def view(self):
""" The view method will display the control panel to select the FCS path
and the arcsin factor.
"""
self.widgets.fcs_dir.guess_or_remember('load_fcs fcs_dir', '')
dirname = self.widgets.fcs_dir.value_as_str()
if os.path.exists(dirname) and os.path.isdir(dirname):
files = [f for f in os.listdir(dirname) if os.path.isfile(os.path.join(dirname, f))]
else:
return stack_lines(
View(self, 'Please select a valid directory'),
self.widgets.fcs_dir.view('FCS Directory', self.widgets.apply, numeric_validation=False, size=100),
self.widgets.apply.view())
# Clear file list if we switched directory:
if dirname != self.last_selected_dir:
self.widgets.fcs_files.values.choices = None
self.last_selected_dir = dirname
self.widgets.fcs_files.guess_or_remember(('load_fcs fcs_files', files, dirname), [])
self.widgets.combine_select.guess_or_remember(('load_fcs combine_select', dirname), ['combine'])
self.widgets.arcsin_factor.guess_or_remember(('load_fcs arcsin_factor', dirname), 5)
# display the control panel:
return stack_lines(
self.widgets.fcs_dir.view('FCS Directory', self.widgets.apply, numeric_validation=False, size=100),
self.widgets.fcs_files.view('FCS Files', self.widgets.apply, files),
self.widgets.combine_select.view('Combine files', self.widgets.apply, [('combine', 'Combine files into one table'), ('seperate', 'Seperate to a table list')], multiple=False),
self.widgets.arcsin_factor.view('Arcsinh Factor', self.widgets.apply, numeric_validation=False, comment='Transformation: arcsinh(value / factor)', predefined_values=[('No Transform', 'NO_TRANSFORM')]),
self.widgets.apply.view())
def view(self, apply_button, datatable):
experiments = settings.EXPERIMENTS.keys()
if not self.experiment:
return stack_lines(
self.widgets.experiment_select.view('Please Select an experiment', self.widgets.apply, experiments, False),
self.widgets.apply.view())
if not self.experiment in self.experiment_to_widgets:
index = self._get_index()
widgets = []
if type(settings.EXPERIMENTS[self.experiment]) == tuple:
editable_tags = settings.EXPERIMENTS[self.experiment][1]
else:
editable_tags = index.all_tags()
for tag in editable_tags:
new_widget = self._add_widget('%s_%s' % (self.experiment, tag), Select)
new_widget.tag = tag
new_widget.vals = index.all_values_for_tag(tag)
widgets.append(new_widget)
self.experiment_to_widgets[self.experiment] = widgets
views = [w.view(w.tag, self.widgets.apply, w.vals) for w in self.experiment_to_widgets[self.experiment]]
stacked_views = stack_left(*views)
expanded = stack_lines(
self.widgets.experiment_select.view(
'Experiment', self.widgets.apply, experiments, False),
stacked_views,
View(None, '<p style="clear: both"></p>'),
self.widgets.apply.view())
#return expanded
return self.widgets.expander.view('',[self.summary], [expanded])
def view(self, data, place_in_chain, possible_inputs):
def create_inputs_summary():
summary = []
for input in self.input_to_select:
choices = self.input_to_select[input].values.choices
choice_texts = [p[1] for p in possible_inputs if p[0] in choices]
#summary.append('%s: %s' % (input, choice_text))
summary.append('|'.join(choice_texts))
ret = ', '.join(summary)
if ret:
return 'Inputs: %s ' % ret
else:
if self.input_to_select:
return 'Inputs'
else:
return ''
#input_summary = View(self, '%sOutputs: %s' % (
# create_inputs_summary(),
# ', '.join(self.get_outputs())))
input_summary = View(self, create_inputs_summary())
input_content_views = []
for k,v in self.input_to_select.items():
input_content_views.append(v.view(
k, self.widgets.input_apply, possible_inputs, multiple=True))
input_content_views.append(self.widgets.input_apply.view())
input_content = view.stack_lines(*input_content_views)
try:
sub_widget_view = self.widgets.sub_widget.view(**self.create_input_map(data))
except Exception as e:
logging.exception('Exception in view')
sub_widget_view = View(self, str(e))
global CHAINABLE_WIDGETS
widget_control_view = stack_left(
self.widgets.new_widget_select.view('', self.widgets.apply_new_widget, zip(*CHAINABLE_WIDGETS)[0], False),
self.widgets.apply_new_widget.view('Add before'),
self.widgets.delete_button.view('Delete'))
widget_control_view.main_html = '<div style="position:absolute; top:0; right:0;">%s</div>' % widget_control_view.main_html
sub_view = view.stack_lines(
widget_control_view,
self.widgets.input_panel.view(input_summary, input_content),
view.vertical_seperator(),
sub_widget_view)
#sub_view = self.widgets.sub_widget.view(data)
#title_view = view.left_right(
# View(self, self.title(place_in_chain)),
# self.widgets.delete_button.view('Delete'))
title_view = View(self, self.title(place_in_chain))
return self.widgets.expander.view(title_view, sub_view)
def main_view(self, tables):
if 'all' in self.widgets.tables_to_show.get_choices():
tables_to_show = tables
else:
tables_to_show = [
t for t in tables
if t.name in self.widgets.tables_to_show.get_choices()
]
if not tables_to_show:
return
# Assemble the figure to show
figures_to_show = []
multi_timer = MultiTimer(len(tables_to_show))
for table_input in tables_to_show:
figures_to_show.append(
self._draw_figures(table_input,
self.widgets.dim_x.get_choices(),
self.widgets.dim_y.get_choices(),
tables_to_show))
multi_timer.complete_task(table_input.name)
# Draw the figures in a table
lines = []
for key in figures_to_show[0].iterkeys():
line = []
for i in xrange(len(tables_to_show)):
fig_widget = self._add_widget_if_needed(
'%d_%s' % (i, key), Figure)
fig, extra_view, fig_range = figures_to_show[i][key]
# We give the view function a predefined id so that we can reference this viewed instance from
# the areaselect widget in gating mode.
widget_id = self._get_unique_id()
if fig:
fig_view = fig_widget.view(fig, id=widget_id)
if self.enable_gating:
area_select_widget = self._add_widget_if_needed(
'area_select_%s' % widget_id, AreaSelect)
area_select_view = area_select_widget.view(
widget_id, self.gate_min_x_id, self.gate_max_x_id,
self.gate_min_y_id, self.gate_max_y_id, fig_range)
fig_view = stack_lines(fig_view, area_select_view)
else:
fig_view = View(self, '')
# On gating mode we want to add areaselect.
line.append(stack_lines(fig_view, extra_view))
lines.append(line)
if len(tables_to_show) == 1:
return view.stack_left(*[l[0] for l in lines])
else:
self._add_widget_if_needed('input_table', Table)
return self.widgets.input_table.view(
[table_input.name for table_input in tables_to_show], lines)
def view(self, table, dim_x, dim_y):
splitted = table.split(dim_x, 100j)
stats = [s.get_stats_multi_dim(dim_x, dim_y) for s in splitted if s.num_cells>=25]
if len(stats) < 10:
return View(None, 'Not enough cells in each bin')
joined = combine_tables(stats)
ax = new_axes(300, 300)
ax, hist = axes.scatter(ax, table, (dim_x, dim_y), norm_axis=None, no_bins=300j)
x_points = np.linspace(0,10,300)
avg_points = joined.get_cols(dim_x+'_average', dim_y + '_average')
std_points = joined.get_cols(dim_x+'_average', dim_y + '_std')
std_fit, std_res, std_rank, std_s, std_r = np.polyfit(std_points[0], std_points[1], 1, full=True)
avg_fit, avg_res, avg_rank, avg_s, avg_r = np.polyfit(avg_points[0], avg_points[1], 1, full=True)
avg_sig_fit = sigmoid_fit(avg_points[0], avg_points[1])
sig_error = find_error(avg_points[0], avg_points[1], sigmoid, avg_sig_fit)
ax.plot(avg_points[0], avg_points[1], '.')
#ax.plot(x_points, np.poly1d(avg_fit)(x_points), '-')
ax.plot(x_points, sigmoid(avg_sig_fit, x_points), '-')
#ax.scatter(avg_points[0], avg_points[1], s=1, marker='o', color='blue')
ax.scatter(std_points[0], std_points[1], s=1, marker='o')
ax.set_xlabel(dim_x + ' ', size='x-small')
ax.set_ylabel(dim_y + ' ', size='x-small')
ax.set_xlim(0,8)
ax.set_ylim(0,8)
return stack_lines(
self.widgets.fig.view(ax.figure),
str(avg_sig_fit),
str(sig_error))
def view(self, tables):
global NETWORKS
self.widgets.network.guess_or_remember((tables, 'Network'), [])
self.widgets.edge_stat.guess_or_remember((tables, 'Network'), [])
self.widgets.node_stat.guess_or_remember((tables, 'Network'), [])
control_panel_view = stack_lines(
self.widgets.network.view('Network', self.widgets.apply, sorted(NETWORKS.keys())),
self.widgets.edge_stat.view('Edge statistic to show', self.widgets.apply, sorted(EDGE_STATS.keys())),
self.widgets.node_stat.view('Node statistic to show', self.widgets.apply, sorted(NODE_STATS.keys())),
self.widgets.apply.view())
networks = [n for n in self.widgets.network.values.choices if n in NETWORKS]
main_views = []
for network in networks:
nodes = set()
edges = set()
for graph_entry in NETWORKS[network]:
nodes.add((graph_entry[0], node_label(graph_entry[0], tables, self.widgets.node_stat.values.choices), 0))
nodes.add((graph_entry[1], node_label(graph_entry[1], tables, self.widgets.node_stat.values.choices), 0))
edges.add((edge_label(graph_entry[0], graph_entry[1], tables, self.widgets.edge_stat.values.choices), 0, graph_entry[0], graph_entry[1], True))
main_views += [self._get_widget('graph_%s' % network).view(nodes, edges)]
main_view = stack_left(*main_views)
return self.widgets.layout.view(main_view, control_panel_view)
def view(self):
if not self.widgets.population_picker.is_ready():
return self.widgets.population_picker.view()
if not self.widgets.negative_values_picker.values.choices:
self.widgets.negative_values_picker.values.choices = ['remove']
table = self.widgets.population_picker.get_data()
return view.stack_lines(
self.widgets.population_picker.view(),
self.widgets.dim_picker.view(
'Dimension',
self.widgets.apply,
table.dims, True, [
('Signal Markers', get_markers('signal')),
('Surface Markers', get_markers('surface'))]),
self.widgets.negative_values_picker.view(
'Negative Values',
self.widgets.apply,
[('remove', 'Remove negative values'),
('keep', 'Keep negative values')], False),
self.widgets.apply.view(),
self.widgets.histogram_table.view(
table,
self.widgets.dim_picker.values.choices,
'remove' in self.widgets.negative_values_picker.values.choices))
def view(self, **tables):
self.widgets.edge_stat.guess_or_remember((tables, 'Compare'), [])
self.widgets.node_stat.guess_or_remember((tables, 'Compare'), [])
NODE_STATS = ['values']
EDGE_STATS = []
control_panel_view = stack_lines(
self.widgets.edge_stat.view('Edge statistics', self.widgets.apply, sorted(EDGE_STATS)),
self.widgets.node_stat.view('Node statistics', self.widgets.apply, sorted(NODE_STATS)),
self.widgets.apply.view())
data_tables = [t for t in tables.values() if t]
networks = [n for n in self.widgets.network.values.choices if n in NETWORKS]
main_views = []
for network in networks:
nodes = set()
edges = set()
for graph_entry in NETWORKS[network]:
nodes.add((graph_entry[0], node_label(graph_entry[0], data_tables, self.widgets.node_stat.values.choices), 0))
nodes.add((graph_entry[1], node_label(graph_entry[1], data_tables, self.widgets.node_stat.values.choices), 0))
edges.add((edge_label(graph_entry[0], graph_entry[1], data_tables, self.widgets.edge_stat.values.choices), 0, graph_entry[0], graph_entry[1], True))
main_views += [self._get_widget('graph_%s' % network).view(nodes, edges)]
main_view = stack_left(*main_views)
return self.widgets.layout.view(main_view, control_panel_view)
def view(self):
global CHAINABLE_WIDGETS
# Run the chain:
data = []
views = []
possible_inputs = []
for i, widget in enumerate(self.widgets_in_chain):
#logging.info('Getting view for Widget %d %s' % (i, widget.title(i, True)))
with Timer('Module %d view' % (i + 1)):
views.append(widget.view(data, i, possible_inputs))
possible_inputs += self.widget_in_chain_to_inputs(widget, i)
#logging.info('Running Widget %d %s' % (i, widget.title(i)))
try:
with Timer('Module %d run' % (i + 1)):
widget_data = widget.run(data)
data.append(widget_data)
views.append(self.output_log(widget_data))
if widget_data and 'view' in widget_data:
views.append(widget_data['view'])
del widget_data['view']
if widget_data:
for item in widget_data.keys():
from biology.datatable import DataTable
if type(item) == list:
for sub_item in item:
if type(sub_item
) == DataTable and not item.name:
raise Exception(
'DataTable outputs must have a name')
except Exception as e:
logging.exception('Exception in run')
views.append('Exception when running %s: %s' %
(widget.title(i), str(e)))
break
del data
widgets_view = stack_lines(*views)
add_view = stack(
self.widgets.new_widget_select.view('Add new module',
self.widgets.apply_new_widget,
zip(*CHAINABLE_WIDGETS)[0],
False),
self.widgets.apply_new_widget.view())
return stack_lines(self.widgets.menu.view(self.parent.id),
widgets_view, view.vertical_seperator(), add_view)
def view(self, enable_expander=False):
experiments = settings.EXPERIMENTS.keys()
if not self.experiment:
return stack_lines(
self.widgets.experiment_select.view('Please Select an experiment', self.widgets.apply, experiments, False),
self.widgets.apply.view())
if not self.experiment in self.experiment_to_widgets:
index = self._get_index()
widgets = []
if type(settings.EXPERIMENTS[self.experiment]) == tuple:
editable_tags = settings.EXPERIMENTS[self.experiment][1]
else:
editable_tags = index.all_tags()
for tag in editable_tags:
new_widget = self._add_widget('%s_%s' % (self.experiment, tag), Select)
new_widget.tag = tag
new_widget.vals = index.all_values_for_tag(tag)
widgets.append(new_widget)
self.experiment_to_widgets[self.experiment] = widgets
for w in self.experiment_to_widgets[self.experiment]:
w.guess_or_remember((w.tag, w.vals, self.__class__.__name__), [])
self.widgets.combine_select.guess_or_remember(('populationpicker combine_select', self.experiment), ['combine'])
self.widgets.arcsin_factor.guess_or_remember(('populationpicker arcsin_factor', self.experiment), 5)
#if not self.widgets.arcsin_factor.values.value:
# self.widgets.arcsin_factor.values.value = '1'
views = [w.view(w.tag, self.widgets.apply, w.vals) for w in self.experiment_to_widgets[self.experiment]]
stacked_views = stack_lines(*views)
expanded = stack_lines(
self.widgets.experiment_select.view(
'Experiment', self.widgets.apply, experiments, False),
stacked_views,
self.widgets.combine_select.view('Combine files', self.widgets.apply, [('combine', 'Combine items into one table'), ('seperate', 'Seperate to one table per parameter combination')], multiple=False),
self.widgets.arcsin_factor.view('Arcsinh Factor', self.widgets.apply, numeric_validation=True, comment='Transformation: arcsinh(value / factor)'),
View(None, '<p style="clear: both"></p>'),
self.widgets.apply.view())
if not enable_expander:
return expanded
return self.widgets.expander.view('',[self.summary], [expanded])
def view(self):
global CHAINABLE_WIDGETS
# Run the chain:
data = []
views = []
possible_inputs = []
for i, widget in enumerate(self.widgets_in_chain):
#logging.info('Getting view for Widget %d %s' % (i, widget.title(i, True)))
with Timer('Module %d view' % (i+1)):
views.append(widget.view(data, i, possible_inputs))
possible_inputs += self.widget_in_chain_to_inputs(widget, i)
#logging.info('Running Widget %d %s' % (i, widget.title(i)))
try:
with Timer('Module %d run' % (i+1)):
widget_data = widget.run(data)
data.append(widget_data)
views.append(self.output_log(widget_data))
if widget_data and 'view' in widget_data:
views.append(widget_data['view'])
del widget_data['view']
if widget_data:
for item in widget_data.keys():
from biology.datatable import DataTable
if type(item) == list:
for sub_item in item:
if type(sub_item) == DataTable and not item.name:
raise Exception('DataTable outputs must have a name')
except Exception as e:
logging.exception('Exception in run')
views.append('Exception when running %s: %s' % (widget.title(i), str(e)))
break
del data
widgets_view = stack_lines(*views)
add_view = stack(
self.widgets.new_widget_select.view(
'Add new module', self.widgets.apply_new_widget, zip(*CHAINABLE_WIDGETS)[0], False),
self.widgets.apply_new_widget.view())
return stack_lines(
self.widgets.menu.view(self.parent.id),
widgets_view,
view.vertical_seperator(),
add_view)
def main_view(self, tables):
if 'all' in self.widgets.tables_to_show.get_choices():
tables_to_show = tables
else:
tables_to_show = [t for t in tables if t.name in self.widgets.tables_to_show.get_choices()]
if not tables_to_show:
return
# Assemble the figure to show
figures_to_show = []
multi_timer = MultiTimer(len(tables_to_show))
for table_input in tables_to_show:
figures_to_show.append(self._draw_figures(table_input, self.widgets.dim_x.get_choices(), self.widgets.dim_y.get_choices(), tables_to_show))
multi_timer.complete_task(table_input.name)
# Draw the figures in a table
lines = []
for key in figures_to_show[0].iterkeys():
line = []
for i in xrange(len(tables_to_show)):
fig_widget = self._add_widget_if_needed('%d_%s' % (i, key), Figure)
fig, extra_view, fig_range = figures_to_show[i][key]
# We give the view function a predefined id so that we can reference this viewed instance from
# the areaselect widget in gating mode.
widget_id = self._get_unique_id()
if fig:
fig_view = fig_widget.view(fig, id=widget_id)
if self.enable_gating:
area_select_widget = self._add_widget_if_needed('area_select_%s' % widget_id, AreaSelect)
area_select_view = area_select_widget.view(
widget_id, self.gate_min_x_id, self.gate_max_x_id, self.gate_min_y_id, self.gate_max_y_id, fig_range)
fig_view = stack_lines(fig_view, area_select_view)
else:
fig_view = View(self, '')
# On gating mode we want to add areaselect.
line.append(stack_lines(fig_view, extra_view))
lines.append(line)
if len(tables_to_show) == 1:
return view.stack_left(*[l[0] for l in lines])
else:
self._add_widget_if_needed('input_table', Table)
return self.widgets.input_table.view([table_input.name for table_input in tables_to_show], lines)
def _end_section(self, section_name, initially_expanded=True):
""" Ends a section, must be called after _begin_section.
"""
if not section_name in self._section_begin:
raise Exception('begin section %s must called before ending section' % section_name)
section_begin = self._section_begin[section_name]
widgets_in_section = self._control_panel_views[section_begin:]
self._control_panel_views = self._control_panel_views[:section_begin]
widget = self._add_widget_if_needed(section_name, MiniExpander, shown=initially_expanded)
view = widget.view(View(self, section_name), stack_lines(*widgets_in_section))
self._control_panel_views.append(view)
del self._section_begin[section_name]
def view_pair(self, p, table_positive):
fig1 = new_figure(300,300)
axes.kde2d_color_hist(fig1, table_positive, (p[0], p[1]), None, None, 0.001)
fig = new_figure(300,300)
axes.kde2d_color_hist(fig, table_positive, (p[0], p[1]), None, 'y', 0.001)
#ax_dis = new_axes(300,300)
dis_points = find_discontinuities(table_positive, p[0], p[1], None)
return stack_lines(
self.widgets.kde2d_fig.view(fig1),
self.widgets.kde2d_fig.view(fig),
# self.widgets.kde2d_fig.view(ax_dis.figure),
dis_points,
self.widgets.pair_fit_split.view(table_positive, p[0], p[1]))
def main_view(self, tables):
dims = self.widgets.dims.get_choices()
if 'all' in self.widgets.tables_to_show.get_choices():
tables_to_show = tables
else:
tables_to_show = [t for t in tables if t.name in self.widgets.tables_to_show.get_choices()]
if not tables_to_show:
return
# Assemble the figure to show
figures_to_show = []
multi_timer = MultiTimer(len(tables_to_show))
for table in tables_to_show:
comments = []
col_names = []
cols = []
# Add id column
col_names.append('id')
cols.append(dims)
# Add time column
col_names.append('time')
cols.append([0] * len(dims))
# Add dim reduce columns
col_names.append('dim_reduce1')
col_names.append('dim_reduce2')
corr = self.widgets.corr_method.get_choice() == 'corr'
mutual_information_table = table.get_mutual_information_table(dims_to_use = dims, use_correlation=corr)
#assert np.all(mutual_information_table.data >= 0)
distance = 1-np.abs(mutual_information_table.data)
from mlabwrap import mlab
Y, eig = mlab.cmdscale(distance, nout=2)
cols.append(Y.T[0])
cols.append(Y.T[1])
comments.append(','.join(['%.3f' % val for val in eig[:4]]))
# Add average columns:
col_names.append('average')
cols.append([table.get_average(dim) for dim in dims])
# Add std columns:
col_names.append('std')
cols.append([table.get_std(dim) for dim in dims])
motion_chart = self._add_widget_if_needed('motion_chart_%s' % table.name, MotionChart)
motion_chart.guess_or_remember(('multicompare motionchart', tables), None)
figures_to_show.append(motion_chart.view(col_names, zip(*cols), [''], '\n'.join(comments)))
return stack_lines(*figures_to_show)
def view(self):
experiments = settings.EXPERIMENTS.keys()
if not self.experiment:
return stack_lines(
self.widgets.experiment_select.view(
'Please Select an experiment', self.widgets.apply,
experiments, False), self.widgets.apply.view())
if not self.experiment in self.experiment_to_widgets:
index = self._get_index()
widgets = []
if type(settings.EXPERIMENTS[self.experiment]) == tuple:
editable_tags = settings.EXPERIMENTS[self.experiment][1]
else:
editable_tags = index.all_tags()
for tag in editable_tags:
new_widget = self._add_widget('%s_%s' % (self.experiment, tag),
Select)
new_widget.tag = tag
new_widget.vals = index.all_values_for_tag(tag)
widgets.append(new_widget)
self.experiment_to_widgets[self.experiment] = widgets
views = [
w.view(w.tag, self.widgets.apply, w.vals)
for w in self.experiment_to_widgets[self.experiment]
]
stacked_views = stack_left(*views)
expanded = stack_lines(
self.widgets.experiment_select.view('Experiment',
self.widgets.apply,
experiments, False),
stacked_views, View(None, '<p style="clear: both"></p>'),
self.widgets.apply.view())
#return expanded
return self.widgets.expander.view('', [self.summary], [expanded])
def view(self, table, dim_x, dim_y):
#ax_dis = new_axes(300,300)
dis_points = find_discontinuities(table, dim_x, dim_y, None)
splits = []
split_start = np.min(table.get_points(dim_y))
dis_points = np.r_[dis_points, np.max(table.get_points(dim_y))]
min_split_fraction = 0.1
for p in dis_points:
split = table.gate(DimRange(dim_y, split_start, p))
if split.num_cells >= min_split_fraction * table.num_cells:
splits.append(split)
split_start = p
return stack_lines(
*[self.widgets.pair.view(s, dim_x, dim_y) for s in splits])
def view(self, table, dim_x, dim_y):
#ax_dis = new_axes(300,300)
dis_points = find_discontinuities(table, dim_x, dim_y, None)
splits = []
split_start = np.min(table.get_points(dim_y))
dis_points = np.r_[dis_points, np.max(table.get_points(dim_y))]
min_split_fraction = 0.1
for p in dis_points:
split = table.gate(DimRange(dim_y, split_start, p))
if split.num_cells >= min_split_fraction * table.num_cells:
splits.append(split)
split_start = p
return stack_lines(
*[self.widgets.pair.view(s, dim_x, dim_y) for s in splits])
def view_pair(self, p, table_positive):
fig1 = new_figure(300, 300)
axes.kde2d_color_hist(fig1, table_positive, (p[0], p[1]), None, None,
0.001)
fig = new_figure(300, 300)
axes.kde2d_color_hist(fig, table_positive, (p[0], p[1]), None, 'y',
0.001)
#ax_dis = new_axes(300,300)
dis_points = find_discontinuities(table_positive, p[0], p[1], None)
return stack_lines(
self.widgets.kde2d_fig.view(fig1),
self.widgets.kde2d_fig.view(fig),
# self.widgets.kde2d_fig.view(ax_dis.figure),
dis_points,
self.widgets.pair_fit_split.view(table_positive, p[0], p[1]))
def view(self):
index = DataIndex.load(r'c:\cytof54_clustered\cytof54.index')
t = index.load_table(cluster_name='CD8+ T-cells', stim='Unstim1')
#t = index.load_table(cluster_name='B-cells CD20+', stim='Unstim1')
dim_x = '152-Ki67'
dim_y = '167-CD38'
t = t.remove_bad_cells(dim_x, dim_y)
from histogram_report import FitTable
splitted = t.split(dim_x, 100j)
views = []
for s in splitted:
views.append(View(self, '<h1>%s</h1>' % s.name))
views.append(View(self, '<h1>%d cells</h1>' % s.num_cells))
views.append(FitTable().view(s, [dim_y]))
views = [PairTable().view([[dim_x, dim_y]], t)] + views
return stack_lines(*views)
def view(self):
index = DataIndex.load(r'c:\cytof54_clustered\cytof54.index')
t = index.load_table(cluster_name='CD8+ T-cells', stim='Unstim1')
#t = index.load_table(cluster_name='B-cells CD20+', stim='Unstim1')
dim_x = '152-Ki67'
dim_y = '167-CD38'
t = t.remove_bad_cells(dim_x, dim_y)
from histogram_report import FitTable
splitted = t.split(dim_x, 100j)
views = []
for s in splitted:
views.append(View(self, '<h1>%s</h1>' % s.name))
views.append(View(self, '<h1>%d cells</h1>' % s.num_cells))
views.append(FitTable().view(s, [dim_y]))
views = [PairTable().view([[dim_x, dim_y]], t)] + views
return stack_lines(*views)
def view(self, table, dim_x, dim_y):
splitted = table.split(dim_x, 100j)
stats = [
s.get_stats_multi_dim(dim_x, dim_y) for s in splitted
if s.num_cells >= 25
]
if len(stats) < 10:
return View(None, 'Not enough cells in each bin')
joined = combine_tables(stats)
ax = new_axes(300, 300)
ax, hist = axes.scatter(ax,
table, (dim_x, dim_y),
norm_axis=None,
no_bins=300j)
x_points = np.linspace(0, 10, 300)
avg_points = joined.get_cols(dim_x + '_average', dim_y + '_average')
std_points = joined.get_cols(dim_x + '_average', dim_y + '_std')
std_fit, std_res, std_rank, std_s, std_r = np.polyfit(std_points[0],
std_points[1],
1,
full=True)
avg_fit, avg_res, avg_rank, avg_s, avg_r = np.polyfit(avg_points[0],
avg_points[1],
1,
full=True)
avg_sig_fit = sigmoid_fit(avg_points[0], avg_points[1])
sig_error = find_error(avg_points[0], avg_points[1], sigmoid,
avg_sig_fit)
ax.plot(avg_points[0], avg_points[1], '.')
#ax.plot(x_points, np.poly1d(avg_fit)(x_points), '-')
ax.plot(x_points, sigmoid(avg_sig_fit, x_points), '-')
#ax.scatter(avg_points[0], avg_points[1], s=1, marker='o', color='blue')
ax.scatter(std_points[0], std_points[1], s=1, marker='o')
ax.set_xlabel(dim_x + ' ', size='x-small')
ax.set_ylabel(dim_y + ' ', size='x-small')
ax.set_xlim(0, 8)
ax.set_ylim(0, 8)
return stack_lines(self.widgets.fig.view(ax.figure), str(avg_sig_fit),
str(sig_error))
def view(self, tables):
global NETWORKS
self.widgets.network.guess_or_remember((tables, 'Network'), [])
self.widgets.edge_stat.guess_or_remember((tables, 'Network'), [])
self.widgets.node_stat.guess_or_remember((tables, 'Network'), [])
control_panel_view = stack_lines(
self.widgets.network.view('Network', self.widgets.apply,
sorted(NETWORKS.keys())),
self.widgets.edge_stat.view('Edge statistic to show',
self.widgets.apply,
sorted(EDGE_STATS.keys())),
self.widgets.node_stat.view('Node statistic to show',
self.widgets.apply,
sorted(NODE_STATS.keys())),
self.widgets.apply.view())
networks = [
n for n in self.widgets.network.values.choices if n in NETWORKS
]
main_views = []
for network in networks:
nodes = set()
edges = set()
for graph_entry in NETWORKS[network]:
nodes.add(
(graph_entry[0],
node_label(graph_entry[0], tables,
self.widgets.node_stat.values.choices), 0))
nodes.add(
(graph_entry[1],
node_label(graph_entry[1], tables,
self.widgets.node_stat.values.choices), 0))
edges.add((edge_label(graph_entry[0], graph_entry[1], tables,
self.widgets.edge_stat.values.choices),
0, graph_entry[0], graph_entry[1], True))
main_views += [
self._get_widget('graph_%s' % network).view(nodes, edges)
]
main_view = stack_left(*main_views)
return self.widgets.layout.view(main_view, control_panel_view)
def view(self, **tables):
self.widgets.edge_stat.guess_or_remember((tables, 'Compare'), [])
self.widgets.node_stat.guess_or_remember((tables, 'Compare'), [])
NODE_STATS = ['values']
EDGE_STATS = []
control_panel_view = stack_lines(
self.widgets.edge_stat.view('Edge statistics', self.widgets.apply,
sorted(EDGE_STATS)),
self.widgets.node_stat.view('Node statistics', self.widgets.apply,
sorted(NODE_STATS)),
self.widgets.apply.view())
data_tables = [t for t in tables.values() if t]
networks = [
n for n in self.widgets.network.values.choices if n in NETWORKS
]
main_views = []
for network in networks:
nodes = set()
edges = set()
for graph_entry in NETWORKS[network]:
nodes.add(
(graph_entry[0],
node_label(graph_entry[0], data_tables,
self.widgets.node_stat.values.choices), 0))
nodes.add(
(graph_entry[1],
node_label(graph_entry[1], data_tables,
self.widgets.node_stat.values.choices), 0))
edges.add(
(edge_label(graph_entry[0], graph_entry[1], data_tables,
self.widgets.edge_stat.values.choices), 0,
graph_entry[0], graph_entry[1], True))
main_views += [
self._get_widget('graph_%s' % network).view(nodes, edges)
]
main_view = stack_left(*main_views)
return self.widgets.layout.view(main_view, control_panel_view)
def view(self, *args, **kargs):
self._add_widget_if_needed('layout', LeftPanel)
self._add_widget_if_needed('control_panel_apply', ApplyButton)
if not any(list(args) + list(kargs.values())):
return View(self, 'No tables to display')
self._control_panel_views = []
extra_control_panel_view = self.control_panel(*args, **kargs)
if extra_control_panel_view:
self._control_panel_views.append(extra_control_panel_view)
self._control_panel_views.append(self.widgets.control_panel_apply.view())
if not self.widgets.control_panel_apply.clicked_once:
main_view = View(self, 'Click on \'apply\' to run this module')
else:
try:
main_view = self.main_view(*args, **kargs)
if not main_view:
main_view = View(self, '')
except Exception as e:
logging.exception('Exception in main_view')
main_view = View(self, str(e))
return self.widgets.layout.view(main_view, stack_lines(*self._control_panel_views))
def view(self):
if self.widgets.population_picker.is_ready() and self.widgets.population_picker.get_data(True) > 2000:
t = self.widgets.population_picker.get_data()
#t = fake_table((1,0.1), (20,1))
samples_percent = min((10000. / t.num_cells) * 100, 100)
num_samples = int((samples_percent/100) * t.data.shape[0])
truncate_cells_mi = True
t_samp = t.random_sample(num_samples)
t_mi = t_samp.get_mutual_information(
t.get_markers('signal'),
ignore_negative_values=truncate_cells_mi)
table = self.widgets.pair_table.view(all_pairs_with_mi_sorted(t_mi)[:15], t, t_mi)
elif self.widgets.population_picker.is_ready():
table = 'Not enougth cells -- need at least 2000'
else:
table = ''
return stack_lines(
self.widgets.population_picker.view(),
table)
def view(self):
if self.widgets.population_picker.is_ready(
) and self.widgets.population_picker.get_data(True) > 2000:
t = self.widgets.population_picker.get_data()
#t = fake_table((1,0.1), (20,1))
samples_percent = min((10000. / t.num_cells) * 100, 100)
num_samples = int((samples_percent / 100) * t.data.shape[0])
truncate_cells_mi = True
t_samp = t.random_sample(num_samples)
t_mi = t_samp.get_mutual_information(
t.get_markers('signal'),
ignore_negative_values=truncate_cells_mi)
table = self.widgets.pair_table.view(
all_pairs_with_mi_sorted(t_mi)[:15], t, t_mi)
elif self.widgets.population_picker.is_ready():
table = 'Not enougth cells -- need at least 2000'
else:
table = ''
return stack_lines(self.widgets.population_picker.view(), table)
def view(self):
if not self.widgets.population_picker.is_ready():
return self.widgets.population_picker.view()
if not self.widgets.negative_values_picker.values.choices:
self.widgets.negative_values_picker.values.choices = ['remove']
table = self.widgets.population_picker.get_data()
return view.stack_lines(
self.widgets.population_picker.view(),
self.widgets.dim_picker.view(
'Dimension', self.widgets.apply, table.dims, True,
[('Signal Markers', get_markers('signal')),
('Surface Markers', get_markers('surface'))]),
self.widgets.negative_values_picker.view(
'Negative Values', self.widgets.apply,
[('remove', 'Remove negative values'),
('keep', 'Keep negative values')], False),
self.widgets.apply.view(),
self.widgets.histogram_table.view(
table, self.widgets.dim_picker.values.choices, 'remove'
in self.widgets.negative_values_picker.values.choices))
def view(self, data, place_in_chain, possible_inputs):
def create_inputs_summary():
summary = []
for input in self.input_to_select:
choices = self.input_to_select[input].values.choices
choice_texts = [
p[1] for p in possible_inputs if p[0] in choices
]
#summary.append('%s: %s' % (input, choice_text))
summary.append('|'.join(choice_texts))
ret = ', '.join(summary)
if ret:
return 'Inputs: %s ' % ret
else:
if self.input_to_select:
return 'Inputs'
else:
return ''
#input_summary = View(self, '%sOutputs: %s' % (
# create_inputs_summary(),
# ', '.join(self.get_outputs())))
input_summary = View(self, create_inputs_summary())
input_content_views = []
for k, v in self.input_to_select.items():
input_content_views.append(
v.view(k,
self.widgets.input_apply,
possible_inputs,
multiple=True))
input_content_views.append(self.widgets.input_apply.view())
input_content = view.stack_lines(*input_content_views)
try:
sub_widget_view = self.widgets.sub_widget.view(
**self.create_input_map(data))
except Exception as e:
logging.exception('Exception in view')
sub_widget_view = View(self, str(e))
global CHAINABLE_WIDGETS
widget_control_view = stack_left(
self.widgets.new_widget_select.view('',
self.widgets.apply_new_widget,
zip(*CHAINABLE_WIDGETS)[0],
False),
self.widgets.apply_new_widget.view('Add before'),
self.widgets.delete_button.view('Delete'))
widget_control_view.main_html = '<div style="position:absolute; top:0; right:0;">%s</div>' % widget_control_view.main_html
sub_view = view.stack_lines(
widget_control_view,
self.widgets.input_panel.view(input_summary, input_content),
view.vertical_seperator(), sub_widget_view)
#sub_view = self.widgets.sub_widget.view(data)
#title_view = view.left_right(
# View(self, self.title(place_in_chain)),
# self.widgets.delete_button.view('Delete'))
title_view = View(self, self.title(place_in_chain))
return self.widgets.expander.view(title_view, sub_view)
def view(self, enable_expander=False):
experiments = settings.EXPERIMENTS.keys()
if not self.experiment:
return stack_lines(
self.widgets.experiment_select.view(
'Please Select an experiment', self.widgets.apply,
experiments, False), self.widgets.apply.view())
if not self.experiment in self.experiment_to_widgets:
index = self._get_index()
widgets = []
if type(settings.EXPERIMENTS[self.experiment]) == tuple:
editable_tags = settings.EXPERIMENTS[self.experiment][1]
else:
editable_tags = index.all_tags()
for tag in editable_tags:
new_widget = self._add_widget('%s_%s' % (self.experiment, tag),
Select)
new_widget.tag = tag
new_widget.vals = index.all_values_for_tag(tag)
widgets.append(new_widget)
self.experiment_to_widgets[self.experiment] = widgets
for w in self.experiment_to_widgets[self.experiment]:
w.guess_or_remember((w.tag, w.vals, self.__class__.__name__), [])
self.widgets.combine_select.guess_or_remember(
('populationpicker combine_select', self.experiment), ['combine'])
self.widgets.arcsin_factor.guess_or_remember(
('populationpicker arcsin_factor', self.experiment), 5)
#if not self.widgets.arcsin_factor.values.value:
# self.widgets.arcsin_factor.values.value = '1'
views = [
w.view(w.tag, self.widgets.apply, w.vals)
for w in self.experiment_to_widgets[self.experiment]
]
stacked_views = stack_lines(*views)
expanded = stack_lines(
self.widgets.experiment_select.view('Experiment',
self.widgets.apply,
experiments, False),
stacked_views,
self.widgets.combine_select.view(
'Combine files',
self.widgets.apply,
[('combine', 'Combine items into one table'),
('seperate',
'Seperate to one table per parameter combination')],
multiple=False),
self.widgets.arcsin_factor.view(
'Arcsinh Factor',
self.widgets.apply,
numeric_validation=True,
comment='Transformation: arcsinh(value / factor)'),
View(None,
'<p style="clear: both"></p>'), self.widgets.apply.view())
if not enable_expander:
return expanded
return self.widgets.expander.view('', [self.summary], [expanded])
def view(self, tables):
""" The view method of this module draws the control panel and the histograms.
We need at least one input to be able to draw something.
"""
if not tables:
return View(self, 'No tables to show.')
self.widgets.color.guess_or_remember(('histogram text', tables), ['name'])
self.widgets.text.guess_or_remember(('histogram colors', tables), ['name'])
self.widgets.shift.guess_or_remember(('histogram shift', tables), '0.2')
self.widgets.sort_inside.guess_or_remember(('histogram sort inside', tables), ['similarity'])
self.widgets.sort_outside.guess_or_remember(('histogram sort outside', tables), ['sort'])
self.widgets.trim.guess_or_remember(('histogram trim', tables), ['no'])
self.widgets.trim_thresh.guess_or_remember(('histogram trim thresh', tables), '0')
sort_inside_options = [('unsort', 'Keep original order'), ('similarity', 'Put similar curves together')]
sort_inside_options += [(x, 'Sort by %s' % x) for x in tables[0].tags.keys()]
# Create the control panel view. This will enable users to choose the dimensions.
control_panel_view = stack_lines(
self.widgets.dims.view('Dimension', self.widgets.apply, options_from_table(tables[0])),
self.widgets.text.view('Text by', self.widgets.apply, tables[0].tags.keys()),
self.widgets.color.view('Color by', self.widgets.apply, tables[0].tags.keys()),
self.widgets.shift.view('Shift for multiple curves', self.widgets.apply),
self.widgets.sort_inside.view('Curve sorting', self.widgets.apply,
sort_inside_options,
multiple=False),
self.widgets.sort_outside.view('Plot sorting', self.widgets.apply,
[('sort', 'Put plots with many differences first'), ('unsort', 'Keep original order')],
multiple=False),
self.widgets.trim.view('Trim plots', self.widgets.apply,
[('yes', 'Convert values lower than threshold to 0'), ('no', 'Don\'t trim')], multiple=False),
self.widgets.trim_thresh.view('Trim threshold', self.widgets.apply),
self.widgets.apply.view())
main_views = []
shift = self.widgets.shift.value_as_float()
plots_for_legend = OrderedDict()
colorer = axes.Colorer()
# Check that the user has already chosen dimensions. Otherwise, ask him
# to do so.
if self.widgets.dims.values.choices:
timer = MultiTimer(len(self.widgets.dims.values.choices))
for i, dim in enumerate(self.widgets.dims.values.choices):
try:
# Go over every dimension and create the histogram:
# First create a new figure:
fig = self.create_and_adjust_figure(tables)
ax = fig.add_subplot(111)
# Draw the histogram for every input
plots = []
sorted_tables = tables
sort_method = self.widgets.sort_inside.values.choices[0]
if sort_method == 'unsort':
sorted_tables = tables
elif sort_method == 'similarity':
thresh = None
if self.widgets.trim.get_choices()[0] == 'yes':
thresh = self.widgets.trim_thresh.value_as_float()
# get distances table:
distances = datatable.ks_distances(tables, dim, thresh)
# sort by distance
sorted_tables = greedy_distance_sort(distances, tables)
else:
# we need to sort by tags:
tag_for_sort = self.widgets.sort_inside.values.choices[0]
sorted_tables = sorted(tables, key=lambda table: table.tags[tag_for_sort])
for i, table in enumerate(sorted_tables):
color_tags = self.widgets.color.values.choices
color_key = tuple([table.tags[c] for c in color_tags])
min_x = None
if self.widgets.trim.get_choices()[0] =='yes':
min_x = self.widgets.trim_thresh.value_as_float()
plot = axes.kde1d(ax, table, dim,
color=colorer.get_color(color_key),
min_x=min_x,
shift=shift*i)
plots_for_legend[color_key] = plot
# Add ticks with table names:
if self.widgets.shift.value_as_float() > 0:
ax.set_yticks(np.arange(0, len(tables)*shift, shift))
ax.set_yticklabels([t.get_tags(self.widgets.text.values.choices) for t in sorted_tables], size='xx-small')
# set axes y range:
ax.set_ylim(bottom = -0.1, top=0.8+shift*(len(sorted_tables)-1))
# Make sure we don't create the same widget twice. We create a new widget
# for every dimension asked.
widget_key = self._normalize_id(dim)
if not widget_key in self.widgets:
self._add_widget(widget_key, Figure)
figure_widget = self.widgets[widget_key]
if len(tables) > 1:
from scipy.stats import ks_2samp
ks, p_ks = ks_2samp(tables[0].get_cols(dim)[0], tables[1].get_cols(dim)[0])
ks_view = View(self, 'ks: %.3f, p_ks: %.10f' % (ks, p_ks))
final_view = stack_lines(ks_view, figure_widget.view(fig))
else:
ks, p_ks = 0, 0
final_view = figure_widget.view(fig)
# Add the new widget's view
main_views.append((ks, p_ks, final_view))
except Exception as e:
logging.exception('Exception when drawing histogram')
main_views.append((0, 0, View(self, str(e))))
timer.complete_task(dim)
# sort by the ks test:
main_views = sorted(main_views, key=itemgetter(0), reverse=True)
main_views = [v[2] for v in main_views]
# create legend:
legened_titles = plots_for_legend.keys()
print len(legened_titles)
max_title_len = max([len(str(t)) for t in legened_titles] + [0])
print max_title_len
WIDTH_PER_LETTER = 7
EXTRA_WIDTH = 60
HEIGHT_PER_LINE = 30
EXTRA_HEIGHT = 50
MIN_X = 300
MIN_Y = 100
legend_x = max(MIN_X, EXTRA_WIDTH + WIDTH_PER_LETTER * max_title_len)
legend_y = max(MIN_Y, EXTRA_HEIGHT + HEIGHT_PER_LINE * len(legened_titles))
fig = axes.new_figure(legend_x, legend_y)
ax = fig.add_subplot(111)
ax.get_xaxis().set_visible(False)
ax.get_yaxis().set_visible(False)
ax.legend(plots_for_legend.values(),
plots_for_legend.keys(),
loc='center',
mode='expand',
frameon=False,
prop={'size' : 'xx-small'})
main_views = [self.widgets.legend_figure.view(fig)] + main_views
main_view = view.stack_left(*main_views)
else:
main_view = View(None, 'Please select dimensions')
# combine the control panel and the main view togeteher:
return self.widgets.layout.view(main_view, control_panel_view)
def view(self, tables):
""" The view method of this module draws the control panel and the histograms.
We need at least one input to be able to draw something.
"""
if not tables:
return View(self, 'No tables to show.')
self.widgets.color.guess_or_remember(('histogram text', tables),
['name'])
self.widgets.text.guess_or_remember(('histogram colors', tables),
['name'])
self.widgets.shift.guess_or_remember(('histogram shift', tables),
'0.2')
self.widgets.sort_inside.guess_or_remember(
('histogram sort inside', tables), ['similarity'])
self.widgets.sort_outside.guess_or_remember(
('histogram sort outside', tables), ['sort'])
self.widgets.trim.guess_or_remember(('histogram trim', tables), ['no'])
self.widgets.trim_thresh.guess_or_remember(
('histogram trim thresh', tables), '0')
sort_inside_options = [('unsort', 'Keep original order'),
('similarity', 'Put similar curves together')]
sort_inside_options += [(x, 'Sort by %s' % x)
for x in tables[0].tags.keys()]
# Create the control panel view. This will enable users to choose the dimensions.
control_panel_view = stack_lines(
self.widgets.dims.view('Dimension', self.widgets.apply,
options_from_table(tables[0])),
self.widgets.text.view('Text by', self.widgets.apply,
tables[0].tags.keys()),
self.widgets.color.view('Color by', self.widgets.apply,
tables[0].tags.keys()),
self.widgets.shift.view('Shift for multiple curves',
self.widgets.apply),
self.widgets.sort_inside.view('Curve sorting',
self.widgets.apply,
sort_inside_options,
multiple=False),
self.widgets.sort_outside.view(
'Plot sorting',
self.widgets.apply,
[('sort', 'Put plots with many differences first'),
('unsort', 'Keep original order')],
multiple=False),
self.widgets.trim.view(
'Trim plots',
self.widgets.apply,
[('yes', 'Convert values lower than threshold to 0'),
('no', 'Don\'t trim')],
multiple=False),
self.widgets.trim_thresh.view('Trim threshold',
self.widgets.apply),
self.widgets.apply.view())
main_views = []
shift = self.widgets.shift.value_as_float()
plots_for_legend = OrderedDict()
colorer = axes.Colorer()
# Check that the user has already chosen dimensions. Otherwise, ask him
# to do so.
if self.widgets.dims.values.choices:
timer = MultiTimer(len(self.widgets.dims.values.choices))
for i, dim in enumerate(self.widgets.dims.values.choices):
try:
# Go over every dimension and create the histogram:
# First create a new figure:
fig = self.create_and_adjust_figure(tables)
ax = fig.add_subplot(111)
# Draw the histogram for every input
plots = []
sorted_tables = tables
sort_method = self.widgets.sort_inside.values.choices[0]
if sort_method == 'unsort':
sorted_tables = tables
elif sort_method == 'similarity':
thresh = None
if self.widgets.trim.get_choices()[0] == 'yes':
thresh = self.widgets.trim_thresh.value_as_float()
# get distances table:
distances = datatable.ks_distances(tables, dim, thresh)
# sort by distance
sorted_tables = greedy_distance_sort(distances, tables)
else:
# we need to sort by tags:
tag_for_sort = self.widgets.sort_inside.values.choices[
0]
sorted_tables = sorted(
tables, key=lambda table: table.tags[tag_for_sort])
for i, table in enumerate(sorted_tables):
color_tags = self.widgets.color.values.choices
color_key = tuple([table.tags[c] for c in color_tags])
min_x = None
if self.widgets.trim.get_choices()[0] == 'yes':
min_x = self.widgets.trim_thresh.value_as_float()
plot = axes.kde1d(ax,
table,
dim,
color=colorer.get_color(color_key),
min_x=min_x,
shift=shift * i)
plots_for_legend[color_key] = plot
# Add ticks with table names:
if self.widgets.shift.value_as_float() > 0:
ax.set_yticks(np.arange(0, len(tables) * shift, shift))
ax.set_yticklabels([
t.get_tags(self.widgets.text.values.choices)
for t in sorted_tables
],
size='xx-small')
# set axes y range:
ax.set_ylim(bottom=-0.1,
top=0.8 + shift * (len(sorted_tables) - 1))
# Make sure we don't create the same widget twice. We create a new widget
# for every dimension asked.
widget_key = self._normalize_id(dim)
if not widget_key in self.widgets:
self._add_widget(widget_key, Figure)
figure_widget = self.widgets[widget_key]
if len(tables) > 1:
from scipy.stats import ks_2samp
ks, p_ks = ks_2samp(tables[0].get_cols(dim)[0],
tables[1].get_cols(dim)[0])
ks_view = View(self,
'ks: %.3f, p_ks: %.10f' % (ks, p_ks))
final_view = stack_lines(ks_view,
figure_widget.view(fig))
else:
ks, p_ks = 0, 0
final_view = figure_widget.view(fig)
# Add the new widget's view
main_views.append((ks, p_ks, final_view))
except Exception as e:
logging.exception('Exception when drawing histogram')
main_views.append((0, 0, View(self, str(e))))
timer.complete_task(dim)
# sort by the ks test:
main_views = sorted(main_views, key=itemgetter(0), reverse=True)
main_views = [v[2] for v in main_views]
# create legend:
legened_titles = plots_for_legend.keys()
print len(legened_titles)
max_title_len = max([len(str(t)) for t in legened_titles] + [0])
print max_title_len
WIDTH_PER_LETTER = 7
EXTRA_WIDTH = 60
HEIGHT_PER_LINE = 30
EXTRA_HEIGHT = 50
MIN_X = 300
MIN_Y = 100
legend_x = max(MIN_X,
EXTRA_WIDTH + WIDTH_PER_LETTER * max_title_len)
legend_y = max(
MIN_Y, EXTRA_HEIGHT + HEIGHT_PER_LINE * len(legened_titles))
fig = axes.new_figure(legend_x, legend_y)
ax = fig.add_subplot(111)
ax.get_xaxis().set_visible(False)
ax.get_yaxis().set_visible(False)
ax.legend(plots_for_legend.values(),
plots_for_legend.keys(),
loc='center',
mode='expand',
frameon=False,
prop={'size': 'xx-small'})
main_views = [self.widgets.legend_figure.view(fig)] + main_views
main_view = view.stack_left(*main_views)
else:
main_view = View(None, 'Please select dimensions')
# combine the control panel and the main view togeteher:
return self.widgets.layout.view(main_view, control_panel_view)
