Javascript must be enabled to continue!
Pioneering Numerical Techniques for Solving Differential Equations - A Comprehensive overview
View through CrossRef
The field of numerical analysis studies the application of mathematics to solve problems of practical importance. When solving differential equations derived from real-world scenarios, numerical techniques play a crucial role, particularly when a closed-form solution is unavailable or obtaining an exact/accurate solution is challenging. This paper’s main goal is to look into specific numerical techniques for solving ODEs that have initial conditions. With a primary focus on the Adomian Decomposition, Differential Transform, and Multistep approaches, this study investigates a variety of numerical strategies for solving differential equations. Several mathematicians discovered after a thorough examination of their work that these methods have greatly advanced the analysis of differential equations and are widely used in the fundamental sciences, engineering and economics. The study also emphasizes how essential it is to carry out advanced research in this field so as to create numerical approaches for solving differential equations that are more precise and effective. Research has also carried out on the creation of general-purpose numerical techniques and algorithms for solving the problems, with main focus on stability and convergence in multistep approaches. The two-dimensional nonlinear wave equation is solved using the Adomian Decomposition method, and a unique multistep approach is suggested for handling nonlinear differential equations. The results produced by various techniques are contrasted.
Title: Pioneering Numerical Techniques for Solving Differential Equations - A Comprehensive overview
Description:
The field of numerical analysis studies the application of mathematics to solve problems of practical importance.
When solving differential equations derived from real-world scenarios, numerical techniques play a crucial role, particularly when a closed-form solution is unavailable or obtaining an exact/accurate solution is challenging.
This paper’s main goal is to look into specific numerical techniques for solving ODEs that have initial conditions.
With a primary focus on the Adomian Decomposition, Differential Transform, and Multistep approaches, this study investigates a variety of numerical strategies for solving differential equations.
Several mathematicians discovered after a thorough examination of their work that these methods have greatly advanced the analysis of differential equations and are widely used in the fundamental sciences, engineering and economics.
The study also emphasizes how essential it is to carry out advanced research in this field so as to create numerical approaches for solving differential equations that are more precise and effective.
Research has also carried out on the creation of general-purpose numerical techniques and algorithms for solving the problems, with main focus on stability and convergence in multistep approaches.
The two-dimensional nonlinear wave equation is solved using the Adomian Decomposition method, and a unique multistep approach is suggested for handling nonlinear differential equations.
The results produced by various techniques are contrasted.
Related Results
Mathematics in Chemical Engineering
Mathematics in Chemical Engineering
Abstract
The article contains sections titled:
...
Analisis Kebutuhan Modul Matematika untuk Meningkatkan Kemampuan Pemecahan Masalah Siswa SMP N 4 Batang
Analisis Kebutuhan Modul Matematika untuk Meningkatkan Kemampuan Pemecahan Masalah Siswa SMP N 4 Batang
Pemecahan masalah merupakan suatu usaha untuk menyelesaikan masalah matematika menggunakan pemahaman yang telah dimilikinya. Siswa yang mempunyai kemampuan pemecahan masalah rendah...
ORBITAL PERTURBATION DIFFERENTIAL EQUATIONS WITH NON‐LINEAR CORRECTIONS FOR CHAMP‐LIKE SATELLITE
ORBITAL PERTURBATION DIFFERENTIAL EQUATIONS WITH NON‐LINEAR CORRECTIONS FOR CHAMP‐LIKE SATELLITE
AbstractDirectly from the second order differential equations of satellite motion, the linearized orbital perturbation differential equations for CHAMP‐like satellites are derived ...
Research on a Class of First-Order Nonlinear Nonhomogeneous Variable Coefficient Ordinary Differential Equations Based on Elastic Transformation
Research on a Class of First-Order Nonlinear Nonhomogeneous Variable Coefficient Ordinary Differential Equations Based on Elastic Transformation
This paper mainly studies the problem of solving a class of first-order
nonlinear non-homogeneous ordinary differential equations with variable
coefficients, which can be transform...
An operative approach to solve Homogeneous differential--anti-differential equations
An operative approach to solve Homogeneous differential--anti-differential equations
In this work, we extend the theory of differential equations through a
new way. To do this, we give an idea of differential–anti-differential
equations and dene ordinary as well as...
Applications of Partial Differential Equations in Fluid Physics
Applications of Partial Differential Equations in Fluid Physics
Partial differential equations, or PDEs, assume a critical part in grasping and outlining different fluid physics peculiarities. They have an expansive scope of utilizations, from ...
Variational Simulation With Numerical Decoupling And Local Mesh Refinement
Variational Simulation With Numerical Decoupling And Local Mesh Refinement
Abstract
The Variational Chemical Flood Simulator VCHFLDI solves from two to six coupled nonlinear parabolic partial differential equations in two space partial d...
Linearization Techniques of Reservoir Simulation Equations: Fully Implicit Cases
Linearization Techniques of Reservoir Simulation Equations: Fully Implicit Cases
Abstract
The complexity and nonlinearity of reservoir simulation equations make it possible to apply a great number of linearization techniques. The SPE compariso...

