This review paper addresses the development of numerical modeling of electromagnetic
fields in geophysics with a focus on recent finite element simulation. It discusses ways of …

For large-scale magnetotelluric (MT) forward modeling using vector finite-element methods,
iterative solvers are commonly applied. However, as frequency decreases close to zero, the …

The deployment of electromagnetic (EM) induction tools while drilling is one of the standard
routines for assisting the geosteering decision-making process. The conductivity distribution …

In this study, we present a tool to simultaneously invert multi‐source magnetic transfer
functions (TFs), including tippers, solar global‐to‐local TFs originating from the signals due …

Multigrid (MG) solvers, typically increasing the computational time linearly with the grid size,
are suitable for large-scale forward modeling problems. However, for electromagnetic (EM) …

Since electromagnetic (EM) fields diffuse more smoothly to greater depth, it physically
makes sense to apply fine discretization to model structure at near surface with an …

In the past three decades, an immense amount of magnetic field data (with periods of
measurements from months to years) has been collected worldwide, either inland or at the …

We present an efficient scheme for computing 3-D magnetotelluric (MT) forward responses.
The scheme is especially valuable for large models resulting from fine discretization or the …

We propose a novel method for three-dimensional (3D) magnetotelluric (MT) forward
modeling based on hybrid meshless and finite-element (FE) methods. This method divides …

The multigrid (MG) method has been widely used for large-scale electromagnetic (EM)
forward modeling, primarily due to its linear dependence between computational time and …