Implementation and stability analysis of discrete-time filters for approximating frequency-dependent impedance functions in the time domain

This work presents the implementation and stability analysis of a method to account for inertial soil-structure interaction (SSI) in time-history analyses, which is achieved by approximating nominally frequency-dependent foundation impedance functions in the time domain using discrete-time digital f...

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Veröffentlicht in:Soil dynamics and earthquake engineering (1984) 2017-03, Vol.94, p.223-233
Hauptverfasser: Gash, Richard, Esmaeilzadeh Seylabi, Elnaz, Taciroglu, Ertugrul
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container_title Soil dynamics and earthquake engineering (1984)
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creator Gash, Richard
Esmaeilzadeh Seylabi, Elnaz
Taciroglu, Ertugrul
description This work presents the implementation and stability analysis of a method to account for inertial soil-structure interaction (SSI) in time-history analyses, which is achieved by approximating nominally frequency-dependent foundation impedance functions in the time domain using discrete-time digital filters. The method is demonstrated using a multi-story shear building supported by a rigid disk foundation resting atop a uniform soil half-space and subjected to a horizontal ground motion. The soil-foundation-structure system's equations of motion are numerically integrated to determine its time-history response. The results are verified through comparison to those obtained both through frequency domain analyses and through sampling of the foundation impedance functions at a representative frequency. Numerical stability of the method is examined both analytically and numerically; and it was determined that the stability of the filter and the stability of the time-stepping method adopted do not guarantee that their combination will be stable as well. •Discrete-time representations of frequency-dependent impedance functions provided.•These allow inelastic time-history analyses of soil-foundation-structure systems.•Stability of combined discrete-time filters and Newmark time-stepping is examined.•A stable filter plus a stable integrator do not guarantee overall stability.•Filter approach is superior to state-of-practice method if superstructure is inelastic.
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source Elsevier ScienceDirect Journals
subjects Approximation
Digital filters
Discrete-time filter
Equations of motion
Filters
Frequencies
Frequency dependence
Frequency stability
Ground motion
Half spaces
Impedance
Mathematical models
Multistory buildings
Numerical analysis
Numerical stability
Rational approximation
Soil stability
Soil-structure interaction
Soils
Stability analysis
Structural stability
Studies
Substructure analysis
Time domain analysis
title Implementation and stability analysis of discrete-time filters for approximating frequency-dependent impedance functions in the time domain
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