  Recent collective flow measurements including higher moment event anisotropy
from the PHENIX experiment are presented, and the particle type, beam energy
dependence and the relation with jet modification are discussed. The measured
higher order event anisotropy with event plane defined at forward rapidities
and the long range correlation with large $\eta$ gaps are both consistent with
initial geometrical fluctuation of the participating nuclei. In 200 GeV Au+Au
collisions, higher order event anisotropy, especially simultaneous description
of v$_2$ and v$_3$, is found to give an additional constraining power on
initial geometrical condition and viscosity in the hydrodynamic calculations.
v$_2$, v$_3$ and v$_4$ are almost unchanged down to the lower colliding energy
at 39 GeV in Au+Au. The measured two particle correlation with subtraction of
the measured v$_n$ parameters shows a significant effect on the shape and yield
in the associate particle $\Delta\phi$ distribution with respect to the
azimuthal direction of trigger particles. However some medium responses from
jet suppression or jet modification seems to be observed. Direct photon v$_2$
has been measured in 200 GeV Au+Au collisions. The measured v$_2$ is found to
be small at high p$_{\rm T}$ as expected from non-suppressed direct photon
R$_{\rm AA}$ $\simeq$ 1, which can be understood as being dominated by prompt
photons from initial hard scattering. On the other hand, at lower p$_{\rm T}$
$<$ 4 GeV/c it is found to be significantly larger than zero, which is
comparable to other hadron v$_2$, where thermal photons are observed.
