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![]() | A new bidirectional deconvolution method that overcomes the minimum phase assumption | ![]() |
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minwavlet,mod-minwavlet,jonwavlet,mod-jonwavlet,symwavlet,mod-symwavlet
Figure 1. (a) Input wavelet 1 and (b) its deconvolution result. (c) Input wavelet 2 and (b) its deconvolution result. (e) Input wavelet 3 and (f) its deconvolution result. |
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fita-symwavlet,fitb-symwavlet
Figure 2. For the wavelet 3 inversion, (a) filter ![]() ![]() |
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Figure 1(a) 1(b), figure 1(c) 1(d) and figure 1(e) 1(f) show wavelets 1,2,3, and the results of reflectivity models respectively. In all 3 cases, our bidirectional deconvolution method is able to compress the wavelet into a spike.
Figure 2 shows the retrieved
filters
and
from wavelet 3's inversion. Notice that
and
given by the inversion are different from each
other, while ideally they should be the same, since
and
are
the same when we create wavelet 3. This observation indicates that
the solutions
and
of this method do not necessarily
converge to the inverse of the initial
and
.
![]() |
![]() |
![]() |
![]() | A new bidirectional deconvolution method that overcomes the minimum phase assumption | ![]() |
![]() |