  It is well known that the weak ($1,1$) bounds doesn't hold for the strong
maximal operators, but it still enjoys certain weak $L\log L$ type norm
inequality. Let $\Phi_n(t)=t(1+(\log^+t)^{n-1})$ and the space
$L_{\Phi_n}({\mathbb R^{n}})$ be the set of all measurable functions on
${\mathbb R^{n}}$ such that $\|f\|_{L_{\Phi_n}({\mathbb R^{n}})}
:=\|\Phi_n(|f|)\|_{L^1({\mathbb R^{n}})}<\infty$. In this paper, we introduce a
new weak norm space $L_{\Phi_n}^{1,\infty}({\mathbb R^{n}})$, which is more
larger than $L^{1,\infty}({\mathbb R^{n}})$ space, and establish the
correspondng limiting weak type behaviors of the strong maximal operators. As a
corollary, we show that $ \max\{{2^n}{((n-1)!)^{-1}},1\}$ is a lower bound for
the best constant of the $L_{\Phi_n}\to L_{\Phi_n}^{1,\infty}$ norm of the
strong maximal operators. Similar results have been extended to the multilinear
strong maximal operators.
