def __init__(self, start_point, rect_size, shape, position,
clockwise=True):
''' (QPointF, QSizeF, str in self.SHAPES, str in self.POSITIONS, bool)
'''
W, H = rect_size.width(), rect_size.height()
vlarg('start_point', start_point, QPointF)
vlarg('rect_size', rect_size, QSizeF)
vlarg('position', position, str, self.POSITIONS)
vlarg('shape', shape, str, self.SHAPES)
vlarg('clockwise', clockwise, bool)
GxPainterPath.__init__(self, start_point)
if shape == 'trig':
if clockwise:
if position == 'top-right':
self.lineToInc(W, H)
elif position == 'bottom-right':
self.lineToInc(-W, H)
elif position == 'bottom-left':
self.lineToInc(-W, -H)
elif position == 'top-left':
self.lineToInc(W, -H)
else:
if position == 'top-left':
self.lineToInc(-W, H)
elif position == 'bottom-left':
self.lineToInc(W, H)
elif position == 'bottom-right':
self.lineToInc(W, -H)
elif position == 'top-right':
self.lineToInc(-W, -H)
elif shape == 'arc':
if clockwise:
if position == 'top-right':
self.arcTo(self.x - W, self.y, 2*W, 2*H, -270, -90)
elif position == 'bottom-right':
self.arcTo(self.x - 2*W, self.y - H, 2*W, 2*H, 0, -90)
elif position == 'bottom-left':
self.arcTo(self.x - W, self.y - 2*H, 2*W, 2*H, -90, -90)
elif position == 'top-left':
self.arcTo(self.x, self.y - H, 2*W, 2*H, -180, -90)
else:
if position == 'top-left':
self.arcTo(self.x - W, self.y, 2*W, 2*H, 90, 90)
elif position == 'bottom-left':
self.arcTo(self.x, self.y - H, 2*W, 2*H, 180, 90)
elif position == 'bottom-right':
self.arcTo(self.x - W, self.y - 2*H, 2*W, 2*H, 270, 90)
elif position == 'top-right':
self.arcTo(self.x - 2*W, self.y - H, 2*W, 2*H, 0, 90)
elif shape == 'rect':
if clockwise:
if position == 'top-right':
self.lineToInc(dx = W)
self.lineToInc(dy = H)
elif position == 'bottom-right':
self.lineToInc(dy = H)
self.lineToInc(dx = -W)
elif position == 'bottom-left':
self.lineToInc(dx = -W)
self.lineToInc(dy = -H)
elif position == 'top-left':
self.lineToInc(dy = -H)
self.lineToInc(dx = W)
else:
if position == 'top-left':
self.lineToInc(dx = -W)
self.lineToInc(dy = H)
elif position == 'bottom-left':
self.lineToInc(dy = H)
self.lineToInc(dx = W)
elif position == 'bottom-right':
self.lineToInc(dx = W)
self.lineToInc(dy = -H)
elif position == 'top-right':
self.lineToInc(dy = -H)
self.lineToInc(dx = -W)
def __init__(self, start_point, rect_size, shape, direction, facing):
'''
:param start_point: ``QPointF``
Point from where this path will begin to draw.
:param rect_size: ``QSizeF``
Size of the bounding rectangle for this path.
:param shape: ``str`` in ``self.VALID_SHAPES``
Shape of the notch.
:param direction: ``str`` in ``self.VALID_DIRECTIONS``
Indicates the direction of the drawing (using vectorial notation).
:param facing: ``str`` in ``self.VALID_FACING_SIDES``
Indicates to which side the top of the trapezium is going to be
pointing on.
'''
if direction[1] == 'j':
facing = vlarg('facing', facing.lower(), str,
('left', 'right'))
else:
facing = vlarg('facing', facing.lower(), str,
('up', 'down'))
valid_shapes = [x.split('/')[0] for x in self.VALID_SHAPES]
tf = 0.0 # top factor
given_shape = shape
shape = vlarg('shape', shape, str).strip()
if not shape.count('/'):
shape = vlarg('shape', shape, str, valid_shapes)
else:
sp = shape.split('/')
shape = vlarg('shape', sp[0].strip(), str, valid_shapes)
try:
tf = float(sp[1]) if sp[1].strip() != '' else 0.0
except:
raise ValueError("Argument 'shape' must have the format" +\
" '%%s/%%f'. Was given '%s'." % given_shape)
tf = vlarg('shape', tf, float, range_='0.0|1.0')
# setting up some useful dimensions
W, H = rect_size.width(), rect_size.height()
if direction[1] == 'j':
tl = tf * H # top lenght (for vertical)
ts = (H - tl)/2 # top spacing (for vertical)
else:
tl = tf * W # top lenght (for horizontal)
ts = (W - tl)/2 # top spacing (for horizontal)
QPainterPath.__init__(self, start_point)
if shape == 'trig':
if direction == '+j':
if facing == 'left':
self.lineToInc(-W, ts)
self.lineToInc(dy = tl)
self.lineToInc(W, ts)
elif facing == 'right':
self.lineToInc(W, ts)
self.lineToInc(dy = tl)
self.lineToInc(-W, ts)
elif direction == '-j':
if facing == 'left':
self.lineToInc(-W, -ts)
self.lineToInc(dy = -tl)
self.lineToInc(W, -ts)
elif facing == 'right':
self.lineToInc(W, -ts)
self.lineToInc(dy = -tl)
self.lineToInc(-W, -ts)
elif direction == '+i':
if facing == 'up':
self.lineToInc(ts, -H)
self.lineToInc(dx = tl)
self.lineToInc(ts, H)
elif facing == 'down':
self.lineToInc(ts, H)
self.lineToInc(dx = tl)
self.lineToInc(ts, -H)
elif direction == '-i':
if facing == 'up':
self.lineToInc(-ts, -H)
self.lineToInc(dx = -tl)
self.lineToInc(-ts, H)
elif facing == 'down':
self.lineToInc(-ts, H)
self.lineToInc(dx = -tl)
self.lineToInc(-ts, -H)
elif shape == 'arc':
if direction == '+j':
if facing == 'left':
self.arcTo(self.x - W, self.y, 2*W, 2*ts, 90, 90)
self.lineToInc(dy = tl)
self.arcTo(self.x, self.y - ts, 2*W, 2*ts, 180, 90)
elif facing == 'right':
self.arcTo(self.x - W, self.y, 2*W, 2*ts, 90, -90)
self.lineToInc(dy = tl)
self.arcTo(self.x - 2*W, self.y - ts, 2*W, 2*ts, 0, -90)
elif direction == '-j':
if facing == 'left':
self.arcTo(self.x - W, self.y - 2*ts, 2*W, 2*ts, -90, -90)
self.lineToInc(dy = -tl)
self.arcTo(self.x, self.y - ts, 2*W, 2*ts, 180, -90)
elif facing == 'right':
self.arcTo(self.x - W, self.y - 2*ts, 2*W, 2*ts, -90, 90)
self.lineToInc(dy = -tl)
self.arcTo(self.x - 2*W, self.y - ts, 2*W, 2*ts, 0, 90)
elif direction == '+i':
if facing == 'up':
self.arcTo(self.x, self.y - H, 2*ts, 2*H, 180, -90)
self.lineToInc(dx = tl)
self.arcTo(self.x - ts, self.y, 2*ts, 2*H, 90, -90)
elif facing == 'down':
self.arcTo(self.x, self.y - H, 2*ts, 2*H, 180, 90)
self.lineToInc(dx = tl)
self.arcTo(self.x - ts, self.y - 2*H, 2*ts, 2*H, -90, 90)
elif direction == '-i':
if facing == 'up':
self.arcTo(self.x - 2*ts, self.y - H, 2*ts, 2*H, 0, 90)
self.lineToInc(dx = -tl)
self.arcTo(self.x - ts, self.y, 2*ts, 2*H, 90, 90)
elif facing == 'down':
self.arcTo(self.x - 2*ts, self.y - H, 2*ts, 2*H, 0, -90)
self.lineToInc(dx = -tl)
self.arcTo(self.x - ts, self.y - 2*H, 2*ts, 2*H, -90, -90)
def __init__(self, start_point, rect_size, shape, direction, facing):
''' (QPointF, QSizeF, str in self.SHAPES, str in self.DIRECTIONS,
str in self.FACING_SIDES)
'''
vlarg('start_point', start_point, QPointF)
vlarg('rect_size', rect_size, QSizeF)
direction = vlarg('direction', direction.lower(),
str, self.DIRECTIONS)
vlarg('facing', facing, str)
if direction[1] == 'j':
facing = vlarg('facing', facing.lower(), str,
('left', 'right'))
else:
facing = vlarg('facing', facing.lower(), str,
('up', 'down'))
valid_shapes = [x.split('/')[0] for x in self.SHAPES]
tf = 0.0 # top factor
given_shape = shape
shape = vlarg('shape', shape, str).strip()
if not shape.count('/'):
shape = vlarg('shape', shape, str, valid_shapes)
else:
sp = shape.split('/')
shape = vlarg('shape', sp[0].strip(), str, valid_shapes)
try:
tf = float(sp[1]) if sp[1].strip() != '' else 0.0
except:
raise ValueError("Argument 'shape' must have the format" +\
" '%%s/%%f'. Was given '%s'." % given_shape)
tf = vlarg('shape', tf, float, range_='0.0|1.0')
# setting up some useful dimensions
W, H = rect_size.width(), rect_size.height()
if direction[1] == 'j':
tl = tf * H # top lenght (for vertical)
ts = (H - tl)/2 # top spacing (for vertical)
else:
tl = tf * W # top lenght (for horizontal)
ts = (W - tl)/2 # top spacing (for horizontal)
QPainterPath.__init__(self, start_point)
if shape == 'trig':
if direction == '+j':
if facing == 'left':
self.lineToInc(-W, ts)
self.lineToInc(dy = tl)
self.lineToInc(W, ts)
elif facing == 'right':
self.lineToInc(W, ts)
self.lineToInc(dy = tl)
self.lineToInc(-W, ts)
elif direction == '-j':
if facing == 'left':
self.lineToInc(-W, -ts)
self.lineToInc(dy = -tl)
self.lineToInc(W, -ts)
elif facing == 'right':
self.lineToInc(W, -ts)
self.lineToInc(dy = -tl)
self.lineToInc(-W, -ts)
elif direction == '+i':
if facing == 'up':
self.lineToInc(ts, -H)
self.lineToInc(dx = tl)
self.lineToInc(ts, H)
elif facing == 'down':
self.lineToInc(ts, H)
self.lineToInc(dx = tl)
self.lineToInc(ts, -H)
elif direction == '-i':
if facing == 'up':
self.lineToInc(-ts, -H)
self.lineToInc(dx = -tl)
self.lineToInc(-ts, H)
elif facing == 'down':
self.lineToInc(-ts, H)
self.lineToInc(dx = -tl)
self.lineToInc(-ts, -H)
elif shape == 'arc':
if direction == '+j':
if facing == 'left':
self.arcTo(self.x - W, self.y, 2*W, 2*ts, 90, 90)
self.lineToInc(dy = tl)
self.arcTo(self.x, self.y - ts, 2*W, 2*ts, 180, 90)
elif facing == 'right':
self.arcTo(self.x - W, self.y, 2*W, 2*ts, 90, -90)
self.lineToInc(dy = tl)
self.arcTo(self.x - 2*W, self.y - ts, 2*W, 2*ts, 0, -90)
elif direction == '-j':
if facing == 'left':
self.arcTo(self.x - W, self.y - 2*ts, 2*W, 2*ts, -90, -90)
self.lineToInc(dy = -tl)
self.arcTo(self.x, self.y - ts, 2*W, 2*ts, 180, -90)
elif facing == 'right':
self.arcTo(self.x - W, self.y - 2*ts, 2*W, 2*ts, -90, 90)
self.lineToInc(dy = -tl)
self.arcTo(self.x - 2*W, self.y - ts, 2*W, 2*ts, 0, 90)
elif direction == '+i':
if facing == 'up':
self.arcTo(self.x, self.y - H, 2*ts, 2*H, 180, -90)
self.lineToInc(dx = tl)
self.arcTo(self.x - ts, self.y, 2*ts, 2*H, 90, -90)
elif facing == 'down':
self.arcTo(self.x, self.y - H, 2*ts, 2*H, 180, 90)
self.lineToInc(dx = tl)
self.arcTo(self.x - ts, self.y - 2*H, 2*ts, 2*H, -90, 90)
elif direction == '-i':
if facing == 'up':
self.arcTo(self.x - 2*ts, self.y - H, 2*ts, 2*H, 0, 90)
self.lineToInc(dx = -tl)
self.arcTo(self.x - ts, self.y, 2*ts, 2*H, 90, 90)
elif facing == 'down':
self.arcTo(self.x - 2*ts, self.y - H, 2*ts, 2*H, 0, -90)
self.lineToInc(dx = -tl)
self.arcTo(self.x - ts, self.y - 2*H, 2*ts, 2*H, -90, -90)
def __init__(self, start_point, rect_size, shape, direction, facing):
"""
:param start_point: ``QPointF``
Point from where this path will begin to draw.
:param rect_size: ``QSizeF``
Size of the bounding rectangle for this path.
:param shape: ``str`` in ``self.VALID_SHAPES``
Shape of the notch.
:param direction: ``str`` in ``self.VALID_DIRECTIONS``
Indicates the direction of the drawing (using vectorial notation).
:param facing: ``str`` in ``self.VALID_FACING_SIDES``
Indicates to which side the top of the trapezium is going to be
pointing on.
"""
if direction[1] == "j":
facing = vlarg("facing", facing.lower(), str, ("left", "right"))
else:
facing = vlarg("facing", facing.lower(), str, ("up", "down"))
valid_shapes = [x.split("/")[0] for x in self.VALID_SHAPES]
tf = 0.0 # top factor
given_shape = shape
shape = vlarg("shape", shape, str).strip()
if not shape.count("/"):
shape = vlarg("shape", shape, str, valid_shapes)
else:
sp = shape.split("/")
shape = vlarg("shape", sp[0].strip(), str, valid_shapes)
try:
tf = float(sp[1]) if sp[1].strip() != "" else 0.0
except:
raise ValueError("Argument 'shape' must have the format" + " '%%s/%%f'. Was given '%s'." % given_shape)
tf = vlarg("shape", tf, float, range_="0.0|1.0")
# setting up some useful dimensions
W, H = rect_size.width(), rect_size.height()
if direction[1] == "j":
tl = tf * H # top lenght (for vertical)
ts = (H - tl) / 2 # top spacing (for vertical)
else:
tl = tf * W # top lenght (for horizontal)
ts = (W - tl) / 2 # top spacing (for horizontal)
QPainterPath.__init__(self, start_point)
if shape == "trig":
if direction == "+j":
if facing == "left":
self.lineToInc(-W, ts)
self.lineToInc(dy=tl)
self.lineToInc(W, ts)
elif facing == "right":
self.lineToInc(W, ts)
self.lineToInc(dy=tl)
self.lineToInc(-W, ts)
elif direction == "-j":
if facing == "left":
self.lineToInc(-W, -ts)
self.lineToInc(dy=-tl)
self.lineToInc(W, -ts)
elif facing == "right":
self.lineToInc(W, -ts)
self.lineToInc(dy=-tl)
self.lineToInc(-W, -ts)
elif direction == "+i":
if facing == "up":
self.lineToInc(ts, -H)
self.lineToInc(dx=tl)
self.lineToInc(ts, H)
elif facing == "down":
self.lineToInc(ts, H)
self.lineToInc(dx=tl)
self.lineToInc(ts, -H)
elif direction == "-i":
if facing == "up":
self.lineToInc(-ts, -H)
self.lineToInc(dx=-tl)
self.lineToInc(-ts, H)
elif facing == "down":
self.lineToInc(-ts, H)
self.lineToInc(dx=-tl)
self.lineToInc(-ts, -H)
elif shape == "arc":
if direction == "+j":
if facing == "left":
self.arcTo(self.x - W, self.y, 2 * W, 2 * ts, 90, 90)
self.lineToInc(dy=tl)
self.arcTo(self.x, self.y - ts, 2 * W, 2 * ts, 180, 90)
elif facing == "right":
self.arcTo(self.x - W, self.y, 2 * W, 2 * ts, 90, -90)
self.lineToInc(dy=tl)
self.arcTo(self.x - 2 * W, self.y - ts, 2 * W, 2 * ts, 0, -90)
elif direction == "-j":
if facing == "left":
self.arcTo(self.x - W, self.y - 2 * ts, 2 * W, 2 * ts, -90, -90)
self.lineToInc(dy=-tl)
self.arcTo(self.x, self.y - ts, 2 * W, 2 * ts, 180, -90)
elif facing == "right":
self.arcTo(self.x - W, self.y - 2 * ts, 2 * W, 2 * ts, -90, 90)
self.lineToInc(dy=-tl)
self.arcTo(self.x - 2 * W, self.y - ts, 2 * W, 2 * ts, 0, 90)
elif direction == "+i":
if facing == "up":
self.arcTo(self.x, self.y - H, 2 * ts, 2 * H, 180, -90)
self.lineToInc(dx=tl)
self.arcTo(self.x - ts, self.y, 2 * ts, 2 * H, 90, -90)
elif facing == "down":
self.arcTo(self.x, self.y - H, 2 * ts, 2 * H, 180, 90)
self.lineToInc(dx=tl)
self.arcTo(self.x - ts, self.y - 2 * H, 2 * ts, 2 * H, -90, 90)
elif direction == "-i":
if facing == "up":
self.arcTo(self.x - 2 * ts, self.y - H, 2 * ts, 2 * H, 0, 90)
self.lineToInc(dx=-tl)
self.arcTo(self.x - ts, self.y, 2 * ts, 2 * H, 90, 90)
elif facing == "down":
self.arcTo(self.x - 2 * ts, self.y - H, 2 * ts, 2 * H, 0, -90)
self.lineToInc(dx=-tl)
self.arcTo(self.x - ts, self.y - 2 * H, 2 * ts, 2 * H, -90, -90)
