def test_binary(a, b):
t = a + b
t = a - b
t = a * b
try:
t = a / b
except:
pass
try:
t = a // b
except:
pass
try:
t = divmod(a, b)
except:
pass
t = gmpy2.add(a, b)
t = gmpy2.sub(a, b)
t = gmpy2.mul(a, b)
t = gmpy2.div(a, b)
t = gmpy2.agm(a, b)
t = gmpy2.atan2(a, b)
def test_binary(a, b):
t = a + b
t = a - b
t = a * b
try:
t = a / b
except:
pass
try:
t = a // b
except:
pass
try:
t = divmod(a, b)
except:
pass
t = gmpy2.add(a, b)
t = gmpy2.sub(a, b)
t = gmpy2.mul(a, b)
t = gmpy2.div(a, b)
t = gmpy2.agm(a, b)
t = gmpy2.atan2(a, b)
mpq(1,7)
>>> mpq(1,7) * 11
mpq(11,7)
>>> mpq(11,7)/13
mpq(11,91)
#gmpy2: Multiple-precision Reals
>>> import gmpy2
>>> from gmpy2 import mpfr
>>> mpfr('1.2')
>>> gmpy2.const_pi(100000)
>>> gmpy2.get_context().precision=100
>>> gmpy2.atan2(mpfr("+0.0"),mpfr("-0.0"))
>>> gmpy2.sqrt(5)
mpfr('2.2360679774997898')
>>> gmpy2.get_context().precision=100
>>> gmpy2.sqrt(5)
mpfr('2.2360679774997896964091736687316',100)
>>> with gmpy2.local_context(gmpy2.context(), precision=100) as ctx:
print(gmpy2.sqrt(2))
ctx.precision += 100
print(gmpy2.sqrt(2))
#gmpy2: Multiple-precision Complex
def projected_angle(i):
displacement = vsub(full_points[i], center)
x = dot_product(displacement, center_basis[1])
y = dot_product(displacement, center_basis[2])
return gmpy2.atan2(y, x)
def projected_angle(i):
displacement = run_record.points[i] - center
x = displacement @ center_basis[1]
y = displacement @ center_basis[2]
return gmpy2.atan2(y, x)