Fabricated shock absorption and sound insulation wall

Abstract

The invention belongs to the technical field of assembly type building damping, and particularly discloses an assembly type damping and sound insulation wall which comprises a wall frame, splicing type wallboards matched with each other are arranged on the two sides of the wall frame, and the splicing type wallboards are connected with a sound insulation assembly arranged on the wall frame; the wall body frame comprises a wall plate framework connected with the splicing type wall plate, and a wall body connecting assembly is arranged on the wall plate framework. The assembly type wall body is composed of the splicing type wall plates on the two sides and the wall body frame, the damping and sound insulation effects of the assembly type wall body can be improved through the sound insulation assembly and the wall body connecting assembly, and the influence of disaster impact such as earthquakes and typhoons on the assembly type wall body is reduced; the problems of shake, distortion, displacement and the like of the fabricated wall body along with the fabricated building are reduced, the problems of breakage, falling, collapse and the like of the fabricated wall body are reduced, injuries to internal and external personnel of the fabricated building are reduced, and the safety of the fabricated building is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of shock absorption of assembled buildings, and in particular relates to an assembled shock-absorbing and sound-insulating wall. Background Art

[0002] Existing prefabricated walls are usually composed of prefabricated wall panels. When the prefabricated buildings are shaken by disasters such as earthquakes and typhoons, the prefabricated wall panels are prone to twisting and shifting as the prefabricated buildings shake, causing the prefabricated walls to break, fall, or collapse, causing harm to people inside and outside the prefabricated buildings.

[0003] In addition, the prefabricated wall panels used in existing prefabricated walls have poor sound insulation effects, and the sound insulation effects of the assembled prefabricated walls are poor and cannot meet the sound insulation requirements of prefabricated buildings. In order to ensure the sound insulation effects of prefabricated buildings, it is necessary to add a sound insulation layer to the assembled walls during construction to ensure the sound insulation effects of the walls. This reduces the construction efficiency of the prefabricated walls and increases the difficulty and expenditure of construction. When the prefabricated buildings are shaken by disasters such as earthquakes and typhoons, the sound insulation layer on the prefabricated walls is very easy to fall off, causing harm to people indoors.

[0004] The Chinese patent with the authorization announcement number CN116145839B discloses an energy-saving building prefabricated wall anti-seismic mechanism, including a layer plate, vertical walls are respectively arranged on both sides of the layer plate, a plurality of fixed columns are fixedly installed on the layer plate, and a fixing groove that cooperates with the fixed column is opened toward the vertical wall, and an anti-seismic mechanism is jointly arranged in the vertical wall and the layer plate, and the anti-seismic mechanism includes a reinforcement column, a storage component, a telescopic component and a control component, and the control component includes a transmission part and an automatic control part. By setting the anti-seismic mechanism composed of the reinforcement column, the storage component, the telescopic component, the transmission part and the automatic control part to cooperate with the fixed column and the fixed groove, it can be When the vertical walls and floor panels vibrate, the seismic resistance of the vertical walls and floor panels is further improved, and the stability of the vertical walls and floor panels is effectively improved; the seismic resistance mechanism of the prefabricated wall of the energy-saving building adopts an automatic control unit to control each component to improve the seismic resistance of the prefabricated wall, but in actual use, since the automatic control unit is in an unactivated state for a long time, it is difficult for it to maintain its own sensitivity for a long time, and earthquakes have the properties of suddenness and contingency. When an earthquake occurs, the wall seismic resistance mechanism is prone to problems such as untimely control, slow control or control errors, which affects the normal use of the wall seismic resistance mechanism and causes harm to people inside and outside the prefabricated building. Summary of the invention

[0005] In view of the above problems, a prefabricated shock-absorbing and sound-insulating wall is provided, which can improve the shock-absorbing and sound-insulating effects of the prefabricated wall.

[0006] Based on the above purpose, the present invention is achieved through the following technical solutions: An assembled shock-absorbing and sound-insulating wall comprises a wall frame, wherein both sides of the wall frame are provided with mutually matching spliced ​​wall panels, and the spliced ​​wall panels are connected to sound-insulating components arranged on the wall frame; the wall frame comprises a wall panel skeleton connected to the spliced ​​wall panels, and a wall connecting component is arranged on the wall panel skeleton.

[0007] Preferably, the wall panel frame includes a main hollow frame, and secondary hollow frames connected to the main hollow frame through a frame rotation axis are symmetrically arranged on both sides of the main hollow frame. A shock-absorbing adjustment structure cooperating with the secondary hollow frame is arranged in the main hollow frame, and the shock-absorbing adjustment structure includes a frame shock-absorbing column arranged in the center of the main hollow frame, and a frame shock-absorbing column is sleeved with a frame shock absorber cooperating with the secondary hollow frame; the main hollow frame includes a pair of detachably connected main frames, which are connected to each other through main pillars, and the main pillars cooperate with the main pillar embedded holes arranged on the inner side of the main frame, and the main frame is provided with main bolts connected to the main pillars; the secondary hollow frame includes a pair of detachably connected secondary frames, which are connected to each other through secondary pillars, and the secondary pillars cooperate with the secondary pillar embedded holes arranged on the inner side of the secondary frame, and the secondary frame is provided with secondary bolts connected to the secondary pillars; the frame rotation axis is provided with a frame spring cooperating with the main hollow frame and the secondary hollow frame.

[0008] Preferably, the skeleton shock absorber includes a skeleton shock absorber cylinder mounted on a skeleton shock absorber column, the skeleton shock absorber cylinder is rotatably connected to the skeleton shock absorber column through a skeleton shock absorber bearing, arc-shaped shock absorber grooves are symmetrically arranged on the side of the skeleton shock absorber cylinder, a shock absorber rotating shaft is arranged in the arc-shaped shock absorber groove, and a shock absorber connecting rod is arranged on the shock absorber rotating shaft; a skeleton shock absorber ring groove is mounted on the skeleton shock absorber bearing, and a skeleton shock absorber coil spring connected to the skeleton shock absorber cylinder is arranged in the skeleton shock absorber ring groove.

[0009] Preferably, shock-absorbing balls are provided at both ends of the skeleton shock-absorbing column, and the shock-absorbing balls cooperate with the shock-absorbing movable grooves arranged on the main hollow skeleton, and a plurality of elastic shock-absorbing plates are evenly distributed in the shock-absorbing movable grooves, and the movable ends of the elastic shock-absorbing plates are connected to the shock-absorbing sleeves arranged at the ends of the skeleton shock-absorbing columns, and the shock-absorbing sleeves and the skeleton shock-absorbing cylinders have a clearance fit; the ends of the skeleton shock-absorbing columns are conical; the shock-absorbing sleeves are provided with a star-shaped limit plate, and the star-shaped limit plate cooperates with the sleeve limit grooves with multiple gaps arranged on the sides of the shock-absorbing movable grooves; a guide shock-absorbing strip is provided in the skeleton shock-absorbing bearing, and the guide shock-absorbing strip cooperates with the guide shock-absorbing grooves arranged on the skeleton shock-absorbing columns, and guide shock-absorbing springs connected to the guide shock-absorbing strips are provided at both ends of the guide shock-absorbing grooves.

[0010] Preferably, the wall connection assembly includes a pair of V-shaped wall connection plates rotatably connected by a wall connection shaft, and a horizontal clamping plate matching the prefabricated building is provided at one end of the wall connection plate away from the wall connection shaft; a wall limiting hole is provided on the side of the wall connection plate, and a wall limiting column is provided in the wall limiting hole. The wall limiting column is symmetrically provided with external threads with opposite thread directions and respectively engaged with the internal threads provided in the wall limiting hole, and the wall limiting column is provided with a wall limiting nut matching the wall connection plate; the wall connection plate is rotatably connected to the wall connection shaft through a rotating sleeve, and a sleeve spring connected to the wall connection shaft is provided in the rotating sleeve.

[0011] Preferably, a wall connecting shaft is provided with a wall connecting sleeve which is rotatably connected to the wall connecting shaft through a wall connecting bearing, a wall connecting sleeve is provided in the wall connecting sleeve, an end of the wall connecting sleeve close to the wall connecting shaft is provided with a sleeve limiting ring plate which cooperates with the wall connecting sleeve, a wall shock-absorbing spring which cooperates with the wall connecting sleeve is sleeved on the wall connecting sleeve, an end of the wall connecting sleeve away from the wall connecting sleeve is provided with a ∧-shaped connecting plate which is connected to the main hollow frame and the auxiliary hollow frame, and the ∧-shaped connecting plate is gap-matched with the wall connecting holes arranged on the main hollow frame and the auxiliary hollow frame.

[0012] Preferably, shock-absorbing fan rings corresponding to the wall connecting holes are provided in the main hollow frame and the auxiliary hollow frame, and wall shock-absorbing grooves are provided on both sides of the shock-absorbing fan rings. The wall shock-absorbing grooves cooperate with the shock-absorbing splints arranged on the inner side of the end of the ∧-shaped connecting plate, and the inner side of the shock-absorbing splints is provided with splint balls, and the splint balls are rollingly connected to the wall shock-absorbing grooves; the shock-absorbing splints are connected to the wall shock-absorbing springs arranged at both ends of the wall shock-absorbing grooves, and the wall shock-absorbing springs are sleeved with wall shock-absorbing telescopic rods, and the two ends of the wall shock-absorbing telescopic rods are respectively connected to the shock-absorbing splints and the ends of the wall shock-absorbing grooves, and the wall shock-absorbing telescopic rods include at least two sections of telescopic sleeve rods, and the telescopic sleeve rods are symmetrically provided with telescopic guide strips, and the telescopic guide strips cooperate with the telescopic guide grooves arranged in the telescopic sleeve rods.

[0013] Preferably, a fan ring rotating shaft is provided in the center of the shock-absorbing fan ring, and a wall shock-absorbing coil spring is provided on the fan ring rotating shaft; limit shafts are provided at both ends of the shock-absorbing fan ring; and a foldable spring protective plate connected to the shock-absorbing splint is provided on the wall shock-absorbing groove.

[0014] Preferably, the fan ring rotating shaft cooperates with the shock-absorbing component arranged at the end of the shock-absorbing connecting rod, the shock-absorbing component includes a shock-absorbing sleeve rod mounted on the shock-absorbing connecting rod, a sleeve rod spring cooperating with the shock-absorbing connecting rod is sleeved in the shock-absorbing sleeve rod, a sleeve rod guide ring is provided at the end of the shock-absorbing sleeve rod, the sleeve rod guide ring cooperates with the sleeve rod guide groove arranged on the shock-absorbing connecting rod, and the sleeve rod guide groove cooperates with the sleeve rod guide protrusion arranged in the sleeve rod guide ring; a shock-absorbing sleeve ring connected to the fan ring rotating shaft is provided at one end of the shock-absorbing sleeve rod away from the shock-absorbing connecting rod; the fan ring rotating shaft cooperates with the arc-shaped shock-absorbing groove arranged on the main hollow frame and the secondary hollow frame, an arc-shaped shock-absorbing strip is provided on the side of the arc-shaped shock-absorbing groove, the arc-shaped shock-absorbing strip cooperates with the shock-absorbing cam arranged at the end of the fan ring rotating shaft, and the shock-absorbing cam is connected to the cam connecting shaft arranged at the end of the fan ring rotating shaft through a cam shock-absorbing coil spring.

[0015] Preferably, the sound insulation component includes a sound insulation pad layer arranged in the main hollow frame and the secondary hollow frame, at least two concentric sound insulation rings are provided on both sides of the sound insulation pad layer, and the sound insulation rings are connected by a sound insulation channel; the sound insulation pad layer, the sound insulation rings and the sound insulation channel are evenly distributed with uneven sound insulation protrusions; the main hollow frame and the secondary hollow frame are provided with splicing holes that match the splicing wall panels.

[0016] Compared with the prior art, the present invention has the following beneficial effects: (1) The present invention forms an assembled wall through the spliced ​​wall panels and wall frames on both sides. The sound insulation components and wall connection components can improve the shock absorption and sound insulation effects of the assembled wall, reduce the impact of disasters such as earthquakes and typhoons on the assembled wall, reduce the shaking, distortion, displacement and other problems of the assembled wall caused by the assembled building, reduce the problems of breakage, falling, collapse and other problems of the assembled wall, reduce the damage to people inside and outside the assembled building, and improve the safety of the assembled building.

[0017] (2) The wall frame is formed by connecting the main hollow frame and the secondary hollow frame through a frame shaft. When impacted by a disaster, the angle between the main hollow frame and the secondary hollow frame can be changed. The impact force of the disaster is reduced by the frame spring, reducing the damage to the spliced ​​wall panels caused by the disaster, thereby improving the safety of the prefabricated wall. The main hollow frame is connected to the secondary hollow frame through a shock-absorbing adjustment structure, so that the overall wall panel frame has the ability to resist the impact of disasters, greatly improving the shock-absorbing effect of the prefabricated wall and meeting the shock-absorbing requirements of prefabricated buildings. The wall panel frame transforms the existing prefabricated wall panels so that the prefabricated walls can be freely combined and spliced ​​according to needs, which facilitates the construction and transformation of the prefabricated walls.

[0018] (3) The skeleton shock absorber is achieved by installing a skeleton shock absorber tube on the skeleton shock absorber column. The skeleton shock absorber tube absorbs the vibration impact force transmitted to the main hollow frame and the secondary hollow frame by the prefabricated building through the shock absorbing connecting rod. The skeleton shock absorbing coil spring buffers and absorbs the vibration impact force, thereby reducing the shock wave peak of the disaster and reducing the damage to the prefabricated wall caused by the vibration impact force, thereby ensuring the stability and safety of the prefabricated wall.

[0019] (4) The frame shock-absorbing column can move in the shock-absorbing groove in the main hollow frame through the shock-absorbing balls, and absorb the force applied to the frame shock-absorbing column through multiple elastic shock-absorbing plates, thereby greatly reducing the impact of external forces on the prefabricated wall, reducing the damage caused by external forces to the prefabricated wall, and meeting the shock-absorbing and earthquake-resistant requirements of the prefabricated wall.

[0020] (5) The wall connection assembly is connected to the prefabricated building body through a pair of V-shaped wall connection plates. The wall connection plates are connected by wall limit columns. The external threads on the wall limit columns with opposite thread directions are engaged with the internal threads in the wall limit holes. By adjusting the wall limit columns, the angle between the wall connection plates can be adjusted, so that the pair of wall connection plates are tightly fixed on the prefabricated building, which facilitates the installation of the wall frame on the prefabricated building.

[0021] (6) The wall connection assembly is connected to the wall connection sleeve through the wall connection shaft. The wall shock-absorbing spring in the wall connection sleeve is used to weaken the force transmitted by the wall connection shaft. The remaining force is transmitted to the shock-absorbing fan ring through the wall connection sleeve, the ∧-shaped connection plate and the wall connection hole, and the shock-absorbing fan ring is used for further shock absorption.

[0022] (7) The shock-absorbing fan ring can rotate in the main hollow frame and the auxiliary hollow frame through the fan ring rotating shaft, and move in the arc-shaped shock-absorbing groove. Through various combinations, it absorbs the force transmitted to the shock-absorbing fan ring by the buffer ∧-shaped connecting plate, thereby reducing the possibility of deformation of the prefabricated wall under external action; the shock-absorbing splint on the ∧-shaped connecting plate can move along the wall shock-absorbing groove on both sides of the shock-absorbing fan ring, and the wall shock-absorbing springs at both ends of the wall shock-absorbing groove absorb the force generated during the movement of the shock-absorbing splint, reduce the movement range and strength of the shock-absorbing splint, and reduce the force generated by vibration.

[0023] (8) When the shock-absorbing fan ring is subjected to the force transmitted by the ∧-shaped connecting plate, it rotates around the fan ring shaft, absorbs and buffers the force through the fan ring shaft, and reduces the influence of external vibration on the main hollow frame and the secondary hollow frame; the limit shafts at both ends of the shock-absorbing fan ring can prevent the ∧-shaped connecting plate from being separated from the shock-absorbing fan ring; the spring protection plate can prevent the wall shock-absorbing spring in the wall shock-absorbing groove from being separated from the wall shock-absorbing groove, and at the same time facilitate the wall shock-absorbing spring to continuously and stably provide buffering force for the shock-absorbing splint.

[0024] (9) The force applied to the shock-absorbing fan ring is transmitted to the shock-absorbing component through the fan ring rotating shaft, and then transmitted to the shock-absorbing connecting rod through the shock-absorbing connecting rod. The shock-absorbing component cooperates with the shock-absorbing sleeve rod and the sleeve rod spring to absorb the force brought by the fan ring rotating shaft through the expansion and contraction of the sleeve rod spring; the arc-shaped shock-absorbing groove guides the fan ring rotating shaft so that the force transmitted by the shock-absorbing fan ring can be absorbed by the shock-absorbing component, preventing the shock-absorbing fan ring from swinging too much and affecting the assembled wall.

[0025] (10) The sound insulation component is realized by filling the main hollow frame and the auxiliary hollow frame with a sound insulation cushion layer. The concentric sound insulation rings on the sound insulation cushion layer can absorb noise. The uneven sound insulation protrusions on the sound insulation cushion layer, the sound insulation ring and the sound insulation channel can diffusely reflect the noise, which can greatly reduce the noise transmission efficiency and improve the noise filtering effect. The spliced ​​wall panels are fixed to the main hollow frame and the auxiliary hollow frame through the splicing holes, and are arranged and cut and installed according to the actual installation needs, which can improve the construction effect of the prefabricated wall.

[0026] In summary, the present invention forms an assembled wall by assembling spliced ​​wall panels and wall frames. The assembled wall is installed in an assembled building through a wall connection component. When the assembled building is impacted by a disaster and vibrates, the wall connection component can absorb and buffer the vibration force transmitted by the assembled building, reduce the impact force of the disaster on the assembled wall, prevent the assembled wall from shaking, twisting, shifting and other problems, reduce the possibility of breakage, falling and collapse of the assembled wall, and ensure the safety of people inside and outside the assembled building; absorb the noise inside and outside the building through the sound insulation component, reduce the harm of the noise to people in the assembled building, and the sound insulation component built into the wall frame prevents the sound insulation cushion from detaching from the assembled wall and causing harm to people when the assembled building shakes, thereby further improving the safety and stability of the assembled wall. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the structure of the present invention in Example 1; Figure 2 is a schematic structural diagram of the wall panel skeleton in Example 1; Figure 3 is a structural schematic diagram of the shock-absorbing adjustment structure in Example 1; Figure 4 is a schematic structural diagram of the skeleton shock-absorbing column in Example 1; Figure 5 is a schematic structural diagram of the skeleton shock absorber in Example 1; Figure 6 is a schematic structural diagram of the wall connection assembly in Example 1; Figure 7 is a front structural schematic diagram of the ∧-shaped connecting plate in Example 1; Figure 8is a schematic structural diagram of the wall limiting column in Example 1; Fig. 9 is a schematic structural diagram of the shock absorbing fan ring in Example 1; Fig.10 It is a schematic diagram of the structure of the shock absorbing component in Example 1.

[0028] In the figure, a spliced ​​wall panel 1, a secondary hollow frame 2, a wall connection component 3, a wall connection hole 4, a frame shaft 5, a main hollow frame 6, a splicing hole 7, a wall connection shaft 301, a wall connection plate 302, a wall limiting nut 303, a horizontal card plate 304, a wall limiting hole 305, a wall limiting column 306, a wall connection sleeve 307, a wall connection sleeve shaft 308, a ∧-shaped connection plate 309, a shock-absorbing splint 310, a shock-absorbing fan ring 311, and a shock-absorbing Sleeve rod 312, fan ring shaft 313, splint ball 314, wall shock-absorbing groove 315, limit shaft 316, shock-absorbing collar 317, sleeve rod guide ring 318, sleeve rod guide protrusion 319, sleeve rod guide groove 320, skeleton shock-absorbing column 601, skeleton shock-absorbing cylinder 602, shock-absorbing sleeve 603, arc-shaped shock-absorbing groove 604, shock-absorbing shaft 605, shock-absorbing connecting rod 606, skeleton shock-absorbing bearing 607, shock-absorbing ball 608, elastic shock-absorbing plate 609. DETAILED DESCRIPTION

[0029] The present invention is further described below by means of specific examples, but the scope of the present invention is not limited thereto.

[0030] Example 1 An assembled shock-absorbing and sound-insulating wall, the structure of which is as follows Figure 1-10 As shown, Figure 5 The shock-absorbing connecting rod 606 is not shown, and includes a wall frame. The two sides of the wall frame are provided with mutually matching spliced ​​wall panels 1, and the spliced ​​wall panels 1 are connected to the sound insulation components arranged on the wall frame; the wall frame includes a wall panel skeleton connected to the spliced ​​wall panels 1, and a wall connection component 3 is provided on the wall panel skeleton.

[0031] The wall panel frame includes a main hollow frame 6, and secondary hollow frames 2 connected to the main hollow frame 6 through a frame shaft 5 are symmetrically arranged on both sides of the main hollow frame 6. A shock-absorbing adjustment structure matched with the secondary hollow frame 2 is arranged in the main hollow frame 6. The shock-absorbing adjustment structure includes a frame shock-absorbing column 601 arranged at the center of the main hollow frame 6, and a frame shock absorber matched with the secondary hollow frame 2 is sleeved on the frame shock-absorbing column 601; a frame spring matched with the main hollow frame 6 and the secondary hollow frame 2 is arranged on the frame shaft 5.

[0032] The skeleton shock absorber includes a skeleton shock absorber cylinder 602 mounted on a skeleton shock absorber column 601, and the skeleton shock absorber cylinder 602 is rotatably connected to the skeleton shock absorber column 601 through a skeleton shock absorber bearing 607. Arc-shaped shock absorber grooves 604 are symmetrically arranged on the side of the skeleton shock absorber cylinder 602, and a shock absorber shaft 605 is arranged in the arc-shaped shock absorber groove 604, and a shock absorber connecting rod 606 is arranged on the shock absorber shaft 605; a skeleton shock absorber ring groove is mounted on the skeleton shock absorber bearing 607, and a skeleton shock absorber coil spring connected to the skeleton shock absorber cylinder 602 is arranged in the skeleton shock absorber ring groove.

[0033] Shock-absorbing balls 608 are provided at both ends of the skeleton shock-absorbing column 601, and the shock-absorbing balls 608 cooperate with the shock-absorbing movable grooves arranged on the main hollow skeleton 6. A plurality of elastic shock-absorbing plates 609 are evenly distributed in the shock-absorbing movable grooves, and the movable ends of the elastic shock-absorbing plates 609 are connected to the shock-absorbing sleeves 603 arranged at the ends of the skeleton shock-absorbing column 601.

[0034] The wall connection assembly 3 includes a pair of V-shaped wall connection plates 302 rotatably connected by a wall connection shaft 301, and a horizontal clamping plate 304 matching the prefabricated building is provided at one end of the wall connection plate 302 away from the wall connection shaft 301; a wall limiting hole 305 is provided on the side of the wall connection plate 302, and a wall limiting column 306 is provided in the wall limiting hole 305, and the wall limiting column 306 is symmetrically provided with external threads with opposite thread directions and respectively meshed with the internal threads set in the wall limiting hole 305, and the wall limiting column 306 is provided with a wall limiting nut 303 matching the wall connection plate 302.

[0035] A wall connecting shaft 301 is provided with a wall connecting sleeve 307 which is rotatably connected to the wall connecting shaft 301. A wall connecting sleeve 308 is provided inside the wall connecting sleeve 307. A wall shock-absorbing spring which cooperates with the wall connecting sleeve 307 is sleeved on the wall connecting sleeve 308. An end of the wall connecting sleeve 308 away from the wall connecting sleeve 307 is provided with a ∧-shaped connecting plate 309 which is connected to the main hollow frame 6 and the secondary hollow frame 2. The ∧-shaped connecting plate 309 is gap-matched with the wall connecting hole 4 arranged on the main hollow frame 6 and the secondary hollow frame 2.

[0036] The main hollow frame 6 and the auxiliary hollow frame 2 are provided with a shock-absorbing fan ring 311 corresponding to the wall connection hole 4. The two sides of the shock-absorbing fan ring 311 are provided with a wall shock-absorbing groove 315. The wall shock-absorbing groove 315 cooperates with the shock-absorbing clamping plate 310 arranged on the inner side of the end of the ∧-shaped connecting plate 309. The inner side of the shock-absorbing clamping plate 310 is provided with a clamping plate ball 314, and the clamping plate ball 314 is rollingly connected with the wall shock-absorbing groove 315; the shock-absorbing clamping plate 310 is connected with the wall shock-absorbing springs arranged at both ends of the wall shock-absorbing groove 315. The center of the shock-absorbing fan ring 311 is provided with a fan ring rotating shaft 313, and the fan ring rotating shaft 313 is provided with a wall shock-absorbing coil spring; the two ends of the shock-absorbing fan ring 311 are provided with a limit shaft 316; the wall shock-absorbing groove 315 is provided with a foldable spring protection plate connected with the shock-absorbing clamping plate 310.

[0037] The fan ring shaft 313 cooperates with the shock-absorbing component arranged at the end of the shock-absorbing connecting rod 606, and the shock-absorbing component includes a shock-absorbing sleeve rod 312 sleeved on the shock-absorbing connecting rod 606, and a sleeve rod spring cooperating with the shock-absorbing connecting rod 606 is sleeved in the shock-absorbing sleeve rod 312, and a sleeve rod guide ring 318 is provided at the end of the shock-absorbing sleeve rod 312, and the sleeve rod guide ring 318 cooperates with a sleeve rod guide groove 320 arranged on the shock-absorbing connecting rod 606, and the sleeve rod guide groove 320 cooperates with a sleeve rod guide protrusion 319 arranged in the sleeve rod guide ring 318; a shock-absorbing sleeve rod 312 is provided with a shock-absorbing sleeve ring 317 connected to the fan ring shaft 313 at one end away from the shock-absorbing connecting rod 606; the fan ring shaft 313 cooperates with the arc-shaped shock-absorbing groove 604 arranged on the main hollow frame 6 and the secondary hollow frame 2.

[0038] The sound insulation component includes a sound insulation pad arranged in the main hollow frame 6 and the auxiliary hollow frame 2, at least two concentric sound insulation rings are arranged on both sides of the sound insulation pad, and the sound insulation rings are connected by a sound insulation channel; the sound insulation pad, the sound insulation rings and the sound insulation channel are evenly distributed with uneven sound insulation protrusions; the main hollow frame 6 and the auxiliary hollow frame 2 are provided with splicing holes 7 that match the splicing wall panel 1.

[0039] A method for using an assembled shock-absorbing and sound-insulating wall, comprising the following steps: S1. Assembly of prefabricated shock-absorbing and sound-insulating walls.

[0040] Ⅰ. Preparation work before installation of assembled shock-absorbing and sound-insulating walls; The secondary hollow frame 2 of the present invention adopts a variety of sizes, which is convenient for selecting a secondary hollow frame 2 of appropriate specifications according to the space of the prefabricated wall reserved for the prefabricated building. When the wall panel frame is installed, the main hollow frame 6 and the secondary hollow frame 2 are first connected through the frame shaft 5, and the frame spring is installed on the frame shaft 5, so that the two ends of the frame spring are respectively fixed on the main hollow frame 6 and the secondary hollow frame 2, and then, the assembly cover plates on the sides of the main hollow frame 6 and the secondary hollow frame 2 are opened, and the shock-absorbing adjustment structure inside the main hollow frame 6 is connected to the wall connection components 3 on the main hollow frame 6 and the secondary hollow frame 2.

[0041] Ⅱ. Installation of wall panel frame; The wall panel frame is installed in the reserved position of the assembled wall by using the wall connection component 3. The specific steps are as follows: use tools to fix the main hollow frame 6 and the auxiliary hollow frame 2 at the appropriate position and height of the reserved assembled wall, place the wall connection component 3 on the main hollow frame 6 and the auxiliary hollow frame 2 to the appropriate position, rotate the wall limit column 306, and the symmetrical and opposite external threads on the wall limit column 306 are engaged with the internal threads of the wall limit hole 305, so that the angle between the two wall connection plates 302 on the wall connection shaft 301 is reduced, and the horizontal clamping plate 304 is completely inserted into the reserved groove of the assembled building. At the same time, the horizontal clamping plate 3 04 can correspond to the horizontal side groove on the side of the reserved groove, and rotate the wall limit column 306 in the opposite direction. Through the engagement of the external thread and the internal thread with opposite threads, the angle between the two wall connecting plates 302 on the wall connecting axis 301 increases until the horizontal clamping plate 304 is completely inserted into the horizontal side groove, and then the wall limit column 306 is fixed to the wall connecting plate 302 through the wall limit nut 303 to prevent the wall connecting plate 302 from moving; the above method is used to fix the wall connection component 3 at the top of the main hollow frame 6, the bottom of the main hollow frame 6, the top of the auxiliary hollow frame 2, the bottom of the auxiliary hollow frame 2 and the side of the auxiliary hollow frame 2 in sequence to realize the installation of the wall panel frame.

[0042] S2. Adjustment of the shock absorption of the assembled shock-absorbing and sound-insulating wall and installation of the spliced ​​wall panel 1.

[0043] After the wall panel frame is installed, the shock absorption strength of the assembled shock-absorbing and sound-insulating wall is appropriately adjusted according to the needs. The specific steps are: adjust the rotation angle of the shock-absorbing fan ring 311 through the opened assembly cover plate, so that the ∧-shaped connecting plate 309 is moved to a suitable position along the wall shock-absorbing groove 315, so that the ∧-shaped connecting plate 309 can bear the gravity of the main hollow frame 6 and the auxiliary hollow frame 2, and adjust the fan ring rotating shaft 313 in the arc-shaped shock-absorbing groove 604 according to the shock absorption requirements of the assembled shock-absorbing and sound-insulating wall. position, and partially close the arc-shaped shock-absorbing groove 604 as needed, so that the fan ring shaft 313 is fixed at a suitable position in the arc-shaped shock-absorbing groove 604, thereby meeting the shock-absorbing requirements of the assembled shock-absorbing and sound-insulating wall. After the adjustment is completed, close the assembly cover plate, fill the gap between the main hollow frame 6, the auxiliary hollow frame 2 and the assembled building with filling materials, and fix the spliced ​​wall panel 1 on the main hollow frame 6 and the auxiliary hollow frame 2 through the splicing holes 7 to complete the installation of the assembled shock-absorbing and sound-insulating wall.

[0044] S3. Shock absorption of assembled shock-absorbing and sound-insulating walls.

[0045] When the prefabricated building is impacted by a disaster, it will shake and generate a force on the prefabricated shock-absorbing and sound-insulating wall. The wall connection component 3 will first transfer the force received to the shock-absorbing adjustment structure. The shock-absorbing adjustment structure cooperates with the wall connection component 3 to weaken, absorb and buffer the force received by the prefabricated shock-absorbing and sound-insulating wall, thereby achieving the purpose of improving the shock-absorbing effect of the prefabricated wall. The specific steps are: the disaster causes the prefabricated building to shake, generating a force in the up, down, left and right directions on the prefabricated wall. The prefabricated building transmits the force in each direction through the horizontal clamp of the wall connection component 3. Plate 304 and wall connecting plate 302 are transmitted to the wall connecting shaft 301, and the force in the left and right directions is initially absorbed and weakened by the sleeve springs on the wall connecting plate 302 and the wall connecting shaft 301. The remaining force in the left and right directions will cause the ∧-shaped connecting plate 309 to contact and squeeze the wall connecting hole 4, and the direction of the left and right forces will change to up and down forces. When the force in the left and right directions is too large, it will cause the main hollow frame 6 and the secondary hollow frame 2 to swing, which will be further absorbed and weakened by the frame spring on the frame rotating shaft 5, thereby ensuring the safety of the assembled shock-absorbing and sound-insulating wall.

[0046] The force in the up and down directions is transmitted to the wall connecting sleeve 307 through the wall connecting shaft 301. After the wall shock-absorbing spring in the wall connecting sleeve 307 absorbs and weakens part of the force, it transmits part of the force to the wall connecting sleeve shaft 308. The force is transmitted to the ∧-shaped connecting plate 309 through the wall connecting sleeve shaft 308. Under the force in the up and down directions, the plate ball 314 on the inner side of the shock-absorbing clamping plate 310 at the bottom end of the ∧-shaped connecting plate 309 rolls in the wall shock-absorbing groove 315 on the shock-absorbing fan ring 311, so that the shock-absorbing fan ring 311 rotates along the fan ring rotating shaft 313. At the same time, the wall shock-absorbing springs at both ends of the wall shock-absorbing groove 315 prevent the shock-absorbing clamping plate 310 from moving quickly on the shock-absorbing fan ring 311, and the spring protection plate serves the purpose of protecting the wall shock-absorbing spring.

[0047] The limit shaft 316 prevents the shock-absorbing clamp 310 from separating from the shock-absorbing fan ring 311, and the wall shock-absorbing coil spring weakens and offsets the rotational force of the shock-absorbing fan ring 311. When the force in the up and down directions is too large, the shock-absorbing fan ring 311 will drive the fan ring rotating shaft 313 to move in the arc-shaped shock-absorbing groove 604, thereby pushing the shock-absorbing component to move through the shock-absorbing ring 317. The shock-absorbing sleeve rod 312 of the shock-absorbing component is subjected to the force brought by the shock-absorbing ring 317, and the sleeve rod spring is compressed to continue to weaken the force received. The sleeve rod guide protrusion 319 in the sleeve rod guide ring 318 moves along the sleeve rod guide groove 320, causing the shock-absorbing connecting rod 606 to move.

[0048] The residual force is finally transmitted to the skeleton shock absorber, which absorbs and weakens it. The moving shock-absorbing connecting rod 606 transmits the force to the skeleton shock-absorbing cylinder 602 through the shock-absorbing shaft 605 in the arc-shaped shock-absorbing groove 604. Under the action of the shock-absorbing connecting rod 606 in all directions, the skeleton shock-absorbing cylinder 602 moves on the skeleton shock-absorbing column 601 along the skeleton shock-absorbing bearing 607, and the skeleton shock-absorbing coil spring in the skeleton shock-absorbing ring groove weakens the force. When the skeleton shock-absorbing column 601 is subjected to a large force, the shock-absorbing balls 608 at both ends of the skeleton shock-absorbing column 601 move in the shock-absorbing movable groove, and the multiple elastic shock-absorbing plates 609 on the shock-absorbing sleeve 603 realize the weakening and absorption of the final force, thereby meeting the shock-absorbing requirements of the assembled shock-absorbing and sound-insulating wall.

[0049] S4. Sound insulation of assembled shock-absorbing and sound-insulating walls.

[0050] During the use of the assembled shock-absorbing and sound-insulating wall, the sound insulation components absorb noise through the concentric sound insulation rings on the sound insulation cushion layer. The uneven sound insulation protrusions on the sound insulation cushion layer, sound insulation rings and sound insulation channels can diffusely reflect the noise, greatly reducing the noise transmission efficiency and improving the noise filtering effect, thereby achieving the purpose of improving the sound insulation effect of the assembled wall.

[0051] Example 2 An assembled shock-absorbing and sound-insulating wall adopts the following method, including the following steps: S1. Assembly of prefabricated shock-absorbing and sound-insulating walls.

[0052] Ⅰ. Preparation work before installation of assembled shock-absorbing and sound-insulating walls; The secondary hollow frame 2 of the present invention adopts a variety of sizes, which is convenient for selecting a secondary hollow frame 2 of appropriate specifications according to the space of the prefabricated wall reserved for the prefabricated building. When the wall panel frame is installed, the main hollow frame 6 and the secondary hollow frame 2 are first connected through the frame shaft 5, and the frame spring is installed on the frame shaft 5, so that the two ends of the frame spring are respectively fixed on the main hollow frame 6 and the secondary hollow frame 2, and then, the assembly cover plates on the sides of the main hollow frame 6 and the secondary hollow frame 2 are opened, and the shock-absorbing adjustment structure inside the main hollow frame 6 is connected to the wall connection components 3 on the main hollow frame 6 and the secondary hollow frame 2.

[0053] Ⅱ. Installation of wall panel frame; The wall panel frame is installed in the reserved position of the assembled wall by using the wall connection component 3. The specific steps are as follows: use tools to fix the main hollow frame 6 and the auxiliary hollow frame 2 at the appropriate position and height of the reserved assembled wall, place the wall connection component 3 on the main hollow frame 6 and the auxiliary hollow frame 2 to the appropriate position, rotate the wall limit column 306, and the symmetrical and opposite external threads on the wall limit column 306 are engaged with the internal threads of the wall limit hole 305, so that the angle between the two wall connection plates 302 on the wall connection shaft 301 is reduced, and the horizontal clamping plate 304 is completely inserted into the reserved groove of the assembled building. At the same time, the horizontal clamping plate 3 04 can correspond to the horizontal side groove on the side of the reserved groove, and rotate the wall limit column 306 in the opposite direction. Through the engagement of the external thread and the internal thread with opposite threads, the angle between the two wall connecting plates 302 on the wall connecting axis 301 increases until the horizontal clamping plate 304 is completely inserted into the horizontal side groove, and then the wall limit column 306 is fixed to the wall connecting plate 302 through the wall limit nut 303 to prevent the wall connecting plate 302 from moving; the above method is used to fix the wall connection component 3 at the top of the main hollow frame 6, the bottom of the main hollow frame 6, the top of the auxiliary hollow frame 2, the bottom of the auxiliary hollow frame 2 and the side of the auxiliary hollow frame 2 in sequence to realize the installation of the wall panel frame.

[0054] S2. Adjustment of the shock absorption of the assembled shock-absorbing and sound-insulating wall and installation of the spliced ​​wall panel 1.

[0055] After the wall panel frame is installed, the shock absorption strength of the assembled shock-absorbing and sound-insulating wall is appropriately adjusted according to the needs. The specific steps are: adjust the rotation angle of the shock-absorbing fan ring 311 through the opened assembly cover plate, so that the ∧-shaped connecting plate 309 is moved to a suitable position along the wall shock-absorbing groove 315, so that the ∧-shaped connecting plate 309 can bear the gravity of the main hollow frame 6 and the auxiliary hollow frame 2, and adjust the fan ring rotating shaft 313 in the arc-shaped shock-absorbing groove 604 according to the shock absorption requirements of the assembled shock-absorbing and sound-insulating wall. position, and partially close the arc-shaped shock-absorbing groove 604 as needed, so that the fan ring shaft 313 is fixed at a suitable position in the arc-shaped shock-absorbing groove 604, thereby meeting the shock-absorbing requirements of the assembled shock-absorbing and sound-insulating wall. After the adjustment is completed, close the assembly cover plate, fill the gap between the main hollow frame 6, the auxiliary hollow frame 2 and the assembled building with filling materials, and fix the spliced ​​wall panel 1 on the main hollow frame 6 and the auxiliary hollow frame 2 through the splicing holes 7 to complete the installation of the assembled shock-absorbing and sound-insulating wall.

[0056] S3. Shock absorption of assembled shock-absorbing and sound-insulating walls.

[0057] When the prefabricated building is impacted by a disaster, it will shake and generate a force on the prefabricated shock-absorbing and sound-insulating wall. The wall connection component 3 will first transfer the force received to the shock-absorbing adjustment structure. The shock-absorbing adjustment structure cooperates with the wall connection component 3 to weaken, absorb and buffer the force received by the prefabricated shock-absorbing and sound-insulating wall, thereby achieving the purpose of improving the shock-absorbing effect of the prefabricated wall. The specific steps are: the disaster causes the prefabricated building to shake, generating a force in the up, down, left and right directions on the prefabricated wall. The prefabricated building transmits the force in each direction through the horizontal clamp of the wall connection component 3. Plate 304 and wall connecting plate 302 are transmitted to the wall connecting shaft 301, and the force in the left and right directions is initially absorbed and weakened by the sleeve springs on the wall connecting plate 302 and the wall connecting shaft 301. The remaining force in the left and right directions will cause the ∧-shaped connecting plate 309 to contact and squeeze the wall connecting hole 4, and the direction of the left and right forces will change to up and down forces. When the force in the left and right directions is too large, it will cause the main hollow frame 6 and the secondary hollow frame 2 to swing, which will be further absorbed and weakened by the frame spring on the frame rotating shaft 5, thereby ensuring the safety of the assembled shock-absorbing and sound-insulating wall.

[0058] The force in the up and down directions is transmitted to the wall connecting sleeve 307 through the wall connecting shaft 301. After the wall shock-absorbing spring in the wall connecting sleeve 307 absorbs and weakens part of the force, it transmits part of the force to the wall connecting sleeve shaft 308. The force is transmitted to the ∧-shaped connecting plate 309 through the wall connecting sleeve shaft 308. Under the force in the up and down directions, the plate ball 314 on the inner side of the shock-absorbing clamping plate 310 at the bottom end of the ∧-shaped connecting plate 309 rolls in the wall shock-absorbing groove 315 on the shock-absorbing fan ring 311, so that the shock-absorbing fan ring 311 rotates along the fan ring rotating shaft 313. At the same time, the wall shock-absorbing springs at both ends of the wall shock-absorbing groove 315 prevent the shock-absorbing clamping plate 310 from moving quickly on the shock-absorbing fan ring 311, and the spring protection plate serves the purpose of protecting the wall shock-absorbing spring.

[0059] The limit shaft 316 prevents the shock-absorbing clamp 310 from separating from the shock-absorbing fan ring 311, and the wall shock-absorbing coil spring weakens and offsets the rotational force of the shock-absorbing fan ring 311. When the force in the up and down directions is too large, the shock-absorbing fan ring 311 will drive the fan ring rotating shaft 313 to move in the arc-shaped shock-absorbing groove 604, thereby pushing the shock-absorbing component to move through the shock-absorbing ring 317. The shock-absorbing sleeve rod 312 of the shock-absorbing component is subjected to the force brought by the shock-absorbing ring 317, and the sleeve rod spring is compressed to continue to weaken the force received. The sleeve rod guide protrusion 319 in the sleeve rod guide ring 318 moves along the sleeve rod guide groove 320, causing the shock-absorbing connecting rod 606 to move.

[0060] The residual force is finally transmitted to the skeleton shock absorber, which absorbs and weakens it. The moving shock-absorbing connecting rod 606 transmits the force to the skeleton shock-absorbing cylinder 602 through the shock-absorbing shaft 605 in the arc-shaped shock-absorbing groove 604. Under the action of the shock-absorbing connecting rod 606 in all directions, the skeleton shock-absorbing cylinder 602 moves on the skeleton shock-absorbing column 601 along the skeleton shock-absorbing bearing 607, and the skeleton shock-absorbing coil spring in the skeleton shock-absorbing ring groove weakens the force. When the skeleton shock-absorbing column 601 is subjected to a large force, the shock-absorbing balls 608 at both ends of the skeleton shock-absorbing column 601 move in the shock-absorbing movable groove, and the multiple elastic shock-absorbing plates 609 on the shock-absorbing sleeve 603 realize the weakening and absorption of the final force, thereby meeting the shock-absorbing requirements of the assembled shock-absorbing and sound-insulating wall.

[0061] S4. Sound insulation of assembled shock-absorbing and sound-insulating walls.

[0062] During the use of the assembled shock-absorbing and sound-insulating wall, the sound insulation components absorb noise through the concentric sound insulation rings on the sound insulation cushion layer. The uneven sound insulation protrusions on the sound insulation cushion layer, sound insulation rings and sound insulation channels can diffusely reflect the noise, greatly reducing the noise transmission efficiency and achieving the purpose of improving the sound insulation effect of the assembled wall.

[0063] Example 3 An assembled shock-absorbing and sound-insulating wall, which differs from Example 1 in that: a main hollow frame 6 includes a pair of detachably connected main frames, which are connected to each other through main pillars, which cooperate with the main pillar embedded holes set on the inner side of the main frame, and the main frame is provided with main bolts connected to the main pillars; a secondary hollow frame 2 includes a pair of detachably connected secondary frames, which are connected to each other through secondary pillars, which cooperate with the secondary pillar embedded holes set on the inner side of the secondary frame, and the secondary frame is provided with secondary bolts connected to the secondary pillars.

[0064] Example 4 An assembled shock-absorbing and sound-insulating wall is different from Example 1 in that a star-shaped limit plate is provided on the shock-absorbing sleeve 603, and the star-shaped limit plate is gap-matched with a plurality of sleeve limit grooves with gaps arranged on the side of the shock-absorbing movable groove.

[0065] Example 5 An assembled shock-absorbing and sound-insulating wall, which is different from Example 1 in that: a wall shock-absorbing telescopic rod is provided inside a wall shock-absorbing spring, and the two ends of the wall shock-absorbing telescopic rod are respectively connected to the end of a shock-absorbing clamping plate 310 and a wall shock-absorbing groove 315, and the wall shock-absorbing telescopic rod includes at least two sections of telescopic sleeve rods, and telescopic guide strips are symmetrically arranged on the telescopic sleeve rods, and the telescopic guide strips cooperate with the telescopic guide grooves arranged in the telescopic sleeve rods.

[0066] The above description is only a preferred embodiment of the present invention, but is not limited to the above examples. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An assembled shock-absorbing and sound-insulating wall, characterized in that: It comprises a wall frame, and mutually matching spliced ​​wall panels are arranged on both sides of the wall frame, and the spliced ​​wall panels are connected to the sound insulation components arranged on the wall frame; the wall frame comprises a wall panel skeleton connected to the spliced ​​wall panels, and a wall connection component is arranged on the wall panel skeleton.

2. The assembled shock-absorbing and sound-insulating wall according to claim 1 is characterized in that: The wall panel frame includes a main hollow frame, and secondary hollow frames connected to the main hollow frame through a frame rotation axis are symmetrically arranged on both sides of the main hollow frame. A shock-absorbing adjustment structure that cooperates with the secondary hollow frame is arranged in the main hollow frame. The shock-absorbing adjustment structure includes a frame shock-absorbing column arranged in the center of the main hollow frame, and a frame shock absorber that cooperates with the secondary hollow frame is sleeved on the frame shock-absorbing column; a frame spring that cooperates with the main hollow frame and the secondary hollow frame is arranged on the frame rotation axis.

3. The assembled shock-absorbing and sound-insulating wall according to claim 2 is characterized in that: The skeleton shock absorber includes a skeleton shock absorber cylinder mounted on a skeleton shock absorber column, the skeleton shock absorber cylinder is rotatably connected to the skeleton shock absorber column through a skeleton shock absorber bearing, arc-shaped shock absorber grooves are symmetrically arranged on the side of the skeleton shock absorber cylinder, a shock absorber rotating shaft is arranged in the arc-shaped shock absorber groove, and a shock absorber connecting rod is arranged on the shock absorber rotating shaft; a skeleton shock absorber ring groove is mounted on the skeleton shock absorber bearing, and a skeleton shock absorber coil spring connected to the skeleton shock absorber cylinder is arranged in the skeleton shock absorber ring groove.

4. The assembled shock-absorbing and sound-insulating wall according to claim 3 is characterized in that: Shock-absorbing balls are provided at both ends of the skeleton shock-absorbing column, and the shock-absorbing balls cooperate with the shock-absorbing movable grooves arranged on the main hollow skeleton. A plurality of elastic shock-absorbing plates are evenly distributed in the shock-absorbing movable grooves, and the movable ends of the elastic shock-absorbing plates are connected to the shock-absorbing sleeves arranged at the ends of the skeleton shock-absorbing columns.

5. The assembled shock-absorbing and sound-insulating wall according to claim 4 is characterized in that: The wall connection assembly includes a pair of V-shaped wall connection plates rotatably connected by a wall connection shaft, and a horizontal clamping plate matching the assembled building is provided at one end of the wall connection plate away from the wall connection shaft; a wall limiting hole is provided on the side of the wall connection plate, and a wall limiting column is provided in the wall limiting hole. The wall limiting column is symmetrically provided with external threads with opposite thread directions and respectively meshed with the internal threads provided in the wall limiting hole, and the wall limiting column is provided with a wall limiting nut matching the wall connection plate.

6. The assembled shock-absorbing and sound-insulating wall according to claim 5 is characterized in that: The wall connecting shaft is provided with a wall connecting sleeve which is rotatably connected to the wall connecting shaft, a wall connecting sleeve shaft is provided inside the wall connecting sleeve, a wall shock-absorbing spring which cooperates with the wall connecting sleeve is sleeved on the wall connecting sleeve shaft, and an end of the wall connecting sleeve shaft away from the wall connecting sleeve is provided with a ∧-shaped connecting plate which is connected to the main hollow frame and the auxiliary hollow frame, and the ∧-shaped connecting plate is gap-matched with the wall connecting holes arranged on the main hollow frame and the auxiliary hollow frame.

7. The assembled shock-absorbing and sound-insulating wall according to claim 6 is characterized in that: The main hollow frame and the auxiliary hollow frame are provided with shock-absorbing fan rings corresponding to the wall connecting holes, and wall shock-absorbing grooves are provided on both sides of the shock-absorbing fan rings. The wall shock-absorbing grooves cooperate with the shock-absorbing splints arranged on the inner side of the end of the ∧-shaped connecting plate. The inner side of the shock-absorbing splints is provided with splint balls, and the splint balls are rollingly connected to the wall shock-absorbing grooves; the shock-absorbing splints are connected to the wall shock-absorbing springs arranged at both ends of the wall shock-absorbing grooves.

8. The assembled shock-absorbing and sound-insulating wall according to claim 7 is characterized in that: A fan ring rotating shaft is provided at the center of the shock-absorbing fan ring, and a wall shock-absorbing coil spring is provided on the fan ring rotating shaft; limit shafts are provided at both ends of the shock-absorbing fan ring; and a foldable spring protective plate connected to a shock-absorbing splint is provided on the wall shock-absorbing groove.

9. The assembled shock-absorbing and sound-insulating wall according to claim 8 is characterized in that: The fan ring rotating shaft cooperates with the shock-absorbing component arranged at the end of the shock-absorbing connecting rod, and the shock-absorbing component includes a shock-absorbing sleeve rod sleeved on the shock-absorbing connecting rod, a sleeve rod spring cooperating with the shock-absorbing connecting rod is sleeved in the shock-absorbing sleeve rod, a sleeve rod guide ring is provided at the end of the shock-absorbing sleeve rod, the sleeve rod guide ring cooperates with the sleeve rod guide groove arranged on the shock-absorbing connecting rod, and the sleeve rod guide groove cooperates with the sleeve rod guide protrusion arranged in the sleeve rod guide ring; a shock-absorbing sleeve rod is provided with a shock-absorbing ring connected to the fan ring rotating shaft at one end away from the shock-absorbing connecting rod; the fan ring rotating shaft cooperates with the arc-shaped shock-absorbing grooves arranged on the main hollow frame and the auxiliary hollow frame.

10. The assembled shock-absorbing and sound-insulating wall according to claim 9, characterized in that: The sound insulation component includes a sound insulation pad layer arranged in a main hollow frame and a secondary hollow frame, at least two concentric sound insulation rings are arranged on both sides of the sound insulation pad layer, and the sound insulation rings are connected by a sound insulation channel; the sound insulation pad layer, the sound insulation rings and the sound insulation channel are evenly distributed with uneven sound insulation protrusions; the main hollow frame and the secondary hollow frame are provided with splicing holes that match the spliced ​​wall panels.

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