Energy-dissipation and shock-absorption damper component of earthquake-resistant building

Abstract

The invention discloses an energy-dissipation and shock-absorption damper component of an earthquake-resistant building. The energy-dissipation and shock-absorption damper component of the earthquake-resistant building is characterized in that the energy-dissipation and shock-absorption damper component comprises a main structure (1) and an energy-dissipation device; the energy-dissipating device comprises a damper component body (2), buried pieces (3) and clamping plates (6); the damper component body (2) comprises connecting plates (5) and a damper (8); buried plates (4) are connected with the damper (8) through the connecting plates (5); the clamping plates (6) are located on the two sides of the connecting plates (5); the clamping plates (6) are fixed with the connecting plates (5) through bolts. The energy-dissipation and shock-absorption damper component of the earthquake-resistant building is suitable for earthquake fortification of public places having important functions and high in crowd density and new buildings complex in building function and having disaster responding requirements and reinforcement, modification and repair of old buildings, and meanwhile, can break through the constraint of building function realization of an original structure, improve the building diversity and the building comfort, greatly reduce the manufacturing cost and the construction difficulty, shorten the construction period and improve safety.

Description

technical field [0001] The invention relates to an anti-seismic system of a construction project, in particular to an energy-dissipating shock-absorbing damper component of an anti-seismic building. Background technique [0002] With the development of modern society and people's increasing requirements for earthquake resistance, especially after the May 12, 2008 Wenchuan earthquake in Sichuan, the seismic shock absorption control of engineering structures has been pushed to a new level. Beijing and other regions have begun to improve the seismic fortification level. [0003] For example, the traditional seismic method of strengthening the structure, including setting up a large number of shear walls to increase the rigidity and strength of the wall structure to improve the seismic capacity of the structure, not only affects the function of the building, but also greatly increases the difficulty and cost of construction. SUMMARY OF THE INVENTION [0004] The technical prob...

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Problems solved by technology

[0003] If the traditional anti-seismic method of strengthening the structure is adopted, including setting up a large number of shear walls to increase the stiffness and strength of the structure to improve the anti-seismic ability of the structure, it will not only affect the function of the building but also greatly increase the difficulty and cost of construction.

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