  We investigate the kinetics of uniformly driven $A+B \to 0$ reaction with
mass-dependent fragmentation in one dimension. In this model, the fragmented
mass $m$ of a site with mass $n_i$ is given as $m=n^{\lambda}_i$, and it is
driven to the one direction. When opposite species masses occupy the same site,
mass reaction takes place instantaneously. Since the fragmented mass $m$ of
$\lambda<1$ is less than mass $n_i$ of a site, the exponent $\lambda$ controls
the attractive interaction between particles at the same site. The $\lambda=0$
case corresponds to hard-core (HC) particle system. With equal initial
densities of both species, we numerically confirm that the scaling behaviors of
density and lengths except the domain length $\ell$ are the same as that of the
uniformly driven HC particle system. The scaling behavior of $\ell$ is $\ell
\sim t^{2/3}$. The kinetics of the reaction is independent of $\lambda$ as long
as $\lambda<1$. The $\lambda$-independent kinetics results from the
$\lambda$-independent collective motions of single species domains.
