We choose $\sigma = 0.1$ and the random variable $\xi$ is uniformly distributed in $[−1, 1]$. The final time at which we investigate the solution is $t_{\text{end}} = 2.0$ and the spatial domain $D$ is given by $D = [0, 3] \times [0, 3]$.
We choose $\sigma = 0.1$ and the random variable $\xi$ is uniformly distributed in $[−1, 1]$. The final time at which we investigate the solution is $t_{\text{end}} = 2.0$ and the spatial domain $D$ is given by $D = [0, 3] \times [0, 3]$.
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### First SG Results
### First SG Results
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Figures 1 and 2 show first results and give a first impression of the solution.
Figures 1 and 2 show first results and give a first impression of the solution.
The results have been computed with stochastic-Galerkin (SG) using 6 moments. Note that since
The results have been computed with stochastic-Galerkin (SG) on 92544 triangular cells using 6 moments. Note that since
the equation is linear, the SG solution will be equivalent to the stochastic-Collocation solution.
the equation is linear, the SG solution will be equivalent to the stochastic-Collocation solution.