def tworho(n1, n2):
file1 = re.dumpname(n1)
file2 = re.dumpname(n2)
re.rg("gdump.back")
re.rd(file1)
r1 = re.r
h1 = re.h
ph1 = re.ph
rho1 = re.rho
re.rg("gdump")
re.rd(file2)
r2 = re.r
h2 = re.h
ph2 = re.ph
rho2 = re.rho
print("dimensions: " + str(np.shape(rho1)) + ", " + str(np.shape(rho2)))
x1 = np.squeeze((r1 * sin(h1))[:, :, 0])
y1 = np.squeeze((r1 * cos(h1))[:, :, 0])
x2 = np.squeeze((r2 * sin(h2))[:, :, 0])
y2 = np.squeeze((r2 * cos(h2))[:, :, 0])
levs = np.linspace(0., rho1.max(), 10)
xmax = 50.
plt.clf()
plt.contourf(x2, y2, (np.squeeze(rho2[:, :, 0])), levels=levs)
plt.contour(x2, y2, np.squeeze(rho2[:, :, 0]), levels=levs, colors='k')
plt.contour(x1, y1, np.squeeze(rho1[:, :, 0]), levels=levs, colors='w')
plt.xlim(0., xmax)
plt.ylim(-xmax / 4., xmax / 2.)
plt.savefig("rhotest.png")
plt.close()
def ljet(nmax):
# makes RT and theta-T diagrams for jet power
r1 = 100. ; r2 = 1000.
theta1 = 0. ; theta2 = np.pi/4.
re.rg("gdump")
gdet=re.gdet ; gcov=re.gcov ; _dx2=re._dx2 ; _dx3=re._dx3
fout_RTN = open("ljet_RTN.dat", "w")
fout_RTS = open("ljet_RTS.dat", "w")
fout_thT = open("ljet_thT.dat", "w")
for k in arange(nmax):
fname=re.dumpname(k)
print("reading "+str(fname))
re.rd(fname)
faraday() # let's trust SashaTch
Tcalcud()
erN = - (gdet * Tud[1,0] * _dx2 * _dx3 * (re.h > theta1) * (re.h < theta2)).sum(-1).sum(-1) # theta-averaged energy flux
erS = - (gdet * Tud[1,0] * _dx2 * _dx3 * (re.h < (np.pi-theta1)) * (re.h < (np.pi - theta2))).sum(-1).sum(-1) #
eth = - (gdet * Tud[1,0] * _dx2 * _dx3 * (re.r > r1) * (re.r < r2)).sum(-1).sum(0) # r-averaged energy flux
for kr in arange(re.nx):
fout_RTN.write(str(re.t)+" "+str(re.r[kr,0,0])+" "+str(erN[kr])+"\n")
fout_RTS.write(str(re.t)+" "+str(re.r[kr,0,0])+" "+str(erS[kr])+"\n")
for kth in arange(re.ny):
fout_thT.write(str(re.t)+" "+str(re.h[0,kth,0])+" "+str(eth[kth])+"\n")
fout_RTN.flush() ; fout_RTS.flush() ; fout_thT.flush()
fout_RTN.close() ; fout_RTS.close() ; fout_thT.close()
def dumpmovie():
dire = 'titania/striped2D/dumps/'
n1 = 1750
n2 = 2246
for k in n1 + arange(n2 - n1 + 1):
prefix = dire + rk.dumpname(k)
print(prefix)
# eqframe(prefix)
ascframe(prefix, xmax=30.)
def test1d(n1, n2):
re.rg("gdump.back")
ndump = np.arange(n2 - n1) + n1
plt.clf()
for kdump in ndump:
re.rd(re.dumpname(kdump))
# plt.plot(np.squeeze(re.r), np.squeeze(re.origin_r), label=str(kdump))
plt.plot(np.squeeze(re.r), np.squeeze(re.rho), label=str(kdump))
# plt.yscale('log')
plt.legend()
plt.savefig("rhotest.png")
plt.clf()
for kdump in ndump:
re.rd(re.dumpname(kdump))
plt.plot(np.squeeze(re.r), np.squeeze(re.origin_r), label=str(kdump))
# plt.plot(np.squeeze(re.r), np.squeeze(re.rho), label=str(kdump))
# plt.yscale('log')
plt.legend()
plt.savefig("oritest.png")
def origin_plot(dumpn, xmax=30.):
filename = re.dumpname(dumpn)
re.rg("gdump")
re.rd(filename)
r = re.r
h = re.h
ph = re.ph
rho = re.rho
origin_r = re.origin_r
origin_th = re.origin_th
nxx = 10
rlevs = (r.max() / 1.)**(np.arange(nxx) / np.double(nxx))
thlevs = np.pi * np.arange(nxx) / np.double(nxx)
x = np.squeeze((r * sin(h))[:, :, 0])
y = np.squeeze((r * cos(h))[:, :, 0])
print("R0_max = " + str(origin_r[rho > 1e-6].max()))
nd = np.size(np.shape(np.squeeze(re.r)))
if (nd > 1):
plt.clf()
plt.contourf(x, y, np.log10(np.squeeze(
origin_r[:, :, 0]))) # , levels=np.log10(rlevs))
plt.colorbar()
plt.contour(x, y, np.squeeze(rho[:, :, 0]), colors='k')
plt.contour(x, y, np.squeeze(r[:, :, 0]), levels=rlevs, colors='w')
plt.contour(x, y, np.squeeze(h[:, :, 0]), levels=thlevs, colors='w')
# plt.contour(x, y, np.squeeze(origin_th[:,:,0]), levels=thlevs, colors='k')
plt.xlim(0., xmax)
plt.ylim(-xmax / 4., xmax / 2.)
plt.title(r"t = " + str(re.t) + " $GM/c^3$")
plt.savefig("dumps/" + filename + "_ori.png")
plt.close()
plt.clf()
plt.plot(np.squeeze(r), np.squeeze(r), 'r')
plt.plot(r[rho > 0.1], origin_r[rho > 0.1] * 25., '.k')
plt.xlim(0., xmax)
plt.ylim(0., xmax)
plt.savefig("oritest.png")
else:
plt.clf()
plt.plot(x, np.log10(np.squeeze(origin_r[:, :, 0])), 'k-')
plt.plot(x, x, 'r:')
plt.xscale('log')
plt.yscale('log')
plt.savefig("dumps/" + filename + "_ori.png")
plt.close()
def glevol(nmax, rref):
# global rho, uu
re.rg("gdump")
gdet=re.gdet ; gcov=re.gcov ; _dx2=re._dx2 ; _dx3=re._dx3
# rref is reference radius
run=unique(re.r)
nr=run[where(run<rref)].argmax()
# maccre=zeros(nmax, dtype=double)
fmdot=open("merge_mevol"+str(rref)+".dat", "w")
for k in arange(nmax):
fname=re.dumpname(k)
print("reading "+str(fname))
re.rd(fname)
print("rho is "+str(shape(re.rho)))
# Tcalcud()
# accretion rate at rref
rhom=(re.rho).mean(axis=2) ; uum=(re.uu).mean(axis=3)
rhom_south(re.rho*cos(re.h)).mean(axis=2)
rhom_east(re.rho*sin(re.h)).mean(axis=2)
# do we need to multiply this by drdx??
# uum[0]=(uu[0]*drdx[0,0]).mean(axis=3) ; uum[1]=(uu[1]*drdx[1,1]).mean(axis=3)
# uum[2]=(uu[2]*drdx[2,2]).mean(axis=3) ; uum[2]=(uu[2]*drdx[2,2]).mean(axis=3)
gm=sqrt(old_div(gdet,gcov[1,1]))[:,0,:]
maccre=-trapz((rhom*uum[1]*(uum[1]<0.)*gm)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
maccre_south=-trapz((rhom_south*uum[1]*(uum[1]<0.)*gm)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
maccre_east=-trapz((rhom_east*uum[1]*(uum[1]<0.)*gm)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
mwind=-trapz((rhom*uum[1]*(uum[1]>0.)*gm)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
laccre=-trapz((rho*fabs(old_div(ud[3],ud[0]))*uu[1]*(uu[1]<0.)*sqrt(old_div(gdet,gcov[1,1]))).mean(axis=2)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
lwind=-trapz((rho*fabs(old_div(ud[3],ud[0]))*uu[1]*(uu[1]>0.)*sqrt(old_div(gdet,gcov[1,1]))).mean(axis=2)[nr,:], x=re.h[nr,:,0])*_dx2*_dx3
# maccre=-((rho*uu[1]*sqrt(gdet/gcov[1,1]))[nr,:,:]).sum()*_dx2*_dx3
fmdot.write(str(t)+" "+str(maccre)+" "+str(mwind)+" "+str(old_div(laccre,maccre))+" "+str(old_div(lwind,mwind))+" "+str(maccre_south)+" "+str(maccre_east)+"\n")
fmdot.close()
def corvee(n1,n2):
re.rg("gdump")
nx=re.nx ; ny=re.ny ; nz=re.nz
gdet=re.gdet ; gcov=re.gcov ; _dx2=re._dx2 ; _dx3=re._dx3 ; drdx=re.drdx
r=re.r ; h=re.h ; phi=re.ph # importing coordinate mesh
# velocities:
uufile='merge_uu.dat'
udfile='merge_ud.dat'
fuu=open(uufile, 'r')
fud=open(udfile, 'r')
# s=str.split(str.strip(fuu.readline()))
# mean velocity field
uumean=zeros([4,nx,ny,nz], dtype=double)
udmean=zeros([4,nx,ny,nz], dtype=double)
for kx in arange(nx):
for ky in arange(ny):
s=str.split(str.strip(fuu.readline()))
uumean[0,kx,ky,:]=double(s[0])
uumean[1,kx,ky,:]=double(s[1])
uumean[2,kx,ky,:]=double(s[2])
uumean[3,kx,ky,:]=double(s[3])
s=str.split(str.strip(fud.readline()))
udmean[0,kx,ky,:]=double(s[0])
udmean[1,kx,ky,:]=double(s[1])
udmean[2,kx,ky,:]=double(s[2])
udmean[3,kx,ky,:]=double(s[3])
fuu.close()
fud.close()
# tetrad components:
t0=tetrad_t(uumean, udmean)
tr=tetrad_r(uumean, udmean)
th=tetrad_h(uumean, udmean)
tp=tetrad_p(uumean, udmean)
# print shape(tr)
nframes=n2-n1+1
n=n1+arange(nframes)
for k in n:
fname=re.dumpname(k)
re.rd(fname)
uu=re.uu ; ud=re.ud ; rho=re.rho
if(k==n1):
rhomean=rho
# velocity components:
uu0=uu[0]*drdx[0,0]-uumean[0] ; ud0=old_div(ud[0],drdx[0,0])-udmean[0]
uur=uu[1]*drdx[1,1]-uumean[1] ; udr=old_div(ud[1],drdx[1,1])-udmean[1]
uuh=uu[2]*drdx[2,2]-uumean[2] ; udh=old_div(ud[2],drdx[2,2])-udmean[2]
uup=uu[3]*drdx[3,3]-uumean[3] ; udp=old_div(ud[3],drdx[3,3])-udmean[3]
tuur=(uu0*tr[0]+uur*tr[1]+uuh*tr[2]+uup*tr[3]) # co-moving velocity components
tuuh=(uu0*th[0]+uur*th[1]+uuh*th[2]+uup*th[3])
tuup=(uu0*tp[0]+uur*tp[1]+uuh*tp[2]+uup*tp[3])
drh=rho*tuur*tuuh ; drp=rho*tuur*tuup ; dhp=rho*tuuh*tuup
drr=rho*tuur*tuur ; dpp=rho*tuup*tuup ; dhh=rho*tuuh*tuuh
# print(shape(drh))
# print(shape(rho))
# print(shape(tuur))
else:
rhomean+=rho
# velocity components:
uu0=uu[0]-uumean[0] ; ud0=ud[0]-udmean[0]
uur=uu[1]-uumean[1] ; udr=ud[1]-udmean[1]
uuh=uu[2]-uumean[2] ; udh=ud[2]-udmean[2]
uup=uu[3]-uumean[3] ; udp=ud[3]-udmean[3]
tuur=(uu0*tr[0]+uur*tr[1]+uuh*tr[2]+uup*tr[3])
tuuh=(uu0*th[0]+uur*th[1]+uuh*th[2]+uup*th[3])
tuup=(uu0*tp[0]+uur*tp[1]+uuh*tp[2]+uup*tp[3])
drh+=rho*tuur*tuuh ; drp+=rho*tuur*tuup ; dhp+=rho*tuuh*tuup
drr+=rho*tuur*tuur ; dpp+=rho*tuup*tuup ; dhh+=rho*tuuh*tuuh
drh/=rhomean ; drp/=rhomean ; dhp/=rhomean
drr/=rhomean ; dpp/=rhomean ; dhh/=rhomean
drh=drh.mean(axis=2) ; drp=drp.mean(axis=2) ; dhp=dhp.mean(axis=2)
drr=drr.mean(axis=2) ; dpp=dpp.mean(axis=2) ; dhh=dhh.mean(axis=2)
fout=open('merge_corv.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
# RR HH PP RH HP RP
fout.write(str(drr[kx,ky])+' '+str(dhh[kx,ky])+' '+str(dpp[kx,ky])+' '+str(drh[kx,ky])+' '+str(dhp[kx,ky])+' '+str(drp[kx,ky])+'\n')
fout.close()
def readndump(n1, n2, rref=5.0):
'''
calculates mean maps for the frames n1-n2
rref is reference radius where the mass accretion rate is calculated
'''
# run=unique(r)
# nr=run[where(run<rref)].argmax()
re.rg("gdump")
nx=re.nx ; ny=re.ny ; nz=re.nz
gdet=re.gdet ; gcov=re.gcov ; _dx2=re._dx2 ; _dx3=re._dx3 ; drdx=re.drdx
guu=re.guu ; gdd=re.gdd
r=re.r ; h=re.h ; phi=re.ph # importing coordinate mesh
if (n2<n1):
print("readndump: invalid file number range")
exit()
fmdot=open("merge_mevol"+str(rref)+".dat", "w")
nframes=n2-n1+1
n=n1+arange(nframes)
for k in n:
fname=re.dumpname(k)
re.rd(fname)
Tcalcud()
p=(re.gam-1.)*re.ug
magp=old_div(re.bsq,2.)
rho=re.rho ; uu=re.uu ; ud=re.ud
if(k==n1):
rhomean=rho
rhosqmean=rho**2
# velocity components:
uu0=uu[0]*rho ; ud0=ud[0]*rho
uur=uu[1]*rho ; udr=ud[1]*rho
uuh=uu[2]*rho ; udh=ud[2]*rho
uup=uu[3]*rho ; udp=ud[3]*rho
puu0=uu[0]*p ; pud0=ud[0]*p
puur=uu[1]*p ; pudr=ud[1]*p
puuh=uu[2]*p ; pudh=ud[2]*p
puup=uu[3]*p ; pudp=ud[3]*p
mpuu0=uu[0]*magp ; mpud0=ud[0]*magp
mpuur=uu[1]*magp ; mpudr=ud[1]*magp
mpuuh=uu[2]*magp ; mpudh=ud[2]*magp
mpuup=uu[3]*magp ; mpudp=ud[3]*magp
tudem=TudEM ; tudma=TudMA
pmean=p
# unorm=uaver
magp_mean=magp
aphi=re.psicalc()
dumpinfo(fname)
os.system("cp dumps/"+fname+"_dinfo.dat merge_dinfo.dat")
else:
rhomean+=rho
rhosqmean+=rho**2
# velocity components:
uu0+=uu[0]*rho ; ud0+=ud[0]*rho
uur+=uu[1]*rho ; udr+=ud[1]*rho
uuh+=uu[2]*rho ; udh+=ud[2]*rho
uup+=uu[3]*rho ; udp+=ud[3]*rho
puu0+=uu[0]*p ; pud0+=ud[0]*p
puur+=uu[1]*p ; pudr+=ud[1]*p
puuh+=uu[2]*p ; pudh+=ud[2]*p
puup+=uu[3]*p ; pudp+=ud[3]*p
mpuu0+=uu[0]*magp ; mpud0+=ud[0]*magp
mpuur+=uu[1]*magp ; mpudr+=ud[1]*magp
mpuuh+=uu[2]*magp ; mpudh+=ud[2]*magp
mpuup+=uu[3]*magp ; mpudp+=ud[3]*magp
pmean+=p
magp_mean+=magp
aphi+=re.psicalc()
# unorm+=uaver
tudem+=TudEM ; tudma+=TudMA
maccre, mwind, laccre, lwind = mint(rref)
fmdot.write(str(re.t)+" "+str(maccre)+" "+str(mwind)+" "+str(old_div(laccre,maccre))+" "+str(old_div(lwind,mwind))+"\n")
fmdot.close()
# velocity normalization:
uu0*=old_div(drdx[0,0],rhomean) ; uur*=old_div(drdx[1,1],rhomean) ; uuh*=old_div(drdx[2,2],rhomean) ; uup*=old_div(drdx[3,3],rhomean)
ud0/=drdx[0,0]*rhomean ; udr/=drdx[1,1]*rhomean ; udh/=drdx[2,2]*rhomean ; udp/=drdx[3,3]*rhomean
puu0*=old_div(drdx[0,0],pmean) ; puur*=old_div(drdx[1,1],pmean) ; puuh*=old_div(drdx[2,2],pmean) ; puup*=old_div(drdx[3,3],pmean)
pud0/=drdx[0,0]*pmean ; pudr/=drdx[1,1]*pmean ; pudh/=drdx[2,2]*pmean ; pudp/=drdx[3,3]*pmean
mpuu0*=old_div(drdx[0,0],magp_mean) ; mpuur*=old_div(drdx[1,1],magp_mean) ; mpuuh*=old_div(drdx[2,2],magp_mean) ; mpuup*=old_div(drdx[3,3],magp_mean)
mpud0/=drdx[0,0]*magp_mean ; mpudr/=drdx[1,1]*magp_mean ; mpudh/=drdx[2,2]*magp_mean ; mpudp/=drdx[3,3]*magp_mean
# uu0/=unorm ; uur/=unorm ; uuh/=unorm ; uup/=unorm
# ud0/=unorm ; udr/=unorm ; udh/=unorm ; udp/=unorm
# averaging the density:
rhomean=old_div(rhomean,double(nframes))
rhodisp=old_div(rhosqmean,double(nframes))-rhomean**2
pmean=old_div(pmean,double(nframes))
magp_mean=old_div(magp_mean,double(nframes))
tudem/=double(nframes) ; tudma/=double(nframes)
aphi/=double(nframes)
# physical stress-energy tensor components:
for k in arange(4):
for j in arange(4):
tudem[k,j]*=drdx[k,k]/drdx[j,j]*sqrt(guu[k,k]*gdd[j,j])
tudma[k,j]*=drdx[k,k]/drdx[j,j]*sqrt(guu[k,k]*gdd[j,j])
# ss=shape(rhomean)
# nx=ss[0]
# ny=ss[1]
# we need some 3D data
rho3d=rhomean ; p3d=pmean ; ur3d=uur ; uh3d=uuh ; up3d=uup
fout=open('merge_rho3d.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
for kz in arange(nz):
fout.write(str(rho3d[kx,ky, kz])+'\n')
fout.close()
fout=open('merge_p3d.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
for kz in arange(nz):
fout.write(str(p3d[kx,ky, kz])+'\n')
fout.close()
fout=open('merge_u3d.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
for kz in arange(nz):
fout.write(str(uu0[kx,ky,kz])+' '+str(uur[kx,ky,kz])+' '+str(uuh[kx,ky,kz])+' '+str(uup[kx,ky,kz])+'\n')
fout.close()
fout=open('merge_pu3d.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
for kz in arange(nz):
fout.write(str(puu0[kx,ky,kz])+' '+str(puur[kx,ky,kz])+' '+str(puuh[kx,ky,kz])+' '+str(puup[kx,ky,kz])+'\n')
fout.close()
fout=open('merge_mpu3d.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
for kz in arange(nz):
fout.write(str(mpuu0[kx,ky,kz])+' '+str(mpuur[kx,ky,kz])+' '+str(mpuuh[kx,ky,kz])+' '+str(mpuup[kx,ky,kz])+'\n')
fout.close()
# 2D or 3D? averaging over phi
rhomean=rhomean.mean(axis=2)
rhodisp=rhodisp.mean(axis=2)
pmean=pmean.mean(axis=2) ; magp_mean=magp_mean.mean(axis=2)
uu0=uu0.mean(axis=2) ; uur=uur.mean(axis=2) ; uuh=uuh.mean(axis=2) ; uup=uup.mean(axis=2)
ud0=ud0.mean(axis=2) ; udr=udr.mean(axis=2) ; udh=udh.mean(axis=2) ; udp=udp.mean(axis=2)
puu0=puu0.mean(axis=2) ; puur=puur.mean(axis=2) ; puuh=puuh.mean(axis=2) ; puup=puup.mean(axis=2)
pud0=pud0.mean(axis=2) ; pudr=pudr.mean(axis=2) ; pudh=pudh.mean(axis=2) ; pudp=pudp.mean(axis=2)
mpuu0=mpuu0.mean(axis=2) ; mpuur=mpuur.mean(axis=2) ; mpuuh=mpuuh.mean(axis=2) ; mpuup=mpuup.mean(axis=2)
mpud0=mpud0.mean(axis=2) ; mpudr=mpudr.mean(axis=2) ; mpudh=mpudh.mean(axis=2) ; mpudp=mpudp.mean(axis=2)
# drp=drp.mean(axis=2) ; dhp=dhp.mean(axis=2) ; drh=drh.mean(axis=2)
tudem=tudem.mean(axis=-1)
tudma=tudma.mean(axis=-1)
# aphi=aphi.mean(axis=-1)
# r mesh:
fout=open('merge_r.dat', 'w')
for kx in arange(nx):
fout.write(str(r[kx,0,0])+'\n')
fout.close()
fout=open('merge_h.dat', 'w')
# theta mesh
for ky in arange(ny):
fout.write(str(h[0,ky,0])+'\n')
fout.close()
fout=open('merge_phi.dat', 'w')
# phi mesh
for kz in arange(nz):
fout.write(str(phi[0,0,kz])+'\n')
fout.close()
fout=open('merge_rho.dat', 'w')
# rho on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(rhomean[kx,ky])+'\n')
fout.close()
# p on the mesh
fout=open('merge_p.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(pmean[kx,ky])+'\n')
fout.close()
# magnetic pressure on the mesh
fout=open('merge_mp.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(magp_mean[kx,ky])+'\n')
fout.close()
fout=open('merge_uu.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(uu0[kx,ky])+' '+str(uur[kx,ky])+' '+str(uuh[kx,ky])+' '+str(uup[kx,ky])+'\n')
fout.close()
fout=open('merge_ud.dat', 'w')
# ud on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(ud0[kx,ky])+' '+str(udr[kx,ky])+' '+str(udh[kx,ky])+' '+str(udp[kx,ky])+'\n')
fout.close()
fout=open('merge_puu.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(puu0[kx,ky])+' '+str(puur[kx,ky])+' '+str(puuh[kx,ky])+' '+str(puup[kx,ky])+'\n')
fout.close()
fout=open('merge_pud.dat', 'w')
# ud on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(pud0[kx,ky])+' '+str(pudr[kx,ky])+' '+str(pudh[kx,ky])+' '+str(pudp[kx,ky])+'\n')
fout.close()
fout=open('merge_mpuu.dat', 'w')
# uu on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(mpuu0[kx,ky])+' '+str(mpuur[kx,ky])+' '+str(mpuuh[kx,ky])+' '+str(mpuup[kx,ky])+'\n')
fout.close()
fout=open('merge_mpud.dat', 'w')
# ud on the mesh
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(mpud0[kx,ky])+' '+str(mpudr[kx,ky])+' '+str(mpudh[kx,ky])+' '+str(mpudp[kx,ky])+'\n')
fout.close()
fout=open('merge_tudem.dat', 'w')
# EM energy-stress tensor
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(tudem[0,0][kx,ky])+' '+str(tudem[0,1][kx,ky])+' '+str(tudem[0,2][kx,ky])+' '+str(tudem[0,3][kx,ky])+' ')
fout.write(str(tudem[1,0][kx,ky])+' '+str(tudem[1,1][kx,ky])+' '+str(tudem[1,2][kx,ky])+' '+str(tudem[1,3][kx,ky])+' ')
fout.write(str(tudem[2,0][kx,ky])+' '+str(tudem[2,1][kx,ky])+' '+str(tudem[2,2][kx,ky])+' '+str(tudem[2,3][kx,ky])+' ')
fout.write(str(tudem[3,0][kx,ky])+' '+str(tudem[3,1][kx,ky])+' '+str(tudem[3,2][kx,ky])+' '+str(tudem[3,3][kx,ky])+'\n')
fout.close()
fout=open('merge_tudma.dat', 'w')
# matter energy-stress tensor
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(tudma[0,0][kx,ky])+' '+str(tudma[0,1][kx,ky])+' '+str(tudma[0,2][kx,ky])+' '+str(tudma[0,3][kx,ky])+' ')
fout.write(str(tudma[1,0][kx,ky])+' '+str(tudma[1,1][kx,ky])+' '+str(tudma[1,2][kx,ky])+' '+str(tudma[1,3][kx,ky])+' ')
fout.write(str(tudma[2,0][kx,ky])+' '+str(tudma[2,1][kx,ky])+' '+str(tudma[2,2][kx,ky])+' '+str(tudma[2,3][kx,ky])+' ')
fout.write(str(tudma[3,0][kx,ky])+' '+str(tudma[3,1][kx,ky])+' '+str(tudma[3,2][kx,ky])+' '+str(tudma[3,3][kx,ky])+'\n')
fout.close()
fout=open('merge_aphi.dat', 'w')
# poloidal magnetic field lines
for kx in arange(nx):
for ky in arange(ny):
fout.write(str(aphi[kx,ky])+'\n')
fout.close()