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%matplotlib inline
from pylab import *
from matplotlib.pyplot import *
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xv = [1,2,3,4]; yv = [5,1,4,0]
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plot(xv,yv)
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myplot = plot (xv, yv)
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plot(xv,yv)
plot(xv,yv,'ro’)
myplot = plot(xv,yv,'k--')
setp(myplot, linewidth = 3.0, marker = '+', markersize = 30)
axis ([0.5,4.5,-0.5,5.5])
ti = title('my own title')
xl = xlabel('time'); yl = ylabel ('values')
setp(xl, fontweight='bold‘)
savefig('foo.ps', dpi=600, format='ps', orientation='landscape‘)
savefig('foo.ps', dpi=600, format='pdf', orientation='landscape‘)
myfig = gcf()
close(myfig)
close('all‘)
fig2 = figure()
subplot(2,1,1)
plot(xv, yv, 'b-')
subplot(2,1,2)
plot(yv, xv, 'ro')
plot(xv, 2*xv***33-5*xv**2+7*xv)
plot(xv, 2000*cos(xv), 'r--')
text(-9.5,-2800,'curve A')
text(3,1500,'curve B')
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close('all'); xv_lin=np.arange(-3.3,3.01,0.02)
xv= 10.**xv_lin
semilogic(xv, exp(-xv/0.01)+0.5*exp(-xv/10)+0.2*exp(-xv/200))
grid(color='k')
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semilogx(xv, exp(-xv/0.01)+0.5*exp(-xv/10)+0.2*exp(-xv/200))
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loglog(xv, exp(-xv/0.01)+0.5*exp(-xv/10)+0.2*exp(-xv/200))
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close('all')
xv=[0.5,1.5,2.5,3.5]; yv=[2,5,1,6]
mybar = bar(xv, yv, with=1, yerr=0.5)
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mybar = bar(range(4) yv, with=1, yerr=0.5)
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mybar = bar(range(4) yv, with=1, yerr=0.5)
xticks(xv, ['A','B','C','D'])
setp(mybar, color='r', edgecolor='k')
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close('all')
figure(figsize=(5,5))
handles = pie ( [1,2,3,4], explode=[0.2,0,0,0], shadow=True, labels=['A','B','C','D','E','F'] )
handles
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figure(figsize=(5,5))
handles = pie ( [1,2,3,4], explode=[0.2,0,0,0], shadow=True, labels=['A','B','C','D','E','F'] )
setp ( handles[0] [0], color='y')
setp ( handles[1] [0], text='lila stueck')
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from mpl_toolkits.mplot3d import Axes3D
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%matplotlib
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close('all')
fig=figure(); ax=Axes3D(fig)
import random as rn
xv=[], yv=[], zv=[]
for c in range(100):
xv.apend(rn.ramdom()); yv.apend(rn.ramdom()); zv.apend(rn.ramdom());
ax.scatter(xv,yv,zv)
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close('all')
fig=figure(); ax=Axes3D(fig)
xv=linspace(-10,10,100); yv=linspace(-10,10,100)
cx,cy= meshgrid(xv,yv)
cz=0.5*cx+exp(-cy**2)
tilt= ax.plot_surface(cx,cy,cz, linewith=0, cmap=cm.jet)
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