  Self-consistent simulations of neoclassical and electrostatic turbulent
transport in a DIII-D H-mode edge plasma under resonant magnetic perturbations
(RMPs) have been performed using the global total-f gyrokinetic
particle-in-cell code XGC, in order to study density-pump out and electron heat
confinement. The RMP field is imported from the extended magneto-hydrodynamics
(MHD) code M3D-C1, taking into account the linear two-fluid plasma response.
With both neoclassical and turbulence physics considered together, the XGC
simulation reproduces two key features of experimentally observed edge
transport under RMPs: increased radial particle transport in the pedestal
region that is sufficient to account for the experimental pump-out rate, and
suppression of the electron heat flux in the steepest part of the edge
pedestal. In the simulation, the density fluctuation amplitude of modes moving
in the electron diamagnetic direction increases due to interaction with RMPs in
the pedestal shoulder and outward, while the electron temperature fluctuation
amplitude decreases.
