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//////////////////////////////////////////////////////////////////////////////////////////
//
// input for lpic
//
//////////////////////////////////////////////////////////////////////////////////////////
&pulse_front
------------------------------------------------------------------------------------------
Q = 1 # switch ON (Q=1) OFF (Q=0)
amplitude = 0 # dimensionless laser field amplitude
amplitude2 = 8 # dimensionless laser field amplitude, 2nd harmonic
amplitude3 = 0.0 # dimensionless laser field amplitude, 3rd harmonic
phase2 = 0 # 2nd harmonic's phase with respect to fundamental [degree]
phase3 = 0 # 3rd harmonic's phase [degree]
angle = 45 # in degree
polarization = 2 # s=1, p=2, c=3
shape = 3 # linear=1, sin=2, sin^2=3
raise = 6 # pulse raise/fall time in periods
duration = 12 # pulse duration in periods
delay = 0 # propagation delay in cycles
pulse_save = 1 # save pulse shape? yes=1, no=0
pulse_save_step = 0.004 # time step in periods
&pulse_rear
------------------------------------------------------------------------------------------
Q = 0 # switch ON (Q=1) OFF (Q=0)
amplitude = 0.0 # dimensionless laser field amplitude
amplitude2 = 0.0 # dimensionless laser field amplitude, 2nd harmonic
amplitude3 = 0.0 # dimensionless laser field amplitude, 3rd harmonic
phase2 = 0 # 2nd harmonic's phase with respect to fundamental
phase3 = 0 # 3rd harmonic's phase
angle = 0 # in degree
polarization = 1 # s=1, p=2, c=3
shape = 3 # linear=1, sin=2, sin^2=3
raise = 10 # pulse raise/fall time in periods
duration = 20 # pulse duration in periods
delay = 0 # propagation delay in cycles
pulse_save = 1 # save pulse shape? yes=1, no=0
pulse_save_step = 0.02 # time step in periods
&propagate
------------------------------------------------------------------------------------------
prop_start = 0 # start time in periods
prop_stop = 30 # stop time in periods
&box
------------------------------------------------------------------------------------------
cells_per_wl = 1000 # cells per wavelength, lab frame
cells = 8000 # total number of cells
cells_left = 4000 # cells vacuum left
cells_plasma = 2000 # occupied cells for cells_ramp=0
cells_ramp = 200 # linear ramp length (form=0) or righter scale length (form=1 or 2)
cells_ramp_form = 1 # 0 = linear; 1 = exponential; 2=doubleexponential
cells_ramp2 = 10 # lefter scale length (form=2)
cells_rampcut = -50 # max ramplength (<0 <=> disabled)
cells_rampgluepos = 250 # glue-point between the two exp-functions (form=2) ... length of the righter exp-ramp
n_ion_over_nc = 400 # maximum density/critical density
box_save = 1 # save configuration? yes=1, no=0
&electrons
------------------------------------------------------------------------------------------
fix = 0 # 0->not fixed 1->fixed
ppc = 200 # max. number of MacroParticles per cell
vtherm = 0.0001 # thermal velocity in units of C
&ions
------------------------------------------------------------------------------------------
fix = 1 # 0->not fixed 1->fixed
z = 1 # q/e
m = 50000 # m/m_e
ppc = 200 # max. number of MacroParticles per cell
vtherm = 0.00 # thermal velocity in units of C
&output
------------------------------------------------------------------------------------------
path = ../data_2w3_7 # output path
&energy
Q = 1 # energy plot?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&flux
Q = 1 # flux plot?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&reflex
Q = 1 # reflectivity plot?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&snapshot
Q = 1 # snapshots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&el_phasespace
Q = 0 # phasespace plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 0.05 # time step in periods
&ion_phasespace
Q = 0 # phasespace plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 0.05 # time step in periods
&el_velocity
Q = 1 # electron velocity distributions?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&ion_velocity
Q = 1 # ion velocity distributions?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
t_step = 1 # time step in periods
&de
Q = 1 # electron density plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&di
Q = 1 # ion density plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&jx
Q = 0 # jx plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&jy
Q = 0 # jy plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&jz
Q = 0 # jz plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&ex
Q = 0 # ex plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&ey
Q = 0 # ey plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&ez
Q = 0 # ez plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&bx
Q = 0 # bx plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&by
Q = 0 # by plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&bz
Q = 0 # bz plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&edens
Q = 1 # field energy density plots?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
x_start = 0 # left boundary in cells
x_stop = 100000 # right boundary in cells
&traces
Q = 1 # traces?
t_start = 0 # start time in periods
t_stop = 30 # stop time in periods
traces = 7 # of traces at fixed positions x:
t0=2, t1=500, t2=1000, t3=1500, t4=2000, t5=2500, t6=4998
//////////////////////////////////////////////////////////////////////////////////////////
&restart
------------------------------------------------------------------------------------------
Q = 0 # restart from intermediate stage?
file = restart # start file
Q_save = 1 # save intermediate stages periodically?
file_save = restart # save file
¶llel
------------------------------------------------------------------------------------------
N_domains = 1 # number of parallel processes
Q_reo = 1 # periodic reorganizations?
delta_reo = 1 # laser cycles between reo's
//////////////////////////////////////////////////////////////////////////////////////////
thermal velocity v/c vs. thermal energy [eV] M ( vx^2 + vy^2 + vz^2 ) = 3 k T
------------------------------------------------------------------------------------------
1e-4 0.005
3e-4 0.046
5e-4 0.128
1e-3 0.511
4e-3 8.2
1e-2 51
2e-2 204
3e-2 460
4e-2 818
4.42e-2 1000
1e-1 5110
choose: v_th/c = (lambda_d/dx) * (omega_p/omega) * (2pi dx/lambda)
:=1 = sqrt(z_ion * n_ion_over_nc) = 2pi/cells_per_wl
//////////////////////////////////////////////////////////////////////////////////////////
source p-pol refl. 1 minp-pol refl. 1 maxp-pol refl. 1 p-pol transm. 1 minp-pol transm. 1 maxp-pol transm. 1
source p-pol refl. 1 minp-pol refl. 1 maxp-pol refl. 1
source p-pol refl. 1 minp-pol refl. 1 maxp-pol refl. 1
source p-pol refl. 1
|
