• present methods of reducing or managing a range of earthquake risks;
• give guidance on topics where no generally accepted method is currently available;
• suggest procedures to be adopted in earthquake regions having no official zoning or lateral force regulations; and
• indicate some of the more important specialist literature.
The general principles of this book apply to the whole built environment, while the more detailed sections relate to selected aspects of it. Whereas an attempt has been made to provide guidance on most of the more important issues, the coverage cannot be exhaustive in a single book.
The author published the predecessor to this book, under the title Earthquake Resistant Design, in 1987. In the 15 years or so since then, much progress has been made in understanding earthquakes and in how to build more safely. In some areas of study great developments have occurred, such as in seismotectonics, hazard analysis, and design earthquakes, and microcomputers for everyone, and there has been wider recognition of the importance of structural form. However, one of the great difficulties for the designers of earthquake resistant property arises simply from the enormous volume of literature being produced on each of the many specialisms within the overall subject area. Hopefully, this book will help some of us to find our way better through this maze.
This book was written from the standpoint of a designer trying to keep a broad perspective on the total process, starting from the nature of the loading through to the details of construction. To this end, the successful overall format of my previous book has largely been retained, with some reorganization and the introduction of some new topics in line with the change of title to Earthquake Risk Reduction. I have attempted to give the book as international a flavour as possible, although I have inevitably drawn more heavily on information from the literature that I know best.
To reduce earthquake risk worldwide our greatest needs are (1) retrofitting of much existing infrastructure, (2) to develop a new generation of low damage infrastructure, (3) to avoid building in high hazard zones, (4) to improve quality control of construction, (5) to improve collaboration between engineers and architects, and (6) develop simpler methods of analysis and detailing rules.
- 1 Earthquake risk reduction
- 2 The nature of earthquakes
- 3 Determination of site characteristics
- 4 Seismic hazard assessment
- 5 Seismic response of soils and structures
- 6 Earthquake vulnerability of the built environment
- 7 Earthquake risk modeling and management
- 8 The design and construction process—choice of form and materials
- 9 Seismic design of foundations and soil-retaining structures
- 10 Design and detailing of new structures for earthquake ground shaking
- 11 Earthquake resistance of services, equipment and plant
- 12 Architectural detailing for earthquake resistance
- 13 Retrofitting
- Appendix A Modified Mercalli intensity scale (NZ 1996)
- Appendix B Structural steel standards for earthquake resistant structures
|Earthquake Risk Reduction|
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|2012-10-25 English 5.03 MB 74|
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