Mathematica is great in solving analytically linear differential equations. It is also a good companion for computing numerical solutions to non–linear equations. We attack the reduced–gravity, shallow–water equation (RSE) problem. We compare the analytical solution to our problem without friction to the numerical solution obtained either with Mathematica or via Matlab. We exploit Mathematica ability in solving systems of non-linear Ordinary Differential Equations, on the way to identify some analytical solution to RSE when friction is non-negligible
A general formalism to solve nonlinear differential equations is given. Solutions are found and redu...
AbstractWe present a further development of the decomposition method [1,2], which leads to a single ...
Differential–algebraic equations (DAE) and partial differential–algebraic equations (PDAE) are syste...
Mathematica is great in solving analytically linear differential equations. It is also a good compan...
Differential Equations with Mathematica, Fourth Edition is a supplementing reference which uses the ...
The emphasis of the book is given in how to construct different types of solutions (exact, approxima...
We see that numerous applications to biology, chemistry, economics and medicine have recently been a...
The equations in shallow water over an obstacle are nonlinear hyperbolic differential equations. We ...
Nonlinear differential equations are ubiquitous in computational science and engineering modeling, f...
Graduation date: 2007Water is one of the most biologically and economically important substances on ...
This book deals with methods for solving nonstiff ordinary differential equations. The first chapter...
Over the last hundred years, many techniques have been developed for the solution of ordinary differ...
The classical non-linear equations for shallow water with variable bottom are completely integrated ...
Differential equations are equations that involve an unknown function and derivatives. Euler\u27s me...
INTRODUCTION Typically, one solves partial differential equations (PDE) by transforming them into or...
A general formalism to solve nonlinear differential equations is given. Solutions are found and redu...
AbstractWe present a further development of the decomposition method [1,2], which leads to a single ...
Differential–algebraic equations (DAE) and partial differential–algebraic equations (PDAE) are syste...
Mathematica is great in solving analytically linear differential equations. It is also a good compan...
Differential Equations with Mathematica, Fourth Edition is a supplementing reference which uses the ...
The emphasis of the book is given in how to construct different types of solutions (exact, approxima...
We see that numerous applications to biology, chemistry, economics and medicine have recently been a...
The equations in shallow water over an obstacle are nonlinear hyperbolic differential equations. We ...
Nonlinear differential equations are ubiquitous in computational science and engineering modeling, f...
Graduation date: 2007Water is one of the most biologically and economically important substances on ...
This book deals with methods for solving nonstiff ordinary differential equations. The first chapter...
Over the last hundred years, many techniques have been developed for the solution of ordinary differ...
The classical non-linear equations for shallow water with variable bottom are completely integrated ...
Differential equations are equations that involve an unknown function and derivatives. Euler\u27s me...
INTRODUCTION Typically, one solves partial differential equations (PDE) by transforming them into or...
A general formalism to solve nonlinear differential equations is given. Solutions are found and redu...
AbstractWe present a further development of the decomposition method [1,2], which leads to a single ...
Differential–algebraic equations (DAE) and partial differential–algebraic equations (PDAE) are syste...