  We investigate the ionized gas kinematics relationship with X-ray, radio and
accreting properties using a sample of 348 nearby ($z < 0.4$) SDSS-FIRST-X-ray
detected AGNs. X-ray properties of our sample are obtained from XMM-$Newton$,
$Swift$ and $Chandra$ observations. We unveil the ionized gas outflows in our
sample manifested by the non-gravitational broad component in [OIII]
$\lambda$5007$\overset{\circ}{A}$. emission line profiles. From the comparison
of the correlation of non-parametric outflow velocities (i.e., the velocity
width, the maximal velocity of outflow and line dispersion) with X-ray
luminosity and radio luminosity, we find that outflow velocities have similarly
positive {correlations} with both X-ray and radio luminosity. After correcting
for the gravitational component, we find that the [OIII] velocity dispersion
normalized by stellar mass also increases with both X-ray luminosity and radio
luminosity. We also find that for a given X-ray (radio) luminosity, radio
(X-ray) luminous AGNs have higher outflow velocities than non-radio (non-X-ray)
luminous AGNs. Therefore, we find no clear preference between X-ray luminosity
and radio luminosity in driving high-velocity ionized outflows and conclude
that both AGN activity and small-scale jets contribute comparably. Moreover,
there is no evidence that our obscured AGNs are preferentially associated with
higher velocity outflows. Finally, we find a turning point around
log$(\lambda_{Edd}) \simeq -1.3$ when we explore the dependency of outflow
velocity on Eddington ratio. It can be interpreted considering the role of high
radiation pressure (log$(\lambda_{Edd}) \gtrsim -1.3$) in drastic reduction in
the covering factor of the circumnuclear materials.
