def magma_prodction():
mt = ip.read_data('D_melt', path, 4)
mi_index = ip.read_data('D_melt', path, 5)
mj_index = ip.read_data('D_melt', path, 6)
magmaP = []
Time = []
column = 1
for frame in range(1, vts):
magmastep = 0
time = fl.time[frame]
countmarker = fl.read_countmarker(frame)
x, z = fl.read_mesh(frame)
for column_now in range(column, len(mt)):
if mt[column_now] <= time:
#=======every melted markers=====================
area = read_area(x, z, mi_index[column_now],
mj_index[column_now])
magma = area * 0.25 / countmarker[mi_index[column_now],
mj_index[column_now]]
##print(column_now,time,mt[column_now])
##print(area,magma)
magmastep = magmastep + magma
#=========================================
else:
column = column_now
#print('break')
break
magmaP.append(magmastep)
Time.append(time)
return magmaP, Time
def get_BASdata():
BAST = []
BASL = []
for folderk in range(len(foldername)):
path = inputpath + foldername[folderk]
#os.chdir(path)
#print(path)
if os.path.isfile(path + '/D_rifting.txt'):
kk = 0
#print('exist')
rt = ip.read_data('D_rifting', path, 3)
time = ip.read_data1('D_time', path)
Ltime = ip.read_data1('D_Ltime', path)
BAST.append(round(rt[-1], 1))
BASL.append(1000)
#print(foldername[folderk],BAST[folderk],BASL[folderk])
for kk in range(len(time)):
if time[kk] >= BAST[folderk]:
BASL[folderk] = round(Ltime[kk], 1)
break
else:
print('no exist')
BAST.append(1000)
BASL.append(5000)
#print(foldername[folderk],BAST[folderk],BASL[folderk])
BAST = np.reshape(BAST, arraysize)
BASL = np.reshape(BASL, arraysize)
return BAST, BASL
def get_magmaP(time):
magmaP = []
time = np.reshape(time, (-1, 1))
for folderk in range(len(foldername)):
path = inputpath + foldername[folderk]
os.chdir(path)
import flac
fl = flac.Flac()
frame = time2vts(time[folderk], path)
if frame != 1:
production = 0
for framek in range(frame - 10, frame + 10):
countmarker = fl.read_countmarker(framek)
meltingmarker = fl.read_meltingmarker(framek)
x, z = fl.read_mesh(framek)
mi = ip.read_data('D_melt', path, 5)
mj = ip.read_data('D_melt', path, 6)
mt = ip.read_data('D_melt', path, 4)
for tkk in range(len(mt) - 1):
if mt[tkk] > fl.time[framek] and mt[tkk] < fl.time[framek +
1]:
meltingmarker[mi[tkk],
mj[tkk]] = meltingmarker[mi[tkk],
mj[tkk]] + 1
for xk in range(fl.nx - 1):
for zk in range(fl.nz - 1):
production = production + (
0.25 *
(meltingmarker[xk, zk] / countmarker[xk, zk]) *
read_area(x, z, xk, zk))
deltaT = fl.time[frame + 10] - fl.time[frame - 10] #in Myrs
magmaP.append(production / deltaT)
else:
magmaP.append(0.)
magmaP = np.reshape(magmaP, arraysize)
return magmaP
def get_magmaP(frame):
frame = frame + 1
import flac
fl = flac.Flac()
time = fl.time[frame]
if frame > 10:
production = 0
for framek in range(frame - 5, frame + 5):
x, z = fl.read_mesh(framek)
countmarker = fl.read_countmarker(framek)
meltingmarker = fl.read_meltingmarker(framek)
mi = ip.read_data('D_melt', path, 5)
mj = ip.read_data('D_melt', path, 6)
mt = ip.read_data('D_melt', path, 4)
for tkk in range(len(mt) - 1):
if mt[tkk] > fl.time[framek] and mt[tkk] < fl.time[framek + 1]:
meltingmarker[mi[tkk],
mj[tkk]] = meltingmarker[mi[tkk],
mj[tkk]] + 1
for xk in range(1, fl.nx - 1):
for zk in range(1, fl.nz - 1):
production = production + (
0.25 * (meltingmarker[xk, zk] / countmarker[xk, zk]) *
read_area(x, z, xk, zk))
deltaT = fl.time[frame + 5] - fl.time[frame - 5] #in Myrs
magmaP = production / deltaT
else:
magmaP = 0
return magmaP, time
if (legend >= 1):
colorbar=plt.colorbar(dot,ax=ax)
colorbar.set_label('M (%)', fontsize=10, color='black')
colorbar.ax.tick_params(labelsize=8)
if (folderplot >=1):
plt.text(490,1.5,foldername)
plt.savefig(results_dir+'/pic_MeltVol'+'.png')
'''
# ===================================================
# location of rifting and partial melting
# ===================================================
fig = plt.figure(figsize=(6, 5))
ax = fig.add_subplot(111)
mx = ip.read_data('D_melt', path, 2)
mt = ip.read_data('D_melt', path, 4)
mz = ip.read_data('D_melt', path, 8)
nrx = ip.read_data('D_rifting', path, 1)
nrz = ip.read_data('D_rifting', path, 2)
nrt = ip.read_data('D_rifting', path, 3)
rx = []
rz = []
rt = []
for kk in range(len(nrx)):
rx.append(nrx[len(nrx) - kk - 1])
rz.append(nrz[len(nrz) - kk - 1])
rt.append(nrt[len(nrt) - kk - 1])
for kk in range(len(mx)):
import flac
#import flacmarker2vtk
fl = flac.Flac()
#-------------------------------------------
print('>>>>> read data in <<<<<')
#-------------------------------------------
meanMORloca = []
MORtime = []
MORl = []
if os.path.isfile(path + '/D_time.txt'):
time = ip.read_data1('D_time', path)
Ltime = ip.read_data1('D_Ltime', path)
rx = ip.read_data('D_rifting', path, 1)
rz = ip.read_data('D_rifting', path, 2)
rt = ip.read_data('D_rifting', path, 3)
for kkt in range(len(time) - 1):
MORloca = []
for kkr in range(len(rt)):
if time[kkt] < rt[kkr] and time[kkt + 1] >= rt[kkr]:
MORloca.append(rx[kkr])
if len(MORloca) != 0:
meanMORloca.append(sum(MORloca) / len(MORloca))
MORtime.append(time[kkt])
MORl.append(Ltime[kkt])
MORrate = cd.rate_calculating(meanMORloca, MORtime)
y1 = zmesh[x_index, z_index]
x2 = xmesh[x_index, z_index + 1]
y2 = zmesh[x_index, z_index + 1]
x3 = xmesh[x_index + 1, z_index + 1]
y3 = zmesh[x_index + 1, z_index + 1]
x4 = xmesh[x_index + 1, z_index]
y4 = zmesh[x_index + 1, z_index]
area1 = ((x1 - x2) * (y3 - y2)) - ((x3 - x2) * (y1 - y2))
area2 = ((x1 - x4) * (y3 - y4)) - ((x3 - x4) * (y1 - y4))
area = (abs(area1) + abs(area2)) * 0.5
return area
#get data
mt = ip.read_data('D_melt', path, 4)
mi_index = ip.read_data('D_melt', path, 5)
mj_index = ip.read_data('D_melt', path, 6)
magmaP = []
Time = []
column = 1
for frame in range(1, vts):
magmastep = 0
time = fl.time[frame]
countmarker = fl.read_countmarker(frame)
x, z = fl.read_mesh(frame)
for column_now in range(column, len(mt)):
if mt[column_now] <= time:
#=======every melted markers=====================
