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Summary
Summary
Table 1. 1 reports the world's largest earthquakes since 1900 with respect to number of deaths (larger than or equal to 10 000), also showing the region of occurrence and the corresponding magnitudes. Both, from Figure 1. 2 and Table 1. 1 it is interesting to note that this period of time is characterized by an annual average of 15 000 deaths with two main fluctuations (modal values), the largest in the period 1900 to 1940 and another with a larger value in the decade of 1970-80. Figure 1. 2 shows the number of total deaths from the greatest earthquakes that occurred in the XX century. Although the number of victims has a tendency to decrease with time, the economic losses are increasing significantly (see Chapter 18 of this book). Table 1. 1. World earthquakes since 1900 with number of deaths greater than 10 000 Year Region Deaths Magnitude Year Region Deaths Magnitude 1905 India 19000 8. 6 1960 Agadir, Morocco 12000 5. 9 1906 Chile 20000 8. 6 1962 Iran 12000 7. 3 1907 Central Asia 12000 8. 1 1968 Iran 10000 7. 3 1908 Italy 70000 7. 5 1970 Yunnan, China 10000 7. 5 1915 Italy 29980 7. 5 1970 Peru 67000 7. 7 1917 Indonesia 15000 - 1972 Nicaragua 10000 6. 2 1918 China 10000 7. 3 1976 Guatemala 23000 7. 5 1920 China 220000 8. 5 1976 242000 7. 8 Tangshan, China 1923 Japon 142807 7. 9 1978 25000 7.
Table of Contents
Preface | p. vii |
Preface | p. ix |
Editors' Note | p. xi |
Chapter 1 Assessing and managing earthquake risk. An introductionC. S. Oliveira and A. Roca and X. Goula | |
1.1 Organization of the Book | p. 1 |
1.2 Natural Hazards. Earthquakes | p. 2 |
1.3 Earthquake prediction and prevention | p. 5 |
1.4 Construction practices and urban planning | p. 6 |
1.5 Emergency planning and managing | p. 8 |
1.6 Reinforcing and reconstruction of the building stock | p. 10 |
1.7 Philosophies and policies | p. 10 |
1.8 Lessons learned from recent earthquakes | p. 11 |
1.9 Political considerations | p. 11 |
1.10 Education and mass media risk communication | p. 12 |
1.11 Definitions of some basic concepts | p. 12 |
Part I Earthquake Hazard and Strong Motion | |
Chapter 2 Overview on earthquake hazard assessment - methods and new trendsC. S. Oliveira and A. Campos-Costa | |
2.1 Introduction | p. 15 |
2.2 Historical evolution of methods | p. 15 |
2.3 Fundamentals of seismic hazard analysis | p. 19 |
2.4 Methodology for seismic risk scenario assessment | p. 28 |
2.5 New contributions to the earthquake process | p. 31 |
2.6 Data to support hazard modelling | p. 36 |
2.7 Results and illustrations | p. 40 |
2.8 PSHA and the design of civil engineering constructions | p. 43 |
2.9 Final tendencies of the future development and considerations | p. 46 |
Chapter 3 Observation, characterization and prediction of strong ground motionX. Goula and T. Susagna | |
3.1 Introduction | p. 47 |
3.2 Strong ground motion measurements | p. 47 |
3.3 Explanatory variables of ground motion | p. 54 |
3.4 Predictive methods of ground motion | p. 58 |
3.5 Definition of seismic action | p. 62 |
Chapter 4 Local site effects and microzonationA. Roca and C. S. Oliveira and A. Ansal and S. Figueras | |
4.1 Introduction | p. 67 |
4.2 Importance of local site effects on observed earthquake damage | p. 68 |
4.3 Zoning, microzoning and resulting maps: a tool for predicting local site effects | p. 71 |
4.4 Geological, geotechnical and geophysical approaches for soil characterization | p. 73 |
4.5 Nonlinear effects | p. 75 |
4.6 Numerical methods for estimating local effects | p. 78 |
4.7 Experimental methods for estimating local site effects | p. 82 |
4.8 Topographic effects | p. 86 |
4.9 Liquefaction and induced effects | p. 87 |
4.10 Final considerations | p. 89 |
Chapter 5 Site - city interactionP.-Y. Bard and J.L. Chazelas and Ph. Gueguen and M. Kham and J.F. Semblat | |
5.1 Introduction | p. 91 |
5.2 Experimental evidence | p. 92 |
5.3 Modelling simple interaction | p. 96 |
5.4 Multiple interaction | p. 100 |
5.5 A simple energetic model | p. 108 |
5.6 Concluding comments | p. 112 |
Part II Vulnerability Assessment | |
Chapter 6 Vulnerability assessment of dwelling buildingsA.H. Barbat and S. Lagomarsino and L.G. Pujades | |
6.1 Introduction | p. 115 |
6.2 Methodologies for vulnerability assessment | p. 116 |
6.3 Vulnerability index method based on the EMS-98 macroseismic scale | p. 119 |
6.4 Capacity spectrum method | p. 129 |
6.5 Final remarks | p. 134 |
Chapter 7 Vulnerability assessment of historical buildingsS. Lagomarsino | |
7.1 Introduction | p. 135 |
7.2 The observed vulnerability in historical buildings | p. 139 |
7.3 The vulnerability assessment methodology | p. 142 |
7.4 Macroseismic vulnerability assessment of churches (level 2) | p. 149 |
7.5 A mechanical model for capacity spectrum method on monuments (level 2) | p. 150 |
7.6 Final remarks | p. 158 |
Chapter 8 Experimental techniques for assessment of dynamic behaviour of buildingsM. Navarro and C. S. Oliveira | |
8.1 Introduction | p. 159 |
8.2 Brief characterisation of dynamic properties of buildings | p. 160 |
8.3 Dynamic testing | p. 163 |
8.4 Techniques for identification of natural periods and evaluation of damping ratio | p. 165 |
8.5 Comparison of methods. Calibration with analytical techniques | p. 168 |
8.6 Correlation of natural frequencies and damping with geometry of buildings | p. 173 |
8.7 Relation between building damage and soil predominant frequencies | p. 180 |
8.8 Final considerations | p. 182 |
Chapter 9 Vulnerability and risk assessment of lifelinesK. Pitilakis and M. Alexoudi and S. Argyroudis and O. Monge and C. Martin | |
9.1 Introduction | p. 185 |
9.2 Social and economic consequences of lifeline damages | p. 187 |
9.3 Advancement in risk management of lifelines | p. 188 |
9.4 Basic features of lifelines | p. 189 |
9.5 Overview of seismic risk assessment methodology for lifelines | p. 190 |
9.6 Losses, mitigation | p. 206 |
9.7 Earthquake risk reduction policy | p. 211 |
Part III System Analysis and Risk | |
Chapter 10 Damage scenarios and damage evaluationM. Erdik and Y. Fahjan | |
10.1 Introduction | p. 213 |
10.2 Earthquake hazard | p. 214 |
10.3 Elements at risk | p. 217 |
10.4 Earthquake vulnerabilities | p. 220 |
10.5 Urban earthquake risk results | p. 232 |
Chapter 11 Urban system exposure to natural disasters: an integrated approachP. Masure and C. Lutoff | |
11.1 Introduction | p. 239 |
11.2 Characterisation of the urban system | p. 240 |
11.3 Valuation and classification of elements at risk | p. 247 |
11.4 Analysis of vulnerability factors and element interdependency | p. 254 |
11.5 Validation phase with the local actors | p. 256 |
11.6 Conclusion | p. 258 |
Chapter 12 Response of hospital systemsL.G. Pujades and A. Roca and C.S. Oliveira and S. Safina | |
12.1 Introduction | p. 261 |
12.2 The seismic behaviour of hospitals | p. 261 |
12.3 Response of the hospital network to an emergency: general aspects | p. 262 |
12.4 Simplified model: seismic analysis of a regional system | p. 269 |
12.5 Case study | p. 277 |
Part IV Managing Earthquake Risk | |
Chapter 13 Building against earthquakesF. Mana and L. Bozzo and J. Irizarry | |
13.1 Introduction | p. 287 |
13.2 Architectural design | p. 287 |
13.3 Code design and construction details | p. 301 |
13.4 Actual trends for seismic design | p. 305 |
13.5 Final remarks | p. 308 |
Chapter 14 Industrial facilitiesB. Mohammadioun and L. Serva | |
14.1 Introduction | p. 309 |
14.2 Seismic hazard-some recent developments in engineering seismology | p. 309 |
14.3 Design earthquakes in IAEA safety guides | p. 311 |
14.4 Earthquake-resistant design | p. 315 |
14.5 Approach for exclusion criteria and minimum seismic design for NPP's, followed by a description of practice in some countries | p. 316 |
14.6 A proposed approach for other critical facilities | p. 319 |
Chapter 15 Early warning and rapid damage assessmentM. Erdik and Y. Fahjan | |
15.1 Background and introduction | p. 323 |
15.2 Early warning | p. 324 |
15.3 Rapid post-earthquake damage assessment | p. 325 |
15.4 Earthquake early warning and rapid response systems | p. 328 |
Chapter 16 Technical emergency managementA. Goretti and G. Di Pasquale | |
16.1 Introduction | p. 339 |
16.2 Immediate occupancy and damage survey | p. 340 |
16.3 Basis of methodology | p. 345 |
16.4 Time and space evolution | p. 354 |
16.5 Procedures and forms | p. 356 |
16.6 Statistics and predictive models | p. 359 |
16.7 Special buildings | p. 361 |
16.8 Training and preparedness | p. 364 |
16.9 Short term countermeasures | p. 365 |
Chapter 17 Civil protection managementE. Galanti and A. Goretti and B. Foster and G. Di Pasquale | |
17.1 Introduction | p. 369 |
17.2 Civil protection organization | p. 371 |
17.3 SEMS, California | p. 373 |
17.4 Augustus method, Italy | p. 375 |
17.5 Molise 2002 earthquake | p. 378 |
Chapter 18 Earthquake risk and insuranceR. Spence and A. Coburn | |
18.1 Insurance and earthquakes | p. 385 |
18.2 Losses and insurance exposure in recent events | p. 388 |
18.3 Modelling of earthquake risks for insurance | p. 390 |
18.4 Modelling earthquake risk for the Turkish catastrophe insurance pool | p. 394 |
18.5 Conclusion | p. 401 |
Chapter 19 Strengthening and repairing earthquake damaged structuresA. G. Costa | |
19.1 Introduction | p. 403 |
19.2 Historical survey | p. 403 |
19.3 Defining the constructions | p. 404 |
19.4 Observation and surveyed damages | p. 406 |
19.5 Material mechanical characterization | p. 408 |
19.6 Numerical analysis | p. 414 |
19.7 Strengthening solutions and application conditions | p. 418 |
19.8 Conclusions | p. 425 |
Chapter 20 Advanced techniques in modelling, response and recoveryL. Chiroiu and B. Adams and K. Saito | |
20.1 Introduction | p. 427 |
20.2 Remote sensing and geomatic technologies | p. 428 |
20.3 Applications for earthquake risk management | p. 432 |
20.4 Case studies | p. 440 |
20.5 Conclusions | p. 447 |
Part V Case Studies, Initiatives and Experiences | |
Chapter 21 Seismic loss scenarios based on hazard disaggregation. Application to the metropolitan region of Lisbon, PortugalA. Campos Costa and M.L. Sousa and A. Carvalho and E. Coelho | |
21.1 Introduction | p. 449 |
21.2 Assessment of probability-based seismic loss scenarios | p. 450 |
21.3 A seismic loss methodology integrated in a geographic information system | p. 453 |
21.4 Conclusions | p. 461 |
Chapter 22 Loss scenarios for regional emergency plans: application to Catalonia, SpainT. Susagna and X. Goula and A. Roca and L. Pujades and N. Gasulla and J.J. Palma | |
22.1 Introduction | p. 463 |
22.2 Risk assessment | p. 463 |
22.3 Damage scenario mapping: a tool for emergency preparedness | p. 471 |
Chapter 23 RISK-UE project: an advanced approach to earthquake risk scenarios with application to different European townsP. Mouroux and B. Le Brun | |
23.1 Introduction | p. 479 |
23.2 Previous case studies | p. 480 |
23.3 The RISK-UE project | p. 491 |
23.4 Comparison between HAZUS, RADIUS and RISK-UE | p. 507 |
23.5 Final conclusions | p. 507 |
References | p. 509 |
Figures acknowledgements | p. 543 |