1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD

In structural analysis, many calculations are encountered which are very complex, making it difficult to do with exact mathematical calculations. For easier analysis, numerical methods are needed to simplify the calculations. Complex building structures such as towers, multi-storey structures and ot...

Full description

Saved in:
Bibliographic Details
Main Authors: Rafki Imani, Rita Nasmirayanti, Deded Eka Sahputra
Format: Article
Language:English
Published: Universitas Pattimura 2023-06-01
Series:Barekeng
Subjects:
Online Access:https://ojs3.unpatti.ac.id/index.php/barekeng/article/view/6845
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1849239577545408512
author Rafki Imani
Rita Nasmirayanti
Deded Eka Sahputra
author_facet Rafki Imani
Rita Nasmirayanti
Deded Eka Sahputra
author_sort Rafki Imani
collection DOAJ
description In structural analysis, many calculations are encountered which are very complex, making it difficult to do with exact mathematical calculations. For easier analysis, numerical methods are needed to simplify the calculations. Complex building structures such as towers, multi-storey structures and other buildings, are idealized for simplification into a single degree of freedom system (SDOF), assuming that the dynamic response of structures due to earthquake loads is horizontal. The analysis of this model is correlated with numerical analysis, so it can be completed quickly. The numerical method used in this study is the 1/3 Simpson Integral Method, because this method is suitable for calculating dynamic structural responses such as structural displacement responses. The analysis procedure begins by entering the external forces on the structural system and calculating the resulting response value. The analysis can be repeated for a variety of different parameters, such as the mass of the structure, the dumping ratio and the stiffness of the structure. Structural response is calculated by sinusoidal dynamic load type for damped and undamped systems. The results of this study conclude that the relationship between the mass of the structure, the damping of the structure and the stiffness of the structure with the displacement of the structure has an inverse relationship, where with high mass, high damping and high stiffness, it can reduce the structure displacement.
format Article
id doaj-art-39e7bd7e338e4a67ad7d17d753919e76
institution Kabale University
issn 1978-7227
2615-3017
language English
publishDate 2023-06-01
publisher Universitas Pattimura
record_format Article
series Barekeng
spelling doaj-art-39e7bd7e338e4a67ad7d17d753919e762025-08-20T04:00:55ZengUniversitas PattimuraBarekeng1978-72272615-30172023-06-011720641064810.30598/barekengvol17iss2pp0641-064868451/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOADRafki Imani0Rita Nasmirayanti1Deded Eka Sahputra2Civil Engineering Department, Engineering Faculty, Universitas Putra Indonesia YPTK Padang, IndonesiaCivil Engineering Department, Engineering Faculty, Universitas Putra Indonesia YPTK Padang, IndonesiaCivil Engineering Department, Engineering Faculty, Universitas Putra Indonesia YPTK Padang, IndonesiaIn structural analysis, many calculations are encountered which are very complex, making it difficult to do with exact mathematical calculations. For easier analysis, numerical methods are needed to simplify the calculations. Complex building structures such as towers, multi-storey structures and other buildings, are idealized for simplification into a single degree of freedom system (SDOF), assuming that the dynamic response of structures due to earthquake loads is horizontal. The analysis of this model is correlated with numerical analysis, so it can be completed quickly. The numerical method used in this study is the 1/3 Simpson Integral Method, because this method is suitable for calculating dynamic structural responses such as structural displacement responses. The analysis procedure begins by entering the external forces on the structural system and calculating the resulting response value. The analysis can be repeated for a variety of different parameters, such as the mass of the structure, the dumping ratio and the stiffness of the structure. Structural response is calculated by sinusoidal dynamic load type for damped and undamped systems. The results of this study conclude that the relationship between the mass of the structure, the damping of the structure and the stiffness of the structure with the displacement of the structure has an inverse relationship, where with high mass, high damping and high stiffness, it can reduce the structure displacement.https://ojs3.unpatti.ac.id/index.php/barekeng/article/view/6845displacementearthquakedamping ratiosdofmass1/3 integral simpson method
spellingShingle Rafki Imani
Rita Nasmirayanti
Deded Eka Sahputra
1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
Barekeng
displacement
earthquake
damping ratio
sdof
mass
1/3 integral simpson method
title 1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
title_full 1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
title_fullStr 1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
title_full_unstemmed 1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
title_short 1/3 SIMPSON’S RULE FOR ANALYSIS OF STRUCTURE DYNAMIC RESPONSE DUE TO EARTHQUAKE LOAD
title_sort 1 3 simpson s rule for analysis of structure dynamic response due to earthquake load
topic displacement
earthquake
damping ratio
sdof
mass
1/3 integral simpson method
url https://ojs3.unpatti.ac.id/index.php/barekeng/article/view/6845
work_keys_str_mv AT rafkiimani 13simpsonsruleforanalysisofstructuredynamicresponseduetoearthquakeload
AT ritanasmirayanti 13simpsonsruleforanalysisofstructuredynamicresponseduetoearthquakeload
AT dededekasahputra 13simpsonsruleforanalysisofstructuredynamicresponseduetoearthquakeload