1972
DOI: 10.1016/b978-0-12-460812-2.50008-9
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Diffracted Seismic Signals and Their Numerical Solution

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Cited by 39 publications
(43 citation statements)
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“…If (19) can be recast into a form which takes advantage of this behavior by accounting (approximately) for large numbers of modes in a single step, a great deal of labor can be saved. The recasting is done by decomposing the standing wave field into travelling wave components and replacing the summation over l by an integral over the continuous parameter 1965; CHAPMAN and PHINNEY, 1972;RICHARDS, 1973) so we will not dwell on the details. Dropping the overtone index, changing variables, and using the Poisson sum formula there results…”
Section: Motivation-the Potential For Tsunami Forecastingmentioning
confidence: 99%
“…If (19) can be recast into a form which takes advantage of this behavior by accounting (approximately) for large numbers of modes in a single step, a great deal of labor can be saved. The recasting is done by decomposing the standing wave field into travelling wave components and replacing the summation over l by an integral over the continuous parameter 1965; CHAPMAN and PHINNEY, 1972;RICHARDS, 1973) so we will not dwell on the details. Dropping the overtone index, changing variables, and using the Poisson sum formula there results…”
Section: Motivation-the Potential For Tsunami Forecastingmentioning
confidence: 99%
“…Kennett (1974Kennett ( , 1983Kennett ( , 2001) derived an recursive algorithm for propagating the generalized reflection-transmission coefficients directly to avoid the numerical difficulties. An orthogonalization approach which makes the inner product between two 4D velocity-stress vectors vanish by Gram-Schmidt method was developed by Pitteway (1965) for the radio wave problem and used later in seismology by Chapman & Phinney (1972). The orthogonalization improves the numerical stability of the propagator algorithm, but it requires certain restriction of the propagation step.…”
Section: Introductionmentioning
confidence: 99%
“…Among the methods in which the integration is performed in the complex wavenumber plane, some authors distorce the path of integration to a path of steepest descent. An example of this is the work of Chapman and Phinney (5). In the present method the spatial Fourier integral is also computed along a path in the complex plane, so as to avoid the singularities, but this path is not a steepest descent path.…”
Section: Introductionmentioning
confidence: 98%