Introduction of the Harmfulness of the Seismic Signal in the Assessment of the Performance of Reinforced Concrete Frame Structures

The principle of the seismic performance evaluation methods is to provide a measure of capability for a building or set of buildings to be damaged by an earthquake. The common objective of many of these methods is to supply classification criteria. The purpose of this study is to present a method for assessing the seismic performance of structures, based on Pushover method; we are particularly interested in reinforced concrete frame structures, which represent a significant percentage of damaged structures after a seismic event. The work is based on the characterization of seismic movement of the various earthquake zones in terms of PGA and PGD that is obtained by means of SIMQK_GR and PRISM software and the correlation between the points of performance and the scalar characterizing the earthquakes will developed.





References:
[1] Applied Technology Council ATC-40. Seismic evaluation and retrofit of
concrete buildings.
[2] Chopra, A.K. & Goel, R.K. 1999. "Capacity-demand-diagram methods
for estimating seismic deformation of inelastic structures: SDF systems",
Report PEER-1999/02. Berkeley: Pacific Earthquake Engineering
Research Center, University of California.
[3] RPA99 (2003), "Règles Parasismiques Algériennes, Version 2003",
Document technique réglementaire, DTR B C 2 48, Centre national de
recherche appliquée en génie parasismique, Alger.
[4] PRISM for Earthquake Engineering A Program for seismic response
analysis of SDOF system Version 1.0.2
[5] Kahil Amar, Hamizi Mohand, Hannachi Nacer Eddine- Taking into
account the harmfulness of the seismic signal in assessing the seismic
performance of buildings self-stable- International Review of Civil
Engineering (I.RE.C.E.), Mai 2012. *
[6] Lesueur C., Schlupp A., Scotti O., Cara M. Et C. Sira (2009) –
Relationship between accelerometric measurements and macroseismic
observations: Mulhouse area, France. Provence 2009. Aix-en-Provence,
July 6-8 2009. (Gutenberg et Richter, 1956; Hershberger, 1956).
[7] Wald D.J., Quitoriano V., Heaton T.H., Kanamori H., Scrivner C.W.,
Worden C.B. (1999b) - TriNet ‘‘ShakeMaps.’’ Rapid generation of
instrumental ground motion and intensity maps for earthquakes in
southern California, Earthquake Spectra. 15 (3), 537 555.
[8] Atkinson G.M., S.I. Kaka (2006) - Relationships between felt intensity
and instrumental ground motion for New-Madrid Shakemaps, Dept. of
Earth Sciences, Carleton University, Ottawa, Canada K1S 5B6.
[9] Atkinson G.M., Sonley E. (2000) - Empirical relationships between
Modified Mercalli intensity and response spectra. Bull. Seism. Soc. Am.
90, 537–544.
[10] SIMQKE_GR.exe (versione 2.7), Programma per la generazione di
accelerogrammi artificiali spettro-compatibili.
[11] Fukushima, Y. and T. Tanaka (1990) A new attenuation relation for
peak horizontal acceleration of strong earthquake ground motion in
Japan, Bull. Seis. Soc. Am., Vol. 80, 757-783.