Small extension to plot2d

master
Per.Andreas.Brodtkorb 14 years ago
parent 53e054bffe
commit 2a35ffa2b2

@ -70,10 +70,10 @@ class WafoData(object):
self.date = now()
self.plotter = kwds.pop('plotter', None)
self.children = None
self.plot_args_children = kwds.pop('plot_args_children',[])
self.plot_kwds_children = kwds.pop('plot_kwds_children',{})
self.plot_args = kwds.pop('plot_args',[])
self.plot_kwds = kwds.pop('plot_kwds',{})
self.plot_args_children = kwds.pop('plot_args_children', [])
self.plot_kwds_children = kwds.pop('plot_kwds_children', {})
self.plot_args = kwds.pop('plot_args', [])
self.plot_kwds = kwds.pop('plot_kwds', {})
self.labels = AxisLabels(**kwds)
if not self.plotter:
@ -199,60 +199,60 @@ class Plotter_1d(object):
x = wdata.args
data = transformdata(x, wdata.data, plotflag)
dataCI = ()
h1 = plot1d(x,data, dataCI, plotflag, *args, **kwds)
h1 = plot1d(x, data, dataCI, plotflag, *args, **kwds)
return h1
def plot1d(args,data, dataCI,plotflag,*varargin, **kwds):
def plot1d(args, data, dataCI, plotflag, *varargin, **kwds):
plottype = np.mod(plotflag,10)
if plottype==0: # % No plotting
plottype = np.mod(plotflag, 10)
if plottype == 0: # % No plotting
return []
elif plottype==1:
H = plotbackend.plot(args,data,*varargin, **kwds)
elif plottype==2:
H = plotbackend.step(args,data,*varargin, **kwds)
elif plottype==3:
H = plotbackend.stem(args,data,*varargin, **kwds)
elif plottype==4:
H = plotbackend.errorbar(args,data,dataCI[:,0]-data,dataCI[:,1]-data,*varargin, **kwds)
elif plottype==5:
H = plotbackend.bar(args,data,*varargin, **kwds)
elif plottype==6:
elif plottype == 1:
H = plotbackend.plot(args, data, *varargin, **kwds)
elif plottype == 2:
H = plotbackend.step(args, data, *varargin, **kwds)
elif plottype == 3:
H = plotbackend.stem(args, data, *varargin, **kwds)
elif plottype == 4:
H = plotbackend.errorbar(args, data, dataCI[:, 0] - data, dataCI[:, 1] - data, *varargin, **kwds)
elif plottype == 5:
H = plotbackend.bar(args, data, *varargin, **kwds)
elif plottype == 6:
level = 0
if np.isfinite(level):
H = plotbackend.fill_between(args,data,level,*varargin, **kwds);
H = plotbackend.fill_between(args, data, level, *varargin, **kwds);
else:
H = plotbackend.fill_between(args,data,*varargin, **kwds);
H = plotbackend.fill_between(args, data, *varargin, **kwds);
scale = plotscale(plotflag);
logXscale = any(scale=='x');
logYscale = any(scale=='y');
logZscale = any(scale=='z');
logXscale = any(scale == 'x');
logYscale = any(scale == 'y');
logZscale = any(scale == 'z');
ax = plotbackend.gca()
if logXscale:
plotbackend.setp(ax,xscale='log')
plotbackend.setp(ax, xscale='log')
if logYscale:
plotbackend.setp(ax,yscale='log')
plotbackend.setp(ax, yscale='log')
if logZscale:
plotbackend.setp(ax,zscale='log')
plotbackend.setp(ax, zscale='log')
transFlag = np.mod(plotflag//10,10)
transFlag = np.mod(plotflag // 10, 10)
logScale = logXscale or logYscale or logZscale
if logScale or (transFlag ==5 and not logScale):
if logScale or (transFlag == 5 and not logScale):
ax = list(plotbackend.axis())
fmax1 = data.max()
if transFlag==5 and not logScale:
ax[3] = 11*np.log10(fmax1)
ax[2] = ax[3]-40
if transFlag == 5 and not logScale:
ax[3] = 11 * np.log10(fmax1)
ax[2] = ax[3] - 40
else:
ax[3] = 1.15*fmax1;
ax[2] = ax[3]*1e-4;
ax[3] = 1.15 * fmax1;
ax[2] = ax[3] * 1e-4;
plotbackend.axis(ax)
if dataCI and plottype < 3:
plotbackend.hold('on')
plot1d(args,dataCI,(),plotflag,'r--');
plot1d(args, dataCI, (), plotflag, 'r--');
return H
def plotscale(plotflag):
@ -288,34 +288,34 @@ def plotscale(plotflag):
See also plotscale
'''
scaleId = plotflag//100
if scaleId>7:
logXscaleId = np.mod(scaleId,10)>0
logYscaleId = (np.mod(scaleId//10, 10)>0)*2
logZscaleId = (np.mod(scaleId//100, 10)>0)*4
scaleId = logYscaleId +logXscaleId+logZscaleId
scaleId = plotflag // 100
if scaleId > 7:
logXscaleId = np.mod(scaleId, 10) > 0
logYscaleId = (np.mod(scaleId // 10, 10) > 0) * 2
logZscaleId = (np.mod(scaleId // 100, 10) > 0) * 4
scaleId = logYscaleId + logXscaleId + logZscaleId
scales = ['linear','xlog','ylog','xylog','zlog','xzlog','yzlog','xyzlog']
scales = ['linear', 'xlog', 'ylog', 'xylog', 'zlog', 'xzlog', 'yzlog', 'xyzlog']
return scales[scaleId]
def transformdata(x,f,plotflag):
transFlag = np.mod(plotflag//10,10)
if transFlag==0:
def transformdata(x, f, plotflag):
transFlag = np.mod(plotflag // 10, 10)
if transFlag == 0:
data = f
elif transFlag==1:
data = 1-f
elif transFlag==2:
data = cumtrapz(f,x)
elif transFlag==3:
data = 1-cumtrapz(f,x)
if transFlag in (4,5):
if transFlag==4:
data = -np.log1p(-cumtrapz(f,x))
elif transFlag == 1:
data = 1 - f
elif transFlag == 2:
data = cumtrapz(f, x)
elif transFlag == 3:
data = 1 - cumtrapz(f, x)
if transFlag in (4, 5):
if transFlag == 4:
data = -np.log1p(-cumtrapz(f, x))
else:
if any(f<0):
if any(f < 0):
raise ValueError('Invalid plotflag: Data or dataCI is negative, but must be positive')
data = 10*np.log10(f)
data = 10 * np.log10(f)
return data
class Plotter_2d(Plotter_1d):
@ -341,45 +341,52 @@ class Plotter_2d(Plotter_1d):
def plot2d(wdata, plotflag, *args, **kwds):
f = wdata
if plotflag in (1,6,7,8,9):
PL=0
if hasattr(f,'cl') and len(f.cl)>0: # check if contour levels is submitted
if isinstance(wdata.args, (list, tuple)):
args1 = tuple((wdata.args)) + (wdata.data,) + args
else:
args1 = tuple((wdata.args,)) + (wdata.data,) + args
if plotflag in (1, 6, 7, 8, 9):
PL = 0
if hasattr(f, 'cl') and len(f.cl) > 0: # check if contour levels is submitted
CL = f.cl
if hasattr(f,'pl'):
if hasattr(f, 'pl'):
PL = f.pl # levels defines quantile levels? 0=no 1=yes
else:
dmax = np.max(f.data)
dmin = np.min(f.data)
CL = dmax-(dmax-dmin)*(1-np.r_[0.01, 0.025, 0.05, 0.1, 0.2, 0.4, 0.5, 0.75])
CL = dmax - (dmax - dmin) * (1 - np.r_[0.01, 0.025, 0.05, 0.1, 0.2, 0.4, 0.5, 0.75])
clvec = np.sort(CL)
if plotflag in [1, 8, 9]:
h = plotbackend.contour(f.args,f.data,levels=CL);
h = plotbackend.contour(*args1, levels=CL, **kwds);
#else:
# [cs hcs] = contour3(f.x{:},f.f,CL,sym);
if plotflag in (1,6):
if plotflag in (1, 6):
ncl = len(clvec)
if ncl>12:
ncl=12
if ncl > 12:
ncl = 12
warnings.warn('Only the first 12 levels will be listed in table.')
axcl = cltext(clvec[:ncl], percent=PL) # print contour level text
elif any(plotflag==[7, 9]):
pass
#clabel(cs);
#else
#clabel(cs,hcs);
elif plotflag== 2:
h = plotbackend.mesh(f.args,f.data)
elif plotflag==3:
h = plotbackend.surf(f.args,f.data); #shading interp % flat, faceted % surfc
elif plotflag==4:
h = plotbackend.waterfall(f.args,f.data);
elif plotflag==5:
h =plotbackend.pcolor(f.args,f.data); #%shading interp % flat, faceted
elif plotflag==10:
h = plotbackend.contourf(f.args,f.f); clabel(cs,hcs);
if PL:
clvals, isPL = PL[:ncl], True
else:
clvals, isPL = clvec[:ncl], False
unused_axcl = cltext(clvals, percent=isPL) # print contour level text
elif any(plotflag == [7, 9]):
plotbackend.clabel(h)
else:
plotbackend.clabel(h)
elif plotflag == 2:
h = plotbackend.mesh(*args1, **kwds)
elif plotflag == 3:
h = plotbackend.surf(*args1, **kwds) #shading interp % flat, faceted % surfc
elif plotflag == 4:
h = plotbackend.waterfall(*args1, **kwds)
elif plotflag == 5:
h = plotbackend.pcolor(*args1, **kwds) #%shading interp % flat, faceted
elif plotflag == 10:
h = plotbackend.contourf(*args1, **kwds)
plotbackend.clabel(h)
plotbackend.colorbar(h)
else:
raise ValueError('unknown option for plotflag')

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