def mat_shape(self):
"""Get the shape of the represented matrix."""
self.check_rows_cols()
helpers.check_axis_names(self)
nrows = 1
for axis in self.rows:
nrows *= self.shape[axis]
ncols = 1
for axis in self.cols:
ncols *= self.shape[axis]
return (nrows, ncols)
def mat_shape(self):
"""Get the shape of the represented matrix."""
self.check_rows_cols()
helpers.check_axis_names(self)
nrows = 1
for axis in self.rows:
nrows *= self.shape[axis]
ncols = 1
for axis in self.cols:
ncols *= self.shape[axis]
return (nrows, ncols)
def __setattr__(self, name, value):
if name == 'axes':
helpers.check_axis_names(self, value)
self.info['axes'] = value
elif name == 'rows':
for ind in value:
if ind not in range(self.ndim):
raise ValueError("Invalid row axes.")
self.info['rows'] = tuple(value)
elif name == 'cols':
for ind in value:
if ind not in range(self.ndim):
raise ValueError("Invalid col axes.")
self.info['cols'] = tuple(value)
else:
self.info_base.__setattr__(self, name, value)
def __setattr__(self, name, value):
if name == 'axes':
helpers.check_axis_names(self, value)
self.info['axes'] = value
elif name == 'rows':
for ind in value:
if ind not in range(self.ndim):
raise ValueError("Invalid row axes.")
self.info['rows'] = tuple(value)
elif name == 'cols':
for ind in value:
if ind not in range(self.ndim):
raise ValueError("Invalid col axes.")
self.info['cols'] = tuple(value)
else:
self.info_base.__setattr__(self, name, value)
def __new__(cls,
input_array,
row_axes=None,
col_axes=None,
axis_names=None):
if not isinstance(input_array, cls.info_base):
raise ValueError("Array to convert must be instance of " +
str(cls.info_base))
obj = input_array.view(cls)
if 'type' in obj.info:
if axis_names is not None or \
row_axes is not None or \
col_axes is not None:
warnings.warn("Initialization argument ignored. Requisite "
"metadata for matrix already exists. "
"Clear info dictionary if you want opposite "
"behaviour.")
if obj.info['type'] != 'mat':
raise ValueError("Meta data present is incompatible.")
helpers.check_axis_names(obj)
helpers.check_rows_cols(obj)
else:
if row_axes is None and \
col_axes is None and \
(input_array.ndim == 2):
row_axes = (0, )
col_axes = (1, )
else:
helpers.check_rows_cols(input_array, row_axes, col_axes)
helpers.set_type_axes(obj, 'mat', axis_names)
obj.rows = row_axes
obj.cols = col_axes
return obj
def __new__(cls, input_array, axis_names=None):
if not isinstance(input_array, cls.info_base):
raise ValueError("Array to convert must be instance of " +
str(cls.info_base))
obj = input_array.view(cls)
if 'type' in obj.info:
if axis_names is not None:
warnings.warn("Initialization argument ignored. Requisite "
"metadata for vector already exists. "
"Clear info dictionary if you want opposite "
"behaviour.")
if obj.info['type'] != 'vect':
raise ValueError("Meta data present is incompatible.")
helpers.check_axis_names(obj)
else:
helpers.set_type_axes(obj, 'vect', axis_names)
return obj
def __new__(cls, input_array, axis_names=None):
if not isinstance(input_array, cls.info_base):
raise ValueError("Array to convert must be instance of " +
str(cls.info_base))
obj = input_array.view(cls)
if 'type' in obj.info:
if axis_names is not None:
warnings.warn("Initialization argument ignored. Requisite "
"metadata for vector already exists. "
"Clear info dictionary if you want opposite "
"behaviour.")
if obj.info['type'] != 'vect':
raise ValueError("Meta data present is incompatible.")
helpers.check_axis_names(obj)
else:
helpers.set_type_axes(obj, 'vect', axis_names)
return obj
def __new__(cls, input_array, row_axes=None, col_axes=None,
axis_names=None):
if not isinstance(input_array, cls.info_base):
raise ValueError("Array to convert must be instance of " +
str(cls.info_base))
obj = input_array.view(cls)
if 'type' in obj.info:
if axis_names is not None or \
row_axes is not None or \
col_axes is not None:
warnings.warn("Initialization argument ignored. Requisite "
"metadata for matrix already exists. "
"Clear info dictionary if you want opposite "
"behaviour.")
if obj.info['type'] != 'mat':
raise ValueError("Meta data present is incompatible.")
helpers.check_axis_names(obj)
helpers.check_rows_cols(obj)
else:
if row_axes is None and \
col_axes is None and \
(input_array.ndim == 2):
row_axes = (0,)
col_axes = (1,)
else:
helpers.check_rows_cols(input_array, row_axes, col_axes)
helpers.set_type_axes(obj, 'mat', axis_names)
obj.rows = row_axes
obj.cols = col_axes
return obj
def __setattr__(self, name, value):
if name == 'axes':
helpers.check_axis_names(self, value)
self.info['axes'] = value
else:
self.info_base.__setattr__(self, name, value)
def mat_shape(self):
"""Get the shape of the represented matrix (vector)."""
helpers.check_axis_names(self)
return (self.size, )
def __setattr__(self, name, value):
if name == 'axes':
helpers.check_axis_names(self, value)
self.info['axes'] = value
else:
self.info_base.__setattr__(self, name, value)
def mat_shape(self):
"""Get the shape of the represented matrix (vector)."""
helpers.check_axis_names(self)
return (self.size,)
