A steel wire ring damping and shock absorbing telescopic device and processing system

Abstract

The present invention discloses a wire ring damping and shock-absorbing telescopic device and processing system. The device includes two telescopic shear braces, each telescopic shear brace is connected to the corresponding side beam and middle beam; the sliding box includes a first box body and a second box body, the first box body is connected to the bottom of the telescopic shear brace, and the second box body is connected to the two telescopic shear braces, and a plurality of wire damping rings are installed between the first box body and the second box body; the system includes an adjustable bracing ring mechanism and an auxiliary fixed ring mechanism relatively arranged at both ends of the first installation station, a second installation station is provided on one side of the first installation station, a complete sliding box is provided on the second installation station, and an adjustable assembly mechanism is provided at the second installation station. The present invention can ensure that the displacement of the middle beam of the expansion joint is the same, thereby increasing the service life of the expansion joint, and ensuring that the bridge has excellent anti-frost heave ability, thereby increasing the quality and service life of the bridge. The present invention is applicable to the technical field of improving the performance of expansion joints.

Description

Technical Field

[0001] The present invention belongs to the technical field of expansion joint-related connecting components, and in particular relates to a wire ring damping and shock-absorbing expansion and contraction device and a processing system. Background Art

[0002] Building expansion joints come in various forms. Their primary function is to provide a margin for deformations such as thermal expansion and contraction of building components, preventing compression or stretching between building components due to deformation, which could cause cracks at the joints and a significant decrease in strength. Currently, bridge expansion joints are constructed at the junction of two concrete beams. These expansion joints typically consist of two side beams and multiple intermediate beams. The two side beams are fixed to the ends of the two concrete beams that are closest to each other, and the multiple intermediate beams are positioned between the two side beams. These two side beams and the intermediate beams are connected by elastic members. When the two concrete beams move relative to each other, the side beams move closer or further away from each other, causing the intermediate beams between them to move. However, in existing expansion joints, the displacement of these intermediate beams varies, reducing the expansion joint's ability to cushion the two concrete beams. Furthermore, the side beams and intermediate beams are subjected to different forces. This can easily shorten the life of the expansion joint over long-term use, affecting the bridge's ability to resist frost heave and ultimately reducing its quality and lifespan. Summary of the Invention

[0003] The present invention provides a wire ring damping and shock-absorbing expansion and contraction device and a processing system, which are used to ensure that the displacement of the middle beam of the expansion joint is the same, thereby increasing the service life of the expansion joint, ensuring that the bridge has excellent anti-frost heave ability, and improving the quality and service life of the bridge.

[0004] To achieve the above object, the technical solutions adopted by the present invention are as follows:

[0005] A wire ring damping and shock-absorbing telescopic device comprises two telescopic shear braces respectively mounted on both sides of a sliding box and capable of telescoping along the width direction of an expansion joint, wherein each telescopic shear brace is connected to a corresponding side beam and an intermediate beam; the sliding box comprises a second box body slidably assembled within the first box body, wherein each side of the first box body is connected to one end of the lower portion of the corresponding telescopic shear brace, and each side of the second box body is connected to the other end of the lower portion of the corresponding telescopic shear brace; a plurality of wire damping rings are mounted between the first box body and the second box body, and these wire damping rings are spaced apart along the length direction of the intermediate beam.

[0006] Furthermore, the first box body includes an upper end plate and a lower end plate connected at one end on the same side by a first vertical plate, and the first side plates are detachably connected to both sides of the upper end plate and the lower end plate, and a notch is opened at the end of each first side plate away from the first vertical plate, and the notch extends along the expansion and contraction direction of the expansion joint; the second box body includes an upper slide plate and a lower slide plate extending into the first box body from the end of the first box body away from the first vertical plate, and the ends of the upper slide plate and the lower slide plate away from the first vertical plate are both connected to the second vertical plate, and the two sides of the upper slide plate and the lower slide plate are respectively connected to the two second side plates, and the two ends of the telescopic shear brace are respectively connected to the corresponding first side plate and the second side plate through the first connecting shaft and the second connecting shaft, and the second connecting shaft passes through the notch.

[0007] Furthermore, two damping ring fixing assemblies are relatively installed on the upper end plate and the lower sliding plate, and the upper and lower ends of each steel wire damping ring are respectively connected to the two damping ring fixing assemblies; the damping ring fixing assembly includes a first connecting bar and a second connecting bar arranged vertically opposite to each other, and a plurality of half grooves are respectively provided on the end surfaces of the first connecting bar and the second connecting bar that are close to each other, and these half grooves are spaced apart along the arrangement direction of the steel wire damping rings, and connecting holes are provided on the first connecting bar or the second connecting bar and between adjacent half grooves. The first connecting bar and the second connecting bar are connected by a plurality of connecting bolts, and the corresponding half grooves are buckled together to form a complete tightening groove, and the steel wire damping rings are fixed in the corresponding tightening grooves.

[0008] The present invention also discloses a processing system for the above-mentioned wire ring damping and shock-absorbing telescopic device, including an adjustable support ring mechanism and an auxiliary fixed ring mechanism relatively arranged at both ends of a first installation station. Multiple wire damping rings in the sliding box are installed at the first installation station, and a second installation station is provided on one side of the first installation station. A complete sliding box is provided on the second installation station, and an adjustable assembly mechanism for positioning and installing telescopic shear supports is provided at the second installation station. The telescopic shear supports on both sides of the sliding box are installed at the second installation station.

[0009] Furthermore, the adjustable support ring mechanism includes a first linear slide mounted on a first sliding rail, the first linear slide can move on the first sliding rail toward or away from the first installation station, the first linear slide is connected to the longitudinal mounting rod through a first vertical seat, the longitudinal mounting rod is consistent with the extension direction of the first sliding rail, and a plurality of support ring assemblies are evenly connected to the longitudinal mounting rod along its length direction, and adjacent support ring assemblies are connected via connecting springs, the support ring assembly at one end is fixedly connected to the longitudinal mounting rod, the support ring assembly at the other end is connected to the pneumatic stretching assembly, and the support ring assembly located between the support ring assemblies at the two ends is movably connected to the longitudinal mounting rod.

[0010] Furthermore, the support ring assembly includes an assembly set that is sleeved on the longitudinal mounting rod, and two plug-in rods are symmetrically constructed on the assembly set, each of the plug-in rods extends outward in the radial direction of the assembly set, and each plug-in rod is movably inserted into the plug-in tube at one end away from the assembly set, and a support ring seat is constructed at the end of the plug-in tube away from the assembly set; a guide sleeve is constructed at one end of each plug-in tube close to the support ring seat, and longitudinal guide rods are symmetrically arranged on both sides of the longitudinal mounting rod, and each longitudinal guide rod passes through each guide sleeve on the corresponding side in turn, and a transverse driving member is respectively provided at both ends of each longitudinal guide rod, and each transverse driving member is connected to the longitudinal mounting rod at one end away from the longitudinal guide rod.

[0011] Furthermore, the pneumatic stretching assembly includes a stretching rod movably inserted in the end of the longitudinal mounting rod away from the first vertical seat, and a connecting plate is constructed at the end of the stretching rod away from the longitudinal mounting rod. The connecting plate is connected to the support ring assembly close to each other through two connecting rods. A first air guide channel is opened in the longitudinal mounting rod, and a second air guide channel is opened in the stretching rod. The first air guide channel and the second air guide channel are connected to each other, and a first air guide joint and a second air guide joint are respectively constructed at the ends of the longitudinal mounting rod and the stretching rod away from each other, and a first solenoid valve and a second solenoid valve are respectively installed on the first air guide joint and the second air guide joint.

[0012] Furthermore, the auxiliary fixed ring mechanism includes a second linear slide mounted on a second sliding rail, and the second linear slide can move on the second sliding rail toward or away from the first installation station. The second linear slide is connected to the adapter seat through a second vertical seat, and vertical driving parts are symmetrically installed on the upper and lower end faces of the adapter seat, and air-suction bar seats are respectively installed at the ends of the two vertical driving parts away from each other.

[0013] Furthermore, the adjustable assembly mechanism includes two telescopic amount limiting components symmetrically arranged on both sides of the sliding box, each of the telescopic amount limiting components is connected to a vertical adjustment component, the two vertical adjustment components are slidably connected to the transverse guide rail, and two vertical adjustment components extend from both ends of the transverse transmission rod respectively, and the transverse transmission rod is reversely threaded with the two vertical adjustment components, and a first operating handwheel is installed at one end of the transverse transmission rod.

[0014] Furthermore, the telescopic amount limiting assembly includes two limiting seats arranged at intervals along the telescopic direction of the telescopic shear support, and the two limiting seats are assembled on the adjustment seat through sliding blocks connected thereto, and the ends of the two sliding blocks away from each other are rotatably connected with adjusting screws, and each adjusting screw extends along the telescopic direction of the telescopic shear support, and the adjusting screw is threadedly connected to the adjusting seat, and a second operating handwheel is installed at the end of the adjusting screw; the vertical adjustment assembly includes a vertical guide rail whose lower end is fixed to the adjusting seat, the sliding seat is slidably assembled on the vertical guide rail, and a vertical screw is threadedly connected to the sliding seat, the lower end of the vertical screw is rotatably connected to the upper end of the vertical guide rail, and a third operating handwheel is installed at the upper end of the vertical screw.

[0015] Due to the adoption of the above-mentioned structure, the technical progress achieved by the present invention compared with the prior art is that: the wire ring damping and shock-absorbing telescopic device of the present invention connects each telescopic shear brace to the side beams and the middle beam of the expansion joint respectively. Since the connection nodes of the telescopic shear brace decrease downward in the vertical direction, the number of connection nodes at the lower end of the telescopic shear brace is the least. The first box body and the second box body are respectively connected to the connection nodes at the two ends of the lower end of the telescopic shear brace. The first box body and the second box body are connected by multiple wire damping rings. When the two side beams approach or move away from each other as the concrete beam moves closer or further away, the depth of the mutual insertion of the first box body and the second box body changes. At this time, the upper and lower ends of these wire damping rings are subjected to shear force in the tangential direction, so that the elastic deformation of the wire damping ring is stable. Compared with the existing wire damping rings subjected to radial pressure or tension, when the wire damping rings are subjected to radial pressure or tension, the elastic deformation of the wire damping rings under compression or tension is unstable, which can easily cause the telescopic shear brace to exceed the predetermined range. Under the elastic pull of the steel wire damping ring, the relative movement of the first box and the second box is extremely stable, thereby causing the two to drive the lower ends of the telescopic shear brace to move closer to or farther away from each other. The telescopic shear brace gradually transmits the deformation from bottom to top, thereby ensuring that the spacing between the multiple middle beams between the two side beams always remains the same, that is, when the telescopic shear brace is extended, the spacing between the middle beams becomes larger and the intervals are equal. When the telescopic shear brace is contracted, the spacing between the middle beams becomes smaller and the intervals are equal. The steel wire ring damping and shock-absorbing telescopic device of the present invention can effectively ensure that the displacement of the middle beams of the expansion joint is the same, thereby increasing the service life of the expansion joint, and ensuring that the bridge has excellent anti-frost heave ability, thereby improving the quality and life of the bridge. The processing system of the present invention assembles multiple steel wire damping rings on an adjustable support ring mechanism, and then controls the expansion and contraction of the adjustable support ring mechanism so that the spacing of the steel wire damping rings thereon increases synchronously until it reaches a predetermined distance; then controls the displacement of the adjustable support ring mechanism to the first installation station, and then controls the auxiliary fixed ring mechanism to position these steel wire damping rings to the predetermined position, and connects the upper and lower ends of each steel wire damping ring to the first box body and the second box body respectively through a manipulator or a pneumatic wrench or an electric wrench. After completion, controls the adjustable support ring mechanism and the auxiliary fixed ring mechanism to return to their positions, and installs the uninstalled components of the first box body and the second box body at the first installation station; then transfers to the second installation station, and at the second installation station, the adjustable assembly mechanism limits the position and posture of the two telescopic shear struts to prevent the telescopic shear struts from elastically expanding and contracting during the installation process, resulting in unqualified products; finally, the two telescopic shear struts are installed on both sides of the sliding box.Since the present invention adopts the above-mentioned processing system, it can accurately adjust the spacing of the steel wire damping rings and precisely align the installation position of the steel wire damping rings, thereby avoiding twisting of the steel wire damping rings during the installation process, and ensure that the telescopic shear brace maintains a predetermined posture when installed on both sides of the sliding box, thereby ensuring the quality of the assembled steel wire ring damping and shock-absorbing telescopic device. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0017] In the attached figure:

[0018] Figure 1 This is a structural side view of a wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0019] Figure 2 This is a schematic structural diagram of a wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0020] Figure 3 This is a schematic structural diagram of the splitting of two telescopic shear braces in the wire ring damping and shock-absorbing telescopic device according to an embodiment of the present invention;

[0021] Figure 4 This is a partial structural cross-sectional view of a wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0022] Figure 5 This is a schematic structural diagram of the corresponding arrangements of the adjustable support ring mechanism, the auxiliary fixed ring mechanism, and the local wire ring damping and shock-absorbing telescopic device according to an embodiment of the present invention;

[0023] Figure 6 This is a structural schematic diagram of an adjustable support ring mechanism equipped with multiple steel wire damping rings according to an embodiment of the present invention;

[0024] Figure 7 Schematic diagram of the structure of the adjustable support ring mechanism according to an embodiment of the present invention;

[0025] Figure 8 This is a cross-sectional view of the structure of the adjustable support ring mechanism according to an embodiment of the present invention;

[0026] Figure 9 Schematic diagram of the structure of the support ring assembly in the adjustable support ring mechanism according to an embodiment of the present invention;

[0027] Figure 10 This is a schematic structural diagram of the corresponding arrangement of the auxiliary fixed ring mechanism and the local wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0028] Figure 11This is a structural side view of the auxiliary fixed ring mechanism according to an embodiment of the present invention;

[0029] Figure 12 This is a structural diagram of the connection between the auxiliary fixed ring mechanism and the two second connecting bars according to an embodiment of the present invention;

[0030] Figure 13 This is a schematic diagram of the structure of the auxiliary ring fixing mechanism in an embodiment of the present invention after the air suction bar seat and the second connecting bar are separated;

[0031] Figure 14 This is a schematic structural diagram of the corresponding arrangement of the adjustable assembly mechanism and the wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0032] Figure 15 This is a structural front view of the adjustable assembly mechanism and the wire ring damping and shock absorbing telescopic device according to an embodiment of the present invention;

[0033] Figure 16 This is a schematic structural diagram of the connection between the adjustable assembly mechanism and two telescopic shear braces according to an embodiment of the present invention;

[0034] Figure 17 Schematic diagram of the partial structure of the adjustable assembly mechanism according to an embodiment of the present invention;

[0035] Figure 18 for Figure 17 Schematic diagram of the structure shown from another angle.

[0036] Labeled components: 101-sliding box, 1011-first vertical plate, 1012-upper end plate, 1013-lower end plate, 1014-first lateral plate, 1015-notch, 1016-second vertical plate, 1017-upper slide plate, 1018-lower slide plate, 1019-second lateral plate, 102-telescopic shear brace, 1021-first rod body, 1022-second rod body, 1023-connecting shaft, 1024-fastening nut, 103-first connecting shaft, 104-second connecting shaft, 105-first connecting strip, 1051-first strip body, 1052-limiting pin , 106-second connecting strip, 1061-second strip body, 1062-semi-groove, 1063-connecting hole, 1064-limiting hole, 107-wire damping ring, 108-box inner cavity, 109-tightening groove, 200-adjustable support ring mechanism, 201-first sliding rail, 202-first linear slide, 203-first vertical seat, 204-longitudinal mounting rod, 205-support ring assembly, 2051-assembly set, 2052-connecting flange, 2053-plug-in rod, 2054-plug-in tube, 2055-guide sleeve, 2056-support ring seat, 206-connecting spring, 207-stretching rod, 208-connecting plate, 209-first air guide channel, 210-second air guide channel, 211-first air guide joint, 212-first solenoid valve, 213-second air guide joint, 214-second solenoid valve, 215-connecting rod, 216-transverse drive member, 217-longitudinal guide rod, 300-auxiliary fixed ring mechanism, 301-second sliding rail, 302-second linear slide, 303-second vertical seat, 304-adapter seat, 305-vertical drive member, 306-air suction bar seat, 307-assembly groove, 308-suction hole, 309-conduction soft Tube, 400-adjustable assembly mechanism, 401-telescopic amount limiting component, 4011-adjusting seat, 4012-sliding block, 4013-limiting seat, 4014-limiting groove, 4015-insertion hole, 4016-adapter sleeve, 4017-locking bolt, 4018-adjusting screw, 4019-second operating handwheel, 402-vertical adjustment component, 4021-vertical guide rail, 4022-sliding seat, 4023-vertical screw, 4024-third operating handwheel, 4025-guide block, 403-transverse transmission rod, 404-first operating handwheel, 405-transverse guide rail. DETAILED DESCRIPTION

[0037] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention and are not used to limit the present invention.

[0038] The present invention discloses a wire ring damping and shock absorbing telescopic device, such as Figures 1 to 4As shown, it includes a sliding box 101, two telescopic shear struts 102 and a plurality of steel wire damping rings 107. Among them, the two telescopic shear struts 102 are respectively installed on both sides of the sliding box 101, and the telescopic shear struts 102 can be telescoped along the width direction of the expansion joint. Each telescopic shear strut 102 is connected to the corresponding side beams and each middle beam. The sliding box 101 of the present invention includes a first box body and a second box body. The second box body is slidably assembled in the first box body by one end of the first box body. The first box body and the second box body can slide relative to each other along the width direction of the expansion joint. Each side of the first box body is connected to one end of the lower part of the corresponding telescopic shear strut 102, and each side of the second box body is connected to the other end of the lower part of the corresponding telescopic shear strut 102. The above-mentioned multiple steel wire damping rings 107 are installed in the box body cavity 108 between the first box body and the second box body, and these steel wire damping rings 107 are arranged at intervals along the length direction of the middle beam. The working principle and advantages of the present invention are as follows: the wire ring damping and shock absorbing telescopic device of the present invention is to connect each telescopic shear support 102 to the side beam and the middle beam of the expansion joint respectively. Since the connection nodes of the telescopic shear support 102 decrease downward in the vertical direction, the connection nodes at the lower end of the telescopic shear support 102 are the least. The first box and the second box are respectively connected to the connection nodes at both ends of the lower end of the telescopic shear support 102. The first box and the second box are connected by multiple wire damping rings 107. When the two side beams follow the concrete When the earth beams move closer to or farther away from each other, the depth of the mutual insertion of the first box body and the second box body changes. At this time, the upper and lower ends of these steel wire damping rings 107 are subjected to shear force in the tangential direction, so that the elastic deformation of the steel wire damping rings 107 is stable; compared with the existing steel wire damping rings 107 subjected to radial pressure or tension, when the steel wire damping rings 107 are subjected to radial pressure or tension, the elastic deformation of the steel wire damping rings 107 under compression or tension is unstable, which can easily cause the telescopic shear support to extend and retract beyond the predetermined range. Under the elastic pull of the wire damping ring 107, the relative movement of the first box and the second box is extremely stable, thereby causing the two to drive the lower ends of the telescopic shear brace 102 to move closer to or away from each other. The telescopic shear brace 102 gradually transmits the deformation from bottom to top, thereby ensuring that the spacing between the multiple middle beams between the two side beams always remains the same, that is, when the telescopic shear brace 102 is extended, the spacing between the middle beams becomes larger and the intervals are equal. When the telescopic shear brace 102 is contracted, the spacing between the middle beams becomes smaller and the intervals are equal. The wire ring damping and shock absorbing telescopic device of the present invention can effectively ensure that the displacement of the middle beams of the expansion joint is the same, thereby increasing the service life of the expansion joint, and ensuring that the bridge has excellent anti-frost heave ability, thereby improving the quality and life of the bridge.The wire ring damping and shock-absorbing telescopic device of the present invention is assembled before leaving the factory and then installed at the expansion joint; and the existing expansion joint can be improved by cleaning the lower part of the original expansion joint, and then, multiple wire ring damping and shock-absorbing telescopic devices are installed according to needs, so as to achieve the purpose of enhancing the performance of the existing expansion joint.

[0039] As a preferred embodiment of the present invention, Figure 1 、 Figure 3 、 Figure 4As shown, the first box body includes a first vertical plate 1011, an upper end plate 1012, a lower end plate 1013, and two first side plates 1014. The first vertical plate 1011 is detachably mounted on one end of the upper end plate 1012 and the lower end plate 1013 on the same side, and the two first side plates 1014 are detachably connected to both sides of the upper end plate 1012 and the lower end plate 1013, so that the end of the first box body away from the first vertical plate 1011 is in an open state. A notch 1015 is formed at the end of each first side plate 1014 away from the first vertical plate 1011, and the notch 1015 extends along the expansion and contraction direction of the expansion joint. In this embodiment, the second box body includes a second vertical plate 1016, an upper slide plate 1017, a lower slide plate 1018 and two second side plates 1019. The upper slide plate 1017 and the lower slide plate 1018 extend into the first box body from one end of the first box body away from the first vertical plate 1011, and the upper slide plate 1017 and the lower slide plate 1018 are slidingly connected to the upper end plate 1012 and the lower end plate 1013 respectively. The length of the lower slide plate 1018 is greater than the length of the upper slide plate 1017. The ends of the upper slide 1017 and the lower slide 1018 away from the first vertical plate 1011 are both connected to the second vertical plate 1016, and the two sides of the upper slide 1017 and the lower slide 1018 are respectively connected to the two second lateral plates 1019, and the two ends of the telescopic shear brace 102 are respectively connected to the corresponding first lateral plate 1014 and the second lateral plate 1019 through the first connecting shaft 103 and the second connecting shaft 104, and the second connecting shaft 104 passes through the notch 1015. The telescopic shear brace 102 of this embodiment includes a plurality of first rods 1021 and a plurality of second rods 1022. Since there are two side beams and three middle beams in a general expansion joint, the number of the first rods 1021 and the second rods 1022 are four respectively. These first rods 1021 are arranged in parallel and obliquely, and the intervals between adjacent first rods 1021 are the same. The length of the first rod 1021 located at one end is half the length of the other first rods 1021; the second rods 1022 are arranged on a side of the first rod 1021 close to the sliding box 101. These second rods 1022 are arranged in parallel and obliquely. The second rods 1022 are symmetrical with the inclination direction of the first rod 1021, and the intervals between adjacent second rods 1022 are the same. The length of the second rod 1022 located at one end is half the length of the other second rods 1022, and the half-length first rods 1021 and the half-length second rods 1022 are respectively located at the two ends of the telescopic shear brace 102. In this embodiment, the first and second rods 1021 and 1022 are connected at their intersection by a connecting shaft 1023, each of which is threaded with a fastening nut 1024. The upper ends of the first and second rods 1021 and 1022 are connected to the corresponding middle beam at their intersection, and the upper ends of the first and second rods 1021 and 1022 at their ends are connected to their corresponding side beams.

[0040] As a preferred embodiment of the present invention, Figure 1 、 Figure 4 、 Figure 11 、 Figure 13 As shown, two damping ring fixing assemblies are mounted opposite each other on the upper end plate 1012 and the lower slide plate 1018, and the upper and lower ends of each wire damping ring 107 are respectively connected to the two damping ring fixing assemblies. The damping ring fixing assembly of this embodiment includes a first connecting bar 105 and a second connecting bar 106 arranged vertically opposite each other. The first connecting bar 105 includes a first strip-shaped body 1051. On the end surface of the first strip-shaped body 1051 near the second strip-shaped body 1061, limit pins 1052 are respectively provided at both ends along the length direction of the end surface; the second connecting bar 106 includes a second strip-shaped body 1061. Two limit holes 1064 are defined on the end surface of the second strip-shaped body 1061 near the first strip-shaped body 1051, and the limit pins 1052 are provided in a one-to-one correspondence with the limit holes 1064. A plurality of half grooves 1062 are respectively provided on the end surfaces of the first strip body 1051 and the second strip body 1061 that are close to each other. These half grooves 1062 are arranged at intervals along the arrangement direction of the wire damping ring 107. A connecting hole 1063 is provided on the first strip body 1051 and between adjacent half grooves 1062. A connecting hole 1063 is also provided on the second strip body 1061 and between adjacent half grooves 1062. The connecting holes 1063 on the first strip body 1051 and the second strip body 1061 are arranged in a one-to-one correspondence. The first strip body 1051 and the second strip body 1061 are connected by a plurality of connecting bolts, and one end of each connecting bolt is threadedly connected in turn to the two aligned connecting holes 1063. When the first strip body 1051 and the second strip body 1061 are buckled together, the corresponding half grooves 1062 on the first strip body 1051 and the second strip body 1061 are buckled together to form a complete tightening groove 109, and the wire damping ring 107 is fixed in the corresponding tightening groove 109.

[0041] The present invention also discloses a processing system for the above-mentioned wire ring damping and shock absorbing telescopic device, such as Figures 5 to 18As shown, there are an adjustable support ring mechanism 200, an auxiliary fixed ring mechanism 300 and an adjustable assembly mechanism 400. The adjustable support ring mechanism 200 and the auxiliary fixed ring mechanism 300 are relatively arranged at the two ends of the first installation station. The multiple wire damping rings 107 in the sliding box 101 are installed at the first installation station. The sliding box 101 at the first installation station is not complete. The two sides of the adjustable support ring mechanism 200 and the auxiliary fixed ring mechanism 300 are in an open state, so as to facilitate the supply of the wire damping rings 107 by the adjustable support ring mechanism 200 and the positioning of the wire damping rings 107 by the auxiliary fixed ring mechanism 300. A second installation station is provided on one side of the first installation station, and a complete sliding box 101 is provided on the second installation station. An adjustable assembly mechanism 400 is provided at the second installation station. The adjustable assembly mechanism 400 is used for positioning and installing the telescopic shear struts 102, and the telescopic shear struts 102 on both sides of the sliding box 101 are installed at the second installation station. The working principle and advantages of the present invention are as follows: the processing system of the present invention assembles a plurality of steel wire damping rings 107 on the adjustable support ring mechanism 200, and then, by controlling the expansion and contraction of the adjustable support ring mechanism 200, the spacing of the steel wire damping rings 107 thereon is synchronously increased until it reaches a predetermined distance; then, the adjustable support ring mechanism 200 is controlled to move to the first installation station, and then, the auxiliary fixed ring mechanism 300 is controlled to position these steel wire damping rings 107 to a predetermined position, and the upper and lower ends of each steel wire damping ring 107 are fixed by a manipulator, a pneumatic wrench, or an electric wrench. They are connected to the first box and the second box respectively. After completion, the adjustable support ring mechanism 200 and the auxiliary fixed ring mechanism 300 are controlled to return to their positions, and the uninstalled parts of the first box and the second box at the first installation station are installed. Next, the process is transferred to the second installation station. At the second installation station, the adjustable assembly mechanism 400 limits the position and posture of the two telescopic shear struts 102 to prevent the telescopic shear struts 102 from elastically expanding and contracting during the installation process, which may result in unqualified products. Finally, the two telescopic shear struts 102 are installed on both sides of the sliding box 101. Due to the use of the above-mentioned processing system, the present invention can accurately adjust the spacing of the steel wire damping ring 107, precisely align the installation position of the steel wire damping ring 107, avoid twisting of the steel wire damping ring 107 during the installation process, and ensure that the telescopic shear struts 102 are installed on both sides of the sliding box 101 while maintaining a predetermined posture, thereby ensuring the quality of the assembled steel wire ring damping and shock absorbing telescopic device.

[0042] As a preferred embodiment of the present invention, Figures 5 to 7As shown, the adjustable support ring mechanism 200 includes a first sliding rail 201, a first linear slide 202, a first vertical seat 203, a longitudinal mounting rod 204, a pneumatic stretching assembly, and a plurality of support ring assemblies 205. The first linear slide 202 is mounted on the first sliding rail 201 and can move toward or away from the first installation station on the first sliding rail 201. The first linear slide 202 is connected to the longitudinal mounting rod 204 via the first vertical seat 203. The longitudinal mounting rod 204 has a length that is consistent with the extension direction of the first sliding rail 201. The multiple support ring assemblies 205 described in this embodiment are evenly connected to the longitudinal mounting rod 204 along the length direction of the longitudinal mounting rod 204, and adjacent support ring assemblies 205 are connected by connecting springs 206; the support ring assembly 205 at one end is fixedly connected to the longitudinal mounting rod 204, and the support ring assembly 205 at the other end is connected to the pneumatic stretching assembly, and each support ring assembly 205 located between the support ring assemblies 205 at the two ends is movably connected to the longitudinal mounting rod 204, and the support ring assembly 205 connected to the pneumatic stretching assembly is also movably connected to the longitudinal mounting rod 204. The working principle and advantages of this embodiment are as follows: First, multiple wire damping rings 107 are assembled on respective support ring assemblies 205, and these support ring assemblies 205 are synchronously controlled to tighten the wire damping rings 107 (i.e., the wire damping rings 107 do not move relative to the corresponding support ring assemblies 205). Next, a pneumatic tensioning assembly is controlled to adjust the spacing between the support ring assemblies 205. During the tensioning process, all connecting springs 206 expand and contract uniformly, thereby ensuring that the spacing between the wire damping rings 107 reaches a predetermined installation spacing. Next, the first linear slide 202 is controlled to move along the first sliding rail 201 until all the support ring assemblies 205 on the longitudinal mounting rod 204 extend into predetermined positions within the sliding box 101. This embodiment allows the pneumatic tensioning assembly to adjust the spacing between the support ring assemblies 205 according to the different installation spacing requirements of the wire damping rings 107, thereby improving adjustment efficiency and accuracy and avoiding positional deviation of individual wire damping rings 107 caused by individual adjustments.

[0043] As a preferred embodiment of the present invention, Figure 9As shown, the support ring assembly 205 includes a mounting sleeve 2051 and two telescopic rods. The mounting sleeve 2051 is fitted onto the longitudinal mounting rod 204. Connecting flanges 2052 are constructed at each axial end of the mounting sleeve 2051. The adjacent connecting flanges 2052 in adjacent mounting sleeves 2051 are connected to the respective ends of the connecting spring 206. In this embodiment, the two telescopic rods are symmetrically mounted on the outer peripheral wall of the mounting sleeve 2051. Each telescopic rod includes a plug rod 2053 and a plug tube 2054. One end of the plug rod 2053 is fixedly mounted on the mounting sleeve 2051 and extends horizontally outward in the radial direction of the mounting sleeve 2051. The end of the plug rod 2053 remote from the mounting sleeve 2051 is movably inserted into the plug tube 2054. A support ring seat 2056 is constructed at the end of the plug tube 2054 remote from the mounting sleeve 2051. In this embodiment, a guide sleeve 2055 is configured at one end of each insertion tube 2054 near the support ring seat 2056. Longitudinal guide rods 217 are symmetrically arranged on both sides of the longitudinal mounting rod 204, and each longitudinal guide rod 217 sequentially passes through the guide sleeve 2055 on the corresponding side. A transverse drive member 216 is provided at each end of each longitudinal guide rod 217, and the end of each transverse drive member 216 away from the longitudinal guide rod 217 is connected to the longitudinal mounting rod 204. The working principle and advantages of this embodiment are as follows: By controlling the synchronous operation of the transverse drive member 216, the two longitudinal guide rods 217 drive the two telescopic rods on each assembly sleeve 2051 to synchronously extend and retract. Specifically, when the two telescopic rods are synchronously driven to retract, the spacing between the two support ring seats 2056 in the support ring assembly 205 decreases, thereby facilitating the installation or removal of the wire damping ring 107. When the two telescopic rods are synchronously driven to extend, the spacing between the two support ring seats 2056 in the support ring assembly 205 increases, thereby causing the two support ring seats 2056 to tighten the wire damping ring 107. Furthermore, when the spacing of the support ring assembly 205 is adjusted, the insertion tube 2054 moves along the length of the longitudinal guide rod 217 under the action of the guide sleeve 2055. Moreover, the inner cavity of the guide sleeve 2055 of this embodiment is separated from the inner cavity of the plug-in tube 2054 to prevent the plug-in rod 2053 from contacting the longitudinal guide rod 217 when moving in the plug-in tube 2054, thereby preventing obstruction of the support ring assembly 205 from moving along the length direction of the longitudinal mounting rod 204.

[0044] As a preferred embodiment of the present invention, Figure 8As shown, the pneumatic stretching assembly includes a stretching rod 207, a connecting plate 208, and two connecting rods 215. The stretching rod 207 is movably inserted into the end of the longitudinal mounting rod 204 away from the first vertical seat 203, and the connecting plate 208 is constructed at the end of the stretching rod 207 away from the longitudinal mounting rod 204. The connecting plate 208 is connected to the support ring assembly 205 adjacent to each other through the two connecting rods 215 mentioned above. In this embodiment, a first air guide channel 209 is provided in the longitudinal mounting rod 204, and a second air guide channel 210 is provided in the stretching rod 207, and the first air guide channel 209 and the second air guide channel 210 are interconnected. A first air guide joint 211 and a second air guide joint 213 are respectively constructed at the ends of the longitudinal mounting rod 204 and the stretching rod 207 away from each other, and a first solenoid valve 212 and a second solenoid valve 214 are respectively installed on the first air guide joint 211 and the second air guide joint 213. The operating principle and advantages of this embodiment are as follows: when the spacing between the support ring assemblies 205 needs to be adjusted, the first solenoid valve 212 is opened and the second solenoid valve 214 is closed, allowing high-pressure gas to enter the first air channel 209. Driven by the high-pressure gas, the connecting plate 208 drives the stretch rod 207 to move away from the longitudinal mounting rod 204. This allows the spacing between the support ring assemblies 205 to be adjusted by the pull of the connecting rod 215. When the spacing is adjusted to the predetermined distance, the first solenoid valve 212 is closed. When the support ring assemblies 205 need to be returned to their original positions, the second solenoid valve 214 is opened to discharge the high-pressure gas in the first and second air channels 209, 210. Under the elastic return of the connecting spring 206, the support ring assemblies 205 gradually return to their original positions, returning the spacing between the support ring assemblies 205 to their initial state. This embodiment allows the medium entering the first and second air channels 209, 210 to be replaced with pressurized water or hydraulic oil. Furthermore, by changing the pressure of the medium and the amount of the medium entering the first air guide channel 209 and the second air guide channel 210 , the spacing between the support ring assemblies 205 is adjusted to meet the requirements of different spacings of the wire damping rings 107 in different models of sliding boxes 101 .

[0045] As a preferred embodiment of the present invention, Figures 10 to 13As shown, the auxiliary fixed ring mechanism 300 includes a second sliding rail 301, a second linear slide 302, a second vertical seat 303, and an adapter seat 304. The second linear slide 302 is mounted on the second sliding rail 301 and can move toward or away from the first installation station on the second sliding rail 301. The second linear slide 302 is connected to the adapter seat 304 via the second vertical seat 303. Vertical drive members 305 are symmetrically mounted on the upper and lower end surfaces of the adapter seat 304, and air suction bar seats 306 are respectively mounted on the ends of the two vertical drive members 305 that are away from each other. An assembly slot 307 is constructed at one end of the two air-suction bar seats 306 that are close to each other. Each air-suction bar seat 306 has an air cavity, and a plurality of air suction holes 308 are opened in the assembly slot 307. These air suction holes 308 are all connected to the air cavity. A conductive hose 309 is connected to the air-suction bar seat 306, and the conductive hose 309 is connected to the air cavity. The working principle and advantage of this embodiment are as follows: at the first installation station, the two first connecting bars 105 are pre-installed on the upper end plate 1012 and the lower slide plate 1018 respectively through a plurality of fastening bolts. Each fastening bolt is threaded into a corresponding connecting hole 1063 in the first connecting bar 105, and the end of the fastening bolt does not protrude from the connecting hole 1063; then, the two second connecting bars 106 are respectively installed in the assembly slots 307 of the two air-suction bar seats 306. At the same time, the two assembly slots 307 are suctioned so that the second connecting bars 106 are firmly assembled in the assembly slots 307. Afterwards, the second linear slide 302 is controlled to move along the second sliding rail 301, so that the two air suction bar seats 306 extend into the incompletely assembled sliding box 101, and the two second connecting bars 106 correspond one to one with the two first connecting bars 105; then, the adjustable support ring mechanism 200 is controlled to stretch the steel wire damping ring 107 thereon in the horizontal direction to deform it, so that the vertical length of the steel wire damping ring 107 becomes smaller, and the adjustable support ring mechanism 200 is controlled to move the steel wire damping ring 107 into the sliding box 101, And the upper end of each steel wire damping ring 107 is located between the first connecting bar 105 and the second connecting bar 106 at the upper end, and the upper end of each steel wire damping ring 107 is located between the first connecting bar 105 and the second connecting bar 106 at the lower end; next, the stretching of the steel wire damping ring 107 by the adjustable support ring mechanism 200 is released, and the steel wire damping ring 107 elastically returns to its original position, so that the upper and lower ends of the steel wire damping ring 107 stretch naturally, so that the lower ends of the steel wire damping ring 107 extend into the corresponding half grooves 1062 respectively.Afterwards, the two vertical driving members 305 are controlled to move synchronously, so that the two drive the two air-suction bar seats 306 to move backwards until each second connecting bar 106 contacts each other with the first connecting bar 105; then, each fastening bolt is tightened so that the first connecting bar 105 and the second connecting bar 106 are connected and fixed by the fastening bolts, and the upper and lower ends of the wire damping ring 107 are respectively fixed in the corresponding tightening grooves 109; after the tightening is completed, all the telescopic rods of the adjustable support ring mechanism 200 are controlled to retract, and then the adjustable support ring mechanism 200 is controlled to return; at the same time, the two vertical driving members 305 are controlled to retract, and then the auxiliary fixed ring mechanism 300 is controlled to return. In order to prevent the first connecting bar 105 and the second connecting bar 106 from relative displacement after alignment, the present embodiment adopts the following measures: limiting pins 1052 are respectively constructed at both ends of the first connecting bar 105 close to the second connecting bar 106, and limiting holes 1064 are respectively constructed at both ends of the second connecting bar 106 close to the first connecting bar 105; when the first connecting bar 105 and the second connecting bar 106 are aligned and in contact, the two limiting pins 1052 are respectively assembled in the two limiting holes 1064.

[0046] As a preferred embodiment of the present invention, Figures 14 to 18As shown, the adjustable assembly mechanism 400 includes a transverse transmission rod 403, two telescopic limiter assemblies 401, and two vertical adjustment assemblies 402. The two telescopic limiter assemblies 401 are symmetrically arranged on either side of the sliding box 101, and the two vertical adjustment assemblies 402 are respectively connected to the two telescopic limiter assemblies 401. The two vertical adjustment assemblies 402 are slidably connected to the transverse guide rail 405. In this embodiment, the two vertical adjustment assemblies 402 extend from each end of the transverse transmission rod 403, and the transverse transmission rod 403 and the two vertical adjustment assemblies 402 are connected in opposite directions. A first operating handwheel 404 is mounted on one end of the transverse transmission rod 403. The working principle and advantages of this embodiment are as follows: this embodiment assembles two telescopic shear struts 102 on two telescopic amount limiting assemblies 401 respectively, controls the movement of the two vertical adjustment assemblies 402, so that the telescopic amount limiting assemblies 401 and the telescopic shear struts 102 thereon are aligned with the side walls of the sliding box 101; thereafter, rotates the first operating hand wheel 404 to drive the transverse transmission rod 403 to rotate, and under the transmission of the transverse transmission rod 403, the two telescopic amount limiting assemblies 401 drive the two telescopic shear struts 102 to move relative to each other and gradually approach the sliding box 101; when the two telescopic shear struts 102 reach the predetermined position, the first connecting shaft 103 and the second connecting shaft 104 are used to connect the telescopic shear struts 102 to the sliding box 101, and then tightens the fastening nuts 1024 on each connecting shaft 1023 to finally obtain a wire ring damping and shock absorbing telescopic device. This embodiment adjusts the telescopic degree and posture of the pre-installed telescopic shear brace 102 through the telescopic amount limiting component 401, so as to avoid changes in the posture and / or position of the telescopic shear brace 102 during the installation process, thereby causing the obtained wire ring damping and shock-absorbing telescopic device to fail to meet the requirements.

[0047] As a preferred embodiment of the present invention, Figure 17 、 Figure 18As shown, the telescopic amount limiting assembly 401 includes an adjusting seat 4011 and two limiting seats 4013, and the two limiting seats 4013 are arranged at intervals along the telescopic direction of the telescopic shear support 102. A limiting groove 4014 is constructed on the side of each limiting seat 4013 close to the sliding box 101, wherein the two first rod bodies 1021 are respectively assembled in the two limiting seats 4013; three insertion holes 4015 are opened on the limiting seat 4013, and two of the three insertion holes 4015 are respectively aligned with the two corresponding connecting shafts 1023, and the other insertion hole 4015 is aligned with the corresponding first connecting shaft 103 or the second connecting shaft 104. An adapter sleeve 4016 is constructed in the middle of the limiting seat 4013. The adapter sleeve 4016 is aligned with the insertion hole 4015 located in the middle of the limiting seat 4013. The adapter sleeve 4016 is rotatably connected to the sliding block 4012. A locking bolt 4017 is threadedly connected to the sliding block 4012. By tightening the locking bolt 4017, the adapter sleeve 4016 and the sliding block 4012 are locked at an angle. In this embodiment, each sliding block 4012 is slidably assembled on the adjustment seat 4011. An adjusting screw 4018 is rotatably connected to the ends of the two sliding blocks 4012 that are separated from each other. Each adjusting screw 4018 extends in the telescopic direction of the telescopic shear brace 102. The adjusting screw 4018 is threadedly connected to the adjustment seat 4011. A second operating handwheel 4019 is installed at the end of the adjusting screw 4018. In this embodiment, the angle between the limiting seat 4013 and the sliding block 4012 can be adjusted by loosening the locking bolt 4017, so that the inclination angle of the limiting seat 4013 is consistent with the inclination angle of the first rod 1021. The locking bolt 4017 is then tightened. Thereafter, each second operating hand wheel 4019 is rotated, so that the adjusting screw 4018 drives the sliding block 4012 to move on the adjusting seat 4011 until each limiting seat 4013 is aligned with the corresponding first rod 1021. Thus, it can be seen that in this embodiment, by adjusting the shape of the telescopic amount limiting assembly 401, the telescopic shear brace 102 in different telescopic states can be restricted, ensuring that the telescopic shear brace 102 in the telescopic state is connected to the sliding box 101. The specific structure of the vertical adjustment assembly 402 of this embodiment is as follows: the vertical adjustment assembly 402 includes a vertical guide rail 4021, a sliding seat 4022, and a vertical screw rod 4023. The lower end of the vertical guide rail 4021 is fixedly connected to the adjustment seat 4011, and the sliding seat 4022 is slidably assembled on the vertical guide rail 4021. The sliding seat 4022 is slidably connected to the transverse guide rail 405 via a guide block 4025. The vertical screw rod 4023 of this embodiment is threadedly connected to the sliding seat 4022. The lower end of the vertical screw rod 4023 is rotatably connected to the upper end of the vertical guide rail 4021. A third operating handwheel 4024 is mounted on the upper end of the vertical screw rod 4023.In this embodiment, by rotating the third operating handwheel 4024, the vertical guide rail 4021 is driven to move vertically via the vertical screw rod 4023, thereby achieving the purpose of the vertical guide rail 4021 driving the telescopic amount limiting assembly 401 to move vertically, so that the telescopic shear brace 102 on the telescopic amount limiting assembly 401 is aligned with the side wall of the sliding box 101. The transverse transmission rod 403 of this embodiment is threadedly connected to the two vertical guide rails 4021. By driving the transverse transmission rod 403 to rotate, it drives the two vertical guide rails 4021 toward or away from each other, thereby driving the two telescopic amount limiting assemblies 401 to drive the two telescopic shear braces 102 to complete the alignment operation; after the alignment is completed, all fastening nuts 1024 are tightened.

[0048] The horizontal driving member 216 and the vertical driving member 305 described in the present invention can be electric cylinders, pneumatic cylinders or oil cylinders.

[0049] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art will be able to modify the technical solutions described in the aforementioned embodiments or substitute equivalents for some of the technical features. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the claims of the present invention.

Claims

1. A wire ring damping and shock absorbing telescopic device, characterized in that: The lifting mechanism is a pair of fixedly mounted on two sides of the sliding panel, and the two sides respectively have the support frame, the support frame, the support frame, and the support frame are connected with each other at two opposite ends of the sliding panel to form a round shank and a hook portion. The two lugs have the first pivot place and the second pivot places, a space is defined between the side plates and the bottom bracket, the second pivot places, a space is defined between the side panels, the second pivot places, a space is defined between the sides of the two lugs, and the second pivot places, a space is defined between the two sides of the lugs.

2. A processing system for the wire ring damping and shock absorbing telescopic device according to claim 1, characterized in that: It includes an adjustable support ring mechanism and an auxiliary fixed ring mechanism which are relatively arranged at both ends of the first installation station. Multiple steel wire damping rings in the sliding box are installed at the first installation station. A second installation station is set on one side of the first installation station. A complete sliding box is set on the second installation station. An adjustable assembly mechanism for positioning and installing telescopic shear braces is set at the second installation station. The telescopic shear braces on both sides of the sliding box are installed at the second installation station.

3. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 2, characterized in that: The adjustable support ring mechanism includes a first linear slide mounted on a first sliding rail, the first linear slide can move on the first sliding rail toward or away from the first installation station, the first linear slide is connected to the longitudinal mounting rod through a first vertical seat, the longitudinal mounting rod is consistent with the extension direction of the first sliding rail, a plurality of support ring assemblies are evenly connected to the longitudinal mounting rod along its length direction, adjacent support ring assemblies are connected via connecting springs, the support ring assembly at one end is fixedly connected to the longitudinal mounting rod, the support ring assembly at the other end is connected to the pneumatic stretching assembly, and the support ring assembly located between the support ring assemblies at both ends is movably connected to the longitudinal mounting rod.

4. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 3, characterized in that: The support ring assembly includes an assembly set that is sleeved on the longitudinal mounting rod, and two plug-in rods are symmetrically constructed on the assembly set, each of the plug-in rods extends outward in the radial direction of the assembly set, and each plug-in rod is movably inserted into the plug-in tube at one end away from the assembly set, and a support ring seat is constructed at the end of the plug-in tube away from the assembly set; a guide sleeve is constructed at one end of each plug-in tube close to the support ring seat, and longitudinal guide rods are symmetrically arranged on both sides of the longitudinal mounting rod, and each longitudinal guide rod passes through each guide sleeve on the corresponding side in turn, and a transverse driving member is respectively provided at both ends of each longitudinal guide rod, and each transverse driving member is connected to the longitudinal mounting rod at one end away from the longitudinal guide rod.

5. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 3, characterized in that: The pneumatic stretching assembly includes a stretching rod movably inserted in the end of the longitudinal mounting rod away from the first vertical seat, a connecting plate is constructed at the end of the stretching rod away from the longitudinal mounting rod, the connecting plate is connected to the support ring assembly close to each other through two connecting rods, a first air guide channel is opened in the longitudinal mounting rod, and a second air guide channel is opened in the stretching rod, the first air guide channel and the second air guide channel are connected to each other, a first air guide joint and a second air guide joint are respectively constructed at the ends of the longitudinal mounting rod and the stretching rod away from each other, and a first solenoid valve and a second solenoid valve are respectively installed on the first air guide joint and the second air guide joint.

6. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 2, characterized in that: The auxiliary fixed ring mechanism includes a second linear slide mounted on a second sliding rail. The second linear slide can move on the second sliding rail toward or away from the first installation station. The second linear slide is connected to the adapter seat through a second vertical seat. Vertical driving parts are symmetrically installed on the upper and lower end surfaces of the adapter seat, and air-suction strip seats are respectively installed at the ends of the two vertical driving parts away from each other.

7. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 2, characterized in that: The adjustable assembly mechanism includes two telescopic amount limiting components symmetrically arranged on both sides of the sliding box, each of the telescopic amount limiting components is connected to a vertical adjustment component, the two vertical adjustment components are slidably connected to the transverse guide rail, two vertical adjustment components extend from both ends of the transverse transmission rod respectively, and the transverse transmission rod is reversely threaded with the two vertical adjustment components, and a first operating handwheel is installed at one end of the transverse transmission rod.

8. A processing system for a wire ring damping and shock absorbing telescopic device according to claim 7, characterized in that: The telescopic amount limiting assembly includes two limiting seats arranged at intervals along the telescopic direction of the telescopic shear support, and the two limiting seats are assembled on the adjusting seat through sliding blocks connected thereto, and the ends of the two sliding blocks away from each other are rotatably connected with adjusting screws, and each adjusting screw extends along the telescopic direction of the telescopic shear support, and the adjusting screw is threadedly connected to the adjusting seat, and a second operating handwheel is installed at the end of the adjusting screw; the vertical adjustment assembly includes a vertical guide rail fixed to the adjusting seat at the lower end, the sliding seat is slidably assembled on the vertical guide rail, and a vertical screw is threadedly connected to the sliding seat, the lower end of the vertical screw is rotatably connected to the upper end of the vertical guide rail, and a third operating handwheel is installed at the upper end of the vertical screw.

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