  For hyperbolic flows $\varphi_t$ we examine the Gibbs measure of points $w$
for which $$\int_0^T G(\varphi_t w) dt - a T \in (- e^{-\epsilon n}, e^{-
\epsilon n})$$ as $n \to \infty$ and $T \geq n$, provided $\epsilon > 0$ is
sufficiently small. This is similar to local central limit theorems. The fact
that the interval $(- e^{-\epsilon n}, e^{- \epsilon n})$ is exponentially
shrinking as $n \to \infty$ leads to several difficulties. Under some geometric
assumptions we establish a sharp large deviation result with leading term $C(a)
\epsilon_n e^{\gamma(a) T}$ and rate function $\gamma(a) \leq 0.$ The proof is
based on the spectral estimates for the iterations of the Ruelle operators with
two complex parameters and on a new Tauberian theorem for sequence of functions
$g_n(t)$ having an asymptotic as $ n \to \infty$ and $t \geq n.$
