Safety type extra-high voltage reactor capable of reducing amplitude

Abstract

The invention relates to the technical field of electric reactors, in particular to a safety type extra-high voltage electric reactor capable of reducing the amplitude, which comprises a bearing frame, an electric reactor body and an electric reactor, the elastic supporting assembly is connected with the bearing frame and the electric reactor body, and a limiting groove and a conduction groove are formed in the elastic supporting assembly; the insertion rod is arranged on the bearing frame in a sliding mode, and the insertion rod can be inserted into the conduction groove and is matched with the limiting groove so as to lock the elastic supporting assembly; and the traction structure is connected with the insertion rod, the insertion rod can be driven by the traction structure to have two states of being inserted into the conduction groove and being separated from the conduction groove, and the stability of the reactor body during working is improved.

Description

Technical Field

[0001] The invention relates to the technical field of reactors, in particular to a safe ultra-high voltage reactor with reduced amplitude. Background Art

[0002] The application scenarios of reactors are also very wide, including but not limited to substations, air conditioners, medium frequency furnaces, power systems, capacitor cabinets, and some small household appliances such as electric fans and arc furnaces.

[0003] During operation, the reactor will vibrate due to magnetic saturation, current fluctuation, excessive load and other reasons, thus affecting the stable operation of the reactor. At this time, if bolts or other structures are used to fix the position of the reactor, when vibration occurs, there may be a risk of the bolts loosening. In order to solve this problem, the reactor and the connecting frame connected to it are usually elastically connected to buffer the vibration force, improve the position stability of the electric controller and reduce noise.

[0004] However, when the reactor is connected to the connecting frame by elastic connection, the reactor itself has a certain elastic mobility, so that during the line connection and debugging of the reactor, the elastic movement of the reactor will cause its position to be unstable, affecting the operator's operation and increasing the difficulty of operation during the line connection and debugging process. Summary of the invention

[0005] The object of the present invention is to provide a safe UHV reactor with reduced amplitude 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] A safe ultra-high voltage reactor with reduced amplitude, comprising:

[0008] A receiving frame, on which a reactor body is arranged;

[0009] An elastic support component is connected to the receiving frame and the reactor body, and a limiting groove and a conducting groove are formed on the elastic support component;

[0010] An insertion rod is slidably arranged on the receiving frame, and the insertion rod can be inserted into the conducting groove and cooperate with the limiting groove to lock the elastic support assembly;

[0011] The traction structure is connected to the insertion rod, and the insertion rod can be driven by the traction structure to have two states: inserted into the conducting groove and separated from the conducting groove.

[0012] As a further solution of the present invention: the elastic support assembly includes a connecting frame connected to the reactor body, the connecting frame is provided with a first connecting plate, and the receiving frame is provided with a second connecting plate;

[0013] One end of the first connecting plate away from the connecting frame and one end of the second connecting plate away from the receiving frame are connected via a pulling spring;

[0014] The elastic support assembly also includes a universal connection structure connecting the connecting frame and the receiving frame.

[0015] As a further solution of the present invention: the universal connection structure comprises a plurality of groups of connection seats detachably mounted on the connecting frame and the receiving frame and corresponding to each other, each of the connection seats has a spherical cavity formed therein, a connection ball head is arranged in the spherical cavity, and two groups of the connection ball heads in two corresponding groups of the connection seats are connected by a connecting rod;

[0016] The connecting seat arranged on the receiving frame is provided with the conducting groove, and the connecting ball head in the connecting seat is provided with the limiting groove. When the insert rod is inserted into the conducting groove, the insert rod can lock the connecting ball head.

[0017] As a further solution of the present invention: the insertion rod is slidably connected to a guide member fixedly mounted on the receiving frame, and the guide member and the insertion rod are connected via a first cylindrical spring.

[0018] As a further solution of the present invention: the traction structure includes a slide groove arranged on the insertion rod, a sliding connection part is slidably installed in the slide groove, and the sliding connection part is connected to a horizontal plate arranged on the receiving frame;

[0019] The traction structure further comprises a guide plate arranged on the receiving frame and a convex shaft rotatably connected to the transverse plate, wherein the convex shaft is adapted to a guide groove arranged on the guide plate.

[0020] As a further solution of the present invention: the guide groove includes a horizontal groove provided on the guide plate and a vertical inclined groove connected to the horizontal groove, and the included angle between the vertical inclined groove and the horizontal groove is an acute angle.

[0021] As a further solution of the present invention: it also includes:

[0022] A conductive electrode electrically connected to the reactor body;

[0023] A connecting frame is detachably mounted on the reactor body, and a quadrilateral structure is provided on the connecting frame, and the quadrilateral structure can press the wire onto the conductive electrode by deflection;

[0024] The energy storage component is arranged on the connecting frame, and the energy storage component cooperates with the abutment wheel connected to the quadrilateral structure, so that the quadrilateral structure has a state of being away from or close to the conductive electrode.

[0025] As a further solution of the present invention: the quadrilateral structure includes two groups of hinged rods rotatably mounted on the side of the connecting frame, the two groups of hinged rods are in parallel, and the ends of the two groups of hinged rods away from the connecting frame are connected to a pressure plate, and the pressure plate is provided with inverted teeth on the side facing the conductive electrode.

[0026] As a further solution of the present invention: a connecting shaft is fixedly installed on the connecting frame, and the connecting shaft is rotatably connected to the hinge rod. The limiting portion arranged on the connecting shaft is adapted to the arc-shaped groove arranged on the hinge rod. When the limiting portion abuts against the side wall of the arc-shaped groove, the hinge rod is in a state perpendicular to the pressure plate.

[0027] As a further solution of the present invention: the energy storage assembly includes a side frame fixedly installed on the side of the connecting frame, the side frame is provided with a retardation groove, a slider is slidably installed in the retardation groove, the slider is connected to an extrusion plate that rolls with the abutment wheel, and the extrusion plate is connected to the side frame via a second columnar spring.

[0028] Compared with the prior art, the present invention has the following beneficial effects:

[0029] By setting the plug rod and the traction structure, the plug rod has two stable position states, so that the reactor body and the receiving frame can switch freely between the hard connection and the elastic connection. On the one hand, the position stability of the reactor body during the installation and debugging of the wiring harness can be improved, which is convenient for construction personnel to operate. On the other hand, when the reactor body is working, the swing caused by vibration can be effectively buffered, thereby improving the stability of the operation of the reactor body.

[0030] By setting the elastic support component, the pulling spring and the universal connection structure can provide two pulling forces with opposite directions for the reactor body, which can not only improve the position stability of the reactor body in a static state, but also effectively improve the stability of the reactor body when working. Specifically, when the reactor body swings due to vibration, the pulling spring can buffer the movement of the reactor body, thereby reducing the swing amplitude of the reactor body, and can also avoid the phenomenon that the wire harness connected to the reactor body falls off due to the large degree of vibration of the reactor body, so as to ensure the stable movement of the reactor body.

[0031] By setting the conductive electrode, connecting frame and energy storage assembly, the abutment force between the pressure plate and the wire joint is an elastic force. Compared with the fastening force generated by bolts in the prior art, the elastic force can ensure the connection stability during the vibration of the reactor body, and can also effectively avoid the reduction of the force acting on the wire joint by the pressure plate. Compared with the bolt connection, this solves the problem of the reduction of the fitting force between the wire joint and the conductive electrode due to the loosening of the bolts caused by vibration, and avoids the occurrence of virtual connection and slippage between the wire joint and the conductive electrode. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 A schematic structural diagram of an embodiment of a safe UHV reactor for reducing amplitude.

[0033] Figure 2 A schematic structural diagram from another angle of an embodiment of a safety type ultra-high voltage reactor for reducing amplitude.

[0034] Figure 3 A side view of an embodiment of a safe UHV reactor for reducing amplitude.

[0035] Figure 4 A schematic structural diagram of an elastic support assembly, a plug rod and a traction structure in an embodiment of a safe ultra-high voltage reactor for reducing amplitude.

[0036] Figure 5 A schematic structural diagram of a traction structure and a universal connection structure in an embodiment of a safe UHV reactor for reducing amplitude.

[0037] Figure 6 Structural explosion diagram of the traction structure in one embodiment of a safe UHV reactor for reducing amplitude.

[0038] Figure 7 for Figure 1 A magnified view of the structure at center.

[0039] Figure 8 A schematic structural diagram of a quadrilateral structure in an embodiment of a safe UHV reactor for reducing amplitude.

[0040] Fig. 9 An exploded diagram of the structure of the articulated rod and the connecting shaft in one embodiment of a safe UHV reactor for reducing amplitude.

[0041] Fig.10 A schematic diagram of the structure of an energy storage component in an embodiment of a safe UHV reactor with reduced amplitude.

[0042] In the figure: 1, reactor body; 2, connecting frame; 3, receiving frame; 4, first connecting plate; 5, second connecting plate; 6, pulling spring; 7, connecting seat; 701, conducting groove; 8, connecting ball head; 801, limiting groove; 9, connecting rod; 10, plug rod; 11, guide; 12, first cylindrical spring; 13, slide groove; 14, horizontal plate; 1401, sliding connection; 15, convex shaft; 16, guide plate; 1601, horizontal groove; 1602, vertical inclined groove; 17, conductive electrode; 18, connecting frame; 19, hinged rod; 1901, arc groove; 20, pressure plate; 2001, inverted tooth; 21, abutment wheel; 22, connecting shaft; 2201, limiting part; 23, side frame; 2301, retardation groove; 24, extrusion plate; 25, slider; 26, second cylindrical spring. DETAILED DESCRIPTION

[0043] 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.

[0044] 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.

[0045] See also Figures 1 to 10 In an embodiment of the present invention, a safe ultra-high voltage reactor with reduced amplitude includes: a receiving frame 3, an elastic support component, a plug rod 10 and a traction structure.

[0046] The receiving frame 3 is provided with a reactor body 1;

[0047] The elastic support component is connected to the receiving frame 3 and the reactor body 1, and a limiting groove 801 and a conducting groove 701 are formed on the elastic support component;

[0048] The elastic support assembly comprises a connecting frame 2 connected to the reactor body 1, a first connecting plate 4 is arranged on the connecting frame 2, and a second connecting plate 5 is arranged on the receiving frame 3;

[0049] One end of the first connecting plate 4 away from the connecting frame 2 is connected to one end of the second connecting plate 5 away from the receiving frame 3 through a pulling spring 6. Specifically, in the present embodiment, four groups of pulling springs 6 are provided, and the four groups of pulling springs 6 are distributed in the shape of a quadrangular pyramid, so that the reactor body 1 has a tendency to be pulled and move away from the receiving frame 3, and under the action of the universal connection structure, the reactor body 1 can have a higher stability in a static state, thereby providing a stable physical state for the operation of the reactor body 1.

[0050] The elastic support assembly also includes a universal connection structure connecting the connecting frame 2 and the receiving frame 3, the universal connection structure includes a plurality of groups of connecting seats 7 detachably mounted on the connecting frame 2 and the receiving frame 3 and corresponding to each other, a spherical chamber is formed in the connecting seat 7, a connecting ball head 8 is arranged in the spherical chamber, and two groups of connecting ball heads 8 in two corresponding groups of the connecting seats 7 are connected by a connecting rod 9;

[0051] The connecting seat 7 arranged on the receiving frame 3 is provided with the conducting groove 701, and the connecting ball head 8 in the connecting seat 7 is provided with the limiting groove 801. When the insert rod 10 is inserted into the conducting groove 701, the insert rod 10 can lock the connecting ball head 8.

[0052] See also Figure 3 In the present embodiment, two groups of connecting seats 7 are arranged on the connecting frame 2 and the supporting frame 3. The height of the connecting seats 7 located on the supporting frame 3 is higher than that of the connecting seats 7 located on the connecting frame 2. At the same time, the connecting ball head 8 in the connecting seat 7 on the supporting frame 3 is connected to the connecting ball head 8 in the connecting seat 7 on the connecting frame 2 through a connecting rod 9, so that the reactor body 1 has a force pulled toward the supporting frame 3 under the action of its own gravity. This force and the force of the pulling spring 6 acting on the reactor body 1 to make the reactor body 1 move away from the supporting frame 3 offset each other, thereby ensuring the position stability of the reactor body 1 in a static state.

[0053] When the reactor body 1 is working and generates vibration, the vibration force can drive the reactor body 1 to vibrate. At this time, the pulling spring 6 can buffer the swing amplitude of the reactor body 1 due to the vibration, so as to reduce the swing amplitude of the reactor body 1 due to the vibration, improve the stability of the reactor body 1 during operation, and avoid the phenomenon that the wiring harness connected to it falls off due to the large degree of vibration of the reactor body 1, thereby ensuring the stable movement of the reactor body 1.

[0054] Through the above-mentioned arrangement, the pulling spring 6 and the universal connection structure can provide the reactor body 1 with two pulling forces with opposite directions of action, which can not only improve the position stability of the reactor body 1 in a static state, but also effectively improve the stability of the reactor body 1 during operation. Specifically, when the reactor body 1 swings due to vibration, the pulling spring 6 can buffer the movement of the reactor body 1, thereby reducing the swing amplitude of the reactor body 1, and can also avoid the phenomenon of the wiring harness connected to the reactor body 1 falling off due to a large degree of vibration of the reactor body 1, so as to ensure the stable movement of the reactor body 1.

[0055] See also Figures 4 to 6 The insertion rod 10 is slidably arranged on the receiving frame 3, and the insertion rod 10 can be inserted into the guide groove 701 and cooperate with the limit groove 801 to lock the elastic support assembly. Specifically, the insertion rod 10 is slidably connected with a guide member 11 fixedly installed on the receiving frame 3, and the guide member 11 and the insertion rod 10 are connected through a first cylindrical spring 12;

[0056] The traction structure is connected to the insertion rod 10. The insertion rod 10 can be inserted into the guide groove 701 and separated from the guide groove 701 under the driving of the traction structure. The traction structure includes a slide groove 13 provided on the insertion rod 10. A sliding connection part 1401 is slidably installed in the slide groove 13. The sliding connection part 1401 is connected to the horizontal plate 14 provided on the receiving frame 3.

[0057] The traction structure also includes a guide plate 16 arranged on the supporting frame 3 and a convex shaft 15 rotatably connected to the transverse plate 14, the convex shaft 15 is adapted to a guide groove arranged on the guide plate 16, the guide groove includes a horizontal groove 1601 arranged on the guide plate 16 and a vertical inclined groove 1602 connected to the horizontal groove 1601, and the angle between the vertical inclined groove 1602 and the horizontal groove 1601 is an acute angle.

[0058] When installing the wiring harness and debugging the reactor, the plug rod 10 is inserted into the conducting groove 701. At this time, the limit groove 801 is also in abutment with the plug rod 10. In this state, the connecting ball head 8 can be locked. At this time, the position state of the connecting rod 9 is locked, so that the elastic connection between the reactor body 1 and the receiving frame 3 is switched to a hard connection, so that the reactor body 1 can have higher stability. At this time, the connection of the wiring harness and related debugging work can be facilitated, and the difficulty in operation caused by the elastic connection between the reactor body 1 and the receiving frame 3 can be avoided during the connection of the wiring harness and debugging.

[0059] Specifically, when the plug rod 10 is inserted into the conducting groove 701, the first cylindrical spring 12 is in a stretched state. At this time, the transverse plate 14 is pulled by the plug rod 10 and the convex shaft 15 is located at one end of the horizontal groove 1601 away from the vertical inclined groove 1602. At this time, the position of the plug rod 10 is elastically locked, thereby improving the matching stability of the plug rod 10 with the conducting groove 701 and the limit groove 801 in this state, thereby making the hard connection relationship between the reactor body 1 and the receiving frame 3 more stable. When the wiring harness connection and related debugging work are completed, the pull ring at one end of the transverse plate 14 is pulled so that the transverse plate 14 can move horizontally. At this time, the transverse plate 14 can drive the plug rod 10 to separate from the conducting groove 701 through the sliding connection part 1401 and the slide groove 13. At this time, the hard connection between the reactor body 1 and the receiving frame 3 can be switched to an elastic connection. At the same time, when the transverse plate 14 is pulled to the end of the stroke, the convex shaft 15 can be The flat groove 1601 moves to the end of the vertical inclined groove 1602, and then the pull ring is pulled down, so that the convex shaft 15 can move along the vertical inclined groove 1602. At this time, the sliding connection part 1401 can slide relative to the slide groove 13. At the same time, when the convex shaft 15 moves in the vertical inclined groove 1602, the first column spring 12 can be released to a certain extent. Therefore, under the pulling force of the first column spring 12, when the convex shaft 15 enters the vertical inclined groove 1602, the convex shaft 15 will have a tendency to move toward the lower end of the vertical inclined groove 1602, and when the convex shaft 15 moves to the lower end of the vertical inclined groove 1602, the plug rod 10 can maintain a stable separation state from the conductive groove 701, thereby preventing the vibration force from being transmitted to the plug rod 10 when the reactor body 1 vibrates during operation, causing the plug rod 10 to retreat back into the conductive groove 701, thereby preventing the reactor body 1 from being elastically buffered under vibration.

[0060] Furthermore, in the present embodiment, only two groups of universal connection structures are arranged along the vertical direction. At this time, when the connecting ball head 8 is locked, although the reactor body 1 has a certain stability, it can still swing left and right. In order to solve this technical problem, in the present embodiment, four groups of universal connection structures are preferably arranged, that is, the universal connection structures are arranged in two parallel rows and two columns.

[0061] Through the above-mentioned arrangement, the insertion rod 10 has two stable position states, so that the reactor body 1 and the receiving frame 3 can be freely switched between hard connection and elastic connection. On the one hand, it can improve the position stability of the reactor body 1 during the installation and debugging of the wiring harness, and facilitate the operation of construction personnel. On the other hand, when the reactor body 1 is working, its swing caused by vibration can be effectively buffered, thereby improving the stability of the operation of the reactor body 1.

[0062] See also Figure 7-Figure 8, a safe UHV reactor with reduced amplitude, also includes: a conductive electrode 17, a connecting frame 18 and an energy storage component.

[0063] The conductive electrode 17 is electrically connected to the reactor body 1;

[0064] The connecting frame 18 is detachably mounted on the reactor body 1 , and a quadrilateral structure is provided on the connecting frame 18 , and the quadrilateral structure can press the wire onto the conductive electrode 17 by deflection;

[0065] The quadrilateral structure includes two groups of hinged rods 19 rotatably mounted on the sides of the connecting frame 18, the two groups of hinged rods 19 are in parallel, and one end of the two groups of hinged rods 19 away from the connecting frame 18 is connected to a pressure plate 20, and the pressure plate 20 is provided with a reverse tooth 2001 on the side facing the conductive electrode 17.

[0066] It should be noted that the hinge points of the hinged rods 19 on the connecting frame 18 are on the same vertical plane, and the two groups of hinged rods 19 are in a parallel state, and the pressure plate 20 is in a vertical state, so that the two groups of hinged rods 19, the connecting frame 18 and the pressure plate 20 can form a parallelogram structure, and then when the hinged rod 19 moves and drives the pressure plate 20 to move, the pressure plate 20 can always maintain a vertical state, and when it abuts against the wire connector placed on the conductive electrode 17, the pressure plate 20 can be pressed on the wire connector, so that there is a larger contact area between the pressure plate 20 and the wire connector, thereby improving the stability of the wire connector when being pressed.

[0067] Furthermore, since the pressure plate 20 performs a quasi-circular motion and the pressure plate 20 is provided with inverted teeth 2001, when the inverted teeth 2001 are in contact with the wire connector, there is a certain tendency to push the wire connector to move upward, which has the effect of better connecting the wire connector to the conductive electrode 17, while preventing the wire connector from moving downward and causing the conductive electrode 17 to detach.

[0068] See also Figure 7 to Figure 10 A connecting shaft 22 is fixedly mounted on the connecting frame 18, and the connecting shaft 22 is rotatably connected to the hinge rod 19. A limiting portion 2201 disposed on the connecting shaft 22 is adapted to an arc-shaped groove 1901 disposed on the hinge rod 19. When the limiting portion 2201 abuts against a side wall of the arc-shaped groove 1901, the hinge rod 19 is perpendicular to the pressure plate 20.

[0069] The energy storage assembly is arranged on the connecting frame 18, and the energy storage assembly cooperates with the abutment wheel 21 connected to the hinged rod 19, so that the quadrilateral structure has a state of being away from or close to the conductive electrode 17. The energy storage assembly includes a side frame 23 fixedly installed on the side of the connecting frame 18, and a retardation groove 2301 is arranged on the side frame 23. A slider 25 is slidably installed in the retardation groove 2301. The slider 25 is connected to an extrusion plate 24 that rolls with the abutment wheel 21, and the extrusion plate 24 is connected to the side frame 23 through a second cylindrical spring 26.

[0070] In the initial state, the hinged rod 19 is perpendicular to the pressure plate 20. At this time, the distance between the pressure plate 20 and the conductive electrode 17 is the largest, so that the wire connector can be conveniently placed on the conductive electrode 17. At the same time, in this state, the second cylindrical spring 26 is in a stretched state, and the extrusion plate 24 has a force applied to the abutment wheel 21, and the limiting portion 2201 and the arc-shaped groove 1901 are in an abutment state, so that the hinged rod 19 can have higher stability in this position state.

[0071] During the process of pressing the wire joint, the pressure plate 20 is manually pushed upward to move it upward. At this time, the hinged rod 19 can deflect upward and drive the abutment wheel 21 to make a circular motion. At this time, the abutment wheel 21 can further lift the extrusion plate 24 upward and make the second column spring 26 further stretched. After the extrusion plate 24 moves to the end of the stroke, when the hinged rod 19 rotates a certain angle again, the second column spring 26 can actively release the elastic potential energy, so that the extrusion plate 24 acts on the abutment wheel 21 and the hinged rod 1 continues to deflect rapidly. During this process, the pressure plate 20 can accelerate to abut against the wire joint, and when the pressure plate 20 abuts against the wire joint, an impact force can be generated between the two. Under the action of the impact force, the inverted tooth 2001 can cause a groove to form on the wire joint. The groove cooperates with the inverted tooth 2001 to effectively prevent the wire joint from breaking free and improve the stability of the electrical connection.

[0072] Furthermore, due to the presence of the second cylindrical spring 26, the abutment force between the pressure plate 20 and the wire connector is an elastic force. Compared with the tightening force generated by bolts in the prior art, the elastic force can ensure the connection stability during the vibration of the reactor body 1 while avoiding the decrease in the force acting on the wire connector by the pressure plate 20. Compared with the bolt connection, this solves the problem of the decrease in the fitting force between the wire connector and the conductive electrode 17 due to the loosening of the bolts due to vibration, and avoids the occurrence of false connection and slippage between the wire connector and the conductive electrode 17.

[0073] Furthermore, the inverted teeth 2001 can prevent the wire connector from moving in the vertical direction. In order to prevent the wire connector from moving in the horizontal direction, a vertical convex strip can be provided on the conductive electrode 17 to limit the horizontal sliding of the wire connector.

[0074] 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.

[0075] 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. A safe UHV reactor with reduced amplitude, characterized in that: include: A receiving frame (3), wherein the reactor body (1) is arranged on the receiving frame (3); An elastic support component is connected to the receiving frame (3) and the reactor body (1), and a limiting groove (801) and a conducting groove (701) are formed on the elastic support component; An insertion rod (10) is slidably arranged on the receiving frame (3), and the insertion rod (10) can be inserted into the conducting groove (701) and cooperate with the limiting groove (801) to lock the elastic support assembly; A traction structure is connected to the insertion rod (10), and the insertion rod (10) can be in two states of being inserted into the conducting groove (701) and being separated from the conducting groove (701) under the driving of the traction structure.

2. A safe UHV reactor with reduced amplitude according to claim 1, characterized in that: The elastic support assembly comprises a connecting frame (2) connected to the reactor body (1), a first connecting plate (4) is arranged on the connecting frame (2), and a second connecting plate (5) is arranged on the receiving frame (3); An end of the first connecting plate (4) away from the connecting frame (2) and an end of the second connecting plate (5) away from the receiving frame (3) are connected via a tension spring (6); The elastic support assembly also includes a universal connection structure connecting the connecting frame (2) and the receiving frame (3).

3. A safe UHV reactor with reduced amplitude according to claim 2, characterized in that: The universal connection structure comprises a plurality of groups of connection seats (7) which are detachably mounted on the connecting frame (2) and the receiving frame (3) and correspond to each other, each of the connection seats (7) having a spherical chamber formed therein, a connection ball head (8) being arranged in the spherical chamber, and two groups of the connection ball heads (8) in two corresponding groups of the connection seats (7) are connected via a connection rod (9); The connecting seat (7) arranged on the supporting frame (3) is provided with the conducting groove (701), and the connecting ball head (8) in the connecting seat (7) is provided with the limiting groove (801); when the insert rod (10) is inserted into the conducting groove (701), the insert rod (10) can lock the connecting ball head (8).

4. The amplitude-reduced safety UHV reactor according to claim 1, characterized in that: The insertion rod (10) is slidably connected to a guide member (11) fixedly mounted on the receiving frame (3), and the guide member (11) and the insertion rod (10) are connected via a first cylindrical spring (12).

5. The amplitude-reduced safety UHV reactor according to claim 1, characterized in that: The traction structure comprises a slide groove (13) arranged on the insertion rod (10), a sliding connection part (1401) is slidably installed in the slide groove (13), and the sliding connection part (1401) is connected to a transverse plate (14) arranged on the receiving frame (3); The traction structure further comprises a guide plate (16) arranged on the receiving frame (3) and a convex shaft (15) rotatably connected to the transverse plate (14), wherein the convex shaft (15) is adapted to a guide groove arranged on the guide plate (16).

6. A safe UHV reactor with reduced amplitude according to claim 5, characterized in that: The guide groove comprises a horizontal groove (1601) arranged on the guide plate (16) and a vertical inclined groove (1602) connected to the horizontal groove (1601), and the included angle between the vertical inclined groove (1602) and the horizontal groove (1601) is an acute angle.

7. The amplitude-reduced safety UHV reactor according to claim 1, characterized in that: Also includes: A conductive electrode (17) electrically connected to the reactor body (1); A connecting frame (18) is detachably mounted on the reactor body (1), wherein a quadrilateral structure is provided on the connecting frame (18), and the quadrilateral structure can press the wire onto the conductive electrode (17) by deflection; An energy storage component is arranged on the connecting frame (18), and the energy storage component cooperates with an abutment wheel (21) connected to the quadrilateral structure, so that the quadrilateral structure has a state of being away from or close to the conductive electrode (17).

8. The amplitude-reduced safety UHV reactor according to claim 7, characterized in that: The quadrilateral structure comprises two groups of hinged rods (19) rotatably mounted on the side of the connecting frame (18), the two groups of hinged rods (19) are in a parallel state, and one end of the two groups of hinged rods (19) away from the connecting frame (18) is connected to a pressure plate (20), and the pressure plate (20) is provided with an inverted tooth (2001) on the side facing the conductive electrode (17).

9. The amplitude-reduced safety UHV reactor according to claim 8, characterized in that: A connecting shaft (22) is fixedly mounted on the connecting frame (18), and the connecting shaft (22) is rotatably connected to the hinge rod (19). A limiting portion (2201) arranged on the connecting shaft (22) is matched with an arc-shaped groove (1901) arranged on the hinge rod (19). When the limiting portion (2201) abuts against a side wall of the arc-shaped groove (1901), the hinge rod (19) is in a state perpendicular to the pressure plate (20).

10. The amplitude-reduced safety UHV reactor according to claim 7, characterized in that: The energy storage assembly comprises a side frame (23) fixedly mounted on the side of the connecting frame (18); a retardation groove (2301) is provided on the side frame (23); a slider (25) is slidably mounted in the retardation groove (2301); an extrusion plate (24) rollingly engaged with the abutment wheel (21) is connected to the slider (25); the extrusion plate (24) and the side frame (23) are connected via a second columnar spring (26).

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