def setUp(self):
self.testSheaf1 = ps.Sheaf([])
# Small sheaf
self.testSheaf2 = ps.Sheaf([
ps.SheafCell(dimension=1,
stalkDim=1,
cofaces=[
ps.SheafCoface(index=2,
orientation=np.array(1),
restriction=np.array([0.5]))
]),
ps.SheafCell(dimension=1,
stalkDim=1,
cofaces=[
ps.SheafCoface(index=2,
orientation=np.array(-1),
restriction=np.array([1]))
]),
ps.SheafCell(dimension=2, stalkDim=1, cofaces=[]),
ps.SheafCell(dimension=0,
stalkDim=1,
cofaces=[
ps.SheafCoface(index=0,
orientation=np.array(1),
restriction=np.array([2])),
ps.SheafCoface(index=1,
orientation=np.array(1),
restriction=np.array([1]))
])
])
self.asg2_1 = ps.Section([
ps.SectionCell(support=0, value=np.array(0.)),
ps.SectionCell(support=1, value=np.array(1.))
])
self.asg2_3 = ps.Section([
ps.SectionCell(support=0, value=np.array(0.)),
ps.SectionCell(support=1, value=np.array(1.)),
ps.SectionCell(support=2, value=np.array(0.5)),
ps.SectionCell(support=3, value=np.array(1. / 3))
])
sdim=np.ts.size #number of samples for u & v; n+m. For n or m, use sdim/2
s1=py.Sheaf([py.SheafCell(dimension=1,stalkDim=(sdim/2),cofaces=[]), \
py.SheafCell(dimension=1,stalkDim=(sdim/2),cofaces=[]), \
py.SheafCell(dimension=1,stalkDim=(sdim/2),cofaces=[]), \
py.SheafCell(dimension=1,stalkDim=(sdim/2),cofaces=[]), \
py.SheafCell \
(dimension=0,stalkDim=sdim,cofaces=[py.SheafCoface(index=0, orientation=1, restriction=py.LinearMorphism(pr1(ts))), \
py.SheafCoface(index=1, orientation=1, restriction=py.LinearMorphism(pr2(ts))), \
py.SheafCoface(index=3, orientation=1, restriction=py.SetMorphism(eqn1(ts)))]), \
py.SheafCell \
(dimension=0,stalkDim=sdim,cofaces=[py.SheafCoface(index=0, orientation=-1, restriction=py.LinearMorphism(pr1(ts))), \
py.SheafCoface(index=1, orientation=-1, restriction=py.LinearMorphism(pr2(ts))), \
py.SheafCoface(index=2, orientation=-1, restriction=py.SetMorphism(eqn2(ts)))]), \
py.SheafCell \
(dimension=0,stalkDim=(sdim/2),cofaces=[py.SheafCoface(index=0, orientation=1, restriction=py.LinearMorphism(iden(ts))), \
py.SheafCoface(index=2, orientation=1, restriction=py.LinearMorphism(ddt(ts)))]), \
py.SheafCell \
(dimension=0,stalkDim=(sdim/2),cofaces=[py.SheafCoface(index=1, orientation=1, restriction=py.LinearMorphism(iden(ts))), \
py.SheafCoface(index=3, orientation=-1, restriction=py.LinearMorphism(ddt(ts)))])])
#How to construct? Taken from search_rescue_test.py
input_data=[py.Section([py.SectionCell(support=0,value=np.array(ts[:(sdim/2)])), # U
py.SectionCell(support=1,value=np.array(ts[(sdim/2):]))])] # V
# Exhibit the consistency radius of the partially-filled Section with the input data
#consistency_radii=[s1.consistencyRadius(case) for case in input_data]
cr=checkradii()
print "The consistency_radii is " +str(cr)
ps.SheafCell(dimension=0,
cofaces=[
ps.SheafCoface(index=2,
orientation=-1,
restriction=np.matrix(1))
]),
ps.SheafCell(dimension=0,
cofaces=[
ps.SheafCoface(index=2,
orientation=1,
restriction=np.matrix(1))
]),
ps.SheafCell(dimension=1, cofaces=[], stalkDim=1)
])
sec1 = ps.Section([ps.SectionCell(0, 1), ps.SectionCell(1, 1)])
sec2 = ps.Section([ps.SectionCell(0, 1)])
sec3 = ps.Section([ps.SectionCell(0, 1), ps.SectionCell(1, 2)])
# Extending section over two vertices to a common coface
if sec1.extend(sh1, 2) and sec2.extend(
sh1, 2) and not sec3.extend(sh1, 2) and sec2.extend(sh1, 1):
print "Test 1 passed"
else:
print "Test 1 failed"
sh2 = ps.Sheaf([
ps.SheafCell(dimension=0,
cofaces=[
ps.SheafCoface(index=1,
orientation=-1,
]) # V3
# Structure the data from Table 1 in the paper into various partially-filled Sections, one for each Case listed
global scene_bounds_0
scene_bounds_0 = [(65, 75), (40, 50), (11000, 11700), (400, 600), (150, 350),
(.5, 1.5)]
#Construct Sheaf
construct_sheaf()
#Define Input Data
input_data = [
ps.Section([
ps.SectionCell(support=0,
value=np.array([-70.668, 42.809, 11431, 495, 164,
1.05]))
]), # X (Verify that the sheaf's maps are commutative)
ps.Section([
ps.SectionCell(support=0,
value=np.array([-70.668, 42.809, 11431, 495, 164,
1.05])), # X
ps.SectionCell(support=1, value=np.array([-70.663, 42.752,
11299])), # U1
ps.SectionCell(support=2,
value=np.array([-70.657, 42.773, 11346, 495,
164])), # U2
ps.SectionCell(support=3, value=np.array([77.2, 0.930])), # U3
ps.SectionCell(support=4, value=np.array([63.2, 0.974])), # U4
ps.SectionCell(support=5, value=np.array([-64.630, 44.287]))
]), # U5
ps.SheafCell(
dimension=1,
compactClosure=True,
stalkDim=4, #THIS IS THE NUMBER OF rows
cofaces=[]),
ps.SheafCell(
dimension=1,
compactClosure=True,
stalkDim=2, #THIS IS THE NUMBER OF rows
cofaces=[])
])
#SUPPORT NEEDS TO MATCH INDEX OF THAT ARRAY
input_data = [
ps.Section([
ps.SectionCell(support=0, value=np.array([0.5, 0.5])), # X
#ps.SectionCell(support=1,value=np.array([]), U1 WE DON'T ACTUALLY REFERENCE U1 SINCE NOT IN DIAGRAM
ps.SectionCell(support=1, value=np.array([0.5, 0.5, 0.5, 0.5])), # U2
ps.SectionCell(support=2, value=np.array([0.5, 0.5, 0.5, 0.5])), # U3
ps.SectionCell(support=3, value=np.array([0.5, 0.5])), # U4
ps.SectionCell(support=4, value=np.array([0, 0])), # V1
ps.SectionCell(support=5, value=np.array([0, 0, 0, 0])), # V2
ps.SectionCell(support=6, value=np.array([0, 0]))
])
] # V3
""" THIS IS ALL BOTTOM CELLS HAVE 1/2
input_data=[ps.Section([ps.SectionCell(support=0,value=np.array([0.5, 0.5])), # X
#ps.SectionCell(support=1,value=np.array([]), U1 WE DON'T ACTUALLY REFERENCE U1 SINCE NOT IN DIAGRAM
ps.SectionCell(support=1,value=np.array([0.5, 0.5, 0.5, 0.5])), # U2
ps.SectionCell(support=2,value=np.array([0.5, 0.5, 0.5, 0.5])), # U3
ps.SectionCell(support=3,value=np.array([0.5, 0.5])), # U4
def setUp(self):
self.testSheaf = ps.Sheaf([
ps.SheafCell(dimension=0,
stalkDim=1,
cofaces=[
ps.SheafCoface(index=1,
restriction=np.array([1])),
ps.SheafCoface(index=2, restriction=np.array([1]))
]),
ps.SheafCell(dimension=1, stalkDim=1),
ps.SheafCell(dimension=1, stalkDim=1)
])
self.asg = ps.Section([
ps.SectionCell(support=0, value=0),
ps.SectionCell(support=1, value=0),
ps.SectionCell(support=2, value=1)
])
self.testSheaf2 = ps.Sheaf([
ps.SheafCell(dimension=0,
stalkDim=1,
cofaces=[
ps.SheafCoface(index=1,
restriction=np.array([1])),
ps.SheafCoface(index=2, restriction=np.array([1]))
]),
ps.SheafCell(dimension=1, stalkDim=1),
ps.SheafCell(dimension=1, stalkDim=1),
ps.SheafCell(
dimension=0,
stalkDim=1,
cofaces=[ps.SheafCoface(index=1, restriction=np.array([1]))])
])
self.asg2 = ps.Section([
ps.SectionCell(support=0, value=0), # A
ps.SectionCell(support=1, value=0), # C
ps.SectionCell(support=2, value=1), # B
ps.SectionCell(support=3, value=0)
]) # D
self.asg3 = ps.Section([
ps.SectionCell(support=0, value=0), # A
ps.SectionCell(support=1, value=0), # C
ps.SectionCell(support=2, value=1), # B
ps.SectionCell(support=3, value=1)
]) # D
restriction=ps.LinearMorphism(np.array([[1,0,0,0],
[0,1,0,0],
[0,0,1,0],
[0,0,0,1]])))]),
ps.SheafCell(dimension=3,
compactClosure=True,
stalkDim=4,
metric=distance,
cofaces=[]),
])
# Structure the data into various partially-filled Sections,
#Define Input Data
input_data=[ps.Section([ps.SectionCell(support=0,value=np.array([1,1,1,1,1,1]).T)]), # A (Verify that the sheaf's maps are commutative)
ps.Section([ps.SectionCell(support=0,value=np.array([1,1,1,1,1,1]).T), # A
ps.SectionCell(support=1,value=np.array([1,1,1,1,3]).T), # B (expected error of 2 for s1)
ps.SectionCell(support=2,value=np.array([1,1,1,2,2]).T), # C (expected error of 1 for s1)
ps.SectionCell(support=3,value=np.array([4,1,1,2]).T), # D (expected error of 3 for s1)
]),
ps.Section([ps.SectionCell(support=0,value=np.array([1,1,1,1,1,1]).T), # A
ps.SectionCell(support=1,value=np.array([1,1,1,1,1]).T), # B (expected error of 0 for s2)
#ps.SectionCell(support=2,value=np.array([1,1,1,2,1]).T), # C (expected error of 1 for s2)
#ps.SectionCell(support=3,value=np.array([4,1,1,2]).T), # D (expected error of sqrt(10) for s2)
]),
ps.Section([ps.SectionCell(support=0,value=np.array([1,1,1,1,1,1]).T), # A
#ps.SectionCell(support=1,value=np.array([1,1,1,1,1]).T), # B (expected error of 0 for s2)
#ps.SectionCell(support=2,value=np.array([1,1,1,2,1]).T), # C (expected error of 1 for s2)
ps.SectionCell(support=3,value=np.array([4,1,1,2]).T), # D (expected error of 2 for s2)
py.SheafCoface(index=1, orientation=1, restriction=py.LinearMorphism(pr2(ts))), \
py.SheafCoface(index=3, orientation=1, restriction=py.SetMorphism(lambda x: eqn1(x,alpha,beta,sigma)))]), \
py.SheafCell \
(dimension=0,stalkDim=sdim,cofaces=[py.SheafCoface(index=0, orientation=-1, restriction=py.LinearMorphism(pr1(ts))), \
py.SheafCoface(index=1, orientation=-1, restriction=py.LinearMorphism(pr2(ts))), \
py.SheafCoface(index=2, orientation=-1, restriction=py.SetMorphism(lambda x:eqn2(x,alpha,gamma,rho)))]), \
py.SheafCell \
(dimension=0,stalkDim=(sdim/2),cofaces=[py.SheafCoface(index=0, orientation=1, restriction=py.LinearMorphism(iden(tsu))), \
py.SheafCoface(index=2, orientation=1, restriction=py.LinearMorphism(ddt(tsu)))]), \
py.SheafCell \
(dimension=0,stalkDim=(sdim/2),cofaces=[py.SheafCoface(index=1, orientation=1, restriction=py.LinearMorphism(iden(tsv))), \
py.SheafCoface(index=3, orientation=-1, restriction=py.LinearMorphism(ddt(tsv)))])])
input_data = [
py.Section([
py.SectionCell(support=0, value=tsu), # U
py.SectionCell(support=1, value=tsv), #V
py.SectionCell(support=4, value=ts), #(U,V)
py.SectionCell(support=5, value=ts), #(U,V)
py.SectionCell(support=6, value=tsu), #U
py.SectionCell(support=7, value=tsv)
])
] # V
# Exhibit the consistency radius of the partially-filled Section with the input data
consistency_radii = [s1.consistencyRadius(case) for case in input_data]
print "The consistency_radii is " + str(consistency_radii)
fused_data = [s1.fuseAssignment(case) for case in input_data]
fused_consistency_radii = [s1.consistencyRadius(case) for case in fused_data]
"""sample vars for input: (.1,.13,1.5,2.8,1.5)
The consistency_radii is [6.7134851213605433]
