Imaging earth's structures is fundamental to the earth's interior, yet how to reconstruct earth's
heterogeneities using full-waveform inversion of full wavefield data that includes primary …

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 …

Uncertainty quantification in the context of seismic imaging is important for interpreting
inverted subsurface models and updating reservoir models. The limited illumination, noisy …

Full-waveform inversion (FWI) is an effective method that uses kinematic and dynamic
information to provide an accurate image of the subsurface target. By applying the Bayesian …

Time-lapse seismic monitoring technology is an effective tool for quantitatively estimating
subsurface medium variations and plays a crucial role in resource and engineering …

We have developed a finite-difference iterative solver of the Helmholtz equation for seismic
modeling and inversion in the frequency domain. The iterative solver involves the shifted …

We have designed a target-oriented methodology to perform full-waveform inversion (FWI)
using a frequency-domain wave propagator based on the so-called patched Green's …

Recently, the focus of reflection seismologists has shifted to applications for which a high-
resolution image of the subsurface is required. Least-squares reverse time migration …

Seismic scattering theory plays an important role in seismic forward modeling and is the
theoretical foundation for various seismic imaging methods. Full waveform inversion is a …

The complex traveltime solutions of the complex eikonal equation are the basis of
inhomogeneous plane-wave seismic imaging methods, such as Gaussian beam migration …