Performance based design in geotechnical earthquake engineering

The key elements of performance-based design will be illustrated and discussed in the context of designing cost effective remedial measures for embankment dams with liquefiable materials in the foundation. This situation is considered one of the more challenging areas of performance based design. So...

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Veröffentlicht in:Soil dynamics and earthquake engineering (1984) 2018-11, Vol.114, p.326-332
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description The key elements of performance-based design will be illustrated and discussed in the context of designing cost effective remedial measures for embankment dams with liquefiable materials in the foundation. This situation is considered one of the more challenging areas of performance based design. Some of the key elements that will be considered will be the selection of performance criteria, selection of an appropriately validated analysis program and calibrating the constitutive model to represent material properties in the field. Major elements of performance based seismic design will be explored using typical case histories from practice such as Sardis Dam in Mississippi, Mormon Island Auxiliary Dam in California, and Flood Protection Dikes in Hokkaido, Japan. A primary source of concern about performance based design based on the results of finite element or finite difference methods of analysis is the reliability of the analyses. Reliability is enhanced by due diligence in the selection of a well-validated program and an appropriately calibrated constituted constitutive model. These issues are discussed in the paper, but there remains a residual concern because there is no field response data on large dams by which our real capability can be assessed. •Four examples of performance based design.•Demonstration of variety of performance criteria including displacement and pore pressure levels.•Use of large displacement deformation analysis for embankments.•Probabilistic analysis of specified slope displacements.•Reliability of non-linear effective dynamic stress analysis for practice.
doi_str_mv 10.1016/j.soildyn.2018.07.017
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subjects Case histories
Constitutive models
Dam design
Dam engineering
Dam foundations
Dams
Design
Design engineering
Dikes
Due diligence
Earthquake engineering
Earthquakes
Embankment dams
Finite difference method
Finite element method
Flood management
Flood protection
Large strain analysis
Liquefaction
Material properties
Mathematical models
Performance based design
Performance criteria
Reliability
Reliability analysis
Reliability of analysis
Screening or mitigation
Seismic activity
Seismic design
Seismic engineering
Seismic response
title Performance based design in geotechnical earthquake engineering
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