  In this work, we explore the driven dynamics of the one-dimensional ($1$D)
localization transitions. By linearly changing the strength of disorder
potential, we calculate the evolution of the localization length $\xi$ and the
inverse participation ratio (IPR) in a disordered Aubry-Andr\'{e} (AA) model,
and investigate the dependence of these quantities on the driving rate. At
first, we focus on the limit in the absence of the quasiperiodic potential. We
find that the driven dynamics from both ground state and excited state can be
described by the Kibble-Zurek scaling (KZS). Then, the driven dynamics near the
critical point of the AA model is studied. Here, since both the disorder and
the quasiperiodic potential are relevant directions, the KZS should include
both scaling variables. Our present work not only extends our understanding of
the localization transitions but also generalize the application of the KZS.
