CN102454235A - Design scheme of tunnel and underground building combined type earthquake resistant structure - Google Patents

Design scheme of tunnel and underground building combined type earthquake resistant structure Download PDF

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Publication number
CN102454235A
CN102454235A CN201010522748XA CN201010522748A CN102454235A CN 102454235 A CN102454235 A CN 102454235A CN 201010522748X A CN201010522748X A CN 201010522748XA CN 201010522748 A CN201010522748 A CN 201010522748A CN 102454235 A CN102454235 A CN 102454235A
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damping device
node
building
shock insulation
earthquake
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CN201010522748XA
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Chinese (zh)
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常明媛
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Abstract

The invention belongs to a design scheme of a tunnel and underground building combined type earthquake resistant structure which mainly consists of a horizontal shock isolation and absorption device, a vertical shock isolation and absorption device, a node shock resistant device and a shock elimination device. The design scheme has the major advantages that: the capability of buildings in resisting damage of earthquake disasters is greatly improved, the service life of the buildings is remarkably prolonged, and about 20% of the project investment is reduced.

Description

A kind of tunnel and underground building combined type earthquake resistant structure design scheme
The invention belongs to a kind of combined anti-earthquake mechanism that is installed in the building structure, particularly have level, vertical earthquake isolation, a combined anti-earthquake mechanism of node antishock device and shock-damping device in a kind of.
China is the country of earthquake more than, and the disaster that earthquake causes to the country and people is very huge, and its disaster mainly shows the destruction aspect to facilities such as building structures.The building of conventional opposing earthquake disaster all is anti-hard place shake, therefore, is difficult to the destruction of opposing seismic forces.
The objective of the invention is to the problem that exists in the prior art; And according to the structural dynamic equilibrium principle; Research and design and the earthquake isolation and the shock-damping device that manufacture; Thereby propose a kind of being installed in and have level, vertical shock insulation damping device, a combined anti-earthquake mechanism of node antishock device and shock-damping device in the building structure.It can change into the building of the hard antiseismic destruction of routine the separate type of the release seismic forces of defeating a force with a tenderness, and time protection building is not damaged thereby effectively reach earthquake disaster, and the purpose of safe handling.
The technical scheme that is installed in the combined anti-earthquake mechanism in the building structure of the present invention is: it is mainly by horizontal shock insulation damping device (2); Vertical shock insulation damping device (5); Node antishock device (7) and shock-damping device (3) constitute, and horizontal shock insulation damping device (2) wherein is installed between building superstructure (1) and the foundation (6 or 11) and the horizontal direction between each rigidity section in building superstructure (1); Vertical shock insulation damping device (5) wherein is installed between the vertical direction between each rigidity section in the building superstructure (1); Node antishock device (7) wherein is installed on the node that bears brisance significantly in the frame building structure; Shock-damping device wherein (3) is installed in building foundation (6 or 11) below ground all around.Be installed in the bed course that superimposed bed course that the horizontal shock insulation damping device between superstructure and the basis processes for composite material slidably or elastomeric material and composite material combination are processed, said bed course can be continuously or the interval placement.Said horizontal shock insulation damping device is rubber or the superimposed bed course of rubber and plastic, or the sliding support processed of high strength composite.The shock insulation damping device that is installed between the horizontal direction of each rigidity section in the building superstructure is the superimposed bed course of elasticity slidably, and said bed course can be placed continuously or at interval.Be installed in the vertical shock insulation damping device between each rigidity section vertical direction in the building superstructure for the elastomeric material or the elastic return mechanism of processing with spring, said mechanism can be continuously or placement at interval.The node antishock device (7) that is installed on the node that bears brisance significantly in the frame building structure is made up of the enhancing steel plate (8) that two symmetries are placed on the node two sides, and is integral with bolt (9), binding agent or built-in fitting (10) and this node strong bonded.The shape of the reinforcing steel shape
Figure BSA00000322345200022
shape
Figure BSA00000322345200023
shape
Figure BSA00000322345200024
shape
Figure BSA00000322345200025
shape or
Figure BSA00000322345200026
shape.Be arranged on that the shock-damping device (3) of below ground is an energy dissipating shock absorbing ditch around the building foundation.The energy dissipating shock absorbing ditch of said shock-damping device for building by laying bricks or stones, and the energy dissipating mechanism (4) that between two furrow banks, is filled with elasticity energy dissipating material or processes with spring with masonry or steel concrete.Said building structure is high level or multistory civil building structure, industrial building structure, public work structure, hydraulic and electric engineering engineering structures, aeronautical engineering structure, underground engineering structure or highway and railroad bridge structure.
Combined anti-earthquake mechanism of the present invention needing also to can be used for the old building of seismic hardening, comprises the great hall, big cinema, and around the basis of building such as exhibition hall and some ancient buildings, below ground is installed shock-damping device.
The major advantage of combined anti-earthquake mechanism of the present invention is: not only improved the ability of the opposing earthquake disaster destruction of building greatly, prolonged the application life of building greatly, but also reduced about 20% construction investment.
For further specifying the concrete structure of combined anti-earthquake mechanism of the present invention, will specifically describe with reference to accompanying drawing and embodiment.Its accompanying drawing has:
Fig. 1 is the vertical cross-sectional that is installed in the combined anti-earthquake mechanism that has horizontal shock insulation damping device and shock-damping device in the building structure;
Fig. 2 is that the vertical portion that is installed in the combined anti-earthquake mechanism that has horizontal shock insulation damping device and vertical shock insulation damping device in the building structure is cut apart view;
Fig. 3 is the foundation enlarged drawing that in the pile foundation of building, is provided with the combined anti-earthquake mechanism of horizontal shock insulation damping device;
Fig. 4 is the node antishock device 7 that is installed on the crisscross joint of bearing brisance significantly in the frame building structure; It is made up of the enhancing steel plate 8 that two symmetries are placed on the bean column node two sides, and is integral with this node strong bonded with bolt 9, binding agent or built-in fitting 10;
Fig. 5 is the node antishock device 7 that is installed on the font node that bears brisance significantly in the frame building structure.
In Fig. 1-5: 1 is the building superstructure; 2 is horizontal shock insulation damping device; 3 is shock-damping device; 4 are the elasticity energy dissipating material or the energy dissipating mechanism of processing with spring; 5 is vertical shock insulation damping device; 6 is pile foundation; 7 is the node antishock device; 8 are node enhancing steel plate; 9 is bolt; 10 built-in fittings; 11 is the basis; 12 is beam; 13 is post; The 14 superimposed bed courses, elastomeric material processed for the slidably composite material in the horizontal shock insulation damping device and composite material make up the superimposed bed course of bed course, rubber or rubber and plastic processed, sliding support that high strength composite is processed or the superimposed bed course of elasticity slidably.
Each accompanying drawing is specified at present:
Fig. 1 is the embodiment that is installed in the combined anti-earthquake mechanism in the building structure of the present invention; Mainly show in high building structure 1, to be divided into several rigidity sections among the figure; Up and down be provided with horizontal shock insulation damping device 2 between the rigidity section and between hypomere rigidity section and basis at each, and the energy dissipating mechanism 4 that the outside, basis below ground is provided with shock-damping device 3 and is placed in elasticity energy dissipating material wherein or processes with spring around building structure 1.
Mainly represent the high building structure 1 that building structure is made up of a plurality of rigidity sections just among Fig. 2, then be provided with between the property section between horizontal shock insulation damping device 2 and the munnion frame in building structure 1 at its per two sections and be provided with vertical shock insulation damping device 5;
When the basis that Fig. 3 mainly is illustrated in building structure 1 was pile foundation 6, its pile foundation was provided with horizontal shock insulation damping device 2.
Fig. 4 is the node antishock device 7 that is installed on the crisscross joint of bearing brisance significantly in the frame building structure; It is made up of the enhancing steel plate 8 that two symmetries are placed on the bean column node two sides, and is integral with this node strong bonded with bolt 9, binding agent or built-in fitting 10;
Fig. 5 is the node antishock device 7 that is installed on
Figure BSA00000322345200031
the font node that bears brisance significantly in the frame building structure; Except the shape difference that strengthens steel plate 8, all the other are identical.
Embodiment 1:
High building structure 1 as shown in Figure 1 is provided with the horizontal shock insulation damping device 2 that is made up of the superimposed bed course 14 of the composite material of continuous placement between its section of rigidity up and down, between superposed surfaces, be placed with lubriation material.(see figure 2) is equiped with the vertical shock insulation damping device 5 that the energy dissipating mechanism of being processed by elastomeric material forms between its vertical rigidity section, and said energy dissipating mechanism is provided with at interval; Underground is provided with shock-damping device 3 in the outside of building structure 1; It is to water the trench that builds up with steel concrete, and is being filled with elastic compression material 4 (see figure 1)s between the furrow bank. be provided with the sliding support that horizontal shock insulation damping device 2 its employing are processed by high strength composite in the pile foundation 6 in building structure 1.
Embodiment 2:
High-rise frame building structure 1 as shown in Figure 2 is installed in the node antishock device (7) on the node that bears brisance significantly in the frame building structure; It is made up of the enhancing steel plate (8) that two symmetries are placed on the node two sides; And be integral with built-in fitting (10) and this node strong bonded, the shape of said enhancing steel plate is respectively
Figure BSA00000322345200033
shape and
Figure BSA00000322345200034
shape (see figure 5) according to the cross that is shaped as of node with
Figure BSA00000322345200032
shape.

Claims (8)

1. be installed in the combined anti-earthquake mechanism in the building structure; It is characterized in that it is mainly by horizontal shock insulation damping device (2); Vertical shock insulation damping device (5); Node antishock device (7) and shock-damping device (3) constitute, and horizontal shock insulation damping device (2) wherein is installed between building superstructure (1) and the foundation (6) and the horizontal direction between each rigidity section in building superstructure (1); Vertical shock insulation damping device (5) wherein is installed in the vertical direction between each rigidity section in the building superstructure (1); Node antishock device (7) wherein is installed on the node that bears brisance significantly in the frame building structure; Shock-damping device wherein (3) is installed in building foundation (6 or 11) below ground all around.
2. combined anti-earthquake mechanism as claimed in claim 1; It is characterized in that being installed in the bed course that superimposed bed course that the horizontal shock insulation damping device (2) between superstructure (1) and basis (6 or 11) processes for composite material slidably or elastomeric material and composite material combination are processed, said bed course can be continuously or the interval placement.
3. according to claim 1 or claim 2 combined anti-earthquake mechanism is characterized in that it is rubber or the superimposed bed course of rubber and plastic that institute reaches horizontal shock insulation damping device (2), or the sliding support processed of high strength composite.
4. according to claim 1 or claim 2 combined anti-earthquake mechanism is characterized in that being installed in the building superstructure the horizontal shock insulation damping device (2) between each rigidity section and is the superimposed bed course of elasticity slidably, and said bed course can be placed continuously or at interval.
5. combined anti-earthquake mechanism as claimed in claim 1; It is characterized in that being installed in the vertical shock insulation damping device (5) between each rigidity section in the building superstructure for the elastomeric material or the elastic return mechanism of processing with spring, said mechanism can be continuously or placement at interval.
6. combined anti-earthquake mechanism as claimed in claim 1; The node antishock device (7) that it is characterized in that being installed on the node that bears brisance significantly in the frame building structure is made up of the enhancing steel plate (8) that two symmetries are placed on the node two sides, and is integral with bolt (9), binding agent or built-in fitting (10) and this node strong bonded.
7. like claim 1 or 6 described combined anti-earthquake mechanisms, what it is characterized in that said enhancing steel plate is shaped as
Figure FSA00000322345100011
shape
Figure FSA00000322345100012
shape
Figure FSA00000322345100013
shape
Figure FSA00000322345100014
shape
Figure FSA00000322345100015
shape or
Figure FSA00000322345100016
shape.
8. combined anti-earthquake mechanism as claimed in claim 1, it is characterized in that being arranged on building foundation (6) all around the shock-damping device of below ground (3) be energy dissipating shock absorbing ditch.
CN201010522748XA 2010-10-27 2010-10-27 Design scheme of tunnel and underground building combined type earthquake resistant structure Pending CN102454235A (en)

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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104674967A (en) * 2015-01-10 2015-06-03 余虹仪 Anti-seismic frame for high-rise buildings
CN104874132A (en) * 2015-05-15 2015-09-02 华侨大学 Multi-functional earthquake emergency response escape slide for public building
CN110616936A (en) * 2018-06-20 2019-12-27 镁亚精密股份有限公司 Anti-vibration structure for building

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104674967A (en) * 2015-01-10 2015-06-03 余虹仪 Anti-seismic frame for high-rise buildings
CN104674967B (en) * 2015-01-10 2017-11-10 重庆市民崧科技研发中心 High-rise construction earthquake resistance framework
CN104874132A (en) * 2015-05-15 2015-09-02 华侨大学 Multi-functional earthquake emergency response escape slide for public building
CN110616936A (en) * 2018-06-20 2019-12-27 镁亚精密股份有限公司 Anti-vibration structure for building

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Application publication date: 20120516