def hview(self,
vname,
time=-1,
k=20,
fmt='%i',
cff=None,
unit='g',
cblabel=None,
levels=None,
step=3,
scale=5,
method='pcolor'):
"""
2015-11-08 ベクトルに対応させるために ax_heatmap と ax_vecmap を追加
"""
print '{}, time={}, k={}, fmt={},'.format(vname, time, k, fmt),
if cff is None:
cff = romspy.unit2cff(vname, unit)
if levels is None:
levels = romspy.levels(vname, unit)
if cblabel is None:
cblabel = vname
print 'cff={}'.format(cff)
if vname == 'velocity':
var = self.nc.variables['u']
else:
var = self.nc.variables[vname]
if var.ndim > 2:
t, dtime = self.get_time(time)
if vname == 'velocity':
self.add_quiver(vname, t, k, cff, step, scale)
else:
if 'pcolor' in method:
self.add_pcolor(vname, t, k, cff, levels, cblabel, fmt)
if 'contour' in method:
self.add_contour(vname, t, k, cff, levels, cblabel, fmt)
if 'fill' in method:
self.add_contourf(vname, t, k, cff, levels, cblabel, fmt)
# basemap
if self.mapfile is not None:
romspy.basemap(self.mapfile)
# finalize
if var.ndim == 2:
plt.title('Model domein & bathymetry')
elif ('avg' in self.ncfile) or ('dia' in self.ncfile):
time_string = datetime.datetime.strftime(dtime, '%Y-%m')
plt.title('Average ({})'.format(time_string))
else:
plt.title(datetime.datetime.strftime(dtime, '%Y-%m-%d %H:%M:%S'))
return plt.gca()
def hview(self, vname, **kw):
"""
2015-11-08 ベクトルに対応させるために ax_heatmap と ax_vecmap を追加
"""
time = kw.pop('time', -1)
k = kw.pop('k', 20)
cff = kw.pop('cff', None)
method = kw.pop('method', 'pcolor')
unit = kw.pop('unit', 'g')
levels = kw.pop('levels', None)
if cff is None:
cff = romspy.unit2cff(vname, unit)
if levels is None:
levels = romspy.levels(vname, unit)
print 'cff={}'.format(cff)
if vname == 'velocity':
var = self.nc.variables['u']
else:
var = self.nc.variables[vname]
if var.ndim > 2:
t, dtime = self.get_time(time)
if vname == 'velocity':
self.add_quiver(vname, t, k, **kw)
elif method == 'limit':
self.add_pcolor_limit(vname, t, k, **kw)
else:
if 'rbf' in method:
self.add_contourf_rbf(vname, t, k, cff, levels, **kw)
if 'pcolor' in method:
self.add_pcolor(vname, t, k, cff, levels, **kw)
if 'contour' in method:
self.add_contour(vname, t, k, cff, levels, **kw)
if 'fill' in method:
self.add_contourf(vname, t, k, cff, levels, **kw)
if self.mapfile is not None:
romspy.basemap(self.mapfile)
if k == 20:
plt.text(135.25, 34.25, 'surface layer')
elif k == 1:
plt.text(135.25, 34.25, 'bottom layer')
if var.ndim == 2:
plt.title('Model domein & bathymetry')
elif ('avg' in self.ncfile) or ('dia' in self.ncfile):
time_string = datetime.datetime.strftime(dtime,'%Y-%m')
plt.title('Average ({})'.format(time_string))
else:
plt.title(datetime.datetime.strftime(dtime,'%Y-%m-%d %H:%M:%S'))
return plt.gca()
def hview(self, vname, time=-1, k=20, fmt='%i', cff=None, unit='g',
cblabel=None, levels=None, step=3, scale=5, method='pcolor'):
"""
2015-11-08 ベクトルに対応させるために ax_heatmap と ax_vecmap を追加
"""
print '{}, time={}, k={}, fmt={},'.format(vname, time, k, fmt),
if cff is None:
cff = romspy.unit2cff(vname, unit)
if levels is None:
levels = romspy.levels(vname, unit)
if cblabel is None:
cblabel = vname
print 'cff={}'.format(cff)
if vname == 'velocity':
var = self.nc.variables['u']
else:
var = self.nc.variables[vname]
if var.ndim > 2:
t, dtime = self.get_time(time)
if vname == 'velocity':
self.add_quiver(vname, t, k, cff, step, scale)
else:
if 'pcolor' in method:
self.add_pcolor(vname, t, k, cff, levels, cblabel, fmt)
if 'contour' in method:
self.add_contour(vname, t, k, cff, levels, cblabel, fmt)
if 'fill' in method:
self.add_contourf(vname, t, k, cff, levels, cblabel, fmt)
# basemap
if self.mapfile is not None:
romspy.basemap(self.mapfile)
# print layer
if k == 20:
plt.text(135.25, 34.25, 'surface layer')
elif k == 1:
plt.text(135.25, 34.25, 'bottom layer')
# finalize
if var.ndim == 2:
plt.title('Model domein & bathymetry')
elif ('avg' in self.ncfile) or ('dia' in self.ncfile):
time_string = datetime.datetime.strftime(dtime,'%Y-%m')
plt.title('Average ({})'.format(time_string))
else:
plt.title(datetime.datetime.strftime(dtime,'%Y-%m-%d %H:%M:%S'))
return plt.gca()
def add_contourf(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('contour')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t,k-1,:,:] * cff
elif var.ndim == 3:
var2d = var[t,:,:] * cff
else:
var2d = var[:,:] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
F = ax.contourf(X, Y, var2d, levels, extend='both')
else:
F = ax.contourf(X, Y, var2d, extend='both')
CB = plt.colorbar(F)
CB.ax.set_ylabel(cblabel)
return F
def add_contour(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('contour')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t,k-1,:,:] * cff
elif var.ndim == 3:
var2d = var[t,:,:] * cff
else:
var2d = var[:,:] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
C = ax.contour(X, Y, var2d, levels, colors='w')
else:
C = ax.contour(X, Y, var2d, colors='w')
if fmt is not 'off':
C.clabel(fmt=fmt, colors='k') # ,fontsize=9)
return C
def add_pcolor(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('pcolor')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t,k-1,:,:] * cff
elif var.ndim == 3:
var2d = var[t,:,:] * cff
else:
var2d = var[:,:] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
P = ax.pcolor(X, Y, var2d, vmin=levels[0], vmax=levels[-1])
else:
P = ax.pcolor(X, Y, var2d)
cbar = plt.colorbar(P)
cbar.ax.set_ylabel(cblabel)
return P
def add_contourf(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('contour')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t, k - 1, :, :] * cff
elif var.ndim == 3:
var2d = var[t, :, :] * cff
else:
var2d = var[:, :] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
F = ax.contourf(X, Y, var2d, levels, extend='both')
else:
F = ax.contourf(X, Y, var2d, extend='both')
CB = plt.colorbar(F)
CB.ax.set_ylabel(cblabel)
return F
def add_contour(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('contour')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t, k - 1, :, :] * cff
elif var.ndim == 3:
var2d = var[t, :, :] * cff
else:
var2d = var[:, :] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
C = ax.contour(X, Y, var2d, levels, colors='w')
else:
C = ax.contour(X, Y, var2d, colors='w')
if fmt is not 'off':
C.clabel(fmt=fmt, colors='k') # ,fontsize=9)
return C
def add_pcolor(self, vname, t, k, cff, levels, cblabel, fmt):
"""
コンタープロットのaxを返す関数
2015-11-08 作成
"""
X, Y = self.get_xy('pcolor')
var = self.nc.variables[vname]
if var.ndim == 4:
var2d = var[t, k - 1, :, :] * cff
elif var.ndim == 3:
var2d = var[t, :, :] * cff
else:
var2d = var[:, :] * cff
if levels is None:
levels = romspy.levels(vname)
ax = plt.gca()
if levels is not None:
P = ax.pcolor(X, Y, var2d, vmin=levels[0], vmax=levels[-1])
else:
P = ax.pcolor(X, Y, var2d)
cbar = plt.colorbar(P)
cbar.ax.set_ylabel(cblabel)
return P
def pickup_line(nc, vname, line, time, method='idw', unit='g', cff=None, levels=None, grdfile=None, fmt='%2.1f', cblabel=None, pmethod='contourf'):
if cff is None:
cff = romspy.unit2cff(vname, unit)
if type(time) == int:
t = time
time = netCDF4.num2date(nc.variables['ocean_time'][t], romspy.JST)
elif type(time) == datetime.datetime:
time2 = netCDF4.date2num(time, romspy.JST)
time3 = nc.variables['ocean_time'][:]
t = np.where(time3==time2)[0][0]
else:
print 'ERROR: your time type =',type(time)
if cblabel is None:
cblabel = vname
print '\n',time, t
cs_r = nc.variables['Cs_r'][:]
var = np.zeros([len(line),len(cs_r)])
depth = np.zeros([len(line),len(cs_r)])
dist = np.zeros([len(line),len(cs_r)])
for s, l in enumerate(line):
lon = l[0]
lat = l[1]
v = pickup(nc, vname, lon, lat, method, grdfile=grdfile)
var[s,:] = v[t,:]
h = pickup(nc, 'h', lon, lat, 'idw', grdfile=grdfile)
try:
zeta = pickup(nc, 'zeta', lon, lat, 'idw', grdfile=grdfile)
depth[s,:] = (h + zeta[t]) * cs_r[:]
except:
depth[s,:] = (h + 1.0) * cs_r[:]
if s == 0:
dist[s,:] = 0
else:
back = line[s-1]
fore = line[s]
dist[s,:] = dist[s-1,:] + vincenty(back, fore).meters
#fig, ax = plt.subplots(figsize=[6,3])
ax = plt.gca()
origin = 'upper'
#origin = 'lower'
if levels is None:
levels = romspy.levels(vname, unit=unit)
if pmethod == 'contourf':
CF = ax.contourf(dist/1000, depth, var*cff, extend='both', origin=origin, levels=levels)
plt.clabel(CF, fmt=fmt, colors='k')
CB = plt.colorbar(CF)
CB.ax.set_ylabel(cblabel)
elif pmethod == 'contour':
C = ax.contour(dist/1000, depth, var*cff, colors='w', origin=origin, levels=levels)
plt.clabel(C, fmt=fmt, colors='k')
elif pmethod == 'pcolor':
CF = ax.pcolor(dist/1000, depth, var*cff, vmin=levels[0], vmax=levels[-1])
CB = plt.colorbar(CF)
CB.ax.set_ylabel(cblabel)
ax.plot(dist[:,0]/1000, depth[:,0], 'k-')
ax.set_xlabel('distance(km)')
ax.set_ylabel('depth(m)')
ax.set_title(datetime.datetime.strftime(time, '%Y-%m-%d %H:%M:%S'))
ax.set_xlabel('distance(km)')
ax.set_ylabel('depth(m)')
ax.set_title(datetime.datetime.strftime(time, '%Y-%m-%d %H:%M:%S'))
return ax
def pickup_line(nc,
vname,
line,
time,
method='idw',
unit='g',
cff=None,
levels=None,
grdfile=None,
fmt='%2.1f',
cblabel=None,
pmethod='contourf'):
if cff is None:
cff = romspy.unit2cff(vname, unit)
if type(time) == int:
t = time
time = netCDF4.num2date(nc.variables['ocean_time'][t], romspy.JST)
elif type(time) == datetime.datetime:
time2 = netCDF4.date2num(time, romspy.JST)
time3 = nc.variables['ocean_time'][:]
t = np.where(time3 == time2)[0][0]
else:
print 'ERROR: your time type =', type(time)
if cblabel is None:
cblabel = vname
print '\n', time, t
cs_r = nc.variables['Cs_r'][:]
var = np.zeros([len(line), len(cs_r)])
depth = np.zeros([len(line), len(cs_r)])
dist = np.zeros([len(line), len(cs_r)])
for s, l in enumerate(line):
lon = l[0]
lat = l[1]
v = pickup(nc, vname, lon, lat, method, grdfile=grdfile)
var[s, :] = v[t, :]
h = pickup(nc, 'h', lon, lat, 'idw', grdfile=grdfile)
try:
zeta = pickup(nc, 'zeta', lon, lat, 'idw', grdfile=grdfile)
depth[s, :] = (h + zeta[t]) * cs_r[:]
except:
depth[s, :] = (h + 1.0) * cs_r[:]
if s == 0:
dist[s, :] = 0
else:
back = line[s - 1]
fore = line[s]
dist[s, :] = dist[s - 1, :] + vincenty(back, fore).meters
#fig, ax = plt.subplots(figsize=[6,3])
ax = plt.gca()
origin = 'upper'
#origin = 'lower'
if levels is None:
levels = romspy.levels(vname, unit=unit)
if pmethod == 'contourf':
CF = ax.contourf(dist / 1000,
depth,
var * cff,
extend='both',
origin=origin,
levels=levels)
plt.clabel(CF, fmt=fmt, colors='k')
CB = plt.colorbar(CF)
CB.ax.set_ylabel(cblabel)
elif pmethod == 'contour':
C = ax.contour(dist / 1000,
depth,
var * cff,
colors='w',
origin=origin,
levels=levels)
plt.clabel(C, fmt=fmt, colors='k')
elif pmethod == 'pcolor':
CF = ax.pcolor(dist / 1000,
depth,
var * cff,
vmin=levels[0],
vmax=levels[-1])
CB = plt.colorbar(CF)
CB.ax.set_ylabel(cblabel)
ax.plot(dist[:, 0] / 1000, depth[:, 0], 'k-')
ax.set_xlabel('distance(km)')
ax.set_ylabel('depth(m)')
ax.set_title(datetime.datetime.strftime(time, '%Y-%m-%d %H:%M:%S'))
ax.set_xlabel('distance(km)')
ax.set_ylabel('depth(m)')
ax.set_title(datetime.datetime.strftime(time, '%Y-%m-%d %H:%M:%S'))
return ax
