
Earthquake Resistant Engineering Structures XI
WIT Press
Published on 25. September 2017
Book
Hardback
136 pages
978-1-78466-203-5 (ISBN)
Description
In its 11th year, and reporting on the latest research on preparation for and mitigation of future earthquakes, this volume examines an area of increasing importance to many countries around the world. ERES 2017 assembled experts from around the world to present their basic and applied research in the fields of earthquake engineering relevant to the design of structures.
As the world's population has concentrated in urban areas resulting in buildings in regions of high seismic vulnerability, we have seen the consequences of natural disasters take an ever-higher toll on human existence. Protecting the built environment in earthquake-prone regions involves not only the optimal design and construction of new facilities, but also the upgrading and rehabilitation of existing structures including heritage buildings, which is an important area of research.
Major earthquakes and associated effects, such as tsunamis, continue to stress the need to carry out more research and a better understanding of these phenomena is required to design earthquake resistant buildings and to carry out risk assessment and vulnerability studies.
Some of the subject areas covered are: Seismic isolation and energy dissipation; Building performance during earthquakes; Numerical analysis; Performance based design; Experimental studies; Seismic hazards and tsunamis; Safety engineering; Liquefaction; Innovative technologies; Paraseismic devices and Lifelines and resilience.
In its 11th year, and reporting on the latest research on preparation for and mitigation of future earthquakes, this volume examines an area of increasing importance to many countries around the world. ERES 2017 assembled experts from around the world to present their basic and applied research in the fields of earthquake engineering relevant to the design of structures.
As the world's population has concentrated in urban areas resulting in buildings in regions of high seismic vulnerability, we have seen the consequences of natural disasters take an ever-higher toll on human existence. Protecting the built environment in earthquake-prone regions involves not only the optimal design and construction of new facilities, but also the upgrading and rehabilitation of existing structures including heritage buildings, which is an important area of research.
Major earthquakes and associated effects, such as tsunamis, continue to stress the need to carry out more research and a better understanding of these phenomena is required to design earthquake resistant buildings and to carry out risk assessment and vulnerability studies.
Some of the subject areas covered are: Seismic isolation and energy dissipation; Building performance during earthquakes; Numerical analysis; Performance based design; Experimental studies; Seismic hazards and tsunamis; Safety engineering; Liquefaction; Innovative technologies; Paraseismic devices and Lifelines and resilience.
As the world's population has concentrated in urban areas resulting in buildings in regions of high seismic vulnerability, we have seen the consequences of natural disasters take an ever-higher toll on human existence. Protecting the built environment in earthquake-prone regions involves not only the optimal design and construction of new facilities, but also the upgrading and rehabilitation of existing structures including heritage buildings, which is an important area of research.
Major earthquakes and associated effects, such as tsunamis, continue to stress the need to carry out more research and a better understanding of these phenomena is required to design earthquake resistant buildings and to carry out risk assessment and vulnerability studies.
Some of the subject areas covered are: Seismic isolation and energy dissipation; Building performance during earthquakes; Numerical analysis; Performance based design; Experimental studies; Seismic hazards and tsunamis; Safety engineering; Liquefaction; Innovative technologies; Paraseismic devices and Lifelines and resilience.
In its 11th year, and reporting on the latest research on preparation for and mitigation of future earthquakes, this volume examines an area of increasing importance to many countries around the world. ERES 2017 assembled experts from around the world to present their basic and applied research in the fields of earthquake engineering relevant to the design of structures.
As the world's population has concentrated in urban areas resulting in buildings in regions of high seismic vulnerability, we have seen the consequences of natural disasters take an ever-higher toll on human existence. Protecting the built environment in earthquake-prone regions involves not only the optimal design and construction of new facilities, but also the upgrading and rehabilitation of existing structures including heritage buildings, which is an important area of research.
Major earthquakes and associated effects, such as tsunamis, continue to stress the need to carry out more research and a better understanding of these phenomena is required to design earthquake resistant buildings and to carry out risk assessment and vulnerability studies.
Some of the subject areas covered are: Seismic isolation and energy dissipation; Building performance during earthquakes; Numerical analysis; Performance based design; Experimental studies; Seismic hazards and tsunamis; Safety engineering; Liquefaction; Innovative technologies; Paraseismic devices and Lifelines and resilience.
More details
Series
Language
English
Place of publication
Southampton
United Kingdom
Target group
College/higher education
Dimensions
Height: 254 mm
Width: 178 mm
ISBN-13
978-1-78466-203-5 (9781784662035)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Content
Contents
Rocking of multiblock stone classical columns; Methodology for the dynamic analysis of buildings subjected to seismic actions: incorporating the effect of non-structural elements; Feasibility study for a new structural system to resist the collapse of reinforced concrete frame structures in earthquakes; Finite element modeling of reinforced concrete structural walls for performance-based seismic design; Assessment of the response reduction factors of plan-irregular RC buildings; Assessment and performance-based design of the strengthening of existing structures following the 2015 Nepal earthquakes; Seismic performance of a masonry building isolated with low-cost rubber isolators; Seismic damage assessment of RC building with the transfer slab system; Construction of precast concrete shells in Georgia; Seismic vulnerability appraisal according to the Algerian
building context
Author index
Rocking of multiblock stone classical columns; Methodology for the dynamic analysis of buildings subjected to seismic actions: incorporating the effect of non-structural elements; Feasibility study for a new structural system to resist the collapse of reinforced concrete frame structures in earthquakes; Finite element modeling of reinforced concrete structural walls for performance-based seismic design; Assessment of the response reduction factors of plan-irregular RC buildings; Assessment and performance-based design of the strengthening of existing structures following the 2015 Nepal earthquakes; Seismic performance of a masonry building isolated with low-cost rubber isolators; Seismic damage assessment of RC building with the transfer slab system; Construction of precast concrete shells in Georgia; Seismic vulnerability appraisal according to the Algerian
building context
Author index