rssg | R Documentation |
Each skewed sub-Gaussian stable (SSG) random vector \bf{Y}, admits the representation
{\bf{Y}} \mathop=\limits^d {\boldsymbol{μ}}+√{P}{\boldsymbol{λ}}\vert{Z}_0\vert + √{P}{Σ}^{\frac{1}{2}}{\bf{Z}}_1,
where {\boldsymbol{μ}} \in {R}^{d} is location vector, {\boldsymbol{λ}} \in {R}^{d} is skewness vector, Σ is a positive definite symmetric dispersion matrix, and 0<α ≤q 2 is tail thickness. Further, P is a positive stable random variable, {Z}_0\sim N({0},1), and {\bf{Z}}_1\sim N_{d}\bigl({\bf{0}}, Σ\bigr). We note that Z, Z_0, and {\bf{Z}}_1 are mutually independent.
rssg(n, alpha, Mu, Sigma, Lambda)
n |
the number of samples required. |
alpha |
the tail thickness parameter. |
Mu |
a vector giving the location parameter. |
Sigma |
a positive definite symmetric matrix specifying the dispersion matrix. |
Lambda |
a vector giving the skewness parameter. |
simulated realizations of size n from the skewed sub-Gaussian stable distribution.
Mahdi Teimouri
n <- 4 alpha <- 1.4 Mu <- rep(0, 2) Sigma <- diag(2) Lambda <- rep(2, 2) rssg(n, alpha, Mu, Sigma, Lambda)
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