def test_unique_labels():
line_label1 = ['N V', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II']
x = [
'N V', 'Si II_num_1', 'Si II_num_2', 'Si II_num_3', 'Si II_num_4',
'Si II_num_5', 'Si II_num_6'
]
assert lineid_plot.unique_labels(line_label1) == x
def test_unique_labels():
"""Make sure we can create unique labels."""
line_label1 = ['N V', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II']
x = [
'N V', 'Si II_num_1', 'Si II_num_2', 'Si II_num_3', 'Si II_num_4',
'Si II_num_5', 'Si II_num_6'
]
assert lineid_plot.unique_labels(line_label1) == x
def test_dont_add_label_to_artists():
wave = 1240 + np.arange(300) * 0.1
flux = np.random.normal(size=300)
line_wave = [1242.80, 1260.42, 1264.74, 1265.00, 1265.2, 1265.3, 1265.35]
line_label1 = ['N V', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II']
fig, ax = lineid_plot.plot_line_ids(
wave, flux, line_wave, line_label1, max_iter=300, add_label_to_artists=False
)
labels = lineid_plot.unique_labels(line_label1)
for label in labels:
assert fig.findobj(match=lambda x: x.get_label() == label) == []
assert fig.findobj(match=lambda x: x.get_label() == label + "_line") == []
def test_dont_add_label_to_artists():
wave = 1240 + np.arange(300) * 0.1
flux = np.random.normal(size=300)
line_wave = [1242.80, 1260.42, 1264.74, 1265.00, 1265.2, 1265.3, 1265.35]
line_label1 = ['N V', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II']
fig, ax = lineid_plot.plot_line_ids(wave,
flux,
line_wave,
line_label1,
max_iter=300,
add_label_to_artists=False)
labels = lineid_plot.unique_labels(line_label1)
for label in labels:
assert fig.findobj(match=lambda x: x.get_label() == label) == []
assert fig.findobj(
match=lambda x: x.get_label() == label + "_line") == []
def color_lines(ax, labels, colors):
"""Color lines.
Instead of this function, one can pass annotate_kwargs and plot_kwargs to
plot_line_ids function.
"""
assert len(labels) == len(colors), \
"Equal no. of colors and lables must be given"
lines = ax.findobj(mpl.lines.Line2D)
line_labels = [i + "_line" for i in lineid_plot.unique_labels(labels)]
for line in lines:
l = line.get_label()
try:
loc = line_labels.index(l)
except ValueError:
continue # No changes for this line
line.set_color(colors[loc])
ax.figure.canvas.draw()
def color_text_boxes(ax, labels, colors, color_arrow=True):
"""Color text boxes.
Instead of this function, one can pass annotate_kwargs and plot_kwargs to
plot_line_ids function.
"""
assert len(labels) == len(colors), \
"Equal no. of colors and lables must be given"
boxes = ax.findobj(mpl.text.Annotation)
box_labels = lineid_plot.unique_labels(labels)
for box in boxes:
l = box.get_label()
try:
loc = box_labels.index(l)
except ValueError:
continue # No changes for this box
box.set_color(colors[loc])
if color_arrow:
box.arrow_patch.set_color(colors[loc])
ax.figure.canvas.draw()
def test_unique_labels():
line_label1 = ['N V', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II', 'Si II']
x = ['N V', 'Si II_num_1', 'Si II_num_2', 'Si II_num_3', 'Si II_num_4',
'Si II_num_5', 'Si II_num_6']
assert lineid_plot.unique_labels(line_label1) == x
def get_labels(labels):
"""Create unique labels."""
label_u = unique_labels(labels)
label_u_line = [i + "_line" for i in label_u]
return label_u, label_u_line
