def test_optimization(self):
store_dir = self.get_pulse_store_dir()
engine = gf.LocalEngine(store_dirs=[store_dir])
sources = [
gf.RectangularExplosionSource(time=0.0025,
depth=depth,
moment=1.0,
length=100.,
width=0.,
nucleation_x=-1)
for depth in [100., 200., 300.]
]
targetss = [[
gf.Target(codes=('', 'STA', opt, component),
north_shift=500.,
east_shift=125.,
depth=depth,
interpolation='multilinear',
optimization=opt) for component in 'ZNE'
for depth in [0., 5., 10]
] for opt in ('disable', 'enable')]
resps = [engine.process(sources, targets) for targets in targetss]
iters = [resp.iter_results() for resp in resps]
for i in xrange(len(sources) * len(targetss[0])):
s1, t1, tr1 = iters[0].next()
s2, t2, tr2 = iters[1].next()
self.assertEqual(tr1.data_len(), tr2.data_len())
self.assertEqual(tr1.tmin, tr2.tmin)
self.assertTrue(numeq(tr1.ydata, tr2.ydata, 0.0001))
inv_trans = ax.transData.inverted()
# set the bouding point relative to the plotted axis of the beachball
x0, y1 = inv_trans.transform(
move_trans.transform(ax.transData.transform((x0, y1))))
# plot beachball
beachball.plot_beachball_mpl(source1.pyrocko_moment_tensor(),
ax,
beachball_type='full',
size=sz,
position=(x0, y1),
linewidth=1.)
# create source object
source2 = gf.RectangularExplosionSource(depth=35e3, strike=0., dip=90.)
# set size of beachball
sz = 30.
# set beachball offset in points (one point from each axis)
szpt = (sz / 2.) / 72. + 1. / 72.
# get the bounding point (right-upper)
x1 = ax.get_xlim()[1]
y1 = ax.get_ylim()[1]
# create a translation matrix, based on the final figure size and
# beachball location
move_trans = transforms.ScaledTranslation(-szpt, -szpt, fig.dpi_scale_trans)
# get the inverse matrix for the axis where the beachball will be plotted
