Suppose we have a matrix $A \in \mathbb{R}^{n\times n}$ where
$$A_{ij} = \begin{cases} 1 & \text{with probability} \quad p\\ 0 &\text{with probability} \quad1-p\end{cases}$$
I would like to know the following expected value
$$\lim_{n \rightarrow \infty} \mathbb E(| \det (A) |)$$
i.e., the asymptotic behavior as $n$ becomes large.
###What I tried so far
What I tried so far
It feels like this has been done already, but after searching for quite a while I performed simulations and it looks like
$$\mathbb E(|\det(A)|) \propto e^{n f(p) }$$
where $f$ is some function of the probability $p$.
I would be very happy if someone knows the result or a good reference where I could look it up.
Edit: I changed the figure and added plots of the solutions
$$ \text{log} \mathbb E(|\det(A)|) \propto \frac{n}{2} \text{log} \frac{n p (1-p)}{e}$$ given by Richard Stanley and RaphaelB4 which coincide up to multiplicative terms if the factorial in Richard Stanleys solution is replaced by stirlings formula.
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