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Vibration Response Simulation on a High Risk Building with Laminated Rubber Bearing Base Isolation Subjected to Earthquake Excitation
Author(s) -
F. R. Hardian,
Wahyu Nirbito
Publication year - 2020
Publication title -
iop conference series. materials science and engineering
Language(s) - English
Resource type - Journals
eISSN - 1757-899X
pISSN - 1757-8981
DOI - 10.1088/1757-899x/893/1/012006
Subject(s) - base isolation , structural engineering , vibration , natural rubber , base (topology) , foundation (evidence) , engineering , isolation (microbiology) , damages , bearing (navigation) , geotechnical engineering , computer science , materials science , mechanical engineering , physics , composite material , mathematics , geography , law , mathematical analysis , microbiology and biotechnology , archaeology , frame (networking) , artificial intelligence , political science , biology , quantum mechanics
In a high risk building like hospitals, laboratories, or school, the response of the building due to earthquake might be very dangerous. To reduce victims and damages in infrastructure, a type of base isolation is installed to the foundation of the building. The base isolation, in form of a laminated rubber bearing, produces a horizontal movement of the structure when subjected to earthquake forces in order to keep the people and equipment safe. Some calculations of the response vibration parameters are observed to determine the optimal characteristics of the base isolation. The Keq Value is 415,120,000 N/m and the total mass of the building is 739,534,249.7 kg as well as the highest vibration force is 4,015,079,348.47 N. The aim of this research is to simulate the lateral motion of the building with base isolation, due to earthquake forces and decide whether the response is as expected of the design.

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