Evolution and Implications of Changes in Seismic Load Codes for Earthquake Resistant Structures Design

Abdul Kadir, A. S. Sukri, N. H. Aswad, .. Masdiana, .. Nasrul
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Abstract

Seismic load is a critical load that can trigger damage or collapse of structures, especially in earthquake-prone areas. The susceptibility of structures to seismic loads is influenced by factors related to soil characteristics and structural behavior. This paper comprehensively examines the development of Indonesian seismic code design parameters and their comparison with the current seismic code. The results of the analysis showed that the design spectral acceleration of short-period AD and long-period A1 SKBI 1987 and SNI 2002 increased with increasing PGA values, with a consistent pattern of SC < SD < SE. Unlike the previous two codes, design spectral acceleration AD and A1 SNI 2012 and SNI 2019 experience fluctuations in all types of soil. The ratio design spectral acceleration of AD and A1 SNI 2019 to KBI 1987 and SNI 2002 varies; there are up, fixed, and down for SC, SD, and SE soil conditions. The ratio of design spectral acceleration AD and A1 SNI 2019 to SNI 2012 designs also varies; this condition is due to changes in site coefficients. There were significant changes to the SKBI 1987 and SNI 2002 structural systems, especially the low and medium seismic levels. The increase in the seismic influence coefficient ratio of some cities varies for each type of soil and code. The increase in the 1970 PMI seismic coefficient was < 30% for all soil types, and the highest percentage increase occurred in SC soil types. The increase in seismic coefficient in SKBI 1987, SNI 2002, and SNI 2012 is more dominant in SE soil types. Doi: 10.28991/CEJ-2024-010-01-04 Full Text: PDF
抗震荷载规范的演变及其对抗震结构设计的影响
地震荷载是一种关键荷载,可引发结构损坏或倒塌,尤其是在地震多发地区。结构对地震荷载的敏感性受土壤特性和结构行为相关因素的影响。本文全面研究了印尼地震规范设计参数的发展及其与现行地震规范的比较。分析结果表明,SKBI 1987 和 SNI 2002 的短周期 AD 和长周期 A1 的设计谱加速度随着 PGA 值的增加而增加,其变化规律为 SC < SD < SE。与前两个规范不同的是,AD 和 A1 SNI 2012 和 SNI 2019 的设计谱加速度在所有类型的土壤中都出现了波动。AD 和 A1 SNI 2019 与 KBI 1987 和 SNI 2002 的设计光谱加速度比值各不相同;SC、SD 和 SE 土壤条件下的比值有上升、固定和下降。设计频谱加速度 AD 和 A1 SNI 2019 与 SNI 2012 设计的比率也各不相同;这种情况是由于场地系数的变化造成的。SKBI 1987 和 SNI 2002 结构体系发生了重大变化,尤其是中低地震级别。一些城市地震影响系数比的增加因土壤类型和规范而异。所有土质类型的 1970 年 PMI 地震影响系数的增幅均小于 30%,其中 SC 土质类型的增幅最大。1987年SKBI、2002年SNI和2012年SNI中地震系数的增加在SE土壤类型中更为显著。Doi: 10.28991/CEJ-2024-010-01-04 全文:PDF
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