CN219011592U - Assembly type self-resetting controllable hinge energy consumption connecting assembly and system - Google Patents
Assembly type self-resetting controllable hinge energy consumption connecting assembly and system Download PDFInfo
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- CN219011592U CN219011592U CN202222636700.2U CN202222636700U CN219011592U CN 219011592 U CN219011592 U CN 219011592U CN 202222636700 U CN202222636700 U CN 202222636700U CN 219011592 U CN219011592 U CN 219011592U
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Abstract
The utility model relates to the technical field of civil engineering damping, in particular to an assembled self-resetting controllable hinge energy consumption connecting assembly and system. The device comprises a reset system, wherein the reset system comprises arch springs and screw rods, two arch springs are buckled and overlapped at the opening ends to form a reset unit, a plurality of reset units are overlapped to form the reset system, through holes are formed in the arch springs of the reset system, and the through holes penetrate the screw rods to be connected to form a spring group. Compared with the traditional members of the same type, the utility model reduces the use of a welding connection mode, and the main body stress connecting pieces are all connected by bolts, so that the residual stress generated by welding is avoided; because the energy dissipation elements are friction effects among the shear walls, the structural form determines that the energy dissipation performance is more stable and reliable, the damage form is easy to control, the damage part can be pre-protected, the performance of the energy dissipation steel plate in the form can be effectively ensured, and the energy dissipation steel plate is easy to widely apply and popularize.
Description
Technical Field
The utility model relates to the technical field of civil engineering damping, in particular to an assembled self-resetting controllable hinge energy consumption connecting assembly and system.
Background
At present, china is in an important stage of deep development of industrialization, marketization and internationalization, and the industrialized building can improve the construction speed, improve the working environment and the production efficiency, and is a trend of development of the future building industry. The assembled building with the advantages of high efficiency, energy saving, controllable quality and environment protection is a necessary way for the industrialization, the greenization and the sustainable development of the building industry. The traditional assembled reinforced concrete shear wall structure has sufficient shear resistance, but has insufficient ductility and energy consumption, and the energy consumption and energy consumption of the structure pass through reinforced concrete. In addition, the large shear wall is required to be split along the horizontal and vertical directions for convenient transportation and on-site hoisting, and although the energy consumption elements are introduced into the joint, the problems of complex structure, poor connection performance, low construction efficiency, difficult detection and repair and the like are solved, and the structural damage is still at the cost of damage to the joint of the structural members and damage to the structural members, so that the structural repair is difficult and even reconstruction is performed, and the use in a seismic region is limited. The research and development of the assembled energy-consuming shear wall with excellent anti-seismic performance, modularization, easy disassembly, simple structure, clear stress and easy restoration after earthquake has very important practical significance for popularization and application of an assembled structure.
Disclosure of Invention
Aiming at the technical problems in the prior art, the utility model aims to provide an assembled self-resetting controllable hinge energy consumption connecting component and system, which are used for solving the problems of large variable template, poor deformation capacity, deformation at the cost of material damage, difficult post-earthquake repair, difficult component replacement, incapability of resetting and poor energy consumption capacity of an assembled shear wall in the prior art, and realizing the design purposes of no or low damage of a structure during earthquake, easy replacement after the earthquake and repairability.
In order to achieve the above purpose, the utility model adopts the following technical scheme:
the utility model provides an assembled is from controllable hinge power consumption coupling assembling that resets, includes reset system, reset system includes arch spring and screw rod, and two arch spring open end lock are to overlapping and are constituteed reset unit, and reset system is constituteed in the coincide of a plurality of reset units, sets up the cross-under hole on reset system's the arch spring, and the cross-under hole penetrates the screw rod and connects and form spring group.
Two sets of through holes are formed in the arch spring of the resetting system, and the two sets of through holes penetrate into the screw rod in sequence to be connected to form a spring set.
The resetting system is connected to the beam and column connecting nodes of the frame structure.
An assembled self-resetting controllable hinge energy consumption connecting component system comprises an assembled self-resetting controllable hinge energy consumption connecting component, a hinge column, a bottom hinge beam, a top hinge beam, a middle hinge beam, a resetting system, a friction wall, a shear wall and a yield wall,
the hinge columns, the bottom hinge beams, the top hinge beams and the middle hinge beams are spliced to form a double-layer frame structure; a reset system is arranged at the joint of each hinge post and the beam; the lower ends of the two hinge posts of the first layer are respectively connected with the upper parts of the two ends of the bottom hinge beam, and the upper ends of the two hinge posts of the first layer are respectively connected with the lower parts of the two ends of the middle hinge beam; the lower ends of the two hinge posts of the second layer are respectively connected with the upper parts of the two ends of the middle hinge beam, and the upper ends of the two hinge posts are respectively connected with the lower parts of the two ends of the top hinge beam; the double-layer frame structure is provided with at least one group, and a plurality of groups of double-layer frame structures are stacked and spliced;
the friction wall is respectively connected with the hinge columns, and the shear wall is respectively connected with the bottom hinge beam, the middle hinge beam and the top hinge beam to form an energy consumption shear wall group; or the yield wall replaces the shear wall and the friction wall, and the yield wall is connected with the hinge column, the bottom hinge beam, the middle hinge beam and the top hinge beam to form the energy-consumption yield wall group.
The bottom hinge beam comprises a bottom main beam, a bottom left lug plate, a bottom right lug plate, a bottom beam connecting piece, a bottom beam first limit hole and a bottom beam second limit hole; the top hinge beam comprises a top main beam, a top left lug plate, a top right lug plate, a top beam connecting piece, a top beam first limiting hole, a top beam second limiting hole, and a bottom hinge beam or the left lug plate and the right lug plate of the top hinge beam are respectively and symmetrically connected to the lower parts of two ends of the beam, the connecting piece is connected to the axis of the side surface of the beam, and the central section of the connecting piece is overlapped with the central section of the beam;
the middle hinge beam comprises a middle main beam, a middle left lug plate, a middle right lug plate, a middle beam first connecting piece, a middle beam second connecting piece, a middle beam first limiting hole and a middle beam second limiting hole, wherein the middle left lug plate and the middle right lug plate are respectively and symmetrically connected to the upper parts of two ends of the beam, the connecting pieces are connected to the side surface axes of the beam, and the central section of the connecting pieces coincides with the central section of the beam; the hinge post comprises a main post, an upper single lug plate, a lower single lug plate and a post side connecting piece, wherein the upper single lug plate and the lower single lug plate are respectively connected to the upper end part and the lower end part of the main post; the top hinge beam, the bottom hinge beam, the middle hinge beam and the hinge column are connected with the pin shaft through the end lug plate; the friction wall is connected with the hinge post side connecting piece by bolts; the shear wall is connected with side connectors of the top hinge beam, the bottom hinge beam and the middle hinge beam by bolts.
The yield wall can replace the shear wall and the friction wall to consume energy through steel plate yield.
Compared with the prior art, the utility model has the following beneficial effects:
according to the utility model, the deformation performance of the shear wall is improved through the hinged connection of the columns, the arched springs and the memory alloy rods are arranged at each hinged connection position to serve as a reset system, the reset force is provided through the prestress applied by the memory alloy and the reset force of the arched springs, and the reset system is convenient to install and replace; the shear walls are adopted to consume energy through mutual friction movement, so that not only is the lateral rigidity provided for the shear walls provided, but also sufficient energy consumption capability is provided, and the energy consumption performance between the shear walls can be controlled by controlling the pretightening force of the screw; the utility model has the advantages of simple structure, convenient installation, low cost and easy wide popularization.
According to the utility model, as each component is mechanically connected, after an earthquake occurs, if a certain component is partially damaged, the replacement can be easily realized; the structural design target is that under rare earthquakes, the bottom hinge beam, the top hinge beam, the middle hinge beam and the hinge post are always kept in an elastic state, the memory alloy rod is in a recoverable variable range, the memory alloy rod is always kept in an elastic state, the safety of a main structure is ensured, and the diameter range of the memory alloy rod is as follows: 15-30 mm, and generally 1/10-1/20 of the column width; the arch spring, the shear wall and the friction wall can be repaired and replaced, so that the repair workload of the structure after earthquake is greatly reduced, the damage position of the structure is preset, and the purpose of controllable structural damage is realized. The utility model avoids the phenomenon that the plastic hinge of the traditional shear wall structure only has a damage mechanism of a bottom layer, and the self-resetting hinge which can rotate is arranged in the direct shear wall system, so that the deformation performance of the shear wall is greatly improved, and the resetting capability is provided for the structure; the stiffness and the resetting performance of the structure can be effectively adjusted by adjusting the sections and the superposition modes of the memory alloy rods and the arched springs, the superposition quantity of the arched springs can be increased according to the restoring force of the structure requirement, when the bearing force of a single arched spring does not meet the structure requirement, the bearing force of the arched springs can be increased by superposing the quantity of the arched springs, the superposition quantity is larger and is equivalent to that of a plurality of springs connected in parallel, the stiffness of the springs can be increased, the quantity of the arched springs to be matched depends on the deformation range and the size of the installation space, the stiffness of the arched springs is unchanged after the matching, the deformation range is only increased, the resetting of the structure is realized to a great extent, the restoring of the structure performance can be realized by replacing the arched springs after earthquake, and once the arched spring platform has unrecoverable deformation exceeding 3mm or macroscopic deformation under the measurement of a level ruler, the spring is required to be replaced; compared with the traditional members of the same type, the utility model reduces the use of a welding connection mode, and the main body stress connecting pieces are all connected by bolts, so that the residual stress generated by welding is avoided; because the energy dissipation elements are friction effects among the shear walls, the structural form determines that the energy dissipation performance is more stable and reliable, the damage form is easy to control, the damage part can be pre-protected, the performance of the energy dissipation steel plate in the form can be effectively ensured, and the energy dissipation steel plate is easy to widely apply and popularize.
Drawings
FIG. 1 is a schematic diagram of an assembled self-resetting controllable hinge energy consuming connection system of the present utility model;
FIG. 2a is a schematic view of a hinge post structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 2b is a front view of a hinge post; FIG. 2c is a top view of a hinge post; FIG. 2d is a side view of a hinge post;
FIG. 3a is a schematic view of a bottom hinge beam structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 3b is a front view of the bottom hinge beam; FIG. 3c is a top view of the bottom hinge beam; FIG. 3d is a cross-sectional view taken from 1-1 of FIG. 3 b;
FIG. 4a is a schematic view of a center hinge beam structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 4b is a front view of a center hinge beam; FIG. 4c is a top view of the center hinge beam; FIG. 4d is a cross-sectional view taken from 1-1 of FIG. 4 b;
FIG. 5a is a schematic diagram of a top hinge beam structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 5b is a front view of a top hinge beam; FIG. 5c is a top view of the top hinge beam; FIG. 5d is a cross-sectional view taken from 1-1 of FIG. 5 b;
FIG. 6a is a schematic diagram of a reset system configuration of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 6b is a schematic view of an arch spring; FIG. 6c is a top view of an arch spring; FIG. 6d is a side view of an arch spring;
FIG. 7a is a schematic view of a friction wall structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 7b is a schematic view of a friction wall layered structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 8a is a schematic view of a shear wall structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 8b is a schematic view of a shear wall layered structure of an assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
FIG. 9 is a schematic view of the yield wall structure of the assembled self-resetting, controllable hinge energy consuming connection system of the present utility model;
fig. 10 is a schematic view of an assembled self-resetting controllable hinge energy-consuming connection system using a yield wall structure according to the present utility model.
The hinge column 1, the bottom hinge beam 2, the top hinge beam 3, the middle hinge beam 4, the reset system 5, the friction wall 6, the shear wall 7, the yield wall 8, the main column 011, the upper single ear plate 012, the lower single ear plate 013, the column side connecting piece 014, the bottom main beam 021, the bottom left ear plate 022, the bottom right ear plate 023, the bottom beam connecting piece 024, the bottom beam first limiting hole 025, the bottom beam second limiting hole 026, the top main beam 031, the top left ear plate 032, the top right ear plate 033, the top beam connecting piece 034, the top beam first limiting hole 035, the top beam second limiting hole 036, the middle main beam 041, the middle left ear plate 042, the middle right ear plate 043, the middle beam first connecting piece 044, the middle beam second connecting piece 045, the middle beam first limiting hole 046, the middle beam second limiting hole 047, the arch spring 051, the memory alloy rod 052, the first friction layer 061, the first steel layer 062, the first friction layer 072, the second concrete layer 3.
Detailed Description
The present utility model is further explained below with reference to the drawings and the embodiments, and it should be noted that the present utility model is not limited to the following embodiments, and all equivalent changes made on the basis of the technical solutions of the present application fall within the protection scope of the present utility model.
The utility model provides an assembled is from controllable hinge power consumption coupling assembling that resets, includes reset system, reset system includes arch spring and screw rod, and two arch spring open end lock are to overlapping and are constituteed reset unit, and reset system is constituteed in the coincide of a plurality of reset units, sets up the cross-under hole on reset system's the arch spring, and the cross-under hole penetrates the screw rod and connects and form spring group.
Two sets of through holes are formed in the arch spring of the resetting system, and the two sets of through holes penetrate into the screw rod in sequence to be connected to form a spring set. The resetting system is connected to the beam and column connecting nodes of the frame structure.
An assembled self-resetting controllable hinge energy consumption connecting component system comprises an assembled self-resetting controllable hinge energy consumption connecting component, a hinge column 1, a bottom hinge beam 2, a top hinge beam 3, a middle hinge beam 4, a resetting system 5, a friction wall 6, a shear wall 7 and a yield wall 8,
the hinge post 1, the bottom hinge beam 2, the top hinge beam 3 and the middle hinge beam 4 are spliced to form a double-layer frame structure; a reset system 5 is arranged at the joint of each hinge post and the beam; the lower ends of the first layer of two hinge posts 1 are respectively connected with the upper parts of the two ends of the bottom hinge beam 2, and the upper ends of the first layer of two hinge posts 1 are respectively connected with the lower parts of the two ends of the middle hinge beam 4; the lower ends of the two hinge columns 1 of the second layer are respectively connected with the upper parts of the two ends of the middle hinge beam 4, and the upper ends of the two hinge columns 1 are respectively connected with the lower parts of the two ends of the top hinge beam 3; the double-layer frame structure is provided with at least one group, and a plurality of groups of double-layer frame structures are stacked and spliced;
the friction wall 6 is respectively connected with the hinge columns 1, and the shear wall 7 is respectively connected with the bottom hinge beam 2, the middle hinge beam 4 and the top hinge beam 3 to form an energy consumption shear wall group; or the yield wall replaces the shear wall and the friction wall, and the yield wall is connected with the hinge column, the bottom hinge beam, the middle hinge beam and the top hinge beam to form the energy-consumption yield wall group. The bottom hinge beam comprises a bottom main beam 021, a bottom left lug plate 022, a bottom right lug plate 023, a bottom beam connecting piece 024, a bottom beam first limit hole 025 and a bottom beam second limit hole 026; the top hinge beam comprises a top main beam 031, a top left lug plate 032, a top right lug plate 033, a top beam connecting piece 034, a top beam first limit hole 035, a top beam second limit hole 036, a bottom hinge beam or a left lug plate and a right lug plate of the top hinge beam are respectively and symmetrically connected to the lower parts of two ends of the beam, the connecting piece is connected to the side surface axis of the beam, and the central section of the connecting piece coincides with the central section of the beam;
the middle hinge beam comprises a middle main beam 041, a middle left ear plate 042, a middle right ear plate 043, a middle beam first connecting piece 044, a middle beam second connecting piece 045, a middle beam first limiting hole 046 and a middle beam second limiting hole 047, wherein the middle left ear plate and the middle right ear plate are respectively and symmetrically connected to the upper parts of two ends of the beam, the connecting pieces are connected to the side surface axes of the beam, and the central section of the connecting pieces coincides with the central section of the beam;
the hinge post comprises a main post 011, an upper single ear plate 012, a lower single ear plate 013, a post side connecting piece 014, wherein the upper single ear plate and the lower single ear plate are respectively connected to the upper end part and the lower end part of the main post, the post side connecting piece is connected to the axis of the post side surface, and the center section of the post side connecting piece is overlapped with the center section of the post;
the top hinge beam, the bottom hinge beam, the middle hinge beam and the hinge column are connected with the pin shaft through the end lug plate; the friction wall is connected with the hinge post side connecting piece by bolts; the shear wall is connected with side connectors of the top hinge beam, the bottom hinge beam and the middle hinge beam by bolts.
Referring to fig. 1-8, the assembled self-resetting controllable hinge energy consumption connecting component system comprises hinge columns 1, bottom hinge beams 2, top hinge beams 3, middle hinge beams 4, a resetting system 5, friction walls 6 and shear walls 7, wherein lower single ear plates 013 of the first layer of two hinge columns 1 are respectively connected with bottom left ear plates 022 and bottom right ear plates 023 at the upper parts of two ends of the bottom hinge beams 2, the upper single ear plates 012 of the first layer of two hinge columns 1 are respectively connected with middle left ear plates 042 and middle right ear plates 043 at the lower parts of two ends of the middle hinge beams 3, and two sides of the shear walls 7 are respectively connected with bottom beam connecting pieces 024 of the bottom hinge beams 2 and middle beam second connecting pieces 045 of the middle hinge beams 4; the two layers and above are respectively connected with a middle left ear plate 042 and a middle right ear plate 043 which are arranged at the upper parts of the two ends of the middle hinge beam 4, a lower single ear plate 013 at the lower ends of the two hinge columns 1 is respectively connected with a middle left ear plate 042 and a middle right ear plate 043 which are arranged at the lower parts of the two ends of the middle hinge beam 4, and two sides of the shear wall 7 are respectively connected with a middle beam first connecting piece 044 and a middle beam second connecting piece 045 of the middle hinge beam 4; the lower single ear plates 013 of the two hinge columns 1 on the top layer are respectively connected with the middle left ear plates 042 and the middle right ear plates 043 at the upper parts of the two ends of the middle hinge beam 4, the upper single ear plates 012 of the two hinge columns 1 are respectively connected with the top left ear plates 032 and the top right ear plates 033 at the lower parts of the two ends of the top hinge beam 3, and the two sides of the vertical shear wall 7 are respectively connected with the top beam connecting piece 034 of the top hinge beam 3 and the middle beam first connecting piece 044 of the middle hinge beam 4; two reset systems 5 are symmetrically arranged at the joint of each beam and each column, and two ends of each reset system 5 are respectively connected with the beam end and the column end by adopting a memory alloy rod 052; two ends of the friction wall 6 are respectively connected with column side connecting pieces 014 of the hinge column 1;
hinge post 1 includes main post 011, upper monaural plate 012, lower monaural plate 013, post side connector 014; the upper single ear plate 012 and the lower single ear plate 013 are respectively made of single ear plates, the joint of the column ends is set to be a single ear plate, the single ear plates are respectively welded on two horizontal steel plates welded at the two ends of the main column 011, and the ear plates are positioned on the main axis of the section of the column and are in weak axial symmetry about the section of the column, so that the column is prevented from being biased; an upper monaural plate 012 and a lower monaural plate 013; 4 bolt holes are reserved on the horizontal steel plate and used for penetrating through the memory alloy rod 052, the arch springs 051 are connected to the column ends, the positions of the bolt holes are respectively symmetrical along two axes of the column section, the distance between the bolt holes and the edge of the welding part of the horizontal steel bar and the flange of the main beam is 1/2 of the width of the arch spring section, and the distance between the bolt holes and the other edge of the horizontal steel plate is at least greater than 50mm; welding stiffening ribs between the steel plate and the web of the main column 011, wherein the stiffening ribs are close to the central axis of the web of the main column, so that the plane rigidity of the joint area is enhanced; the bolt holes on the column side connecting pieces 014 are used for being connected with the friction wall 6, welded at the position of the main column flange web plate, the distance between the bolt holes of the side connecting pieces and the edge is at least more than 50mm, stiffening ribs are welded between each bolt hole, and the strength of the side connecting pieces is enhanced;
the bottom hinge beam 2 comprises a bottom main beam 021, a bottom left lug plate 022, a bottom right lug plate 023, a bottom beam connecting piece 024, a bottom beam first limit hole 025 and a bottom beam second limit hole 026; the bottom left ear plate 022 and the bottom right ear plate 023 are double-ear plates which are symmetrically welded on two sides of a main strong shaft, the middle gap is the thickness of the lower single ear plate 013 of the hinge 1, and the double-ear plates are adopted to mainly facilitate centering alignment of the hinge 1; 4 bolt holes are reserved on the upper flange plates at the two ends of the first girder, the positions of the bolt holes are symmetrically distributed along two axes of the section of the girder, the distance between the bolt holes and the section of the flange is 1/2 of the width of the section of the arch spring, and the distance between the bolt holes and the flange edge is at least greater than 50mm and is used for penetrating through a memory alloy rod 052 to connect the arch spring 051 to the girder end; welding stiffening ribs between flanges of the bottom girder 2 end welding lug plates and the web plates, wherein the stiffening ribs are close to the central axes of the bolt holes, so that the out-of-plane rigidity of the girder end part is enhanced; the bottom beam connecting piece 024 is welded at the position of the flange web plate of the bottom main beam 021, the distance between the bolt holes of the side connecting piece and the edge is at least more than 50mm, and stiffening ribs are welded between every two bolt holes; the bottom hinge beam 2 is anchored with the foundation by adopting high-strength bolts, stiffening ribs are welded between the bolt holes connected with the foundation, and the overall rigidity of the bottom hinge beam 2 is enhanced; the screws are placed in the first limit holes 025 and the second limit holes 026 of the bottom beam, so that the mechanical hinge rotation angle can be limited to be overlarge;
the top hinge beam 3 comprises a top main beam 031, a top left lug plate 032, a top right lug plate 033, a top beam connecting piece 034, a top beam first limit hole 035 and a top beam second limit hole 036; the top left ear plate 032 and the top right ear plate 033 adopt double ear plates which are symmetrically welded on two sides of a main strong shaft, and the middle gap is the thickness of a lower single ear plate 013 of the column hinge 1; 4 bolt holes are reserved on the upper flange plate and the lower flange plate at the two ends of the top girder 031 respectively, the positions of the bolt holes are symmetrically distributed along two axes of the column section, the distance between the bolt holes and the flange section is 1/2 of the width of the arched spring section, and the distance between the bolt holes and the flange edge is at least greater than 50mm; welding stiffening ribs between the flange at the 031 end of the top girder and the web plate, wherein the stiffening ribs are close to the central axis of the bolt hole; the top beam connecting piece 034 is welded at the position of the flange web plate of the top girder 031, the distance between the bolt holes of the side connecting piece and the edge is at least more than 50mm, and stiffening ribs are welded between every two bolt holes; the screws are placed in the first limit holes 025 and the second limit holes 026 of the bottom beam, so that the mechanical hinge rotation angle can be limited to be overlarge;
the middle hinge beam 4 comprises a middle main beam 041, a middle left ear plate 042, a middle right ear plate 043, a middle beam first connecting piece 044, a middle beam second connecting piece 045, a middle beam first limiting hole 046 and a middle beam second limiting hole 047; the middle left ear plate 042 and the middle right ear plate 043 adopt double ear plates which are symmetrically welded at two sides of a main strong shaft, and the middle gap is the thickness of a lower single ear plate 013 of the column hinge 1; 4 bolt holes are reserved on the upper flange plate and the lower flange plate at the two ends of the middle main beam 041 respectively, the positions of the bolt holes are symmetrically distributed along the two axes of the column section, the distance between the bolt holes and the flange section is 1/2 of the width of the arched spring section, and the distance between the bolt holes and the flange edge is at least greater than 50mm; welding stiffening ribs between the 041 end flanges of the middle main beam and the web plate, wherein the stiffening ribs are close to the central axes of the bolt holes; the middle beam first connecting piece 044 and the middle beam second connecting piece 045 are respectively welded at the positions of the flange webs of the middle main beam 041, the distance between the bolt holes of the side connecting pieces and the edges is at least more than 50mm, and stiffening ribs are welded between every two bolt holes; the screws are placed in the first limit holes 046 and the second limit holes 047 of the middle beam, so that the mechanical hinge rotation angle can be limited to be overlarge;
the reset system 5 comprises arched springs 051 and memory alloy rods 052, the width of each arched spring 051 is smaller than 1/2-1/3 of the column height, the length is equal to the column width, two holes are formed in each hole, and the memory alloy rods 052 conveniently penetrate through a plurality of overlapped arched springs 051; a plurality of arch springs 051 are overlapped and oppositely overlapped to form a spring group, the spring group is placed in a beam column connecting area, a memory alloy rod 052 sequentially penetrates through bolt holes reserved on a main beam, the arch springs 051 and a main column, and is connected by adopting a high-strength nut, and certain prestress is applied, so that the structure can be reset well;
the friction wall 6 includes a first friction layer 061, a first steel plate layer 062, a first concrete layer 062; one side of the first steel plate layer 062 is poured with a first concrete layer 062, and the other side is bonded with a first friction layer 061; the friction wall 6 is provided with arc track holes, 4 arc track holes are formed in the figure, and the 4 holes are formed only in important structural support positions, so that not only can the friction surface be ensured to have sufficient normal phase load, but also the friction surface can be uniformly stressed to avoid stress concentration failure, the shape of the holes is the track of the mutual movement between the friction wall and the shear wall under the action of an earthquake, and the large-size holes in the friction wall 6 are prevented from weakening the strength of the wall;
shear wall 7, second friction layer 071, second steel plate layer 072, second concrete layer 073; one side of the second steel plate layer 072 is poured with a second concrete layer 073, and the other side is bonded with a second friction layer 071; the shear wall 7 is provided with a hole corresponding to the middle of the arc hole of the friction wall, the maximum layering degree ensures the integrity of the vertical shear wall 7, and then the friction wall and the shear wall are connected into a whole through high-strength bolts;
in addition, the yield strength is directly connected with the column side connecting piece 014, the bottom beam connecting piece 024, the top beam connecting piece 034, the middle beam first connecting piece 044 and the middle beam second connecting piece 045 by bolts in the surrounding mode, and therefore the structure can be converted from friction energy consumption to yield energy consumption.
Referring to fig. 3, the assembly process of the assembled self-resetting controllable hinge energy consumption connecting component system of the utility model takes a two-storey building as an example, and comprises the following steps:
(1) the bottom hinged beam 2 is anchored on the foundation through high-strength bolts; (2) the bottom left ear plate 022 and the bottom right ear plate 023 are respectively connected with the lower single ear plates 013 of the two hinge posts 1 by adopting pin shafts; meanwhile, the beam column node areas of the bottom hinge beam 2 and the hinge column 1 are connected with the reset system 5, and then the two columns are independent and vertical, so that the arrangement of scaffolds can be effectively reduced; (3) the upper single ear plates 012 of the two corner posts 1 are connected with the middle left ear plate 042 and the middle right ear plate 043 at the lower end of the middle hinge beam 4 by adopting pin shafts, the middle hinge beam 4 and the beam column joint area of the hinge post 1 are connected with a reset system 5, and then an independently supported frame is established; (4) the friction wall 6 is connected with the column side connecting piece 014 of the hinge column 1 through bolts, and the shear wall 7 is connected with the bottom beam connecting piece 024 of the bottom hinge beam 2 and the middle beam second connecting piece 045 of the middle hinge beam 4 through bolts; (5) the lower single lug plates 013 of the two corner posts 1 are connected with the middle left lug plate 042 and the middle right lug plate 043 at the upper ends of the middle hinge beams 4 by adopting pin shafts, and the middle hinge beams 4 are connected with a reset system 5 in a beam column joint area of the hinge posts 1; (6) the upper single ear plates 012 of the two corner posts 1 are connected with the top left ear plate 032 and the top right ear plate 033 at the upper ends of the top hinge beams 3 by pin shafts, and the top hinge beams 3 and the beam column joint areas of the hinge posts 1 are connected with a reset system 5; (8) bolt rods are respectively placed in the bottom beam first limiting hole 025, the bottom beam second limiting hole 026, the top beam first limiting hole 035, the top beam second limiting hole 036, the middle beam first limiting hole 046 and the middle beam second limiting hole 047, and are fixed by nuts; (9) holes are reserved on the friction wall 6 and the shear wall 7 to be placed into screws and pre-stress is applied.
Working principle:
the assembled self-resetting controllable hinging energy-consuming shear wall is connected with a building, and the shear wall has push-pull symmetry, so that the stress state of the shear wall is consistent all the time no matter in a tensile state or a compression state, as the hysteresis curve of the system of figure 10 is completely symmetrical left and right;
the whole frame system component is replaceable, and the whole friction wall system has 4 safety defense lines: the hinge frame resetting system is a first defense line, resetting force is mainly provided by an arch spring, and the hinge frame provides lateral rigidity for the structure; the friction force between the friction wall and the shear wall is a second defense line, and mainly provides side rigidity resistance and friction energy consumption for the structure; once the friction surface layers of the shear wall and the friction wall are damaged, the friction wall has a certain horizontal bearing capacity and can continuously provide horizontal shear force for the structure, and the friction wall is a third defense line for the structure; once the friction wall is broken, the shear wall is equivalent to a common shear wall, namely, the shear wall can bear vertical dead weight at horizontal shear force, and the shear wall is the last defense line of the structure; the damage sequence of the 4-fold defense line is arch spring damage, viscous damping surface damage on the friction wall and the shear wall, friction wall damage and shear wall damage; according to the design target of the shear system, the maximum level damage of the structure only reaches the second layer;
the structural arch spring is damaged, the friction surface is still indeterminate and damaged, so that the arch spring is replaced firstly, only one side of a node needs to be replaced each time when the arch spring is replaced, and meanwhile, when two sides are replaced, one side of the node is not supported, one side of a column is hinged, and the force borne by one side of the column is transferred to other components, so that unnecessary danger is caused; when the arch spring is replaced, the column bottom is replaced firstly, and then the column top is replaced in order to further stabilize the structure; after the arch spring is replaced, the friction wall can be detached for inspection, and the viscous layer can be repaired.
Claims (5)
1. The utility model provides an assembled is from controllable hinge power consumption coupling assembling that resets, its characterized in that includes reset system, reset system includes arch spring and screw rod, and two arch spring open end lock are overlapped and are constituteed reset unit, and a plurality of reset units coincide and constitute reset system, set up the cross-under hole on reset system's the arch spring, the cross-under hole penetrates the screw rod and connects and form spring group.
2. The assembly type self-resetting controllable hinge energy consumption connecting assembly of claim 1, wherein two sets of through holes are formed in an arch spring of the resetting system, and the two sets of through holes sequentially penetrate into a screw rod to be connected to form a spring set.
3. The assembled self-resetting controllable hinge energy consumption connecting assembly as claimed in claim 1, wherein the resetting system is connected at beam and column connecting nodes of the frame structure.
4. An assembled self-resetting controllable hinge energy consumption connecting assembly system is characterized by comprising the assembled self-resetting controllable hinge energy consumption connecting assembly as claimed in claim 1, and further comprising a hinge column (1), a bottom hinge beam (2), a top hinge beam (3), a middle hinge beam (4), a resetting system (5), a friction wall (6), a shear wall (7) and a yield wall (8),
the hinge column (1), the bottom hinge beam (2), the top hinge beam (3) and the middle hinge beam (4) are spliced to form a double-layer frame structure; a reset system (5) is arranged at the joint of each hinge post and the beam; the lower ends of the first layer of two hinge posts (1) are respectively connected with the upper parts of the two ends of the bottom hinge beam (2), and the upper ends of the first layer of two hinge posts (1) are respectively connected with the lower parts of the two ends of the middle hinge beam (4); the lower ends of the two hinge columns (1) of the second layer are respectively connected with the upper parts of the two ends of the middle hinge beam (4), and the upper ends of the two hinge columns (1) are respectively connected with the lower parts of the two ends of the top hinge beam (3); the double-layer frame structure is provided with at least one group, and a plurality of groups of double-layer frame structures are stacked and spliced;
the friction wall (6) is respectively connected with the hinge columns (1), and the shear wall (7) is respectively connected with the bottom hinge beam (2), the middle hinge beam (4) and the top hinge beam (3) to form an energy consumption shear wall group; or the yield wall replaces the shear wall and the friction wall, and the yield wall is connected with the hinge column, the bottom hinge beam, the middle hinge beam and the top hinge beam to form the energy-consumption yield wall group.
5. The assembled self-resetting controllable hinge energy consuming connection assembly system of claim 4, wherein the bottom hinge beam comprises a bottom main beam (021), a bottom left ear plate (022), a bottom right ear plate (023), a bottom beam connector (024), a bottom beam first limit hole (025) and a bottom beam second limit hole (026); the top hinge beam comprises a top main beam (031), a top left lug plate (032), a top right lug plate (033), a top beam connecting piece (034), a top beam first limiting hole (035), a top beam second limiting hole (036), and a bottom hinge beam or the left lug plate and the right lug plate of the top hinge beam are respectively and symmetrically connected to the lower parts of the two ends of the beam, the connecting piece is connected to the side surface axis of the beam, and the central section of the connecting piece coincides with the central section of the beam;
the middle hinge beam comprises a middle main beam (041), a middle left ear plate (042), a middle right ear plate (043), a middle beam first connecting piece (044), a middle beam second connecting piece (045), a middle beam first limiting hole (046), a middle beam second limiting hole (047), wherein the middle left ear plate and the middle right ear plate are respectively and symmetrically connected to the upper parts of two ends of the beam, the connecting pieces are connected to the side surface axes of the beam, and the central section of the connecting pieces coincides with the central section of the beam;
the hinge post comprises a main post (011), an upper single ear plate (012), a lower single ear plate (013) and a post side connecting piece (014), wherein the upper single ear plate and the lower single ear plate are respectively connected to the upper end part and the lower end part of the main post, the post side connecting piece is connected to the axis of the side surface of the post, and the central section of the post side connecting piece is overlapped with the central section of the post;
the top hinge beam, the bottom hinge beam, the middle hinge beam and the hinge column are connected with the pin shaft through the end lug plate; the friction wall is connected with the hinge post side connecting piece by bolts; the shear wall is connected with side connectors of the top hinge beam, the bottom hinge beam and the middle hinge beam by bolts.
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Cited By (1)
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CN115405023A (en) * | 2022-10-09 | 2022-11-29 | 兰州理工大学 | Assembly type self-resetting controllable hinge energy dissipation wall and assembly method thereof |
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
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CN115405023A (en) * | 2022-10-09 | 2022-11-29 | 兰州理工大学 | Assembly type self-resetting controllable hinge energy dissipation wall and assembly method thereof |
CN115405023B (en) * | 2022-10-09 | 2024-02-13 | 兰州理工大学 | Assembled self-resetting controllable hinge energy consumption wall and assembling method thereof |
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