def __init__(self, prefix=''):
super(RangeForm, self).__init__(prefix)
self.lo = SimpleFloatField(self, name='lo', required=True, label='Lo', doc='start of range')
# default=ContinuousWaveletTransform.frequencies.lo)
self.step = SimpleFloatField(self, name='step', required=True, label='Step', doc='step of range')
# default=ContinuousWaveletTransform.frequencies.step)
self.hi = SimpleFloatField(self, name='hi', required=True, label='Hi', doc='end of range')
class EquationPlotForm(Form):
def __init__(self):
super(EquationPlotForm, self).__init__()
self.min_x = SimpleFloatField(
self,
name='min_x',
label='Min distance(mm)',
doc="The minimum value of the x-axis for spatial equation plot.",
default=0)
self.max_x = SimpleFloatField(
self,
name='max_x',
label='Max distance(mm)',
doc="The maximum value of the x-axis for spatial equation plot.",
default=100)
def fill_from_post(self, form_data):
if self.min_x.name in form_data:
self.min_x.fill_from_post(form_data)
if self.max_x.name in form_data:
self.max_x.fill_from_post(form_data)
@using_template('form_fields/form')
def __str__(self):
return {'form': self}
def __init__(self):
super(EquationTemporalPlotForm, self).__init__()
self.min_tmp_x = SimpleFloatField(self, name='min_tmp_x', label='Temporal Start Time(ms)', default=0,
doc="The minimum value of the x-axis for temporal equation plot. "
"Not persisted, used only for visualization.")
self.max_tmp_x = SimpleFloatField(self, name='max_tmp_x', label='Temporal End Time(ms)', default=100,
doc="The maximum value of the x-axis for temporal equation plot. "
"Not persisted, used only for visualization.")
class EquationSpatialPlotForm(Form):
def __init__(self):
super(EquationSpatialPlotForm, self).__init__()
self.min_space_x = SimpleFloatField(self, name='min_space_x', label='Spatial Start Distance(mm)', default=0,
doc="The minimum value of the x-axis for spatial equation plot.")
self.max_space_x = SimpleFloatField(self, name='max_space_x', label='Spatial End Distance(mm)', default=100,
doc="The maximum value of the x-axis for spatial equation plot.")
def fill_from_post(self, form_data):
if self.min_space_x.name in form_data:
self.min_space_x.fill_from_post(form_data)
if self.max_space_x.name in form_data:
self.max_space_x.fill_from_post(form_data)
def __init__(self):
super(EquationPlotForm, self).__init__()
self.min_x = SimpleFloatField(
self,
name='min_x',
label='Min distance(mm)',
doc="The minimum value of the x-axis for spatial equation plot.",
default=0)
self.max_x = SimpleFloatField(
self,
name='max_x',
label='Max distance(mm)',
doc="The maximum value of the x-axis for spatial equation plot.",
default=100)
def __init__(self):
super(EquationSpatialPlotForm, self).__init__()
self.min_space_x = SimpleFloatField(
self,
name='min_space_x',
label='Spatial Start Distance(mm)',
default=0,
doc="The minimum value of the x-axis for spatial equation plot.")
self.max_space_x = SimpleFloatField(
self,
name='max_space_x',
label='Spatial End Distance(mm)',
default=100,
doc="The maximum value of the x-axis for spatial equation plot.")
class EquationTemporalPlotForm(Form):
def __init__(self):
super(EquationTemporalPlotForm, self).__init__()
self.min_tmp_x = SimpleFloatField(self, name='min_tmp_x', label='Temporal Start Time(ms)', default=0,
doc="The minimum value of the x-axis for temporal equation plot. "
"Not persisted, used only for visualization.")
self.max_tmp_x = SimpleFloatField(self, name='max_tmp_x', label='Temporal End Time(ms)', default=100,
doc="The maximum value of the x-axis for temporal equation plot. "
"Not persisted, used only for visualization.")
def fill_from_post(self, form_data):
if self.min_tmp_x.name in form_data:
self.min_tmp_x.fill_from_post(form_data)
if self.max_tmp_x.name in form_data:
self.max_tmp_x.fill_from_post(form_data)
def _add_fields_for_float(self, param, param_key):
# type: (RangeParameter, str) -> None
pse_param_lo = SimpleFloatField(self,
name=self.LO_FIELD.format(param_key),
required=True,
label='LO for {}'.format(param.name),
default=param.range_definition.lo)
self.__setattr__(self.LO_FIELD.format(param_key), pse_param_lo)
pse_param_hi = SimpleFloatField(self,
name=self.HI_FIELD.format(param_key),
required=True,
label='HI for {}'.format(param.name),
default=param.range_definition.hi)
self.__setattr__(self.HI_FIELD.format(param_key), pse_param_hi)
pse_param_step = SimpleFloatField(
self,
name=self.STEP_FIELD.format(param_key),
required=True,
label='STEP for {}'.format(param.name),
default=param.range_definition.step)
self.__setattr__(self.STEP_FIELD.format(param_key), pse_param_step)
def __init__(self, pse_param1, pse_param2, prefix='', project_id=None):
# type: (RangeParameter) -> None
super(SimulatorPSEParamRangeFragment, self).__init__(prefix, project_id)
self.pse_param1_name = SimpleHiddenField(self, name='pse_param1_name', default=pse_param1.name)
if pse_param1.type is float:
self.pse_param1_lo = SimpleFloatField(self, name='pse_param1_lo', required=True, label='pse_param1_lo',
default=pse_param1.range_definition.lo)
self.pse_param1_hi = SimpleFloatField(self, name='pse_param1_hi', required=True, label='pse_param1_hi',
default=pse_param1.range_definition.hi)
self.pse_param1_step = SimpleFloatField(self, name='pse_param1_step', required=True,
label='pse_param1_step', default=pse_param1.range_definition.step)
else:
self.pse_param1_dt = DataTypeSelectField(h5.REGISTRY.get_index_for_datatype(pse_param1.type), self,
name='pse_param1', required=True, label='pse_param1',
dynamic_conditions=pse_param1.range_definition,
has_all_option=True)
if pse_param2:
self.pse_param2_name = SimpleHiddenField(self, name='pse_param2_name', default=pse_param2.name)
if pse_param2.type is float:
self.pse_param2_lo = SimpleFloatField(self, name='pse_param2_lo', required=True, label='pse_param2_lo',
default=pse_param2.range_definition.lo)
self.pse_param2_hi = SimpleFloatField(self, name='pse_param2_hi', required=True, label='pse_param2_hi',
default=pse_param2.range_definition.hi)
self.pse_param2_step = SimpleFloatField(self, name='pse_param2_step', required=True,
label='pse_param2_step',
default=pse_param2.range_definition.step)
else:
self.pse_param2_dt = DataTypeSelectField(h5.REGISTRY.get_index_for_datatype(pse_param2.type), self,
name='pse_param2', required=True, label='pse_param2',
dynamic_conditions=pse_param2.range_definition,
has_all_option=True)
def __init__(self, prefix=''):
super(EquationForm, self).__init__(prefix)
self.equation = ScalarField(self.get_traited_equation().equation,
self,
disabled=True)
for param_key, param in self.get_traited_equation().parameters.default(
).items():
setattr(
self, param_key,
SimpleFloatField(self,
param_key,
required=True,
label=param_key,
default=param))
def __init__(self, prefix='', project_id=None):
super(ConnectivityViewerForm, self).__init__(prefix, project_id)
# filters_ui = [UIFilter(linked_elem_name="colors",
# linked_elem_field=FilterChain.datatype + "._connectivity"),
# UIFilter(linked_elem_name="rays",
# linked_elem_field=FilterChain.datatype + "._connectivity")]
# json_ui_filter = json.dumps([ui_filter.to_dict() for ui_filter in filters_ui])
# KWARG_FILTERS_UI: json_ui_filter
self.connectivity = DataTypeSelectField(self.get_required_datatype(),
self,
name='input_data',
required=True,
label='Connectivity Matrix',
conditions=self.get_filters())
surface_conditions = FilterChain(
fields=[FilterChain.datatype + '.surface_type'],
operations=["=="],
values=['Cortical Surface'])
self.surface_data = DataTypeSelectField(
SurfaceIndex,
self,
name='surface_data',
label='Brain Surface',
doc=
'The Brain Surface is used to give you an idea of the connectivity '
'position relative to the full brain cortical surface. This surface'
' will be displayed as a shadow (only used in 3D Edges tab).',
conditions=surface_conditions)
self.step = SimpleFloatField(
self,
name='step',
label='Color Threshold',
doc=
'All nodes with a value greater or equal (>=) than this threshold will be '
'displayed as red discs, otherwise (<) they will be yellow. (This applies to '
'2D Connectivity tabs and the threshold will depend on the metric used to set '
'the Node Color)')
colors_conditions = FilterChain(
fields=[FilterChain.datatype + '.ndim'],
operations=["=="],
values=[1])
self.colors = DataTypeSelectField(
ConnectivityMeasureIndex,
self,
name='colors',
conditions=colors_conditions,
label='Node Colors',
doc='A ConnectivityMeasure DataType that establishes a '
'colormap for the nodes displayed in the 2D '
'Connectivity tabs.')
rays_conditions = FilterChain(fields=[FilterChain.datatype + '.ndim'],
operations=["=="],
values=[1])
self.rays = DataTypeSelectField(
ConnectivityMeasureIndex,
self,
name='rays',
conditions=rays_conditions,
label='Shapes Dimensions',
doc='A ConnectivityMeasure datatype used to establish '
'the size of the spheres representing each node. '
'(It only applies to 3D Nodes tab).')
