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We consider the continuous time, one-dimensional random walk in random environment in Sinai’s regime. We show that the probability for the particle to be, at time and in a typical environment, at a distance larger than () from its initial position, is .
We consider the continuous time,
one-dimensional random walk in random environment
in Sinai's regime. We show that the probability for the
particle to be, at time t and in a typical environment,
at a distance larger than ta (0<a<1)
from its initial position, is exp{-Const ⋅ ta/[(1 - a)lnt](1 + o(1))}.
We consider random walks where each path is equipped with a random weight which is stationary and independent in space and time. We show that under some assumptions the arising probability distributions are in a sense uniformly absolutely continuous with respect to the usual probability distribution for symmetric random walks.
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