def __init__(self, points=None, smoothing=False):
# call parent constructor
AnnotatableObject.__init__(self)
# give each stroke a unique id
self.id = Stroke.Number
Stroke.Number += 1
self.Points = []
self.BoundTopLeft = Point( 0, 0 )
self.BoundBottomRight = Point( 0, 0 )
#Centerpoint of this stroke
self.X = None
self.Y = None
self.Center = None
self.Color = Stroke.DefaultStrokeColor
self._length = -1
self._resample = {}
if points and len(points)>0:
# if passed a sequence of tuples, covert them all to points
if all(type(i)==tuple for i in points):
points = [ Point(x,y) for (x,y) in points ]
# turning smoothing off is very handy for testing
if smoothing:
# get rid of redundant points
rfree = [ points[0] ]
rfree.extend( [ b for (a,b) in zip(points[:-1],points[1:]) if (a.X!=b.X or a.Y!=b.Y or a.T!=b.T)] )
logger.debug( "redundant points: %d", len(points) - len(rfree) )
logger.debug( "raw points: %s", [str(i) for i in points] )
# smooth over the rest
from Utis.GeomUtils import smooth
points = smooth( rfree )
for p in points:
self.addPoint(p)
def __init__(self, xLoc, yLoc, drawTime=0):
AnnotatableObject.__init__(self)
#self.X = int(xLoc)
#self.Y = int(yLoc)
#self.T = int(drawTime)
self.X = float(xLoc)
self.Y = float(yLoc)
self.T = float(drawTime)
def __init__(self, points=None, id = None, board=None):#, smoothing=False): DEPRECATED
# call parent constructor
AnnotatableObject.__init__(self)
# give each stroke a unique ident
if id != None:
self.ident = id
Stroke.Number = max(Stroke.Number, id) + 1
else:
self.ident = Stroke.Number
Stroke.Number += 1
self.Points = []
self.BoundTopLeft = Point( 0, 0 )
self.BoundBottomRight = Point( 0, 0 )
#Centerpoint of this stroke
self.X = None
self.Y = None
self.Center = None
self.Color = Stroke.DefaultStrokeColor
self._featureVectors = {} #Rubine Feature vector for this stroke. Set by calling setFeatureVector(...)
self._length = None
self._resample = {}
self.setBoard(board)# self._board = board
if points and len(points)>0:
# if passed a sequence of tuples, covert them all to points
if all(type(i)==tuple for i in points):
points = [ Point(x,y) for (x,y) in points ]
# turning smoothing off is very handy for testing
self.Points = points
xlist = [p.X for p in points]
ylist = [p.Y for p in points]
( left , right ) = min(xlist), max(xlist)
( bottom, top ) = min(ylist), max(ylist)
self.BoundTopLeft = Point(left, top)
self.BoundBottomRight = Point(right, bottom)
self.X = (left + right) / 2
self.Y = (top + bottom) / 2
self.Center = Point(self.X, self.Y)
