def function(self,p):
height = p.size
width = p.aspect_ratio*height
return bitwise_or(
bitwise_and(bitwise_and(
(self.pattern_x-p.x1)<=p.x1+width/4.0,
(self.pattern_x-p.x1)>=p.x1-width/4.0),
bitwise_and(
(self.pattern_y-p.y1)<=p.y1+width/4.0,
(self.pattern_y-p.y1)>=p.y1-width/4.0)),
bitwise_and(bitwise_and(
(self.pattern_x-p.x2)<=p.x2+width/4.0,
(self.pattern_x-p.x2)>=p.x2-width/4.0),
bitwise_and(
(self.pattern_y-p.y2)<=p.y2+width/4.0,
(self.pattern_y-p.y2)>=p.y2-width/4.0)))
if myid == 0:
print "Skipping product-reduce - try again with numproc < 20"
pypar.raw_reduce(testArray, X, pypar.LAND, 0, 0)
if myid == 0:
Y = Numeric.ones(N)
for i in range(numproc):
Y = Numeric.logical_and(Y, Numeric.array(range(N))*(i+1))
assert Numeric.allclose(X, Y)
print "Raw reduce using pypar.LAND OK"
pypar.raw_reduce(testArray, X, pypar.BAND, 0, 0)
if myid == 0:
Y = Numeric.ones(N)*255 #Neutral element for &
for i in range(numproc):
Y = Numeric.bitwise_and(Y, Numeric.array(range(N))*(i+1))
assert Numeric.allclose(X, Y)
print "Raw reduce using pypar.BAND OK"
pypar.raw_reduce(testArray, X, pypar.LOR, 0, 0)
if myid == 0:
Y = Numeric.zeros(N)
for i in range(numproc):
Y = Numeric.logical_or(Y, Numeric.array(range(N))*(i+1))
assert Numeric.allclose(X, Y)
print "Raw reduce using pypar.LOR OK"
pypar.raw_reduce(testArray, X, pypar.BOR, 0, 0)
if myid == 0:
Y = Numeric.zeros(N) #Neutral element for |
for i in range(numproc):
def function(self,p):
height = p.size
width = p.aspect_ratio*height
return bitwise_and(abs(self.pattern_x)<=width/2.0,
abs(self.pattern_y)<=height/2.0)