Abstract. In this paper we review some applications of generalized polynomial chaos expansion for uncertainty quantification. The math-ematical framework is presented and the convergence of the method is demonstrated for model problems. In particular, we solve the first-order and second-order ordinary differential equations with random parame-ters, and examine the efficiency of generalized polynomial chaos com-pared to Monte Carlo simulations. It is shown that the generalized poly-nomial chaos can be orders of magnitude more efficient than Monte Carlo simulations when the dimensionality of random input is low, e.g. for cor-related noise.
Abstract. Polynomial chaos expansions have proven powerful for emulating responses of com-putational...
A dynamical uncertain system is studied in this paper. Two kinds of uncertainties are addressed, whe...
Abstract—A computationally efficient approach is presented that quantifies the influence of paramete...
Inherent physical uncertainties can have a significant influence on computational predictions. It is...
In many fields, active research is currently focused on quantification and simulation of model uncer...
Uncertainty is a common feature in first-principles models that are widely used in various engineeri...
Uncertainty quantification seeks to provide a quantitative means to understand complex systems that ...
This paper presents an algorithm for efficient uncertainty quantification (UQ) in the presence of ma...
A monomial chaos approach is presented for efficient uncertainty quantification in nonlinear computa...
This paper presents a methodology to quantify computationally the uncertainty in a class of differen...
We consider Uncertainty Quanti¿cation (UQ) by expanding the solution in so-called generalized Polyno...
The generalized Polynomial Chaos Expansion Method (gPCEM), which is a random uncertainty analysis me...
Uncertainty exists widely in engineering design. As one of the key components of engineering design,...
This paper proposes a surrogate model which is able to deal with mixed uncertain dynamical systems: ...
Polynomial chaos expansions (PCE) are an attractive technique for uncertainty quan-tification (UQ) d...
Abstract. Polynomial chaos expansions have proven powerful for emulating responses of com-putational...
A dynamical uncertain system is studied in this paper. Two kinds of uncertainties are addressed, whe...
Abstract—A computationally efficient approach is presented that quantifies the influence of paramete...
Inherent physical uncertainties can have a significant influence on computational predictions. It is...
In many fields, active research is currently focused on quantification and simulation of model uncer...
Uncertainty is a common feature in first-principles models that are widely used in various engineeri...
Uncertainty quantification seeks to provide a quantitative means to understand complex systems that ...
This paper presents an algorithm for efficient uncertainty quantification (UQ) in the presence of ma...
A monomial chaos approach is presented for efficient uncertainty quantification in nonlinear computa...
This paper presents a methodology to quantify computationally the uncertainty in a class of differen...
We consider Uncertainty Quanti¿cation (UQ) by expanding the solution in so-called generalized Polyno...
The generalized Polynomial Chaos Expansion Method (gPCEM), which is a random uncertainty analysis me...
Uncertainty exists widely in engineering design. As one of the key components of engineering design,...
This paper proposes a surrogate model which is able to deal with mixed uncertain dynamical systems: ...
Polynomial chaos expansions (PCE) are an attractive technique for uncertainty quan-tification (UQ) d...
Abstract. Polynomial chaos expansions have proven powerful for emulating responses of com-putational...
A dynamical uncertain system is studied in this paper. Two kinds of uncertainties are addressed, whe...
Abstract—A computationally efficient approach is presented that quantifies the influence of paramete...