Neutron flux for uniform sphere
===============================
Neutron flux for uniform sphere is a function of radial_distance :math:`r` to the center of the
sphere and depends on the radius :math:`r_0` of the sphere.
**Links:**
#. `NuclearPower, see end of page `__.
.. py:currentmodule:: symplyphysics.laws.nuclear.buckling.neutron_flux_for_uniform_sphere
.. py:data:: dimension_factor
Dimension factor that appears as a coefficient in the solution to the :ref:`differential
equation `. See :attr:`~symplyphysics.symbols.nuclear.neutron_flux`.
Symbol:
:code:`Phi_0`
Latex:
:math:`\Phi_{0}`
Dimension:
:code:`1/(area*time)`
.. py:data:: radial_distance
Radial distance, or :attr:`~symplyphysics.symbols.classical_mechanics.distance_to_origin` of coordinate system, i.e. the center
of the sphere.
Symbol:
:code:`r`
Latex:
:math:`r`
Dimension:
:code:`length`
.. py:data:: radius
:attr:`~symplyphysics.symbols.classical_mechanics.radius` of the sphere.
Symbol:
:code:`r_0`
Latex:
:math:`r_{0}`
Dimension:
:code:`length`
.. py:data:: neutron_flux
:attr:`~symplyphysics.symbols.nuclear.neutron_flux` at a :attr:`radial_distance` from the center of the sphere.
Symbol:
:code:`Phi`
Latex:
:math:`\Phi`
Dimension:
:code:`1/(area*time)`
.. py:data:: law
:code:`Phi = Phi_0 * sin(pi / r_0 * r) / r`
Latex:
.. math::
\Phi = \Phi_{0} \frac{\sin{\left(\frac{\pi}{r_{0}} r \right)}}{r}