame 18 move relative to each other, the frame 4 drives the guide plate 10 to move up and down through the connecting arm 9. Accordingly, the pulley 12 rolls with the limiting plate 17 through the groove 1701, and the pulley 12 drives the slider 11 to slide in the guide groove 1001.

[0048] Specifically, the inclination angle of the groove 1701 is small, so that even if the movement stroke of the frame 4 is small, the cooperation between the pulley 12 and the groove 1701 can make the slider 11 have a larger displacement. Then, the slider 11 prompts the sliding cooperation component to drive the rotating shaft 14 to rotate during the sliding process in the guide groove 1001, which effectively reduces vibration and absorbs energy for the reactor body 1, effectively controls the vibration problem of the reactor body 1, ensures the safe and stable operation of electrical related equipment, and reduces the impact on the surrounding environment.

[0049] The sliding fitting assembly includes a driving tube 15 slidably mounted on the rotating shaft 14, and the outer wall of the rotating shaft 14 is also provided with a spiral groove 1401. A driving column 1501 adapted to the spiral groove 1401 is fixed on the driving tube 15. When the slider 11 drives the driving tube 15 to slide along the axial direction of the rotating shaft 14, the driving column 1501 can cause the rotating shaft 14 to rotate through the spiral groove 1401.

[0050] Specifically, the spiral groove 1401 is arranged in a spiral shape, and the end of the driving column 1501 extends into the spiral groove 1401. Therefore, when the slider 11 slides in the guide groove 1001, the slider 11 drives the driving tube 15 to move axially along the rotating shaft 14 on the rotating shaft 14. Accordingly, the driving column 1501 slides with the rotating shaft 14 through the spiral groove 1401, thereby effectively converting the vibration of the reactor body 1 into rotation, which is beneficial to vibration reduction and energy absorption, and effectively controlling the vibration problem of the reactor body 1.

[0051] The driving pipe 15 is also fixedly connected to a follower plate 16 . A limiting groove is provided on a side of the follower plate 16 facing the slider 11 . A connecting block 27 is slidably engaged in the limiting groove, and the connecting block 27 is fixed to the slider 11 .

[0052] During the vibration of the reactor body 1, that is, when the frame 4 drives the connecting arm 9 to drive the guide plate 10 to move, the slider 11 will not only slide in the guide groove 1001, but the height of the slider 11 will also change. In this regard, the follower plate 16 and the connecting block 27 are arranged between the driving pipe 15 and the slider 11. When the height of the slider 11 changes, the connecting block 27 and the follower plate 16 are driven to slide relative to each other. The sliding of the slider 11 in the guide groove 1001 can transmit the driving pipe 15 through the connecting block 27 and the follower plate 16, so that the driving pipe 15 and the driving column 1501 move along the axial direction of the rotating shaft 14, prompting the rotating shaft 14 to perform a rotation action.

[0053] Please refer again Fig. 9 , Fig.10 as well as Fig.11 , the mounting frame 18 is also symmetrically provided with two groups of damping adjustment mechanisms, the damping adjustment mechanism includes two arc-shaped clamping members 22 movably arranged on the side of the mounting frame 18 and abutting against the rotating shaft 14, the side of the mounting frame 18 is provided with two slide grooves 1801, and a limit block 19 is slidably engaged in the slide groove 1801; the limit block 19 is slidably provided with a connecting rod 21 fixed to the arc-shaped clamping member 22, and the outer periphery of the connecting rod 21 is sleeved with a third spring 23 whose two ends respectively connect the arc-shaped clamping member 22 and the limit block 19, the limit block 19 is also fixedly connected with a boss 20, the frame 4 is fixedly connected with a guide plate 25 through a fixed arm 24, the guide plate 25 is provided with a through groove 2501 which is arranged in a "V" shape and is adapted to the boss 20, the boss 20 passes through the through groove 2501 and is slidably connected with the guide plate 25.

[0054] When the vibration of the reactor body 1 causes the movement of the frame 4, the frame 4 will drive the guide plate 25 to move together through the fixed arm 24, so that the boss 20 slides with the guide plate 25 through the through groove 2501. When the boss 20 gives way and drives the limit block 19 to slide in the slide groove 1801 close to the rotating shaft 14, the distance between the limit block 19 and the arc clamp 22 will be reduced, the compression of the third spring 23 will increase, and the pressure applied by the arc clamp 22 to the rotating shaft 14 will increase. Therefore, during the vibration of the reactor body 1, the pressure applied by the arc clamp 22 to the rotating shaft 14 can be automatically adjusted, so that the load of the rotating shaft 14 during rotation gradually increases, thereby achieving effective control of the amplitude.

[0055] Please refer again Figure 6 The vertical buffer mechanism includes a sleeve 13 slidably mounted on the frame 4 and fixed to the mounting frame 18. The frame 4 is also fixed with a first annular protrusion 6 slidably connected to the inner wall of the sleeve 13. The sleeve 13 is provided with two second springs 8 mounted on the outer periphery of the frame 4. The head ends of the two second springs 8 are connected to the first annular protrusion 6, and the tail ends abut against the inner wall of the sleeve 13.

[0056] Please participate again Figure 5 and Figure 6, two cross bars 5 are also fixed on the frame 4, the transverse buffer mechanism includes two movable blocks 3 symmetrically slidably arranged on the cross bars 5, a second annular protrusion 26 located between the two movable blocks 3 is fixed on the cross bars 5, and two first springs 7 are respectively arranged on the outer periphery of the cross bars 5 and located on both sides of the second annular protrusion 26, the head end of the first spring 7 is connected to the second annular protrusion 26, and the tail end is in contact with the movable block 3;

[0057] The movable block 3 is fixedly connected to two assembly frames 2 , and the assembly frames 2 are provided with installation positions for the reactor body 1 .

[0058] In a specific implementation, the reactor body 1 is fixedly mounted on the assembly frame 2 . During the operation of the reactor body 1 , the two first springs 7 can buffer the lateral vibration generated by the reactor body 1 , and the two second springs 8 can buffer the vertical vibration generated by the reactor body 1 .

[0059] As another embodiment of the present invention, a reactor is also proposed. The reactor includes the adjustable inertia suspension support structure.

[0060] In summary, combined with the adjustable inertia suspension support structure, the reactor can effectively reduce vibration and absorb energy during daily operation, effectively control the vibration problem of the reactor body, ensure the safe and stable operation of electrical related equipment, and reduce the impact on the surrounding environment, which not only helps to optimize equipment performance, but also effectively reduce the impact on the environment and personnel.

[0061] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0062] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. An adjustable inertia suspension support structure for installing a reactor body (1), characterized in that: include: The mounting frame (18) is arranged in a "U" shape; A frame (4) is movably arranged on the mounting frame (18), a vertical buffer mechanism is connected to the mounting frame (18), and a horizontal buffer mechanism for connecting the reactor body (1) is also arranged on the frame (4); When the frame (4) moves in the vertical direction, it can trigger the rotation mechanism arranged on the mounting frame (18) to amplify the inertia of the movement of the frame (4), and the load of the rotation mechanism gradually increases.

2. The adjustable inertia suspension support structure according to claim 1, characterized in that: The rotating mechanism comprises a rotating shaft (14) rotatably mounted on the mounting frame (18), a stroke amplification component arranged on the frame (4), and a sliding matching component connected to the rotating shaft (14); the stroke amplification component can amplify the movement of the frame (4) and cause the rotating shaft (14) to perform a rotating action.

3. The adjustable inertia suspension support structure according to claim 2, characterized in that: The stroke amplification component comprises a guide plate (10) fixedly connected to the frame (4) via two connecting arms (9); a guide groove (1001) is provided on the guide plate (10); a slider (11) is slidably engaged in the guide groove (1001); when the frame (4) moves, the slider (11) can slide in the guide groove (1001) and cause the sliding fitting component to move.

4. The adjustable inertia suspension support structure according to claim 3, characterized in that: A pulley (12) is installed on the side of the slider (11) facing the reactor body (1), and a limiting plate (17) is also fixed on the mounting frame (18). A groove (1701) matching the pulley (12) is obliquely arranged on the limiting plate (17), and the pulley (12) is placed in the groove (1701) and can roll along the groove (1701).

5. The adjustable inertia suspension support structure according to claim 2, characterized in that: The sliding fitting assembly comprises a driving pipe (15) slidably mounted on the rotating shaft (14); the outer wall of the rotating shaft (14) is also provided with a spiral groove (1401); a driving column (1501) adapted to the spiral groove (1401) is fixed on the driving pipe (15); when the slider (11) drives the driving pipe (15) to slide along the axial direction of the rotating shaft (14), the driving column (1501) can cause the rotating shaft (14) to rotate through the spiral groove (1401).

6. The adjustable inertia suspension support structure according to claim 5, characterized in that: The driving pipe (15) is also fixedly connected to a follower plate (16), and a limiting groove is provided on a side of the follower plate (16) facing the slider (11), a connecting block (27) is slidably engaged in the limiting groove, and the connecting block (27) is fixed to the slider (11).

7. The adjustable inertia suspension support structure according to claim 2, characterized in that: The mounting frame (18) is also symmetrically provided with two groups of damping adjustment mechanisms, the damping adjustment mechanisms comprising two arc-shaped clamping members (22) movably provided on the side of the mounting frame (18) and abutting against the rotating shaft (14); the side of the mounting frame (18) is provided with two slide grooves (1801), and the limit blocks (19) are slidably engaged in the slide grooves (1801); The limit block (19) is slidably provided with a connecting rod (21) fixed to the arc-shaped clamping member (22), and the outer periphery of the connecting rod (21) is sleeved with a third spring (23) whose two ends respectively connect the arc-shaped clamping member (22) and the limit block (19). The limit block (19) is also fixedly connected to a convex column (20). The frame (4) is fixedly connected to a guide plate (25) via a fixed arm (24). The guide plate (25) is provided with a through groove (2501) which is arranged in a "V" shape and is adapted to the convex column (20). The convex column (20) passes through the through groove (2501) and is slidably connected to the guide plate (25).

8. The adjustable inertia suspension support structure according to claim 1, characterized in that: The vertical buffer mechanism comprises a sleeve (13) slidably mounted on the frame (4) and fixed to the mounting frame (18); a first annular protrusion (6) slidably connected to the inner wall of the sleeve (13) is also fixed to the frame (4); two second springs (8) are mounted on the outer circumference of the frame (4) and are arranged in the sleeve (13); the head ends of the two second springs (8) are connected to the first annular protrusion (6), and the tail ends abut against the inner wall of the sleeve (13).

9. The adjustable inertia suspension support structure according to claim 1, characterized in that: Two cross bars (5) are also fixed on the frame (4), and the transverse buffer mechanism comprises two movable blocks (3) symmetrically slidably arranged on the cross bars (5), a second annular protrusion (26) located between the two movable blocks (3) is fixed on the cross bars (5), and two first springs (7) are respectively arranged on both sides of the second annular protrusion (26) on the outer periphery of the cross bars (5), the head end of the first spring (7) is connected to the second annular protrusion (26), and the tail end is in contact with the movable block (3); The movable block (3) is fixedly connected to two assembly frames (2), and the assembly frames (2) are provided with installation positions for the reactor body (1).

10. A reactor, characterized in that: It comprises the adjustable inertial suspension support structure as claimed in claim 1.

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