scispace - formally typeset
Search or ask a question

What are some of the applications of the finite difference method in engineering geology? 


Best insight from top research papers

The finite difference method has various applications in engineering geology. It is used for solving engineering problems governed by ordinary and partial differential equations, particularly in heat transfer applications . Additionally, the finite difference method is the dominant method for modeling seismic wave propagation and earthquake motion in seismology . It is also utilized in the buckling analysis of nanoplates, where it can solve higher-order derivatives of differential equations with different types of boundary conditions . Furthermore, the finite difference method is employed in numerical modeling of selected engineering problems in geological media . In microseismic applications, it can be used as an interpretation tool to model complex seismic scenarios, accounting for scattering, waveguide, and near-field effects .

Answers from top 4 papers

More filters
Papers (4)Insight
The provided paper does not mention any applications of the finite difference method in engineering geology.
The paper does not provide information about the applications of the finite difference method in engineering geology.
Open accessBook
J.A. Studer, R. Dungar 
24 Jun 2021
8 Citations
The provided paper is about geomechanical modelling in engineering practice. It does not mention the applications of the finite difference method in engineering geology.
The provided paper does not mention any specific applications of the finite difference method in engineering geology.

Related Questions

What are the différent numerical approche that were used to simulate methane leakage into groundwater?5 answersNumerical models have been crucial in simulating methane leakage into groundwater. Studies have employed two-dimensional, two-phase, two-component models to assess methane migration from leaky natural gas wells. Additionally, multiphase flow and solute transport simulations have been utilized to evaluate the vulnerability of shallow aquifers to dissolved methane from leaky shale gas wells. Furthermore, a three-dimensional numerical model was proposed to analyze methane-air transportation in soil after leaking from underground pipelines, considering factors like leaking direction, soil porosity, leaking pressure, and convective mass transfer coefficient. These diverse numerical approaches provide insights into the complex behavior of methane migration in different geological settings, aiding in understanding and potentially mitigating the impacts of methane contamination on groundwater resources.
What are some of the applications of the finite difference method in engineering?4 answersThe finite difference method has various applications in engineering. It is used for the numerical solution of ordinary and partial differential equations, allowing for the integration and differentiation of functions. In the field of electromagnetic wave interactions, the finite difference time domain (FDTD) method is employed to simulate the behavior of electromagnetic waves in physical structures. This method is particularly useful for analyzing the effect of lightning electromagnetic pulses on transmission lines and for studying heat diffusion in microchip heat sinks. The FDTD method is also used for simulating the propagation of electromagnetic waves, as it provides a simple and straightforward approach for calculating temporal derivatives from spatial derivatives. Additionally, finite difference methods are commonly used in electrical engineering applications to solve problems related to electromagnetic fields, offering robust and accurate analysis results. Furthermore, the finite difference method is utilized in solving conduction heat transfer problems, providing numerical solutions for temperature distributions in various geometries.
What are some of the applications of the finite difference method?5 answersThe finite difference method has various applications. It is used in the numerical solution of ordinary and partial differential equations, allowing for the integration and differentiation of functions. It is also commonly used in solving differential equations by approximating derivatives with finite differences, converting them into systems of linear equations that can be solved using matrix algebra techniques. The method is also employed in solving the Poisson equation with jump discontinuities on irregular interfaces, using a hybrid approach that combines neural networks and finite differences. Additionally, finite difference schemes are widely used in obtaining numerical solutions to the Navier-Stokes equations, particularly in scale-resolving methods for turbulence such as Large Eddy Simulations and Direct Numerical Simulations. The finite difference time domain method, a variant of the finite difference method, is applied in examining electromagnetic wave interactions and heat diffusion in various engineering applications.
What is the scheme used for the discretization of the continuity equation by the finite volume method?4 answersThe finite volume method is used for the discretization of the continuity equation in several papers. Benkhaldoun and Bradji propose a fully discrete finite volume scheme for a distributed order diffusion equation with space-dependent conductivity. Wang et al. present a hybrid numerical method that combines the finite volume method with the finite element method for the discretization of the convection-dominated nonlinear carrier transport process in semiconductor devices. Mandari et al. apply the finite volume method to a scheme using stabilization and hybrid interfaces for partial differential equations describing miscible displacement in porous media. El Keurti and Rey present a new finite volume method for computing numerical approximations of a system of nonlocal transport equations modeling interacting species. Kyei applies a finite volume method for space-time discretizations of parabolic equations based on an equation error method.
How the electromagnetic method (EM) has been used for geotechnical applications in the USA?3 answersElectromagnetic (EM) methods have been used for geotechnical applications in the USA. These methods are sensitive to the electrical conductivity of rocks and can provide information about petrophysical properties, lithological characteristics, and mineral content of the rocks in the earth's interior. EM methods can be used for subsurface characterization in exploration geophysics, including the monitoring of well-casing integrity, carbon capture and storage, and overall situational awareness in the oil field. They can also be used for controlled-source electromagnetic (CSEM) methods, which involve specifying the parameters of the electromagnetic field source. These methods can be used for electromagnetic sounding and can provide information about the subsurface in both the frequency and time domains. Additionally, EM methods in the frequency domain (FDEM) have become popular for their high resolution and sensitivity, and they can be used for shallow profiling techniques as well as electromagnetic soundings in wide depth intervals.
How to solve the elastic wave equation in a cylinder cavity using finite differences?5 answersTo solve the elastic wave equation in a cylinder cavity using finite differences, several approaches have been proposed in the literature. One method involves using a combination of consistent and lumped mass methods for the mass term(s) and discretization technologies such as the average-derivative method (ADM) or the rotated mixed-grid method (RMM) for the partial differential terms. Another approach is to use energy-preserving mixed finite element methods based on the finite element exterior calculus, which conserve the system's energies exactly. Additionally, a modified formulation of the wave finite element (WFE) method has been developed for propagating analysis of thermoelastic waves in a hollow cylinder without energy dissipation. These methods provide accurate and efficient solutions for the elastic wave equation in a cylinder cavity using finite differences.