def __init__(self, eother):
self.x = eother.x
self.value = math.sin(eother.value)
self.range = interval.sin(eother.range)
if Slope.flagEvalConv:
self.conv = False
self.conc = False
sp = interval.Interval([0, 0])
if eother.value == eother.range[0] or eother.value == eother.range[1]:
sp = interval.cos(eother.range)
else:
pil = math.floor(math.floor(eother.range[0] / math.pi))
piu = math.ceil(math.ceil(eother.range[1] / math.pi))
if piu == pil + 1:
if piu % 2 == 0:
sp = comp_conc_slope(eother.range[0],
eother.range[1], eother.value,
math.sin(eother.range[0]),
math.sin(eother.range[1]), self.value,
math.cos(self.value))
else:
sp = comp_conv_slope(eother.range[0],
eother.range[1], eother.value,
math.sin(eother.range[0]),
math.sin(eother.range[1]), self.value,
math.cos(eother.value))
else:
sp = interval.cos(eother.range)
self.S = eother.S * sp
if Slope.flagRecompRange:
self.comp_slopes_bound()
def IF(x):
return np.array([
mkconst(l) * ival.cos(x[0]) + mkconst(L) * ival.cos(x[2]) - x[4],
mkconst(l) * ival.cos(x[1]) + mkconst(L) * ival.cos(x[3]) - x[4] +
mkconst(d),
mkconst(l) * ival.sin(x[0]) + mkconst(L) * ival.sin(x[2]) - x[5],
mkconst(l) * ival.sin(x[1]) + mkconst(L) * ival.sin(x[3]) - x[5]
])
def mycos(x):
"""
Interval cos
:param x: interval
:return: interval cos(x)
"""
return ival.cos(x)
def __init__(self, eother):
self.x = eother.x
self.value = math.sin(eother.value)
y = interval.cos(self.range)
L = getLip(y)
self.L = L * eother.L
self.compbnd()
def __init__(self, eother):
self.x = eother.x
self.value = math.sin(eother.value)
y = interval.cos(self.x)
print(self.x)
L = getLip(y)
# L = 1
print(L)
self.L = L * eother.L
self.compbnd()
def testCos(self):
x = interval.Interval([-1, 2 * math.pi/3])
z = interval.cos(x)
for i in range(len(z.x)):
self.assertAlmostEqual(z.x[i], [-0.5,1][i])