Energy-saving building fabricated wall anti-seismic mechanism

Abstract

The invention belongs to the technical field of fabricated buildings, and discloses an energy-saving building fabricated wall anti-seismic mechanism which is technically characterized in that the energy-saving building fabricated wall anti-seismic mechanism comprises a vertical wall and a laminate, a first fastening piece is arranged at the joint of the vertical wall and the laminate, and a plurality of sets of vertical grooves distributed side by side are formed in the side wall of the vertical wall; multiple groups of transverse grooves distributed opposite to the vertical grooves are formed in the bottom wall of the shelf board, an anti-seismic mechanism is arranged in the vertical grooves and the transverse grooves jointly, the anti-seismic mechanism comprises a supporting rod, a storage assembly and an adjusting assembly, and the adjusting assembly comprises a traction part and a clamping part. The adjusting assembly composed of the traction part and the clamping part is arranged to be matched with the storage assembly, the position angle of the supporting rods can be conveniently adjusted between the vertical wall and the shelf board, and the stability and shock resistance between the vertical wall and the shelf board can be effectively improved through the multiple sets of supporting rods.

Description

Technical Field

[0001] The invention relates to the technical field of assembled buildings, in particular to an energy-saving assembled wall earthquake-resistant mechanism. Background Art

[0002] With the rapid development of modern industrial technology, the construction industry has ushered in earth-shaking changes. Prefabricated buildings have fast construction speed and low production costs, and prefabricated buildings have been widely used. Keel thin plate composite wall, paper straw board, color steel insulation material core board, honeycomb core composite board, etc. are all wall materials. Wall materials are an important part of house building materials.

[0003] When assembling prefabricated buildings, it is usually necessary to splice vertical wall panels and horizontal layer panels. Currently, the walls are mainly spliced ​​and fixed by fasteners such as bolts.

[0004] The existing installation method is relatively simple, and the overall seismic performance of the wall structure is poor. When encountering geological disasters such as earthquakes, it is easy to deform or even collapse. In particular, the stress at the connection between the vertical wall panels and the horizontal layer panels is relatively concentrated, and the stability is poor, which cannot guarantee the personal safety of users. Summary of the invention

[0005] The object of the present invention is to provide an energy-saving building assembled wall seismic resistance mechanism to solve the problems raised in the above-mentioned background technology.

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

[0007] An energy-saving building assembled wall anti-seismic mechanism comprises a vertical wall and a layer plate, wherein the layer plate is arranged at the side wall of the vertical wall, a first fastener is arranged at the joint between the vertical wall and the layer plate, the side wall of the vertical wall is provided with a plurality of groups of vertical grooves distributed in parallel, the bottom wall of the layer plate is provided with a plurality of groups of transverse grooves distributed relative to the vertical grooves, invisible layers are arranged outside the vertical grooves and the transverse grooves, an anti-seismic mechanism is arranged inside the vertical grooves and the transverse grooves, the anti-seismic mechanism comprises a support rod, a storage assembly and an adjustment assembly, the storage assembly is located in the vertical groove and the transverse groove and is connected to the support rod The support rods are connected, and the storage assembly is used to control the support rod to be in the horizontal groove as a whole. The adjustment assembly includes a pulling part and a clamping part. The pulling part is located in the vertical groove, and the clamping part is located in the horizontal groove and connected to the storage assembly. The pulling part controls one end of the support rod to move in the vertical direction in the vertical groove by cooperating with the storage assembly. The clamping part is located in the horizontal groove and connected to the storage assembly. The clamping part positions the other end of the support rod in the horizontal groove by cooperating with the storage assembly.

[0008] As a further solution of the present invention: the first fastener includes a plurality of relatively distributed first fastening grooves respectively opened on the surface of the vertical wall and the layer board, a first fastening plate is installed in the first fastening groove, the first fastening plate is an L-shaped structure, and a plurality of first fixing bolts are detachably installed on the surface of the first fastening plate, and the plurality of first fixing bolts are respectively screwed into the vertical wall and the layer board.

[0009] As a further solution of the present invention: the storage assembly includes a first supporting block slidably installed in the vertical groove along the vertical direction, a second supporting block slidably installed in the horizontal direction in the transverse groove, one end of the support rod is rotatably connected to the side wall of the first supporting block, and the other end of the support rod is rotatably connected to the side wall of the second supporting block, an extrusion spring is fixedly installed at one end of the transverse groove away from the vertical groove, and the telescopic end of the extrusion spring is connected to the second supporting block.

[0010] As a further solution of the present invention: the pulling part includes a storage cavity opened inwardly by the side wall of the vertical groove, a vibration sensor is fixedly installed in the storage cavity, a controller is fixedly installed in the storage cavity, the vibration sensor is electrically connected to the controller, an electric telescopic rod is fixedly installed in the storage cavity, the controller is electrically connected to the electric telescopic rod, a bearing plate extending into the vertical groove is fixedly installed at the telescopic end of the electric telescopic rod, a counterweight block is placed on the surface of the bearing plate, the counterweight block is slidably installed in the vertical groove, a pulling rope is fixedly installed on the bottom wall of the first bearing block, and the end of the pulling rope away from the first bearing block is connected to the counterweight block.

[0011] As a further solution of the present invention: the clamping part includes a plurality of groups of parallelly distributed telescopic grooves opened on the top wall of the transverse groove, a control spring is fixedly installed on the top wall of the telescopic groove, a clamping block is fixedly installed on the telescopic end of the control spring, one end of the clamping block is set to an inclined structure and extends into the transverse groove, and a clamping groove that cooperates with the clamping block is opened on the surface of the second bearing block.

[0012] As a further solution of the present invention: a sleeve is rotatably mounted on the side wall of the first bearing block, an inner cavity of the sleeve is provided with an internal thread, and an end of the support rod facing the first bearing block is provided with an external thread that cooperates with the sleeve.

[0013] As a further solution of the present invention: guide grooves are respectively provided on the opposite side walls of the vertical groove and the horizontal groove, and guide blocks slidably connected to the guide grooves are respectively fixedly mounted on the side walls of the first bearing block and the second bearing block.

[0014] As a further solution of the present invention: a second fastener is provided between two adjacent groups of vertical walls, and two opposite side walls of the two adjacent groups of vertical walls are respectively provided with reinforcement holes, and reinforcement rods are installed in the reinforcement holes.

[0015] As a further solution of the present invention: the second fastener includes a second fastening groove opened in the side wall of the vertical wall, a second fastening plate is commonly installed in the second fastening groove on the surfaces of the two groups of vertical walls, and a second fixing bolt inserted into the vertical wall is detachably installed on the surface of the second fastening plate.

[0016] Compared with the prior art, the beneficial effects of the present invention are: by setting the adjustment assembly composed of the pulling part and the clamping part to cooperate with the storage assembly, the position angle of the support rod can be conveniently adjusted between the vertical wall and the layer board, and multiple groups of support rods can effectively improve the stability and earthquake resistance between the vertical and layer boards. The problem of the poor overall earthquake resistance of the current wall structure and easy deformation or even collapse when encountering geological disasters such as earthquakes is solved. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of an energy-saving building prefabricated wall earthquake-resistant mechanism provided in an embodiment of the present invention.

[0018] Figure 2 A schematic diagram of the main structure of an energy-saving building assembled wall anti-seismic mechanism provided in an embodiment of the present invention Figure 1 .

[0019] Figure 3 Schematic diagram of a support rod and its connection structure in an energy-saving building assembled wall anti-seismic mechanism provided in an embodiment of the present invention Figure 1 .

[0020] Figure 4 Schematic diagram of a support rod and its connection structure in an energy-saving building assembled wall anti-seismic mechanism provided in an embodiment of the present invention Figure 2 .

[0021] Figure 5 for Figure 4 Schematic diagram of the enlarged structure of A.

[0022] Figure 6 A schematic diagram of the main structure of an energy-saving building prefabricated wall anti-seismic mechanism provided in an embodiment of the present invention Figure 2 .

[0023] Figure 7 for Figure 6 Schematic diagram of the enlarged structure of B.

[0024] Figure 8 for Figure 6 Schematic diagram of the enlarged structure of C in the figure.

[0025] Fig. 9 The present invention is a schematic diagram of a reinforcement rod and its connection structure in an energy-saving building prefabricated wall earthquake-resistant mechanism provided in an embodiment of the present invention.

[0026] Among them: 1-vertical wall, 2-layer board, 3-first fastener, 31-first fastening groove, 32-first fastening plate, 33-first fixing bolt, 4-vertical groove, 5-horizontal groove, 6-invisible layer, 7-seismic mechanism, 71-support rod, 72-storage component, 721-first bearing block, 722-second bearing block, 723-extrusion spring, 73-adjustment component, 731-pulling part, 7311-storage cavity, 7312-vibration sensor, 73 13-controller, 7314-electric telescopic rod, 7315-carrying plate, 7316-counterweight, 7317-pulling rope, 732-clamping part, 7321-telescopic slot, 7322-control spring, 7323-clamping block, 7324-clamping slot, 8-sleeve, 9-guide slot, 10-reinforcement hole, 11-reinforcement rod, 12-second fastener, 121-second fastening slot, 122-second fastening plate, 123-second fixing bolt, DETAILED DESCRIPTION

[0027] It should be noted that, in the absence of conflict, the embodiments of the present invention and the features in the embodiments may be combined with each other.

[0028] The specific implementation of the present invention is described in detail below in conjunction with specific embodiments.

[0029] like Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 6 , Figure 7 , Figure 8As shown, it is a structural diagram of an energy-saving building prefabricated wall anti-seismic mechanism provided by an embodiment of the present invention, comprising a vertical wall 1 and a layer plate 2, wherein the layer plate 2 is arranged at the side wall of the vertical wall 1, and a first fastener 3 is arranged at the joint between the vertical wall 1 and the layer plate 2, the side wall of the vertical wall 1 is provided with a plurality of groups of vertical grooves 4 distributed in parallel, and the bottom wall of the layer plate 2 is provided with a plurality of groups of transverse grooves 5 distributed opposite to the vertical grooves 4, and an invisible layer 6 is arranged outside the vertical grooves 4 and the transverse grooves 5, and an anti-seismic mechanism 7 is arranged inside the vertical grooves 4 and the transverse grooves 5, and the anti-seismic mechanism 7 comprises a support rod 71, a storage assembly 72 and an adjustment assembly 73, and the storage assembly 72 is located in the vertical grooves 4 and the transverse grooves 5 and Connected to the support rod 71, the storage component 72 is used to control the support rod 71 to be located in the transverse groove 5 as a whole. The adjustment component 73 includes a pulling portion 731 and a clamping portion 732. The pulling portion 731 is located in the vertical groove 4, and the clamping portion 732 is located in the transverse groove 5 and connected to the storage component. The pulling portion 731 controls one end of the support rod 71 to move in the vertical direction in the vertical groove 4 by cooperating with the storage component 72. The clamping portion 732 is located in the transverse groove 5 and connected to the storage component 72. The clamping portion 732 positions the other end of the support rod 71 in the transverse groove 5 by cooperating with the storage component 72.

[0030] When in use, the layer board 2 is installed on the side wall of the vertical wall 1 through the first fastener 3. Initially, the storage component 72 positions the support rod 71 in the horizontal groove 5, and the support rod 71 is entirely in the horizontal groove 5. An invisible layer 6 is provided on the outside of the vertical groove 4 and the horizontal groove 5. The color of the invisible layer 6 is consistent with the color of the vertical wall 1 and the layer board 2, which effectively improves the aesthetics of the wall. When the foundation vibrates and further drives the vertical wall 1 and the layer board 2 to vibrate, the pulling portion 731 cooperates with the clamping portion 732 to drive the support rod 71 in the vertical groove 4 and the horizontal groove. 5, the pulling portion 731 cooperates with the storage assembly 72 to control one end of the support rod 71 to move to the bottom of the vertical groove 4, the clamping portion 732 cooperates with the storage assembly 72 to control the other end of the support rod 71 to move in the horizontal groove 5 and fix its position. At this time, the support rod 71 breaks the invisible layer 6 and is tilted as a whole between the vertical wall 1 and the layer board 2. The vertical wall 1, the layer board 2 and the support rod 71 form a triangular support structure, which can effectively improve the stability between the vertical wall 1 and the layer board 2, and effectively improve the seismic effect of the layer board 2.

[0031] like Figure 1 , Figure 2As shown, as a preferred embodiment of the present invention, the first fastener 3 includes a plurality of relatively distributed first fastening grooves 31 respectively opened on the surfaces of the vertical wall 1 and the layer board 2, a first fastening plate 32 is installed in the first fastening groove 31, the first fastening plate 32 is an L-shaped structure, and a plurality of first fixing bolts 33 are detachably installed on the surface of the first fastening plate 32, and the plurality of first fixing bolts 33 are respectively screwed into the vertical wall 1 and the layer board 2.

[0032] Place the layer board 2 on the side wall of the vertical wall 1, and align the multiple groups of first fastening grooves 31, place the first fastening plate 32 in the first fastening groove 31, install the first fixing bolt 33 on the surface of the first fastening plate 32 and screw it into the vertical wall 1 and the layer board 2, the first fastening plate 32 and the first fixing bolt 33 cooperate with each other, and the layer board 2 can be easily assembled and installed on the side wall of the vertical wall 1.

[0033] like Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 As shown, as a preferred embodiment of the present invention, the storage assembly 72 includes a first bearing block 721 slidably installed in the vertical groove 4 along the vertical direction, and a second bearing block 722 is slidably installed in the horizontal direction in the transverse groove 5, one end of the support rod 71 is rotatably connected to the side wall of the first bearing block 721, and the other end of the support rod 71 is rotatably connected to the side wall of the second bearing block 722, and an extrusion spring 723 is fixedly installed at one end of the transverse groove 5 away from the vertical groove 4, and the telescopic end of the extrusion spring 723 is connected to the second bearing block 722.

[0034] The first bearing block 721 and the second bearing block 722 respectively position the two ends of the support rod 71. Initially, the first bearing block 721 is at the top of the vertical slot 4. At this time, the second bearing block 722 is at the end of the horizontal slot 5 away from the vertical slot 4. The extrusion spring 723 is in a compressed state. The extrusion spring 723 applies a thrust to the first bearing plate 721. The first bearing block 721 can be stably at the top of the vertical slot 4. At this time, the support rod 71 is entirely in the horizontal slot 5. When the vertical wall 1 and the layer plate 2 vibrate, the pulling portion 731 controls The first bearing block 721 is forced to move vertically downward in the vertical groove 4. At this time, the extrusion spring 723 applies a thrust to the second bearing block 722, thereby pushing the second bearing block 722 to move synchronously in the transverse groove 5. When the first bearing block 721 moves to the bottom of the vertical groove 4, the clamping portion 732 fixes the position of the second bearing block 722 in the transverse groove 5. The first bearing block 721 and the second bearing block 722 cooperate with each other to adjust the position of the support rod 71. At this time, the support rod 71 is inclined between the vertical wall 1 and the layer board 2.

[0035] like Figure 1 , Figure 5 , Figure 6 , Figure 7 As shown, as a preferred embodiment of the present invention, the pulling portion 731 includes a storage cavity 7311 opened inwardly from the side wall of the vertical groove 4, a vibration sensor 7312 is fixedly installed in the storage cavity 7311, a controller 7313 is fixedly installed in the storage cavity 7311, the vibration sensor 7312 is electrically connected to the controller 7313, an electric telescopic rod 7314 is fixedly installed in the storage cavity 7311, the controller 7313 is electrically connected to the electric telescopic rod 7314, a bearing plate 7315 extending into the vertical groove 4 is fixedly installed at the telescopic end of the electric telescopic rod 7314, a counterweight block 7316 is placed on the surface of the bearing plate 7315, the counterweight block 7316 is slidably installed in the vertical groove 4, a pulling rope 7317 is fixedly installed on the bottom wall of the first bearing block 721, and the end of the pulling rope 7317 away from the first bearing block 721 is connected to the counterweight block 7316.

[0036] Initially, the electric telescopic rod 7314 positions the bearing plate 7315, and the bearing plate 7315 is in the vertical slot 4. At this time, the bearing plate 7315 supports the counterweight block 7316, and the vibration sensor 7312 monitors the vibration intensity of the vertical wall 1. When the vibration intensity of the vertical wall 1 reaches a limited value, the vibration sensor 7312 and the controller 7313 cooperate with each other to start the electric telescopic rod 7314, and the electric telescopic rod 7314 pulls the bearing plate 7315 to move into the storage cavity 7311. At this time, the bearing plate 7315 is released. In addition to supporting the counterweight block 7316, the counterweight block 7316 falls freely under the action of gravity. When moving downward, the counterweight block 7316 cooperates with the pulling rope 7317 to instantly apply a vertical downward pulling force to the first bearing block 721, thereby pulling the first bearing block 721 to move vertically downward in the vertical groove 4. When moving downward, the first bearing block 721 cooperates with the support rod 71 to release the positioning of the second bearing block 722, and the extrusion spring 723 pushes the second bearing block 722 to move synchronously in the horizontal groove 5.

[0037] like Figure 1 , Figure 5 , Figure 6 , Figure 7 , Figure 8 As shown, as a preferred embodiment of the present invention, the clamping portion 732 includes a plurality of groups of telescopic grooves 7321 arranged in parallel on the top wall of the transverse groove 5, a control spring 7322 is fixedly installed on the top wall of the telescopic groove 7321, a clamping block 7323 is fixedly installed on the telescopic end of the control spring 7322, one end of the clamping block 7323 is arranged as a slope structure and extends into the transverse groove 5, and a clamping groove 7324 cooperating with the clamping block 7323 is provided on the surface of the second supporting block 722.

[0038] The extrusion spring 723 pushes the second supporting block 722 to move in the transverse groove 5. When the first supporting block 721 moves to the bottom of the vertical groove 4, the second supporting block 722 synchronously moves to the extreme position in the transverse groove 5. At this time, the clamping block 7323 is inserted into the clamping groove 7324. The clamping block 7323 and the clamping groove 7324 cooperate with each other. The position of the second supporting block 722 can be conveniently fixed in the transverse groove 5. The first supporting block 721 and the second supporting block 722 cooperate with each other, which can effectively improve the stability of the support rod 71.

[0039] like Figure 5 , Figure 7 As shown, as a preferred embodiment of the present invention, a sleeve 8 is rotatably installed on the side wall of the first bearing block 721, an inner cavity of the sleeve 8 is provided with an internal thread, and one end of the support rod 71 facing the first bearing block 721 is provided with an external thread that cooperates with the sleeve 8.

[0040] When in use, the sleeve 8 cooperates with the support rod 71 , so that the support rod 71 can be conveniently installed and removed at the side wall of the first bearing block 721 .

[0041] like Figure 7 , Figure 8 As shown, as a preferred embodiment of the present invention, the two side walls opposite to each other of the vertical groove 4 and the horizontal groove 5 are respectively provided with guide grooves 9, and the side walls of the first bearing block 721 and the second bearing block 722 are respectively fixedly mounted with guide blocks slidably connected to the guide grooves 9.

[0042] When the first bearing block 721 moves in the vertical groove 4 and the second bearing block 722 moves in the horizontal groove 5, the guide block moves synchronously in the guide groove 9. The guide block and the guide groove 9 cooperate with each other, which can effectively improve the stability of the first bearing block 721 and the second bearing block 722 during movement.

[0043] like Figure 1 , Fig. 9 As shown, as a preferred embodiment of the present invention, a second fastener 12 is provided between two adjacent groups of vertical walls 1, and reinforcement holes 10 are respectively opened on two opposite side walls of the two adjacent groups of vertical walls 1, and reinforcement rods 11 are installed in the reinforcement holes 10.

[0044] When assembling adjacent vertical walls 1 , the reinforcement rods 11 are installed in the reinforcement holes 10 . The reinforcement rods 11 cooperate with the reinforcement rods 10 to further improve the stability between the two adjacent groups of vertical walls 1 .

[0045] like Figure 1 , Fig. 9As shown, as a preferred embodiment of the present invention, the second fastener 12 includes a second fastening groove 121 opened on the side wall of the vertical wall 1, and a second fastening plate 122 is commonly installed in the second fastening groove 121 on the surface of the two groups of vertical walls 1, and a second fixing bolt 123 inserted into the vertical wall 1 is detachably installed on the surface of the second fastening plate 122.

[0046] When in use, the second fastening plate 122 is placed in the second fastening groove 121 , and the wall panel 1 can be conveniently fixed by the second fixing bolt 123 cooperating with the second fixing plate 122 .

[0047] The working principle of the present invention is: place the layer board 2 at the side wall of the vertical wall 1, and align multiple groups of first fastening grooves 31, place the first fastening plate 32 in the first fastening groove 31, install the first fixing bolt 33 on the surface of the first fastening plate 32 and screw it into the vertical wall 1 and the layer board 2, the first fastening plate 32 and the first fixing bolt 33 cooperate with each other, and the layer board 2 can be easily assembled and installed at the side wall of the vertical wall 1. An invisible layer 6 is arranged outside the vertical groove 4 and the horizontal groove 5, and the color of the invisible layer 6 is consistent with the color of the vertical wall 1 and the layer board 2, which effectively improves the aesthetics of the wall.

[0048] Initially, the first bearing block 721 is at the top of the vertical slot 4, and the second bearing block 722 is at the end of the horizontal slot 5 away from the vertical slot 4. The extrusion spring 723 is in a compressed state, and the extrusion spring 723 applies a thrust to the first bearing plate 721, so that the first bearing block 721 can be stably at the top of the vertical slot 4. At this time, the support rod 71 is entirely in the horizontal slot 5, and the vibration sensor 7312 monitors the vibration intensity of the vertical wall 1. When the vibration intensity of the vertical wall 1 reaches a limited value, the vibration sensor 7312 cooperates with the controller 7313 to start the electric telescopic rod 7314, and the electric telescopic rod 7314 pulls the bearing Plate 7315 moves toward the storage cavity 7311. At this time, the supporting plate 7315 releases its support for the counterweight block 7316, and the counterweight block 7316 falls freely under the action of gravity. When moving downward, the counterweight block 7316 cooperates with the pulling rope 7317, and can instantly apply a vertical downward pulling force to the first supporting block 721, thereby pulling the first supporting block 721 to move vertically downward in the vertical groove 4. When moving downward, the first supporting block 721 cooperates with the support rod 71 to release the positioning of the second supporting block 722, and the extrusion spring 723 pushes the second supporting block 722 to move synchronously in the horizontal groove 5. When the first bearing block 721 moves to the bottom of the vertical slot 4, the second bearing block 722 moves synchronously to the limit position in the horizontal slot 5, and the clamping block 7323 is inserted into the clamping slot 7324. The clamping block 7323 and the clamping slot 7324 cooperate with each other, and the position of the second bearing block 722 can be conveniently fixed in the horizontal slot 5. The first bearing block 721 and the second bearing block 722 cooperate with each other to position the support rod 71. At this time, the support rod 71 breaks the invisible layer 6 and is tilted as a whole between the vertical wall 1 and the layer board 2. The vertical wall 1, the layer board 2 and the support rod 71 form a triangular support structure, which can effectively improve the stability between the vertical wall 1 and the layer board 2, and effectively improve the anti-seismic effect of the layer board 2.

[0049] The preferred embodiments of the present invention are described in detail above, but the present invention is not limited to the above embodiments. Various changes can be made within the knowledge scope of ordinary technicians in this field without departing from the purpose of the present invention.

Claims

1. An energy-saving building assembled wall anti-seismic mechanism, comprising a vertical wall and a layer plate, wherein the layer plate is arranged at the side wall of the vertical wall, and a first fastener is arranged at the joint between the vertical wall and the layer plate, characterized in that: The vertical wall side walls are provided with multiple groups of vertical grooves distributed in parallel, and the bottom wall of the layer board is provided with multiple groups of transverse grooves distributed relatively to the vertical grooves. Invisible layers are provided on the outer sides of the vertical grooves and the transverse grooves, and an anti-seismic mechanism is jointly provided in the vertical grooves and the transverse grooves. The anti-seismic mechanism includes a support rod, a storage assembly and an adjustment assembly. The storage assembly is located in the vertical groove and the transverse groove and is connected to the support rod. The storage assembly is used to control the support rod to be in the transverse groove as a whole. The adjustment assembly includes a pulling part and a clamping part, the pulling part is located in the vertical groove, the clamping part is located in the transverse groove and is connected to the storage assembly, the pulling part controls one end of the support rod to move in the vertical direction in the vertical groove by cooperating with the storage assembly, the clamping part is located in the transverse groove and is connected to the storage assembly, and the clamping part positions the other end of the support rod in the transverse groove by cooperating with the storage assembly.

2. The energy-saving building assembled wall anti-seismic mechanism according to claim 1, characterized in that: The first fastener includes a plurality of relatively distributed first fastening grooves respectively opened on the surface of the vertical wall and the layer board, a first fastening plate is installed in the first fastening groove, the first fastening plate is an L-shaped structure, and a plurality of first fixing bolts are detachably installed on the surface of the first fastening plate, and the plurality of first fixing bolts are respectively screwed into the vertical wall and the layer board.

3. The energy-saving building assembled wall anti-seismic mechanism according to claim 1, characterized in that: The storage assembly includes a first supporting block slidably installed in a vertical groove along a vertical direction, a second supporting block slidably installed in a horizontal direction in the transverse groove, one end of the support rod is rotatably connected to the side wall of the first supporting block, and the other end of the support rod is rotatably connected to the side wall of the second supporting block, an extrusion spring is fixedly installed at one end of the transverse groove away from the vertical groove, and the telescopic end of the extrusion spring is connected to the second supporting block.

4. The energy-saving building assembled wall anti-seismic mechanism according to claim 3, characterized in that: The pulling part includes a storage cavity opened inwardly by the side wall of the vertical groove, a vibration sensor is fixedly installed in the storage cavity, a controller is fixedly installed in the storage cavity, the vibration sensor is electrically connected to the controller, an electric telescopic rod is fixedly installed in the storage cavity, the controller is electrically connected to the electric telescopic rod, a bearing plate extending into the vertical groove is fixedly installed at the telescopic end of the electric telescopic rod, a counterweight block is placed on the surface of the bearing plate, the counterweight block is slidably installed in the vertical groove, a pulling rope is fixedly installed on the bottom wall of the first bearing block, and the end of the pulling rope away from the first bearing block is connected to the counterweight block.

5. The energy-saving building assembled wall anti-seismic mechanism according to claim 3, characterized in that: The clamping portion includes a plurality of groups of parallelly distributed telescopic grooves opened on the top wall of the transverse groove, a control spring is fixedly installed on the top wall of the telescopic groove, a clamping block is fixedly installed on the telescopic end of the control spring, one end of the clamping block is set to an inclined structure and extends into the transverse groove, and a clamping groove cooperating with the clamping block is opened on the surface of the second bearing block.

6. The energy-saving building assembled wall anti-seismic mechanism according to claim 3, characterized in that: A sleeve is rotatably mounted on the side wall of the first bearing block, an inner cavity of the sleeve is provided with an internal thread, and an end of the support rod facing the first bearing block is provided with an external thread that cooperates with the sleeve.

7. The energy-saving building assembled wall anti-seismic mechanism according to claim 3, characterized in that: The two side walls opposite to the vertical groove and the horizontal groove are respectively provided with guide grooves, and the side walls of the first bearing block and the second bearing block are respectively fixedly mounted with guide blocks slidably connected with the guide grooves.

8. The energy-saving building assembled wall anti-seismic mechanism according to claim 1, characterized in that: A second fastener is arranged between two adjacent groups of vertical walls, and two opposite side walls of the two adjacent groups of vertical walls are respectively provided with reinforcement holes, in which reinforcement rods are installed.

9. The energy-saving building assembled wall anti-seismic mechanism according to claim 8, characterized in that: The second fastener includes a second fastening groove opened in the side wall of the vertical wall, a second fastening plate is installed in the second fastening groove on the surfaces of the two groups of vertical walls, and a second fixing bolt inserted into the vertical wall is detachably installed on the surface of the second fastening plate.

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