Fu Zun-Tao
Peking University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Fu Zun-Tao.
Applied Mathematics and Mechanics-english Edition | 2004
Fu Zun-Tao; Liu Shi-Da; Liu Shi-Kuo; Zhao Qiang
Jacobi elliptic function expansion method is extended to construct the exact solutions to another kind of KdV equations, which have variable coefficients or forcing terms. And new periodic solutions obtained by this method can be reduced to the soliton-typed solutions under the limited condition.
Applied Mathematics and Mechanics-english Edition | 2001
Liu Shi-Kuo; Fu Zun-Tao; Liu Shi-Da; Zhao Qiang
The “trial function method” (TFM for short) and a routine way in finding traveling wave solutions to some nonlinear partial differential equations (PDE for short) wer explained. Two types of evolution equations are studied, one is a generalized Burgers or KdV equation, the other is the Fisher equation with special nonlinear forms of its reaction rate term. One can see that this method is simple, fast and allowing further extension.
Communications in Theoretical Physics | 2008
Liu Shi-Kuo; Fu Zun-Tao; Wang Zhanggui; Liu Shi-Da
In this paper, by applying the Jacobi elliptic function expansion method, the periodic solutions for three nonlinear differential-difference equations are obtained.
Communications in Theoretical Physics | 2003
Fu Zun-Tao; Liu Shi-Kuo; Liu Shi-Da
From the nonlinear sine-Gordon equation, new transformations are obtained in this paper, which are applied to propose a new approach to construct exact periodic solutions to nonlinear wave equations. It is shown that more new periodic solutions can be obtained by this new approach, and more shock wave solutions or solitary wave solutions can be got under their limit conditions.
Communications in Theoretical Physics | 2003
Fu Zun-Tao; Liu Shi-Da; Liu Shi-Kuo
The elliptic equation is taken as a transformation and applied to solve nonlinear wave equations. It is shown that this method is more powerful to give more kinds of solutions, such as rational solutions, solitary wave solutions, periodic wave solutions and so on, so it can be taken as a generalized method.
Advances in Atmospheric Sciences | 2001
Zhao Qiang; Fu Zun-Tao; Liu Shi-Kuo
A simple shallow-water model on an equatorial β-plane is employed to investigate the nonlinear equatorial Rossby solitons in a mean zonal flow with meridional shear by the asymptotic method of multiple scales. The cubic nonlinear Schrödinger (NLS, for short) equation, satisfied for large amplitude equatorial envelope Rossby solitons in shear basic flow, is derived. The effects of basic flow shear on the nonlinear equatorial Rossby solitons are also analyzed.
Communications in Theoretical Physics | 2005
Fu Zun-Tao; Yao Zhen-Hua; Liu Shi-Kuo; Liu Shi-Da
In this paper, four transformations are introduced to solve single sine-Gordon equation by using the knowledge of elliptic equation and Jacobian elliptic functions. It is shown that different transformations are required in order to obtain more kinds of solutions to the single sine-Gordon equation.
Communications in Theoretical Physics | 2009
Zhao Xia; Fu Zun-Tao; Mao Jiang-Yu; Liu Shi-Kuo
In this paper, dependent and independent variable transformations are introduced to solve the negative mKdV equation systematically by using the knowledge of elliptic equation and Jacobian elliptic functions. It is shown that different kinds of solutions can be obtained to the negative mKdV equation, including breather lattice solution and periodic wave solution.
Communications in Theoretical Physics | 2005
Zhao Qiang; Liu Shi-Kuo; Fu Zun-Tao
By the application of the extended tanh method and the symbolic computation system Mathematica, new soliton-like solutions are obtained for the combined KdV and mKdV (KdV-mKdV) equation.
Communications in Theoretical Physics | 2004
Zhao Qiang; Liu Shi-Kuo; Fu Zun-Tao
The (2+1)-dimensional Boussinesq equation and (3+1)-dimensional KP equation are studied by using the extended Jacobi elliptic-function method. The exact periodic-wave solutions for the two equations are obtained.