For a prime $p$ and a positive integer $n$, the standard zeta function $L_F(s)$ is considered,
attached to an Hermitian modular form $F=\sum_H A(H) q^H$ on the Hermitian upper half plane
$\mathcal H_m$ of degree $n$, where $H$ runs through semi-integral positive definite Hermitian
matrices of degree $n$, i.e. $H\in \Lambda_m({\mathcal O})$ over the integers ${\mathcal O}$
of an imaginary quadratic field $K$, where $q^H=\exp(2\pi i {\rm Tr}(HZ))$.
Analytic $p$-adic continuation of their zeta functions is constructed via $p$-adic measures, bounded
or growing. Previously this problem was solved for the Siegel modular forms.
Main result is stated in terms of the Hodge polygon $P_{H}(t):
[0,d]\to {\mathbb R}$ and the Newton polygon $P_N(t)=P_{N,p}(t):
[0,d]\to {\mathbb R}$ of the zeta function $L_F(s)$ of degree $d=4n$.
Main theorem gives a $p$-adic analytic interpolation of the $L$ values in the form of certain integrals
with respect to Mazur-type measures.
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