def test_1_overlapping():
testName = "test_1_overlapping"
running(testName)
correct = False
known1 = Point(0, 0)
known2 = Point(0, 0)
dExp = 0
dTest = euclidian_distance(known1, known2)
correct = dExp == dTest
if correct: passed(testName)
else: failed(testName, dTest, dExp)
assert correct
def test_3_pythag():
testName = "test_3_pythag"
running(testName)
correct = False
d = 10
known1 = Point(0, 0)
known2 = Point(6, 8)
dExp = d
dTest = euclidian_distance(known1, known2)
correct = dExp == dTest
if correct: passed(testName)
else: failed(testName, dTest, dExp)
assert correct
def test_addPointValue(self):
testName = "TestMap.test_addPointValue"
running(testName)
correct = True
H = 3
W = 4
M = getTestMap(W, H)
M.addRawPointValue(PointValue(W + 1, H + 1, 0))
gotL = len(M.RawPointValues)
expL = H * W + 1
correct = gotL == expL
if not correct: failed(testName, gotL, expL)
if correct: passed(testName)
assert correct
def test_2_unitDistance():
testName = "test_2_unitDistance"
running(testName)
correct = False
d = 1
known1 = Point(0, 0)
known2 = Point(0 + d, 0)
dExp = d
dTest = euclidian_distance(known1, known2)
correct = dExp == dTest
if correct: passed(testName)
else: failed(testName, dTest, dExp)
assert correct
def test_1_overlapping():
testName = "test_1_overlapping"
running(testName)
correct = False
x = 3
y = 4
z = 5
p = Point(x, y)
pv = PointValue(x, y, z)
expWt = z
gotWt = inverse_weight(p, [pv])
correct = gotWt == expWt
if correct: passed(testName)
else: failed(testName, gotWt, expWt)
assert correct
def test_1_overlapping():
testName = "test_1_overlapping"
running(testName)
correct = False
x = 3
y = 4
z = 5
p = Point(x, y)
pv = PointValue(x, y, z)
expV = z
gotV = step(p, [pv])
correct = gotV == expV
if correct: passed(testName)
else: failed(testName, gotV, expV)
assert correct
def test_2_singleRawPt():
testName = "test_2_singleRawPt"
running(testName)
correct = False
x = 3
y = 4
z = 5
d = 10E3
p = Point(x, y)
pv = PointValue(x + d, y + d, z)
expWt = z
gotWt = inverse_weight(p, [pv])
correct = gotWt == expWt
if correct: passed(testName)
else: failed(testName, gotWt, expWt)
assert correct
def test_2_singleRawPt():
testName = "test_2_singleRawPt"
running(testName)
correct = False
x = 3
y = 4
z = 5
d = 10E3
p = Point(x, y)
pv = PointValue(x + d, y + d, z)
expV = z
gotV = step(p, [pv])
correct = gotV == expV
if correct: passed(testName)
else: failed(testName, gotV, expV)
assert correct
def test_3_symmetric():
testName = "test_3_symmetric"
running(testName)
correct = False
x = 3
y = 4
z = 5
d = 10
p1 = Point(x + d, y + d)
pv = PointValue(x, y, z)
p2 = Point(x - d, y - d)
gotWt1 = inverse_weight(p1, [pv])
gotWt2 = inverse_weight(p2, [pv])
correct = gotWt1 == gotWt2
if correct: passed(testName)
else: failed(testName, f"{gotWt1} != {gotWt2}", f"{gotWt1} == {gotWt2}")
assert correct
def test_ctor(self):
testName = "TestMap.test_ctor"
running(testName)
correct = True
H = 5
W = 3
M = getTestMap(W, H)
correct = len(M.RawPointValues) == H * W
gotXr = M.XRange
expXr = (0, W - 1)
correct = gotXr == expXr
if not correct: failed(testName, gotXr, expXr)
gotYr = M.YRange
expYr = (0, H - 1)
correct = gotYr == expYr
if not correct: failed(testName, gotYr, expYr)
if correct: passed(testName)
assert correct
def test_removeRawPointValue(self):
testName = "TestMap.test_removeRawPointValue"
running(testName)
correct = True
H = 6
W = 6
M = getTestMap(W, H)
gotL = len(M.RawPointValues)
expL = H * W
correct = gotL == expL
if not correct: failed(testName, gotL, expL)
M.removeRawPointValue(W - 1, H - 1)
gotL = len(M.RawPointValues)
expL = H * W - 1
correct = gotL == expL
if not correct: failed(testName, gotL, expL)
if correct: passed(testName)
assert correct
