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What is the distribution of determinant of multi multiplication of some gaussianGaussian matrices?

I have a square matric $H = (ABC)(ABC)^H$ where $A$ and $C$ are complex Gaussian matrices with some correlation matrices and $B$ is a diagonal matrix with entries $e^{j \theta}$ ison the diagonal elements such such that each $\theta$ is uniformly chosen from $[0, 1]$,. Do you have any idea about the distribution of the determinant of this matrix?, i.e., $\text{det}[H] \sim ?$$\det[H] \sim {?}$

What is the distribution of determinant of multi multiplication of some gaussian matrices?

I have a square matric $H = (ABC)(ABC)^H$ where $A$ and $C$ are complex Gaussian matrices with some correlation matrices and $B$ is a diagonal matrix with entries $e^{j \theta}$ is the diagonal elements such that each $\theta$ is uniformly chosen from $[0, 1]$, Do you have any idea about the distribution of determinant of this matrix? i.e., $\text{det}[H] \sim ?$

What is the distribution of determinant of multi multiplication of some Gaussian matrices?

I have a square matric $H = (ABC)(ABC)^H$ where $A$ and $C$ are complex Gaussian matrices with some correlation matrices and $B$ is a diagonal matrix with entries $e^{j \theta}$ on the diagonal such that each $\theta$ is uniformly chosen from $[0, 1]$. Do you have any idea about the distribution of the determinant of this matrix, i.e., $\det[H] \sim {?}$

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What is the distribution of determinant of multi multiplication of some gaussian matrices?

I have a square matric $H = (ABC)(ABC)^H$ where $A$ and $C$ are complex Gaussian matrices with some correlation matrices and $B$ is a diagonal matrix with entries $e^{j \theta}$ is the diagonal elements such that each $\theta$ is uniformly chosen from $[0, 1]$, Do you have any idea about the distribution of determinant of this matrix? i.e., $\text{det}[H] \sim ?$