def plotDC(vp,block,trial):
''' plot gaze during drift correction'''
from Preprocess import readEyelink
plt.interactive(False)
# vp=1
# from readETData import readEyelink
# for b in range(4,23):
# print 'block ', b
# data=readEyelink(vp,b)
# for i in range(0,len(data)):
b=block;i=trial
data=readEyelink(vp,b)
d=data[i]
gg=d.getGaze(phase=3)
plt.plot(gg[:,0],gg[:,1],'g--')
plt.plot(gg[:,0],gg[:,2],'r--')
plt.plot(gg[:,0],gg[:,4],'b--')
plt.plot(gg[:,0],gg[:,5],'k--')
d.extractBasicEvents()
d.driftCorrection(jump=manualDC(vp,b,i))
gg=d.getGaze(phase=3)
plt.plot(gg[:,0],gg[:,1],'g')
plt.plot(gg[:,0],gg[:,2],'r')
plt.plot(gg[:,0],gg[:,4],'b')
plt.plot(gg[:,0],gg[:,5],'k')
plt.plot([gg[0,0],gg[-1,0]],[0,0],'k')
plt.plot(d.dcfix,[-0.45,-0.45],'k',lw=2)
plt.grid()
plt.ylim([-0.5,0.5])
plt.legend(['left x','left y','right x','right y'])
plt.savefig(PATH+'dc'+os.path.sep+'vp%03db%02dtr%02d'%(vp,b,i))
plt.cla()
def plot_uncertainty_bounds_s(self, multiplier=200, *args, **kwargs):
'''
Plots complex uncertainty bounds plot on smith chart.
This function plots the complex uncertainty of a NetworkSet
as circles on the smith chart. At each frequency a circle
with radii proportional to the complex standard deviation
of the set at that frequency is drawn. Due to the fact that
the `markersize` argument is in pixels, the radii can scaled by
the input argument `multiplier`.
default kwargs are
{
'marker':'o',
'color':'b',
'mew':0,
'ls':'',
'alpha':.1,
'label':None,
}
Parameters
-------------
multipliter : float
controls the circle sizes, by multiples of the standard
deviation.
'''
default_kwargs = {
'marker': 'o',
'color': 'b',
'mew': 0,
'ls': '',
'alpha': .1,
'label': None,
}
default_kwargs.update(**kwargs)
if plb.isinteractive():
was_interactive = True
plb.interactive(0)
else:
was_interactive = False
[
self.mean_s[k].plot_s_smith(*args,
ms=self.std_s[k].s_mag * multiplier,
**default_kwargs)
for k in range(len(self[0]))
]
if was_interactive:
plb.interactive(1)
plb.draw()
plb.show()
def main():
import pylab
#mydirectory=r'D:\BiFeO3film\Mar27_2011'
mydirectory = r'/net/charlotte/var/ftp/pub/ncnrdata/bt9/201102/ylem/BiFeO3film/Mar27_2011'
myend = 'bt9'
pylab.interactive(True)
for dataset in sys.argv[1:]:
data = read_data(mydirectory, "mesh" + dataset, myend)
plot(data)
_ = raw_input("> ")
def plot_uncertainty_bounds_s(self, multiplier =200, *args, **kwargs):
'''
Plots complex uncertainty bounds plot on smith chart.
This function plots the complex uncertainty of a NetworkSet
as circles on the smith chart. At each frequency a circle
with radii proportional to the complex standard deviation
of the set at that frequency is drawn. Due to the fact that
the `markersize` argument is in pixels, the radii can scaled by
the input argument `multiplier`.
default kwargs are
{
'marker':'o',
'color':'b',
'mew':0,
'ls':'',
'alpha':.1,
'label':None,
}
Parameters
-------------
multipliter : float
controls the circle sizes, by multiples of the standard
deviation.
'''
default_kwargs = {
'marker':'o',
'color':'b',
'mew':0,
'ls':'',
'alpha':.1,
'label':None,
}
default_kwargs.update(**kwargs)
if plb.isinteractive():
was_interactive = True
plb.interactive(0)
else:
was_interactive = False
[self.mean_s[k].plot_s_smith(*args, ms = self.std_s[k].s_mag*multiplier, **default_kwargs) for k in range(len(self[0]))]
if was_interactive:
plb.interactive(1)
plb.draw()
plb.show()
def create_plot(self, figsize=(16, 9)):
pylab.interactive(True)
pylab.figure(figsize=figsize)
pylab.title(self.description)
pylab.xlabel('time')
pylab.ylabel('points')
pylab.grid(True)
self.figure = pylab.gcf()
self.ax = pylab.gca()
def optimizeAR1Model(obs_spectrum, freqs, f_nyquist, N, maxfreq=10, init_est = None):
interactive(True)
# plot(freqs, obs_spectrum)
if init_est == None:
init_est = (0.0, 0.5)
kd,cov,infodict,mesg,ier = optimize.leastsq(residuals,
init_est,
args=(obs_spectrum, freqs, f_nyquist, N, maxfreq),
epsfcn=0.001,
ftol=1e-16,
gtol=1e-16,
xtol=1e-16,
maxfev=10000,
full_output=True)
return kd, mesg, ier
def savefig(fname,figsize,fig=None,**kwargs):
"""
force saving figure with a given size, useful when using tiling wm;
if fname is a list, it saves multiple files, for example [todel.pdf,todel.png]
"""
if isinstance(fname,str): fname = (fname,)
if fig is None: fig = plt.gcf()
old_bkg = plt.get_backend()
old_inter = plt.isinteractive()
try:
plt.switch_backend("cairo")
old_height = fig.get_figheight()
old_width = fig.get_figwidth()
fig.set_figwidth ( figsize[0] )
fig.set_figheight( figsize[1] )
[ fig.savefig(f,**kwargs) for f in fname ]
plt.switch_backend(old_bkg)
finally:
plt.switch_backend(old_bkg)
plt.interactive(old_inter)
def main():
import pylab as pl
from .pncparse import pncparse
ifiles, options = pncparse(has_ofile = True, plot_options = True, interactive = False)
if len(ifiles) != 1:
raise IOError('pncview can operate on only 1 file; user requested %d' % len(ifiles))
ifile, = ifiles
pl.interactive(True)
for method_vars in options.plotcommands:
pieces = method_vars.split(',')
plotargs = [p for p in pieces if '=' not in p]
plotkwds = [p for p in pieces if '=' in p]
method, = plotargs[:1]
vars = plotargs[1:]
plotoptions = eval('OptionDict(outpath="%s",%s)' % (options.outpath, ','.join(plotkwds)))
print(plotoptions.logscale)
plotwithopts(ifile, method, vars, plotoptions)
pl.interactive(False)
if len(options.plotcommands) == 0:
pncview(ifile, options)
def plotsweep(d, exp, vals=None, ivar=None, globals=None, labelprefix='',
plotter=None):
interact = pyl.isinteractive()
if interact:
pyl.interactive(False)
if not vals:
vals = d.sweepvals
for v in vals:
s = d.getSweep(v)
if isinstance(exp, str):
if globals:
y = eval(exp, globals, locals())
else:
y = eval(exp)
else:
y = exp(s)
if plotter:
p = plotter
else:
p = pyl.plot
if ivar:
if isinstance(ivar, str):
if globals:
x = eval(exp, globals, locals())
else:
x = eval(exp)
else:
x = exp(s)
else:
x = s.x
p(x, y, label='%s%s=%g' % (labelprefix, s.sweepvar, s.sweepval))
pyl.interactive(interact)
pyl.legend(loc='best')
def plot_weights(model_info, pairs):
# type: (ModelInfo, List[Tuple[np.ndarray, np.ndarray]]) -> None
"""
Plot the weights returned by :func:`get_weights`.
*model_info* is
:param model_info:
:param pairs:
:return:
"""
import pylab
if any(len(values) > 1 for values, weights in pairs):
labels = [p.name for p in model_info.parameters.call_parameters]
pylab.interactive(True)
pylab.figure()
for (v, w), s in zip(pairs, labels):
if len(v) > 1:
#print("weights for", s, v, w)
pylab.plot(v, w, '-o', label=s)
pylab.grid(True)
pylab.legend()
def main():
import sys
diff = "relative"
xrange = "log"
options = [v for v in sys.argv[1:] if v.startswith('-')]
for opt in options:
if opt == '-f':
diff = "none"
elif opt == '-r':
diff = "relative"
elif opt == '-a':
diff = "absolute"
elif opt.startswith('-x'):
xrange = opt[2:]
else:
usage()
names = [v for v in sys.argv[1:] if not v.startswith('-')]
if not names:
usage()
if names[0] == "all":
cutoff = names[1] if len(names) > 1 else ""
names = list(sorted(ALL_FUNCTIONS))
names = [k for k in names if k >= cutoff]
if any(k not in FUNCTIONS for k in names):
usage()
multiple = len(names) > 1
pylab.interactive(multiple)
for k in names:
pylab.clf()
comparator = FUNCTIONS[k]
comparator.run(xrange=xrange, diff=diff)
if multiple:
raw_input()
if not multiple:
pylab.show()
def main():
import pylab as pl
from .pncparse import pncparse
ifiles, options = pncparse(has_ofile=True,
plot_options=True,
interactive=False)
if len(ifiles) != 1:
raise IOError('pncview can operate on only 1 file; user requested %d' %
len(ifiles))
ifile, = ifiles
pl.interactive(True)
for method_vars in options.plotcommands:
pieces = method_vars.split(',')
plotargs = [p for p in pieces if '=' not in p]
plotkwds = [p for p in pieces if '=' in p]
method, = plotargs[:1]
vars = plotargs[1:]
plotoptions = eval('OptionDict(outpath="%s",%s)' %
(options.outpath, ','.join(plotkwds)))
print(plotoptions.logscale)
plotwithopts(ifile, method, vars, plotoptions)
pl.interactive(False)
if len(options.plotcommands) == 0:
pncview(ifile, options)
#!/usr/bin/env python
'''
This is a scripts allowing the user to specify the path to a morphology file,
and determine the rotation angles that will rotate the apical dendrite along the
vertical z-axis. If desired, it will create a .rot-file that LFPy will
automatically use to set the default rotation alongside the morphology.
'''
#import some stuff
import pylab as pl
import LFPy
import os
#plot will pop up by itself
pl.interactive(1)
'''
Define some functions for plotting
'''
def plot_linepiece(ax, cell, i, color):
ax.plot([cell.xstart[i], cell.xend[i]], [cell.ystart[i], cell.yend[i]],
[cell.zstart[i], cell.zend[i]],
color=color,
lw=cell.diam[i])
def plot_morpho_indices(cell, new_fig=True):
from mpl_toolkits.mplot3d import Axes3D
if new_fig:
fig = pl.figure(figsize=[10, 10])
"""
i_min, i_max = np.where(mtx.mean(1))[0][[0,-1]]
P.figure(figsize=(14.5,8))
P.stem(np.arange(i_max+1-i_min),mtx[i_min:i_max+1,:].sum(1))
ttl = 'Note Frequency'
if tstr: ttl+=': '+tstr
P.title(ttl,fontsize=16)
t=P.xticks(np.arange(0,i_max+1-i_min,3),pc_labels[i_min:i_max+1:3],fontsize=14)
P.xlabel('Pitch Class', fontsize=14)
P.ylabel('Frequency', fontsize=14)
ax = P.axis()
P.axis(xmin=-0.5)
P.grid()
if __name__ == "__main__":
P.interactive(True)
a = np.loadtxt('01.ascii')
P.figure()
# Plot piano roll: MIDI pitch by beats
P.subplot(211)
plot_mtx(a, cmap=P.cm.gray_r, cbar=False)
P.axis('tight')
P.title('WTC 1 "Prelude in C": Piano Roll')
# Plot dissonance by (integrated) beats
P.subplot(212)
win_len=8 # Number of beats to integrate, non-overlapping
a = win_mtx(a, win_len)
d = dissonance_fun(a)
P.plot(np.arange(len(d))*win_len, d,'r',linewidth=1)
P.axis('tight')
rank=4,
levels=6)
N = np.sqrt(u**2 + v**2)
pl.figure()
pl.imshow(N)
pl.title('Norm of OPTIC to RADAR registration')
pl.colorbar()
Ioptique_resampled = wrapData(Ioptique, u, v)
C = np.dstack((Ioptique / 255, Iradar / 255, Ioptique / 255))
pl.figure()
pl.imshow(C)
pl.title('Imfuse of RADAR and OPTIC')
D = np.dstack(
(Ioptique_resampled / 255, Iradar / 255, Ioptique_resampled / 255))
pl.figure()
pl.imshow(D)
pl.title('Imfuse of RADAR and OPTIC after coregistration')
print("Fin recalage optique/Radar \n\n")
if __name__ == '__main__':
demo()
pl.show()
else:
pl.interactive(True)
demo()
def error_report(clf, X, y, y_scores=None, ind=None, spec_func=None):
"""Generate error report as a multi page pdf.
This functions plots the ROC curve of ``clf`` and spectrograms
for the top ``k`` false negatives, false positives, true positives,
and true negatives.
Parameters
----------
clf : BaseEstimator
A trained classifier
X : ndarray
A data array, used to generate the spectrograms (using ``spec_func``)
and optionally ``y_scores``.
"""
if y_scores is None:
if hasattr(clf, 'decision_function'):
y_scores = clf.decision_function(X)
else:
y_scores = clf.predict_proba(X)[:, 1]
if ind is None:
ind = np.arange(X.shape[0])
plt.interactive(False)
signature = hashlib.md5(repr(clf)).hexdigest()
fname = 'error_report_%s.pdf' % signature
pdf = PdfPages(fname)
# frontpage
fig = plt.figure(figsize=(8.27, 11.69))
fig.text(0.5, .9, "Error Report", horizontalalignment='center', size=20)
fig.text(0.5,
.75,
str(datetime.now()),
horizontalalignment='center',
size=12)
fig.text(0.5,
.5,
pprint.pformat(clf),
horizontalalignment='center',
size=10)
plt.savefig(pdf, format='pdf')
plt.close()
# roc curve
print('_' * 80)
print 'roc curve'
print
fig = plt.figure(figsize=(8.27, 8.27))
_plot_roc(y, y_scores, fig.gca())
plt.savefig(pdf, format='pdf')
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type='fp', k=20)
plt.savefig(pdf, format='pdf')
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type='fn', k=20)
plt.savefig(pdf, format='pdf')
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type='tp', k=20)
plt.savefig(pdf, format='pdf')
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type='tn', k=20)
plt.savefig(pdf, format='pdf')
plt.close()
pdf.close()
plt.interactive(True)
#for x in table.where('(sId == currSubId)') ]
vec = [ [x['sStart'],x['sEnd'],x['dIdent'] ] \
for x in table.where('(gi == currGi) & (sId == currSubId)') ]
print "num records = ", len(vec)
minSStart = min([r[0] for r in vec])
maxSEnd = max([r[1] for r in vec])
print "min s.start, max s.end = ", minSStart, maxSEnd
h5file.close()
####
#### Plotting
####
fig = pylab.figure(1)
ax = pylab.subplot(111)
pylab.interactive(False)
###
### Gen gradient color code
###
t0 = default_timer()
cIndex = 0
xpairs = []
ypairs = []
for i in range(0, len(vec)):
xs = vec[i][0]
xe = vec[i][1]
y = vec[i][2]
x2 = [xs, xe]
y2 = [y, y]
data = (2e-3*x + 2.0) + data
###################################################################
################ FITTING SECOND DERIVATIVE SPECTRA ################
###################################################################
intensity1 = []
position1 = []
linewidth1=[]
fits1 = []
bp = []
positions = []
second_derivative_spectra = []
x_values = []
pylab.interactive(False)
## smoothing algorithms for real data ##
#data = triangular(data,10)
#data = savitzky_golay(data,11,order=3)
## calculating the second derivative ##
x_fit1 = []
x_fit2 = []
for j in range(len(x)-1):
x_fit1.append((x[j]+x[j+1])/2)
for j in range(len(x_fit1)-1):
x_fit2.append((x_fit1[j]+x_fit1[j+1])/2)
first_der_spec = basic_num_diff(x,data)
second_der_spec = numpy.array(basic_num_diff(x_fit1,first_der_spec))
time.sleep(self.ontime)
GPIO.output("P9_24", 0)
off = time.time()
self.ot = off - wake
self.error = (self.sleeptime > (self.delay + 0.05)) or (self.ot > (self.ontime + 0.05))
self.request.clear()
def notify(self) :
# video thread calls this to ask for another LED pulse.
self.request.set()
lt = LedThread(delay=0.000, ontime=0.008)
at = AcquireThread(lt)
lt.start()
at.start()
from pylab import interactive, imshow, plot
interactive(True)
def show(img) :
"""
make an 8 bit copy of the image.
swap the red and the green pixels.
this will mess up the timing of the other threads
"""
img = clip(img,0,255)
icop = array(img, dtype=uint8)
icop[:,:,0] = img[:,:,2]
icop[:,:,2] = img[:,:,0]
imshow(icop, interpolation="nearest")
# Changing plot limits:
import pylab as plb
plb.figure(figsize=(6, 3), dpi=100)
d = plb.linspace(-plb.pi * 2, plb.pi * 2, 128, endpoint=True)
d_sin = plb.sin(d)
d_cos = plb.cos(d)
#we now set the x,y limits for the 'sin' function
plb.subplot(2, 1, 1)
plb.plot(d, d_sin, color="blue", linewidth=1.2, linestyle="-", label="sin")
plb.legend(loc="upper right")
plb.xlim(d_sin.min() * 6.5, d_sin.max() * 6.5)
plb.ylim(d_sin.min() * 1.2, d_sin.max() * 1.2)
plb.xticks([-plb.pi * 2, -plb.pi, 0, plb.pi, plb.pi * 2],
['$-2\pi$', '$-\pi$', '$0$', '$+\pi$', '$+2\pi$'])
plb.yticks([-1, 0, 1], ['$-1$', '$0$', '$+1$'])
plb.title('Plot of Sin and Cos functions')
#below we set the x,y limits for the 'cos' function
plb.subplot(2, 1, 2)
plb.plot(d, d_cos, color="red", linewidth=1, linestyle="--", label="cos")
plb.legend(loc='lower right')
plb.xlim(d_cos.min() * 6.5, d_cos.max() * 6.5)
plb.ylim(d_cos.min() * 1.2, d_cos.max() * 1.2)
plb.interactive(True)
plb.pause(10)
plb.show()
def ex_plot_cg_ppi():
pl.interactive(True)
# load a polar scan and create range and azimuth arrays accordingly
data = np.loadtxt(
os.path.dirname(__file__) + '/' + 'data/polar_dBZ_tur.gz')
r = np.arange(0, data.shape[1])
az = np.arange(0, data.shape[0])
# mask data array for better presentation
mask_ind = np.where(data <= np.nanmin(data))
data[mask_ind] = np.nan
ma = np.ma.array(data, mask=np.isnan(data))
# cgax - curvelinear grid axis
# Main axis
# caax - twin cartesian axis
# secondary axis for cartesian coordinates (plotting, labeling etc.)
# paax - polar axis for plotting
# here all plotting in polar data is done
# pm - pcolormesh
# actual plot mappable
# Remark #1:
# The tight_layout function is great, but may not lead to
# satisfactory results in the first place. So labels, annotations
# and/or axes may need adjustment
# Remark #2:
# This examples makes heavy use of new matlotlib functionality. See
# function help for more information.
#----------------------------------------------------------------
# First, creation of four simple figures
# figure #1
# the simplest call, plot cg ppi in new window
# plot simple CG PPI
wradlib.vis.plot_cg_ppi(ma, refrac=False)
t = pl.title('Simple CG PPI')
t.set_y(1.05)
pl.tight_layout()
#----------------------------------------------------------------
# figure #2
# now let's just plot a sector of data
# for this, we need to give the ranges and azimuths explicitly
# and one more than we pass on in the data, because we also may not use
# the autoext-feature, and otherwise the last row and column of our data
# would not be plotted
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma[200:250, 40:80],
r[40:81],
az[200:251],
autoext=False,
refrac=False)
t = pl.title('Sector CG PPI')
t.set_y(1.05)
pl.tight_layout()
# plot some additional polar and cartesian data
# cgax and caax plot both cartesian data
# paax plots polar data
# plot on cartesian axis
caax.plot(-60, -60, 'ro', label="caax")
caax.plot(-50, -70, 'ro')
# plot on polar axis
xx, yy = np.meshgrid(230, 90)
paax.plot(xx, yy, 'bo')
paax.plot(220, 90, 'bo', label="paax")
# plot on cg axis (same as on cartesian axis)
cgax.plot(-50, -60, 'go', label="cgax")
# legend on main cg axis
cgax.legend()
#----------------------------------------------------------------
# figure #3
# now let's plot with given range and theta arrays
# and plot some annotation and colorbar
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
r,
az,
autoext=True,
refrac=False)
t = pl.title('Decorated CG PPI')
t.set_y(1.05)
cbar = pl.gcf().colorbar(pm, pad=0.075)
caax.set_xlabel('x_range [km]')
caax.set_ylabel('y_range [km]')
pl.text(1.0,
1.05,
'azimuth',
transform=caax.transAxes,
va='bottom',
ha='right')
cbar.set_label('reflectivity [dBZ]')
pl.tight_layout()
#----------------------------------------------------------------
# figure #4
# now let's just plot a sector of data
# and plot some annotation and colorbar
# create an floating axis for range
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma[200:250, 40:80],
r[40:81],
az[200:251],
autoext=False,
refrac=False)
t = pl.title('Decorated Sector CG PPI')
t.set_y(1.05)
cbar = pl.gcf().colorbar(pm, pad=0.075)
caax.set_xlabel('x_range [km]')
caax.set_ylabel('y_range [km]')
pl.text(1.0,
1.05,
'azimuth',
transform=caax.transAxes,
va='bottom',
ha='right')
cbar.set_label('reflectivity [dBZ]')
cgax.axis["lat"] = cgax.new_floating_axis(0, 240)
cgax.axis["lat"].set_ticklabel_direction('-')
cgax.axis["lat"].label.set_text("range [km]")
cgax.axis["lat"].label.set_rotation(180)
cgax.axis["lat"].label.set_pad(10)
pl.tight_layout()
#----------------------------------------------------------------
# figure #5
# plot figure #1-4 in one figure 2x2 grid
pl.figure()
# figure #5-1
# the simplest call, plot cg ppi in new window
# plot simple CG PPI
wradlib.vis.plot_cg_ppi(ma, refrac=False, subplot=221)
t = pl.title('Simple CG PPI')
t.set_y(1.05)
pl.tight_layout()
#----------------------------------------------------------------
# figure #5-2
# now let's just plot a sector of data
# for this, we need to give the ranges and azimuths explicitly
# and one more than we pass on in the data, because we also may not use
# the autoext-feature, and otherwise the last row and column of our data
# would not be plotted
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma[200:250, 40:80],
r[40:81],
az[200:251],
autoext=False,
refrac=False,
subplot=222)
t = pl.title('Sector CG PPI')
t.set_y(1.05)
pl.tight_layout()
#----------------------------------------------------------------
# figure #5-3
# now let's plot with given range and theta arrays
# and plot some annotation and colorbar
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
r,
az,
autoext=True,
refrac=False,
subplot=223)
t = pl.title('Decorated CG PPI')
t.set_y(1.05)
cbar = pl.gcf().colorbar(pm, pad=0.075)
caax.set_xlabel('x_range [km]')
caax.set_ylabel('y_range [km]')
pl.text(1.0,
1.05,
'azimuth',
transform=caax.transAxes,
va='bottom',
ha='right')
cbar.set_label('reflectivity [dBZ]')
pl.tight_layout()
#----------------------------------------------------------------
# figure #5-4
# now let's just plot a sector of data
# and plot some annotation and colorbar
# create an floating axis for range
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma[200:250, 40:80],
r[40:81],
az[200:251],
autoext=False,
refrac=False,
subplot=224)
t = pl.title('Decorated Sector CG PPI')
t.set_y(1.05)
cbar = pl.gcf().colorbar(pm, pad=0.075)
caax.set_xlabel('x_range [km]')
caax.set_ylabel('y_range [km]')
pl.text(1.0,
1.05,
'azimuth',
transform=caax.transAxes,
va='bottom',
ha='right')
cbar.set_label('reflectivity [dBZ]')
cgax.axis["lat"] = cgax.new_floating_axis(0, 240)
cgax.axis["lat"].set_ticklabel_direction('-')
cgax.axis["lat"].label.set_text("range [km]")
cgax.axis["lat"].label.set_rotation(180)
cgax.axis["lat"].label.set_pad(10)
pl.tight_layout()
#----------------------------------------------------------------
# figure #6
# create figure with GridSpec
pl.figure()
gs = gridspec.GridSpec(5, 5)
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
refrac=False,
subplot=gs[0:3, 0:3])
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
refrac=False,
subplot=gs[0:3, 3:5])
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
refrac=False,
subplot=gs[3:5, 0:3])
cgax, caax, paax, pm = wradlib.vis.plot_cg_ppi(ma,
refrac=False,
subplot=gs[3:5, 3:5])
t = pl.gcf().suptitle('GridSpec CG Example')
pl.tight_layout()
#----------------------------------------------------------------
# figure #7
# create figure with co-located x and y-axis
# using axesgrid1 toolkit
x = np.random.randn(ma.shape[1])
y = np.random.randn(ma.shape[1])
cgax, caax, paax, cgpm = wradlib.vis.plot_cg_ppi(
ma,
refrac=False,
)
divider = make_axes_locatable(cgax)
axHistX = divider.append_axes("top", size=1.2, pad=0.1, sharex=caax)
axHistY = divider.append_axes("right", size=1.2, pad=0.1, sharey=caax)
# make some labels invisible
axHistX.xaxis.set_major_formatter(NullFormatter())
axHistY.yaxis.set_major_formatter(NullFormatter())
axHistX.hist(x)
if not pl.matplotlib.__version__ == "1.2.1":
# There is a bug in matplotlib 1.2.1,
# see https://github.com/matplotlib/matplotlib/pull/1985
axHistY.hist(y, orientation='horizontal')
else:
axHistY.text(0.5,
0.5,
"Does not work with\nmatplotlib 1.2.1",
horizontalalignment="center",
rotation=90,
fontsize=15,
color="red")
t = pl.gcf().suptitle('AxesDivider CG Example')
pl.tight_layout()
pl.show()
def maps_from_echse(conf):
"""Produces time series of rainfall maps from ECHSE input data and catchment shapefiles.
"""
# Read sub-catchment rainfall from file
fromfile = np.loadtxt(conf["f_data"], dtype="string", delimiter="\t")
if len(fromfile)==2:
rowix = 1
elif len(fromfile)>2:
rowix = slice(1,len(fromfile))
else:
raise Exception("Data file is empty: %s" % conf["f_data"])
var = fromfile[rowix,1:].astype("f4")
dtimes = fromfile[rowix,0]
dtimes = np.array([wradlib.util.iso2datetime(dtime) for dtime in dtimes])
dtimesfromconf = wradlib.util.from_to(conf["tstart"], conf["tend"], conf["interval"])
dtimes = np.intersect1d(dtimes, dtimesfromconf)
if len(dtimes)==0:
print "No datetimes for mapping based on intersection of data file and config info."
return(0)
# objects = fromfile[0,1:]
cats = plt.genfromtxt(conf["f_coords"], delimiter="\t", names=True,
dtype=[('id', '|S20'), ('lat', 'f4'), ('lon', 'f4'),
('x', 'f4'), ('y', 'f4')])
mapx, mapy = wradlib.georef.reproject(cats["x"],cats["y"],
projection_source=conf["trg_proj"],
projection_target=conf["map_proj"])
# Read shapefile
dataset, inLayer = wradlib.io.open_shape(conf["f_cats_shp"])
polys, keys = wradlib.georef.get_shape_coordinates(inLayer, key='DN')
keys = np.array(keys)
# Preprocess polygons (remove minors, sort in same order as in coords file)
polys2 = []
for i, id in enumerate(cats["id"]):
keyix = np.where( keys==eval(id.strip("cats_")) )[0]
if len(keyix) > 1:
# More than one key matching? Find largest matching polygon
keyix = keyix[np.argmax([len(polys[key]) for key in keyix])]
else:
keyix = keyix[0]
poly = polys[keyix].copy()
if poly.ndim==1:
# Multi-Polygons - keep only the largest polygon
# (just for plotting - no harm done)
poly2 = poly[np.argmax([len(subpoly) for subpoly in poly])].copy()
else:
poly2 = poly.copy()
polys2.append ( wradlib.georef.reproject(poly2,
projection_source=conf["trg_proj"],
projection_target=conf["map_proj"]) )
colors = plt.cm.spectral(np.linspace(0,1,len(conf["levels"])))
mycmap, mynorm = from_levels_and_colors(conf["levels"], colors, extend="max")
plt.interactive(False)
for i, dtime in enumerate(dtimes):
datestr = (dtime-dt.timedelta(seconds=conf["interval"])).strftime("%Y%m%d.png")
print datestr
figpath = os.path.join(conf["savefigs"], datestr)
fig = plt.figure(figsize=(6,6))
ax = fig.add_subplot(111, aspect="equal")
ax, coll = plot_cats(polys2, var[i], ax=ax, bbox=conf["bbox"], cmap=mycmap,
norm=mynorm, edgecolors='none')
cb = plt.colorbar(coll, ax=ax, ticks=conf["levels"], shrink=0.6)
cb.ax.tick_params(labelsize="small")
cb.set_label("(mm)")
plt.xlabel("Longitude")
plt.ylabel("Latitude")
plot_trmm_grid_lines(ax)
plt.text(conf["bbox"]["left"]+0.25, conf["bbox"]["top"]-0.25,
"%s\n%s to\n%s" % (conf["figtxtbody"],
(dtime-dt.timedelta(seconds=conf["interval"])).isoformat(" "),
dtime.isoformat(" ") ),
color="red", fontsize="small", verticalalignment="top")
plt.tight_layout()
plt.savefig(figpath)
plt.close()
plt.interactive(True)
def parse_and_plot_ref(runfile, spectrum_file):
fields = [('wl', 'f8'), ('gf', 'f8'), ('z', 'i'), ('istg', 'i'),
('chi', 'f8')]
ref = N.loadtxt("ref.dat", dtype=fields)
model = N.loadtxt(spectrum_file)
mylist = parse_runsynow(runfile)
numref = mylist['parms']['numref']
an = []
ai = []
for x,y,z in zip(mylist['parms']['tau1'][:numref],\
mylist['parms']['an'][:numref],\
mylist['parms']['ai'][:numref]):
if x > 0.:
an.append(y)
ai.append(z)
ions_used = [z * 100 + istg for z, istg in zip(an, ai)]
ref_ions = []
for i in xrange(N.size(ref['wl'])):
ref_ions.append(ref['z'][i] * 100 + ref['istg'][i])
ref_index = []
for ion in ions_used:
ref_index.append(ref_ions.index(ion))
pylab.interactive(True)
# One can supply an argument to AutoMinorLocator to
# specify a fixed number of minor intervals per major interval, e.g.:
# minorLocator = AutoMinorLocator(2)
# would lead to a single minor tick between major ticks.
minorLocator = AutoMinorLocator()
golden = (pylab.sqrt(5) + 1.) / 2.
figprops = dict(figsize=(8., 8. / golden),
dpi=128) # Figure properties for single and stacked plots
# figprops = dict(figsize=(16., 8./golden), dpi=128) # Figure properties for side by sides
adjustprops = dict(left=0.15,
bottom=0.1,
right=0.90,
top=0.93,
wspace=0.2,
hspace=0.2) # Subp
fig = pylab.figure(1, **figprops) # New figure
fig.clf()
fig.subplots_adjust(**adjustprops) # Tunes the subplot layout
ax1 = fig.add_subplot(1, 1, 1)
my_funcs.bold_labels(ax1)
p1, = ax1.plot(model[:, 0], model[:, 1], linewidth=2.0)
ax1.set_ylabel(r'$F_\lambda$', fontsize=14)
ax1.set_xlabel(r'$\lambda\ (\AA)$', fontsize=14)
# ax1.set_xlim([0.,60.])
# ax1.set_ylim([10.**41.4,10.**43.5])
# ax1.set_yscale('log')
# ax1.legend([p1,p2,p3,p4],['Day 10','Day 15','Day 25','Day 50'],frameon=False)
ax1.xaxis.set_minor_locator(minorLocator)
pylab.tick_params(which='both', width=2)
pylab.tick_params(which='major', length=7)
pylab.tick_params(which='minor', length=4, color='r')
#ax1.xaxis.grid(True,which='minor')
ax1.xaxis.grid(True, which='both')
wl_ref = []
f_ref = []
ymin, ymax = ax1.get_ybound()
for i in ref_index:
wl_ref.append([10. * ref['wl'][i], 10. * ref['wl'][i]])
ihelp = N.abs(model[:, 0] - 10. * ref['wl'][i]).argmin()
yhelp = model[ihelp, 1]
f_ref.append([ymin, yhelp])
for x, y in zip(wl_ref, f_ref):
ax1.plot(x, y, lw=2)
fields = [('Z','i'),('A','f8'),('Name','S13'),('sym','S4'),('MP','f8'),\
("BP",'f8'),('rho','f8'),('crust','f8'),('year','i'),\
('group','i'), ('config','S23'), ('chiion',"f8")]
# labels = N.loadtxt("periodic_table.dat",skiprows=1,delimiter=',',dtype=fields)
labels = N.genfromtxt("periodic_table.dat",
skip_header=1,
delimiter=',',
dtype=None)
syms = []
for x in labels['f3']:
syms.append(x.replace(" ", ""))
ref_Zs = []
for z in labels['f0']:
ref_Zs.append(z)
sym_indices = []
for z in an:
sym_indices.append(ref_Zs.index(z))
spect_notation = [
"I", "II", "III", "IV", "V", "VI", "VII", "VIII", "IX", "X"
]
text_labels = []
for i, j in enumerate(sym_indices):
help = syms[j] + " " + spect_notation[ai[i]]
text_labels.append(help)
for x, y, l in zip(wl_ref, f_ref, text_labels):
ax1.text(x[0], min(y[1] * 1.08, ymax), l, fontsize=8)
After retrieving the parameters for the two models, this script will plot the results.
IN: alpha11, mu11, sigma11, alpha12, mu12, sigma12
"""
alpha1 = float(argv[1])
mu1 = float(argv[2])
sigma1 = float(argv[3])
alpha2 = float(argv[4])
mu2 = float(argv[5])
sigma2 = float(argv[6])
alpha1_sqrt_pi_sigma1 = (alpha1 / (sqrt(2 * pi) * sigma1))
alpha1_sqrt_pi_sigma2 = (alpha2 / (sqrt(2 * pi) * sigma2))
time = pl.linspace(0, 30)
pl.interactive(False)
def normal_distribution(k):
length = len(k)
result = np.zeros(length)
for i in range(0, length):
result[i] = alpha1_sqrt_pi_sigma2 * (e**((-0.5) * pow(
(k[i] - mu2) / sigma2, 2)))
return result
def upside_down_normal_distribution(k):
length = len(k)
result = np.zeros(length)
for i in range(0, length):
"""
Communication with coppeliasim\n
Forked from https://github.com/dsaldana/CSE360-MobileRobotics
"""
import sim
import time
import numpy as np
from numpy import array
import pylab
from math import pi
pylab.interactive(True)
# Put these in __init__()?
sim.simxFinish(-1) # Close opened connections
clientID = sim.simxStart('127.0.0.1', 19999, True, True, 5000,
5) # Connect to CoppeliaSim
class robot():
def __init__(self, frame_name, motor_names=[], client_id=0):
# If there is an existing connection
if client_id:
self.client_id = client_id
else:
self.client_id = self.open_connection()
self.motors = self._get_handlers(motor_names)
# Robot frame
self.frame = self._get_handler(frame_name)
def fe55_gain_fitter(signals,
ccdtemp=-95,
make_plot=False,
xrange=None,
bins=100,
hist_nsig=10,
title='',
plot_filename=None,
interactive=True,
ylog=True):
"""
Function to fit the distribution of charge cluster DN values from
a Fe55 dataset. A two Gaussian model of Mn K-alpha and K-beta
lines is assumed with the ratio between the K-alpha and K-beta
energies fixed at 5.889/6.49 and the the Gaussian width of the
lines set equal.
The gain (Ne/DN), location and sigma of the K-alpha peak (in units
of DN) are returned as a tuple.
If make_plot=True, then a matplotlib plot of the distribution and
fit is displayed.
If xrange is not None, then that 2-element tuple is used as the
histogram x-range.
If xrange is None, then the histogram x-range is set to
+/- hist_nsig*clipped_stdev about the median of the signal
distribution.
"""
flags = afwMath.MEDIAN | afwMath.STDEVCLIP
try:
stats = afwMath.makeStatistics(signals.tolist(), flags)
except:
print(signals)
raise
median = stats.getValue(afwMath.MEDIAN)
stdev = stats.getValue(afwMath.STDEVCLIP)
if xrange is None:
# Set range of histogram to include both Kalpha and Kbeta peaks.
xmin = max(median - hist_nsig * stdev, 200)
xmax = min(median * 1785. / 1620. + hist_nsig * stdev, 1000)
xrange = xmin, xmax
# Save pylab interactive state.
pylab_interactive_state = pylab.isinteractive()
# Determine distribution mode and take that as the location of the
# Kalpha peak
hist = np.histogram(signals, bins=bins, range=xrange)
xpeak = hist[1][np.where(hist[0] == max(hist[0]))][0]
xrange = max(0, xpeak - 200), xpeak * 1785. / 1620. + 200
hist = np.histogram(signals, bins=bins, range=xrange)
yrange = 1, max(hist[0]) * 1.5
if make_plot:
if interactive:
pylab.ion()
else:
pylab.ioff()
# fig = pylab.figure()
# axes = fig.add_subplot(111)
win = plot.Window()
hist = pylab.hist(signals,
bins=bins,
range=xrange,
histtype='bar',
color='b',
log=ylog)
if ylog:
plot.setAxis(xrange, yrange)
else:
pylab.ioff()
# hist = np.histogram(signals, bins=bins, range=xrange)
x = (hist[1][1:] + hist[1][:-1]) / 2.
y = hist[0]
ntot = sum(y)
#
# Starting values for two Gaussian fit. The relative
# normalizations are initially set at the expected line ratio
# of K-alpha/K-beta = 0.88/0.12. The relative peak locations
# and relative widths are fixed in fe55_lines(...) above.
#
p0 = (ntot * 0.88, median, stdev / 2., ntot * 0.12)
pars, _ = scipy.optimize.curve_fit(fe55_lines, x, y, p0=p0)
kalpha_peak, kalpha_sigma = pars[1], pars[2]
fe55_yield = Fe55Yield(ccdtemp)
gain = fe55_yield.alpha()[0] / kalpha_peak
if make_plot:
pylab.xlabel('Bias Corrected Event Signal (DN)')
pylab.ylabel('Entries / bin')
xx = np.linspace(x[0], x[-1], 1000)
pylab.plot(xx, fe55_lines(xx, *pars), 'r--', markersize=3, linewidth=1)
pylab.annotate(("K-alpha peak = %i DN\n\n" + "Gain = %.2f e-/DN\n\n") %
(kalpha_peak, gain), (0.5, 0.7),
xycoords='axes fraction')
win.set_title(title)
if plot_filename is not None:
pylab.savefig(plot_filename)
# Restore pylab interactive state.
pylab.interactive(pylab_interactive_state)
return gain, kalpha_peak, kalpha_sigma
# -*- coding: utf-8 -*-
"""
Created on Thu Sep 13 09:28:40 2018
@author: geih
"""
# Initialize the model and defining default options
import numpy as np
import neuron
nrn = neuron.h
import uncertainpy as un
import pylab as plt
plt.interactive(1)
plt.show()
def create_soma(
g_l=2e-5,
e_pas=-45,
g_K=4.18e-4,
pcabar_ihva=0.2e-3,
g_SK=4e-4,
g_BK=3.13e-4,
gbar_naxm=2.19e-2,
tau_BK=3,
tau_K=5,
):
#!/usr/bin/env python
"""
This is a scripts allowing the user to specify the path to a morphology file,
and determine the rotation angles that will rotate the apical dendrite along the
vertical z-axis. If desired, it will create a .rot-file that LFPy will
automatically use to set the default rotation alongside the morphology.
"""
# import some stuff
import pylab as pl
import LFPy
import os
# plot will pop up by itself
pl.interactive(1)
"""
Define some functions for plotting
"""
def plot_linepiece(ax, cell, i, color):
ax.plot(
[cell.xstart[i], cell.xend[i]],
[cell.ystart[i], cell.yend[i]],
[cell.zstart[i], cell.zend[i]],
color=color,
lw=cell.diam[i],
)
save_bases = False
save_ws = False
debug_data = {}
cTrial=1
cStep=0
################ TRAJECTORY ANALISYS
breakCounter=0
# nTrials=2
# breaksxTrial=[np.zeros(nTrials)]
proximity6=0
# leastProximityxTrial=[np.zeros(nTrials)]
pl.ion()
pl.interactive(True)
# fig=pl.figure(figsize=(10,6))
# pl.subplots_adjust(hspace=.7)
# pl.subplot(1,1,1)
# # pl.title("Breaks per Trial")
# line1, = pl.plot(np.arange(0,nTrials),'*')
# pl.xlim([0,nTrials])
# pl.ylim([0,100])
# pl.subplot(2,1,2)
# pl.title("IR izquierdo")
# line2, = pl.plot(np.arange(0,nTrials))
#Saving first CS-US
CS_US_1 = {}
Inspired from opencv_source_code/samples/python2/lk_track.py
-----
Author : Romain Trachel <*****@*****.**>
Date : 02/19/2015
'''
import numpy as np
import cv2
import time
from scipy import interpolate, signal, fftpack, optimize
from sklearn.decomposition import PCA
import pylab as plt
plt.interactive(True)
# hard coded parameters (beark... some of them need to be passed into init)
# parameters of the Lucas-Kanade optical flow algorithm
lk_params = dict( winSize = (35, 35),
maxLevel = 2,
criteria = (cv2.TERM_CRITERIA_EPS | cv2.TERM_CRITERIA_COUNT, 10, 0.03))
# parameters of the feature tracking algorithm
feature_params = dict(maxCorners = 500,
qualityLevel = 0.35, # decrease sensitivity
minDistance = 7,
blockSize = 7 )
# parameters of the face tracking algorithm
face_params = dict(scaleFactor=1.1,
def plot(self,
xrange=None,
interactive=False,
bins=100,
win=None,
subplot=(1, 1, 1),
figsize=None,
add_labels=False,
frameLabels=False,
amp=1,
title=''):
pylab_interactive_state = pylab.isinteractive()
pylab.interactive(interactive)
if win is None:
if frameLabels:
xlabel = 'Bias Corrected Event Signal (DN)'
ylabel = 'Entries / bin'
else:
xlabel, ylabel = None, None
win = plot.Window(subplot=subplot,
figsize=figsize,
xlabel=xlabel,
ylabel=ylabel,
size='large')
else:
win.select_subplot(*subplot)
if frameLabels:
bbox = win.axes[-1].get_position()
points = bbox.get_points()
points[0] += 0.025
points[1] += 0.025
bbox.set_points(points)
win.axes[-1].set_position(bbox)
if xrange is not None:
self.xrange = xrange
logscale = True
if max(self.signals) <= 0:
logscale = False
try:
hist = pylab.hist(self.signals,
bins=bins,
range=self.xrange,
histtype='bar',
color='b',
log=logscale)
yrange = 1, max(hist[0]) * 1.5
plot.setAxis(self.xrange, yrange)
except:
return win
if add_labels:
pylab.xlabel('Bias Corrected Event Signal (DN)')
pylab.ylabel('Entries / bin')
x = (hist[1][1:] + hist[1][:-1]) / 2.
xx = np.linspace(x[0], x[-1], 1000)
pylab.plot(xx,
fe55_lines(xx, *self.pars),
'r--',
markersize=3,
linewidth=1)
pylab.annotate(("Amp %i\nGain=%.2f e-/DN") % (amp, self.gain),
(0.475, 0.8),
xycoords='axes fraction',
size='x-small')
pylab.interactive(pylab_interactive_state)
return win
#!/usr/bin/env pytho
import sys,os,re
import pylab as p
p.interactive(True)
def mm_array(x,y):
return p.array([x,y])/1000.0
def twoDang(ang ):
if isinstance(ang,p.ndarray): ang = p.arctan2(ang[1],ang[0])
return ang
def hypleg(x,y=None):
if y is None and isinstance(x,p.ndarray): x,y=x
return p.sqrt(p.fabs(p.norm(x)**2-p.norm(y)**2))
def twoDmag_ang(mag,ang):
mag = p.norm(mag)
ang = twoDang(ang)
return p.array([mag*p.cos(ang),mag*p.sin(ang)])
def propkin( pp ):
pa = p.array([p.array(x) for x in pp])
ppt = [p.sum(pa[:i+1],0) for i in range(len(pa))]
pxy = p.array(zip(*ppt))
#print pxy
return pxy
Global plots for the LSST white paper.
"""
import os
import os.path as op
import logging
logging.basicConfig(format='%(asctime)s %(levelname)s %(message)s',
level=logging.DEBUG)
from exceptions import ValueError
from argparse import ArgumentParser
import numpy as np
import matplotlib
matplotlib.use('Agg')
import pylab as pl
pl.interactive(0)
import healpy as hp
from saunerie import psf
#CADENCE_FILES = ['alt_sched.npy', 'alt_sched_rolling.npy', 'feature_baseline_10yrs.npy',
# 'feature_rolling_half_mask_10yrs.npy', 'feature_rolling_twoThird_10yrs.npy',
# 'minion_1016.npy']
#CADENCE_SHORT_NAMES = ['AltSched', 'AltSchedRolling', 'FeatureBaseline',
# 'FeatureRolling1/2', 'FeatureRolling2/3',
# 'Minion']
def _savefig(fig, filename):
dirname = op.dirname(filename)
if not op.isdir(dirname):
def __init__(self,x,y,xcen,ycen,d=100e-3,mask=None,gainImg=None,darkImg=None,tx=0,ty=0, qbin=5e-3,lam=1,\
ADU_per_photon = 1.,Pplane=0,phibin=0.1,phiBins=1,img=None,verbose=0,report_file=None):
"""
correctedImage = (Image-darkImg)/gainImg/geom_correction/pol_correction
x,y = pixel coordinate (1D array each); note: they should be the center of the pixels
xcen,ycen = center beam position
tx,ty = angle of detector normal with respect to incoming beam (in deg)
zeros are for perpendicular configuration
darkImg = darkImage to subbract
ADU_per_photon : used to estimate errors
qbin = rebinning q
phibin = bin in azimuthal angle (used for polar plot
Pplane = Polarization (1 = horizontal, 0 = vertical)
d = distance of center of detector to sample (in m)
lam = wavelength in Ang
img is used only for displaying corrections
"""
# save parameters for later use
self.gainImg=gainImg
self.darkImg=darkImg
if mask is not None: mask = np.asarray(mask,dtype=np.bool)
self.mask=mask
self.verbose=verbose
self.ADU_per_photon=ADU_per_photon
tx = np.deg2rad(tx)
ty = np.deg2rad(ty)
xcen = float(xcen)
ycen = float(ycen)
# equations based on J Chem Phys 113, 9140 (2000) [logbook D30580, pag 71]
(A,B,C) = (-np.sin(ty)*np.cos(tx),-np.sin(tx),-np.cos(ty)*np.cos(tx))
(a,b,c) = (xcen+d*np.tan(ty),float(ycen)-d*np.tan(tx),d)
self.xcen = xcen
self.ycen = ycen
mshape = x.shape
r = np.sqrt( (x-a)**2+(y-b)**2+c**2)
self.r = r
self.d = d
self.msg("calculating theta...",cr=0)
matrix_theta = np.arccos( (A*(x-a)+B*(y-b)-C*c )/r )
self.matrix_theta = matrix_theta
self.msg("...done")
self.msg("calculating phi...",cr=0)
matrix_phi = np.arccos( ((A**2+C**2)*(y-b)-A*B*(x-a)+B*C*c )/ \
np.sqrt((A**2+C**2)*(r**2-(A*(x-a)+B*(y-b)-C*c)**2)))
idx = (y>ycen) & (np.isnan(matrix_phi))
matrix_phi[idx] = 0
idx = (y<ycen) & (np.isnan(matrix_phi))
matrix_phi[idx] = np.pi
idx = (x<xcen)
matrix_phi[idx] = (np.pi-matrix_phi[idx])+np.pi
# matrix_phi[idx] = temp+n.pi
self.matrix_phi = matrix_phi
self.msg("...done")
self.msg("calculating pol matrix...",cr=0)
Pout = 1-Pplane
pol = Pout*(1-(np.sin(matrix_phi)*np.sin(matrix_theta))**2)+\
Pplane*(1-(np.cos(matrix_phi)*np.sin(matrix_theta))**2)
self.msg("... done")
self.pol=pol
theta_max = np.nanmax(matrix_theta[~mask])
self.msg("calculating digitize")
self.nphi = phiBins
#if phiBins > 1:
phiint = 2*np.pi/phiBins
pbm = self.matrix_phi + phiint/2
pbm[pbm>=2*np.pi] -= 2*np.pi
self.phiVec = np.linspace(0,2*np.pi+np.spacing(np.min(pbm)),phiBins+1)
self.idxphi = np.digitize(pbm.ravel(),self.phiVec)-1
self.matrix_q = 4*np.pi/lam*np.sin(self.matrix_theta/2)
q_max = np.nanmax(self.matrix_q[~mask])
qbin = np.array(qbin)
if qbin.size==1:
self.qbins = np.arange(0,q_max+qbin,qbin)
else:
self.qbins = qbin
self.q = (self.qbins[0:-1]+self.qbins[1:])/2
self.theta = 2*np.arcsin(self.q*lam/4/np.pi)
self.nq = self.q.size
self.idxq = np.digitize(self.matrix_q.ravel(),self.qbins)-1
last_idx = self.idxq.max()
self.idxq[mask.ravel()] = 0; # send the masked ones in the first bin
# 2D binning!
self.Cake_idxs = np.ravel_multi_index((self.idxphi,self.idxq),(self.nphi,self.nq))
self.Cake_idxs[mask.ravel()] = 0; # send the masked ones in the first bin
#print "last index",last_idx
self.msg("...done")
#self.phi = np.arange(0,2*np.pi+phibin,phibin)+phibin/2
self.phi = self.phiVec[:-1]
# include geometrical corrections
geom = (d/r) ; # pixels are not perpendicular to scattered beam
geom *= (d/r**2); # scattered radiation is proportional to 1/r^2
self.msg("calculating normalization...",cr=0)
self.geom = geom
self.geom /= self.geom.max()
self.correction = self.geom*self.pol
self.Npixel = np.bincount(self.idxq,minlength=self.nq); self.Npixel = self.Npixel[:self.nq]
self.norm = self.Npixel
self.Cake_Npixel = np.bincount(self.Cake_idxs,minlength=self.nq*self.nphi)
#self.Cake_Npixel = self.Npixel[:self.nq*self.nphi]
self.Cake_norm=np.reshape(self.Cake_Npixel,(self.nphi,self.nq));#/self.correction1D
#self.correction1D =self.correction1D[:self.nq]/self.Npixel
self.header = "# Parameters for data reduction\n"
self.header += "# xcen,ycen = %.2f m %.2f m\n" % (xcen,ycen)
self.header += "# sample det distance = %.4f m\n" % (d)
self.header += "# wavelength = %.4f Ang\n" % (lam)
self.header += "# detector angles x,y = %.3f,%.3f deg\n" % (np.rad2deg(tx),np.rad2deg(ty))
self.header += "# fraction of inplane pol %.3f\n" % (Pplane)
if isinstance(qbin,float):
self.header += "# q binning : %.3f Ang-1\n" % (qbin)
return
if report_file is None:
return
else:
# prepare report
if (img is None): img=np.ones_like(mask)
plt.interactive(0)
plt.figure(figsize=(8*2, 6*2),dpi=150)
plt.subplot("231",title="Polarization")
plt.imshow(self.pol)
plt.colorbar()
plt.subplot("232",title="Geometrical")
plt.imshow(self.geom)
plt.colorbar()
plt.subplot("233",title="Geometrical+Pol")
plt.imshow(self.correction)
plt.colorbar()
plt.subplot("234",title="Raw image")
plt.imshow(img*mask)
plt.colorbar()
plt.subplot("235",title="Corrected image")
plt.imshow(img/self.correction*mask)
plt.colorbar()
# plt.show()
if (report_file == "auto"):
report_file="azimuthal_averaging_info.png"
plt.savefig(report_file)
self.msg("...done")
def toggle_interactive(self):
pylab.interactive(not pylab.isinteractive())
def error_report(clf, X, y, y_scores=None, ind=None, spec_func=None):
"""Generate error report as a multi page pdf.
This functions plots the ROC curve of ``clf`` and spectrograms
for the top ``k`` false negatives, false positives, true positives,
and true negatives.
Parameters
----------
clf : BaseEstimator
A trained classifier
X : ndarray
A data array, used to generate the spectrograms (using ``spec_func``)
and optionally ``y_scores``.
"""
if y_scores is None:
if hasattr(clf, "decision_function"):
y_scores = clf.decision_function(X)
else:
y_scores = clf.predict_proba(X)[:, 1]
if ind is None:
ind = np.arange(X.shape[0])
plt.interactive(False)
signature = hashlib.md5(repr(clf)).hexdigest()
fname = "error_report_%s.pdf" % signature
pdf = PdfPages(fname)
# frontpage
fig = plt.figure(figsize=(8.27, 11.69))
fig.text(0.5, 0.9, "Error Report", horizontalalignment="center", size=20)
fig.text(0.5, 0.75, str(datetime.now()), horizontalalignment="center", size=12)
fig.text(0.5, 0.5, pprint.pformat(clf), horizontalalignment="center", size=10)
plt.savefig(pdf, format="pdf")
plt.close()
# roc curve
print ("_" * 80)
print "roc curve"
print
fig = plt.figure(figsize=(8.27, 8.27))
_plot_roc(y, y_scores, fig.gca())
plt.savefig(pdf, format="pdf")
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type="fp", k=20)
plt.savefig(pdf, format="pdf")
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type="fn", k=20)
plt.savefig(pdf, format="pdf")
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type="tp", k=20)
plt.savefig(pdf, format="pdf")
plt.close()
fig = plt.figure(figsize=(8.27, 8.27))
_plot_errors(X, ind, y, y_scores, pdf, spec_func=None, type="tn", k=20)
plt.savefig(pdf, format="pdf")
plt.close()
pdf.close()
plt.interactive(True)
#!/usr/bin/python3
import serial
import contextlib
import numpy
import pylab
import struct
import threading
HEADER = b"-=-=-=-=\r\n"
FIELD_DELIMITER = ','
FIELD_DEF_DELIMITER = ':'
DATAPOINTS = 20000 # number of datapoints on graph
pylab.interactive(True)
colors = iter('rgbcmyk')
class Field(object):
def __init__(self, field_def, parent):
self.name, self.fmt, self._type = field_def.split(FIELD_DEF_DELIMITER)
self.size = struct.calcsize(self.fmt)
self.parent = parent
self.overflow_count = 0
self.last_value = 0
self.line = None # set in create_series (need to clean this up)
self.create_series()
@property
def max_value(self):
# does not take signed into account, because rollover doesn't make sense
# -*- coding: utf-8 -*-
"""
Created on Sun Jun 12 14:28:55 2016
@author: ericgrimson
"""
import pylab as plt
plt.interactive(False)
def retire(monthly, rate, terms):
savings = [0]
base = [0]
monthlyRate = rate / 12
for i in range(terms):
base += [i]
savings += [savings[-1] * (1 + monthlyRate) + monthly]
return base, savings
def displayRetirementWithMonthlies(monthlies, rate, terms):
plt.figure('retireMonth')
plt.clf()
for monthly in monthlies:
xvals, yvals = retire(monthly, rate, terms)
plt.plot(xvals, yvals, label='retire:' + str(monthly))
plt.legend(loc='upper left')
def test_smoke():
import pylab as pl
pl.interactive(False)
meat = pd.read_csv(os.path.join(os.path.dirname(os.path.abspath(__file__)),
'..', 'exampledata', 'meat.csv'))
meat['date'] = pd.to_datetime(meat.date)
df = pd.DataFrame({
"x": np.arange(0, 100),
"y": np.arange(0, 100),
"z": np.arange(0, 100)
})
df['cat'] = np.where(df.x*2 > 50, 'blah', 'blue')
df['cat'] = np.where(df.y > 50, 'hello', df.cat)
df['cat2'] = np.where(df.y < 15, 'one', 'two')
df['y'] = np.sin(df.y)
gg = ggplot(aes(x="x", y="z", color="cat", alpha=0.2), data=df)
gg = ggplot(aes(x="x", color="c"), data=pd.DataFrame({"x": np.random.normal(0, 1, 10000), "c": ["blue" if i%2==0 else "red" for i in range(10000)]}))
#print gg + geom_density() + xlab("x label") + ylab("y label")
gg = ggplot(aes(x="x", y="y", shape="cat2", color="cat"), data=df)
#print gg + geom_point() + facet_wrap(x="cat", y="cat2")
#print gg + geom_point() + facet_wrap(y="cat2") + ggtitle("My Single Facet")
#print gg + stat_smooth(color="blue") + ggtitle("My Smoothed Chart")
#print gg + geom_hist() + ggtitle("My Histogram")
#print gg + geom_point() + geom_vline(x=50, ymin=-10, ymax=10)
#print gg + geom_point() + geom_hline(y=50, xmin=-10, xmax=10)
df['z'] = df['y'] + 100
gg = ggplot(aes(x='x', ymax='y', ymin='z'), data=df)
#print gg + geom_bar() + facet_wrap(x="cat2")
#print gg + geom_area() + facet_wrap(x="cat2")
gg = ggplot(aes(x='x', ymax='y', ymin='z', color="cat2"), data=df)
#print gg + geom_area()
df['x'] = np.random.randint(0, 10, 100)
df['y'] = np.random.randint(0, 10, 100)
gg = ggplot(aes(x='x', y='y', shape='cat', color='cat2'), data=df)
#print df.head()
#print gg + geom_point()
#print gg + stat_bin2d()
#print ggplot(aes(x='mpg', fill=True, alpha=0.3), data=mtcars) + \
# geom_density()
#plt.show(block=True)
#p = ggplot(mtcars, aes(x='wt', y='mpg', colour='factor(cyl)', size='mpg', linetype='factor(cyl)'))
#print p + geom_line() + geom_point()
# p + geom_point() + geom_line(color='lightblue') + ggtitle("Beef: It's What's for Dinner") + xlab("Date") + ylab("Head of Cattle Slaughtered")
meat_lng = pd.melt(meat[['date', 'beef', 'broilers', 'pork']], id_vars=['date'])
meat_lng = pd.melt(meat, id_vars=['date'])
p = ggplot(aes(x='date', y='value', colour='variable', fill=True, alpha=0.3), data=meat_lng)
#print p + geom_density() + facet_wrap("variable")
#print(p + geom_line() + facet_wrap("variable"))
plt.show(1)
# ggsave(p + geom_density(), "densityplot.png")
p = ggplot(aes(x="date", y="value", colour="variable", shape="variable"), meat_lng)
#print p + geom_point() + facet_grid(y="variable")
p = p + stat_smooth(se=False) + geom_point()
p = ggplot(aes(x='date', y='beef'), data=meat)
# print p + geom_point() + stat_smooth(se=True)
#p = ggplot(aes(x='x', y='y', colour='z'), data=diamonds.head(4))
#print p + geom_point() + \
# scale_colour_gradient(low="white", high="red") + \
# facet_wrap("cut")
#plt.show(block=True)
#p = ggplot(aes(x='x', y='y', colour='z'), data=diamonds.head(1000))
#print p + geom_point() + \
# scale_colour_gradient(low="white", high="red") + \
# facet_grid("cut", "clarity")
#plt.show(block=True)
#p = ggplot(aes(x='date', y='beef'), data=meat)
#print p + geom_point() + scale_x_continuous("This is the X") + scale_y_continuous("Squared", limits=[0, 1500])
#print p + geom_point() + ylim(0, 1500)
#gg = ggplot(aes(x='date', y='beef'), data=meat)
#print gg + stat_smooth(se=True)
#print ggplot(aes(x='date', y='beef'), data=meat) + geom_line() + \
# scale_x_date(labels="%Y-%m-%d")
#plt.show(block=True)
#p = ggplot(aes(x='carat'), data=diamonds)
#print p + geom_now_its_art()
#print p + geom_density() + facet_grid("cut", "clarity")
#plt.show(block=True)
p = ggplot(aes(x='factor(cyl)'), data=mtcars)
#print(p + geom_bar())
plt.show(block=True)
#ggsave(p + geom_bar(), "public/img/mtcars_geom_bar_cyl.png")
p = ggplot(aes(x='date_hour', y='pageviews'), data=pageviews)
#print(p + geom_point())
plt.show(1)
"""
i_min, i_max = np.where(mtx.mean(1))[0][[0,-1]]
P.figure(figsize=(14.5,8))
P.stem(np.arange(i_max+1-i_min),mtx[i_min:i_max+1,:].sum(1))
ttl = 'Note Frequency'
if tstr: ttl+=': '+tstr
P.title(ttl,fontsize=16)
t=P.xticks(np.arange(0,i_max+1-i_min,3),pc_labels[i_min:i_max+1:3],fontsize=14)
P.xlabel('Pitch Class', fontsize=14)
P.ylabel('Frequency', fontsize=14)
ax = P.axis()
P.axis(xmin=-0.5)
P.grid()
if __name__ == "__main__":
P.interactive(True)
a = np.loadtxt('01.ascii')
P.figure()
# Plot piano roll: MIDI pitch by beats
P.subplot(211)
plot_mtx(a, cmap=P.cm.gray_r, cbar=False)
P.axis('tight')
P.title('WTC 1 "Prelude in C": Piano Roll')
# Plot dissonance by (integrated) beats
P.subplot(212)
win_len=8 # Number of beats to integrate, non-overlapping
a = win_mtx(a, win_len)
d = dissonance_fun(a)
P.plot(np.arange(len(d))*win_len, d,'r',linewidth=1)
P.axis('tight')
import serial
import pylab as py
import numpy as np
serialPort = '/dev/ttyUSB0'
baudRate = 9600
fPath = 'output.csv'
py.interactive(True)
outFile = open(fPath, 'w')
ser = serial.Serial(serialPort, baudRate)
data = []
number = np.array(range(0, 1000))
i = 0
while True:
i += 1
line = ser.readline()
try:
line = line.decode()
except UnicodeDecodeError:
print "decode", line
continue
#outFile.write(line)
try:
#line=int(line)
data.append(int(line))
if int(line) > 500: print line
except ValueError:
print line
continue
from __future__ import division
from scipy.stats import norm
from neuron import h, load_mechanisms
from numpy import trapz
import matplotlib.pyplot as plt
cvode = h.CVode()
cvode.active(1)
#cvode.maxstep(0.2)
h.load_file('stdlib.hoc')
import pylab
pylab.interactive(1)
import matplotlib.cm as cm
celsius = 36.0 # temperature
Epas = -70.6 # reversal potential for leakage current
## SELECT MORPHOLOGY
h("forall delete_section()")
h("sec_counted=0")
h.load_file(1,"Morf_default.hoc") # Default, from Halnes2011
h.load_file(1,"fixnseg.hoc") # Segmentize (technicality)
######################################################################
def test():
rall = 113 # axial resistance
cap = 1.1 # membrane capacitance
Rm = 45000.0 # membrane resistance
## INSERT ION CHANNELS:
for sec in h.allsec():
sec.insert("pas")
sec.e_pas = Epas
def time_series_intercomparison(conf_imd4, conf_gages, conf_trmm, conf_trmm_rt):
"""
"""
tstart = dt.datetime.strptime("2001-04-01 00:00:00", "%Y-%m-%d %H:%M:%S")
tend = dt.datetime.strptime("2010-12-30 00:00:00", "%Y-%m-%d %H:%M:%S")
dtimes_imd4, _, imd4 = tl.echse.read_echse_data_file(conf_imd4["f_data"])
dtimes_trmm, _, trmm = tl.echse.read_echse_data_file(conf_trmm["f_data"])
dtimes_trmmrt, _, trmmrt = tl.echse.read_echse_data_file(conf_trmm_rt["f_data"])
dtimes_gage, _, gage = tl.echse.read_echse_data_file(conf_gages["f_data"])
ix_imd4 = (dtimes_imd4 >= tstart) & (dtimes_imd4 <tend)
ix_trmm = (dtimes_trmm >= tstart) & (dtimes_trmm <tend)
ix_trmmrt = (dtimes_trmmrt >= tstart) & (dtimes_trmmrt <tend)
ix_gage = (dtimes_gage >= tstart) & (dtimes_gage <tend)
lim = (0,300)
txt = "Daily rainfall\nSubcatchment average\n%s to %s" % (tstart.strftime("%Y-%m-%d"),tend.strftime("%Y-%m-%d"))
kwargs = {"edgecolor":"None", "alpha":0.05}
plt.interactive(False)
fig = plt.figure(figsize=(8,8))
ax = fig.add_subplot(221, aspect="equal")
corr = "\nR=%.2f" % pearsonr(gage[ix_gage,:].ravel(), trmm[ix_trmm,:].ravel())[0]
tl.vis.simple_scatter(gage[ix_gage,:], trmm[ix_trmm,:], "GAGE (mm)", "TRMM (mm)", lim, txt="GAGE vs. TRMM\n"+txt+corr, **kwargs )
ax = fig.add_subplot(222, aspect="equal")
corr = "\nR=%.2f" % pearsonr(imd4[ix_imd4,:].ravel(), trmm[ix_trmm,:].ravel())[0]
tl.vis.simple_scatter(imd4[ix_imd4,:], trmm[ix_trmm,:], "IMD4 (mm)", "TRMM (mm)", lim, txt="IMD4 vs. TRMM\n"+txt+corr, **kwargs)
ax = fig.add_subplot(223, aspect="equal")
corr = "\nR=%.2f" % pearsonr(gage[ix_gage,:].ravel(), imd4[ix_imd4,:].ravel())[0]
tl.vis.simple_scatter(gage[ix_gage,:], imd4[ix_imd4,:], "GAGE (mm)", "IMD4 (mm)", lim, txt="GAGE vs. IMD4\n"+txt+corr, **kwargs)
ax = fig.add_subplot(224, aspect="equal")
corr = "\nR=%.2f" % pearsonr(trmm[ix_trmm,:].ravel(), trmmrt[ix_trmmrt,:].ravel())[0]
tl.vis.simple_scatter(trmm[ix_trmm,:], trmmrt[ix_trmmrt,:], "TRMM (mm)", "TRMM RT (mm)", lim, txt="TRMM vs. TRMM RT\n"+txt+corr, **kwargs)
plt.tight_layout()
plt.savefig("P:/progress/mahanadi/_qpe/inter_product_scatter.png")
plt.interactive(True)
plt.figure(figsize=(12,12))
plt.subplot(311)
plt.plot(dtimes_imd4[ix_imd4], medfilt( np.mean(imd4[ix_imd4,:],axis=1), 1 ), color="black", label="IMD4" )
plt.plot(dtimes_gage[ix_gage], medfilt( np.mean(gage[ix_gage,:],axis=1), 1 ), color="green", label="GAGE", alpha=0.7 )
plt.plot(dtimes_trmm[ix_trmm], medfilt( np.mean(trmm[ix_trmm,:],axis=1), 1 ), color="red", label="TRMM", alpha=0.5 )
plt.plot(dtimes_trmmrt[ix_trmmrt], medfilt( np.mean(trmmrt[ix_trmmrt,:],axis=1), 1 ), color="blue", label="TRMM RT", alpha=0.5 )
plt.xlabel("Year")
plt.ylabel("Daily rainfall (mm)")
plt.title("Unsmoothed")
plt.legend()
plt.subplot(312)
plt.plot(dtimes_imd4[ix_imd4], medfilt( np.mean(imd4[ix_imd4,:],axis=1), 31 ), color="black", label="IMD4" )
plt.plot(dtimes_gage[ix_gage], medfilt( np.mean(gage[ix_gage,:],axis=1), 31 ), color="green", label="GAGE", alpha=0.7 )
plt.plot(dtimes_trmm[ix_trmm], medfilt( np.mean(trmm[ix_trmm,:],axis=1), 31 ), color="red", label="TRMM", alpha=0.5 )
plt.plot(dtimes_trmmrt[ix_trmmrt], medfilt( np.mean(trmmrt[ix_trmmrt,:],axis=1), 31 ), color="blue", label="TRMM RT", alpha=0.5 )
plt.xlabel("Year")
plt.ylabel("Daily rainfall (mm)")
plt.title("Smoothed with 31 day median filter")
plt.subplot(313)
plt.plot(dtimes_imd4[ix_imd4], medfilt( np.mean(imd4[ix_imd4,:],axis=1), 91 ), color="black", label="IMD4" )
plt.plot(dtimes_gage[ix_gage], medfilt( np.mean(gage[ix_gage,:],axis=1), 91 ), color="green", label="GAGE", alpha=0.7 )
plt.plot(dtimes_trmm[ix_trmm], medfilt( np.mean(trmm[ix_trmm,:],axis=1), 91 ), color="red", label="TRMM", alpha=0.5 )
plt.plot(dtimes_trmmrt[ix_trmmrt], medfilt( np.mean(trmmrt[ix_trmmrt,:],axis=1), 91 ), color="blue", label="TRMM RT", alpha=0.5 )
plt.xlabel("Year")
plt.title("Smoothed with 91 day median filter")
plt.tight_layout()
plt.savefig("P:/progress/mahanadi/_qpe/inter_product_timeseries.png")
def test_smoke():
import pylab as pl
pl.interactive(False)
meat = pd.read_csv(
os.path.join(os.path.dirname(os.path.abspath(__file__)), '..',
'exampledata', 'meat.csv'))
meat['date'] = pd.to_datetime(meat.date)
df = pd.DataFrame({
"x": np.arange(0, 100),
"y": np.arange(0, 100),
"z": np.arange(0, 100)
})
df['cat'] = np.where(df.x * 2 > 50, 'blah', 'blue')
df['cat'] = np.where(df.y > 50, 'hello', df.cat)
df['cat2'] = np.where(df.y < 15, 'one', 'two')
df['y'] = np.sin(df.y)
gg = ggplot(aes(x="x", y="z", color="cat", alpha=0.2), data=df)
gg = ggplot(aes(x="x", color="c"),
data=pd.DataFrame({
"x":
np.random.normal(0, 1, 10000),
"c":
["blue" if i % 2 == 0 else "red" for i in range(10000)]
}))
#print gg + geom_density() + xlab("x label") + ylab("y label")
gg = ggplot(aes(x="x", y="y", shape="cat2", color="cat"), data=df)
#print gg + geom_point() + facet_wrap(x="cat", y="cat2")
#print gg + geom_point() + facet_wrap(y="cat2") + ggtitle("My Single Facet")
#print gg + stat_smooth(color="blue") + ggtitle("My Smoothed Chart")
#print gg + geom_hist() + ggtitle("My Histogram")
#print gg + geom_point() + geom_vline(x=50, ymin=-10, ymax=10)
#print gg + geom_point() + geom_hline(y=50, xmin=-10, xmax=10)
df['z'] = df['y'] + 100
gg = ggplot(aes(x='x', ymax='y', ymin='z'), data=df)
#print gg + geom_bar() + facet_wrap(x="cat2")
#print gg + geom_area() + facet_wrap(x="cat2")
gg = ggplot(aes(x='x', ymax='y', ymin='z', color="cat2"), data=df)
#print gg + geom_area()
df['x'] = np.random.randint(0, 10, 100)
df['y'] = np.random.randint(0, 10, 100)
gg = ggplot(aes(x='x', y='y', shape='cat', color='cat2'), data=df)
#print df.head()
#print gg + geom_point()
#print gg + stat_bin2d()
#print ggplot(aes(x='mpg', fill=True, alpha=0.3), data=mtcars) + \
# geom_density()
#plt.show(block=True)
#p = ggplot(mtcars, aes(x='wt', y='mpg', colour='factor(cyl)', size='mpg', linetype='factor(cyl)'))
#print p + geom_line() + geom_point()
# p + geom_point() + geom_line(color='lightblue') + ggtitle("Beef: It's What's for Dinner") + xlab("Date") + ylab("Head of Cattle Slaughtered")
meat_lng = pd.melt(meat[['date', 'beef', 'broilers', 'pork']],
id_vars=['date'])
meat_lng = pd.melt(meat, id_vars=['date'])
p = ggplot(aes(x='date',
y='value',
colour='variable',
fill=True,
alpha=0.3),
data=meat_lng)
#print p + geom_density() + facet_wrap("variable")
#print(p + geom_line() + facet_wrap("variable"))
plt.show(1)
# ggsave(p + geom_density(), "densityplot.png")
p = ggplot(aes(x="date", y="value", colour="variable", shape="variable"),
meat_lng)
#print p + geom_point() + facet_grid(y="variable")
p = p + stat_smooth(se=False) + geom_point()
p = ggplot(aes(x='date', y='beef'), data=meat)
# print p + geom_point() + stat_smooth(se=True)
#p = ggplot(aes(x='x', y='y', colour='z'), data=diamonds.head(4))
#print p + geom_point() + \
# scale_colour_gradient(low="white", high="red") + \
# facet_wrap("cut")
#plt.show(block=True)
#p = ggplot(aes(x='x', y='y', colour='z'), data=diamonds.head(1000))
#print p + geom_point() + \
# scale_colour_gradient(low="white", high="red") + \
# facet_grid("cut", "clarity")
#plt.show(block=True)
#p = ggplot(aes(x='date', y='beef'), data=meat)
#print p + geom_point() + scale_x_continuous("This is the X") + scale_y_continuous("Squared", limits=[0, 1500])
#print p + geom_point() + ylim(0, 1500)
#gg = ggplot(aes(x='date', y='beef'), data=meat)
#print gg + stat_smooth(se=True)
#print ggplot(aes(x='date', y='beef'), data=meat) + geom_line() + \
# scale_x_date(labels="%Y-%m-%d")
#plt.show(block=True)
#p = ggplot(aes(x='carat'), data=diamonds)
#print p + geom_now_its_art()
#print p + geom_density() + facet_grid("cut", "clarity")
#plt.show(block=True)
p = ggplot(aes(x='factor(cyl)'), data=mtcars)
#print(p + geom_bar())
plt.show(block=True)
#ggsave(p + geom_bar(), "public/img/mtcars_geom_bar_cyl.png")
p = ggplot(aes(x='date_hour', y='pageviews'), data=pageviews)
#print(p + geom_point())
plt.show(1)
#/usr/bin/env python # -*-coding:utf-8 -*- from mpl_toolkits.mplot3d import Axes3D from mpl_toolkits.mplot3d.art3d import Poly3DCollection import numpy as np from pylab import interactive from matplotlib.patches import FancyArrowPatch from scipy.optimize import fmin as simplex from numpy import linalg as LA import math interactive(True)
