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Strengths and Limitations

The following tables compares the various SG and SC methods, discussed on this website, against five important criteria: the rate of convergence when applied to systems exhibiting smooth solutions; the rate of convergence for rapidly-varying/discontinuous solutions; the ability to accurately simulate time variant systems; the number of random variables that can be modelled; and the algorithmic complexity.

Strength and Limitations of Stochastic Galerkin methods
Method Convergence: Smooth Solutions Convergence: Discontinuous Problems Time Variant Utility Number of Dimensions Algorithm Complexity
gPC SG Exponential Poor Poor Low Simple
ME-gPC SG Exponential High-order Good Low Hard
Weiner-Harr SG Low-Order Low-Order Good Low Hard
p-adaptive SG High-Order Poor Good Moderate hard
Tensor SC Exponential Poor Poor Low Trivial
Isotropic Sparse Grid SC Exponential Poor Poor High Moderate
Dimension Adaptive Sparse Grid SC Exponential High-Order Good High Hard
Locally Adaptive Sparse Grid SC Low-Order Low-Order Good High Hard