def m_ftin(m):
_foot = int(_abs(m_ft(m)))
_inch = _round(ft_in(_abs(m_ft(m)) - _foot), 2)
if _inch == int(_inch):
_inch = int(_inch)
return '{s}ftin_m({0}, {1})'.format(_foot, _inch,
s='-' if m < 0 else '')
def dd(degrees):
_deg = int(_abs(degrees))
_min = int((_abs(degrees) - _deg) * 60)
_sec = _round((_abs(degrees) - _deg - _min / 60) * 3600)
return '{s}dms({0}, {1}, {2})'.format(_deg,
_min,
_sec,
s='-' if degrees < 0 else '')
def _f_Laguerre_Gauss_spherical(self, sin_theta, theta, phi, W_y, k, m):
"""Laguerre-Gaussian spectrum amplitude.
Implementation for spherical coordinates.
"""
return self._f_Gauss_spherical(sin_theta, W_y, k) * theta**_abs(m) * \
_cexp(1j*m*phi)
def _f_Laguerre_Gauss_cartesian(self, k_y, k_z, W_y, k, m):
"""Laguerre-Gaussian spectrum amplitude.
Impementation for Cartesian coordinates.
"""
return self._f_Gauss_cartesian(k_y, k_z, W_y) * \
_cexp(1j*m*self._phi(k_y, k_z)) * self._theta(k_y, k_z, k)**_abs(m)
def rt(x, N):
if _is_pointZero(N) and N >= 2:
if x < 0:
if N % 2:
return _abs(x)**(1/N) * -1
else:
raise MathError(translate('MathErrors', _errors['mde']))
else:
return x**(1/N)
else:
raise MathError(translate('MathErrors', _errors['mde']))
def rt(x, N):
if _is_pointZero(N) and N >= 2:
if x < 0:
if N % 2:
return _abs(x)**(1 / N) * -1
else:
raise MathError(translate('MathErrors', _errors['mde']))
else:
return x**(1 / N)
else:
raise MathError(translate('MathErrors', _errors['mde']))
def dd(degrees):
_deg = int(_abs(degrees))
_min = int((_abs(degrees) - _deg) * 60)
_sec = _round((_abs(degrees) - _deg - _min/60) * 3600)
return '{s}dms({0}, {1}, {2})'.format(_deg, _min, _sec,
s='-' if degrees < 0 else '')
def perc(x, percent):
if percent < 0:
return x - (x / 100) * _abs(percent)
else:
return x + (x / 100) * _abs(percent)
def cbrt(x):
if x < 0:
return _abs(x)**(1/3) * -1
else:
return x**(1/3)
def abs(x):
return _abs(x)
def abs(x):
return _abs(x)
def m_ftin(m):
_foot = int(_abs(m_ft(m)))
_inch = _round(ft_in(_abs(m_ft(m)) - _foot), 2)
if _inch == int(_inch):
_inch = int(_inch)
return '{s}ftin_m({0}, {1})'.format(_foot, _inch, s='-' if m < 0 else '')
def perc(x, percent):
if percent < 0:
return x - (x / 100) * _abs(percent)
else:
return x + (x / 100) * _abs(percent)
def cbrt(x):
if x < 0:
return _abs(x)**(1 / 3) * -1
else:
return x**(1 / 3)
def abs(self):
self._num = _abs(num)
self._den = _abs(den)
return self._num
return self._den
def abs(a):
"Same as abs(a)."
return _abs(a)
def abs(a):
"Same as abs(a)."
return _abs(a)
def abs(a):
"""Same as abs(a)."""
return _abs(a)
