The problem of inverting for multiple physical parameters in the subsurface using seismic full-
waveform inversion (FWI) is complicated by interparameter trade-off arising from inherent …

Distributed acoustic sensing (DAS) technology is, increasingly, the seismic acquisition mode
of choice for its high spatial sampling rate, low cost, and nonintrusive deployability. It is …

Simultaneous determination of multiple physical parameters using full-waveform inversion
(FWI) suffers from interparameter trade-off difficulties. Analyzing the interparameter trade-offs …

As an emerging seismic acquisition technology, distributed acoustic sensing (DAS) has
drawn significant attention in earth science for long-term and cost-effective monitoring of …

Elastic full-waveform inversion (FWI) can provide accurate and high-resolution subsurface
parameters. However, its high computational cost prevents the application of this method to …

Estimating subsurface attenuation distribution is essential to compensate the amplitude and
phase distortions in seismic imaging and characterize attenuative reservoirs. Full-waveform …

Crosstalk-free source-encoded elastic Full-Waveform Inversion (FWI) using time-domain
solvers has demonstrated skill and efficiency at conducting seismic inversions involving …

Effective stress estimates play important roles in reservoir characterization, for instance, in
guiding the selection of fracturing areas in unconventional reservoirs. Based on Gassmann's …

Full-waveform inversion (FWI) has emerged as a powerful technique to obtain high-
resolution subsurface elastic properties. However, several complicating features, including …

To exploit Hessian information in full-waveform inversion (FWI), the matrix-free truncated
Newton method can be used. In such a method, Hessian-vector product computation is one …