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Introduction to the Theory of Seismology

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ISBN-10: 0521283892

ISBN-13: 9780521283892

Edition: 4th 1985 (Revised)

Authors: K. E. Bullen, Bruce A. Bolt

List price: $139.00
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Description:

This radical revision of Professor Bullen's acclaimed and widely used text provides an introduction to modern seismological theory, with emphasis on both the physical models and the mathematical descriptions of earthquakes and their sources. The essential core of the earlier editions has been retained, particularly the tensor treatment of elasticity, seismic wave travel-time analysis and density in the Earth, although these parts of the text have been brought up to date and expanded. The new part of the book reflects on how the study of earthquakes, seismic waves and seismic risk has been broadened in the past two decades. Thus, this edition includes introductory theory of earthquake…    
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Book details

List price: $139.00
Edition: 4th
Copyright year: 1985
Publisher: Cambridge University Press
Publication date: 11/14/1985
Binding: Paperback
Pages: 520
Size: 5.98" wide x 9.02" long x 1.26" tall
Weight: 1.848
Language: English

Preface
The scope of seismology
Early history
Developments from 1915 to 1960
The period since 1960
Seismology and nuclear explosions
Standard global recording
Computers and complexity
Extra-terrestrial seismology
The plan of this book
Elasticity theory
Analysis of stress
The stress tensor
Symmetry of the stress tensor
Use of the Kronecker delta [delta][subscript ij] and alternating tensor [epsiv][subscript ijk]
The stress quadric
Elastodynamic equations of motion
Infinitesimal strain
The rotation tensor
The strain tensor
Cubical dilatation
The equation of conservation
Curvilinear coordinates
Perfect elasticity
Stress-strain relations for a perfectly elastic isotropic material
Equations of motion in terms of displacement
Some perfectly elastic substances
Young's modulus and Poisson's ratio
Energy in a perfectly elastic body
Theorems on elastic equilibrium
Solving problems in elasticity
Non-isotropic materials and transverse isotropy
Departures from perfect elasticity due to time effects
Fluid viscosity
Kelvin-Voigt model
Elastic afterworking
Maxwell model
Strength of a solid
Solids and fluids
Finite-strain theory
Exercises
Vibrations and waves
Vibrations of systems with one degree of freedom
Simple harmonic motion
Damped vibrations
Forced vibrations
The delta function
Green's function
Vibrations of systems with more than one degree of freedom
Eigen-vibrations of systems with finite freedom
Rayleigh's principle
Particles on an elastic string
Vibrations of continuous systems
Seismological considerations
Plane waves
Fourier's integral theorem and spectra
Simple harmonic plane wave
Vector waves. Polarisation
Standing waves
Dispersion of waves
Energy in plane wave motion
Propagation of plane waves in a general direction
The wave equation
Case of spherical symmetry
General solution
Ray theory
Two-dimensional wave motion
Scattering
Diffraction
Helmholtz and Sturm--Liouville equations
Exercises
Body elastic waves
P and S waves
Case of plane waves
Poisson's relation
Inclusion of the seismic source in infinite media
Spherical source
Green's function representation for point sources
Reciprocity theorem
Form of ground motion in an earthquake
The effect of gravity fluctuations
The effects of elastic imperfections
Constitutive laws for anelasticity
Linear models and the Jeffreys power law
Damping of harmonic waves. The quality factor Q
Thermodynamical conditions
Finite-strain effects
Case of spherical waves
Exercises
Surface elastic waves and eigen-vibrations of a sphere
Waves guided along a plane boundary
Rayleigh waves
Stoneley waves
Love waves
Nodal planes
Dispersion curves
The differential equation for continuously varying media
Surface waves in the presence of multiple layers and sources
Rayleigh waves for a single surface layer
Matrix theory. Love and Rayleigh waves
Lamb's problem
Normal oscillations of an elastic sphere
The basic equations
Torsional (toroidal) modes
Spheroidal and radial modes
Geometrical description of the oscillations
Effects of rotation and ellipticity. Terrestrial spectroscopy
Duality with travelling waves
Seismic waves in linear visco-elastic media
Equation of motion. The correspondence principle
Damped seismic waves
Damped oscillations of a visco-elastic sphere
Exercises
Reflection and refraction of elastic waves
Formulation
Laws of reflection and refraction
General equations for the two media
Special cases
Case of incident SH waves
P wave incident against a free plane boundary
SV wave incident against a free plane boundary
Curved boundaries and head waves
Refraction of dispersed waves
Scattered seismic waves. Matrix theory
Exercises
Seismic rays in a spherically stratified Earth model
The parameter p of a seismic ray
Rays in inhomogeneous media. The eikonal equation
Relations between p, [Delta], T for a given family of rays
The relation p = dT/d[Delta]
Some integral expressions for T, [Delta]
The functions [zeta] and [zeta]
Expressions for d[Delta]/dp and dT/dp
Relations between [Delta] and T, corresponding to assigned variations of v with r
Various cases
Derivation of P and S velocity distributions from (T, [Delta]) relations
Herglotz-Wiechert-Bateman inversion
Bullen's method
Linear inverse method
Inversion for low velocity layers
The tau ([tau]) method
Special velocity distributions
Curvature of a seismic ray
Rays in a homogeneous medium
Circular rays; the law v = a - br[superscript 2]
Mohorovicic's law v = ar[superscript b]
Theory of travel-times in near earthquakes
Special form of the (T, [Delta]) relation for near earthquakes
Application to a layered crustal structure
Error, resolution and network design
Determination of layer thicknesses
Use of artificial sources. Seismic prospecting
Exercises
Amplitudes of the surface motion due to seismic waves in a spherically stratified Earth model
Energy considerations
Energy per unit area of wave front in an emerging wave
Relation between energy and amplitude
Movements of the surface due to an incident wave
Amplitude as a function of [Delta]
Loss of energy during transmission through the medium
Gradual variation in properties
Single discontinuity
Waves which change type
Amplitudes corresponding to cusps in (T, [Delta]) curves
Amplitudes of surface seismic waves
Reflectivity algorithms
Exercises
Seismometry
The horizontal component seismograph
Effect of tilt
The vertical component seismograph
The indicator equation
Damping of seismographs
Solution of the indicator equation
Simple harmonic ground motion
Impulsive ground motion
General ground motion response curves
Computation of the ground motion from a seismogram
Displacement and velocity meters and accelerometers
Recording methods and timing
The dynamic ranges of seismic ground motion
Microseisms
Frequency range
Amplitude range
Modern seismographs
The electromagnetic type
Signal enhancement. Digital processing
Strong-motion accelerometers and arrays
Strain, tilt and other measurements
Portable seismographs and microprocessors. Telemetry
Ocean-bottom seismographs
Engineering response spectra
Exercises
Construction of travel-time tables
Parameters of earthquake location
Calculation of the epicentral distance and azimuth
Features of seismograms
Estimation of P travel-time tables
Equations of condition between hypocentre and table parameters. Geiger's and Inglada's methods
Application of least-squares theory and inverse theory
Jeffreys' method of successive approximation. Summary values
Uniform reduction and robust estimation
Regional variations and focal depths
Use of digital computers. Tomography
Travel-time tables other than P
Notation used for phases read on seismograms
Relations between different travel-time tables
Types of travel-time tables for body waves
Effect of the Earth's ellipticity
Travel-times of surface waves
Numerical results
The Jeffreys-Bullen seismological tables
Tables for PKP
Ellipticity tables
Statistical treatment of velocity and travel-time table estimation
Exercises
The seismological observatory
Inside the observatory
Interpretation of seismograms
Determination of hypocentres and earthquake size
Group estimation of earthquake parameters
Abnormal observations. The T-phase. Precursors
International seismological organisations
International seismological catalogues
Global digital networks
Exercises
Seismic waves in anomalous structures
Anisotropic media
Equation of motion and determinantal conditions
Surface waves in anisotropic media
Heterogeneous media. WKBJ approximation
Topographic and structural variations
Finite difference methods
Finite element methods
Numerical results. A mountain and oceanic-continental transition
Variational methods
Laboratory model seismology
Exercises
Seismic waves and planetary interiors
Major discontinuities within the Earth
Existence of a crust. Oceanic and continental structures
Existence of a central core
Discontinuities in the mantle
Discontinuities in the central core
Division of the Earth's interior into shells
P and S velocity distributions in the Earth and Moon
The crust
The lithosphere
The deep interior. Recent solutions
The lunar interior
The states of the Earth's mantle and core
Solidity and fluidity
Anelastic properties
The Earth's density variation
Early models of density variation
Equations for density gradient from seismology
Extension to inhomogeneous layers. The index [eta]
The inverse problem of density determination
Bullen's procedure
Bullen's compressibility-pressure hypothesis
Linear inversion. Tradeoff curves
Direct use of seismic waves
Stratification of the shells
The upper mantle
The shell D"
The outer core (shell E)
The shell F
The inner core (shell G)
Ellipticities of surfaces of equal density within the Earth
Exercises
Long-period oscillations and the Earth's interior
Historical background
Numerical results for Earth models
Torsional oscillations
Spheroidal oscillations
Modal splitting. The solotone effect
Estimation of observed eigen-spectra
Fourier analysis
Complex demodulation
Calculation of eigen-frequency, amplitude, phase and Q
Observations
Earthquake statistics and prediction
Energy released in earthquakes
Case of near earthquakes
Assumption of spherical symmetry about the source
Use of surface waves
Earthquake magnitude
Magnitude and energy
Magnitude - frequency of occurrence relation
Seismicity
Geography of shallow earthquakes
Distribution of deep-focus earthquakes
Tectonic associations
Reservoir-induced earthquakes
Foreshocks and aftershocks
Aftershocks
Foreshocks
Swarms
Earthquake prediction
Prediction theory
Periodicities and correlations. Seismicity patterns
Changes in seismic velocities
Changes in strain
Dilatancy model
Other field parameters. Liquefaction
Exercises
The earthquake source
Elastic rebound model
Causes of earthquakes
Strain energy before an earthquake
Faults and fracture
Double couple model
Source mechanism estimation
Method of fault-plane solutions
Probability model for group fault-plane solutions
Moving dislocation source
Kinematics and dynamics. Near field and far field
Radiation patterns and directivity
Synthetic seismograms
Seismic moment
Moment tensor
Estimation of seismic moments
Exercises
Strong-motion seismology
Effects of earthquakes
Macroseismic data
Intensity of earthquake effects
Isoseismal curves and acceleration
Fault rupture correlations
Near-field parameters
Recorded strong ground motion
Peak ground accelerations, velocity and displacement
Duration of shaking
Spectral characteristics
Local effects. Soil layers and upthrow
Attenuation
Array analysis
Seismic risk
Statistical theory. Poisson and hazard distributions
Probability of exceedence of ground motions
Seismic expectancy maps
Design of earthquake-resistant structures
Tsunamis, seiches, and atmospheric oscillations
Exercises
Reference velocities and elastic parameters in two Earth models
Selected bibliography
References
Unit conversion table
Index