In this paper a novel approximate analytical technique for determining the non-stationary response probability density function (PDF) of randomly excited linear and nonlinear oscillators with fractional derivative elements is developed. Specifically, the concept of the Wiener path integral in conjunction with a variational formulation is utilized to derive an approximate closed form solution for the system response non-stationary PDF. Notably, the determination of the non-stationary response PDF is accomplished without the need to advance the solution in short time steps as it is required by the existing alternative numerical path integral solution schemes. In this manner, the analytical Wiener path integral-based technique developed by som...
The recently developed approximate Wiener path integral (WPI) technique for determining the stochast...
This paper describes a novel numerical approach to find the statistics of the non-stationary respons...
In this paper, the Path Integral solution is developed in terms of complex moments. The method is ap...
In this paper a novel approximate analytical technique for determining the non-stationary response p...
In this paper, an approximate analytical technique is developed for determining the non-stationary r...
© 2019, Springer Nature B.V. An approximate analytical technique is developed for determining the no...
The probability density function for transient response of non-linear stochastic system is investiga...
In this paper the nonstationary response of a class of nonlinear systems subject to broad-band stoch...
In this paper, an approximate semi-analytical approach is developed for determining the first-passag...
The nonstationary random response of a class of lightly damped nonlinear oscillators subjected to Ga...
An approximate analytical technique is developed for determining, in closed form, the transition pro...
In this paper the response of nonlinear systems under stationary Gaussian white noise excitation is ...
While studying fractional oscillators to the excitation as an evolutionary stochastic process, this ...
In this paper, the Galerkin method is presented to estimate the approximate stationary and non-stati...
Uncertainty propagation in engineering mechanics and dynamics is a highly challenging problem that r...
The recently developed approximate Wiener path integral (WPI) technique for determining the stochast...
This paper describes a novel numerical approach to find the statistics of the non-stationary respons...
In this paper, the Path Integral solution is developed in terms of complex moments. The method is ap...
In this paper a novel approximate analytical technique for determining the non-stationary response p...
In this paper, an approximate analytical technique is developed for determining the non-stationary r...
© 2019, Springer Nature B.V. An approximate analytical technique is developed for determining the no...
The probability density function for transient response of non-linear stochastic system is investiga...
In this paper the nonstationary response of a class of nonlinear systems subject to broad-band stoch...
In this paper, an approximate semi-analytical approach is developed for determining the first-passag...
The nonstationary random response of a class of lightly damped nonlinear oscillators subjected to Ga...
An approximate analytical technique is developed for determining, in closed form, the transition pro...
In this paper the response of nonlinear systems under stationary Gaussian white noise excitation is ...
While studying fractional oscillators to the excitation as an evolutionary stochastic process, this ...
In this paper, the Galerkin method is presented to estimate the approximate stationary and non-stati...
Uncertainty propagation in engineering mechanics and dynamics is a highly challenging problem that r...
The recently developed approximate Wiener path integral (WPI) technique for determining the stochast...
This paper describes a novel numerical approach to find the statistics of the non-stationary respons...
In this paper, the Path Integral solution is developed in terms of complex moments. The method is ap...