Electric flux of uniform electric field ======================================= Electric field at a point in space can be found by placing there a test charge and measuring the electrostatic force that is applied to it. **Notation:** #. :math:`\left( \vec a, \vec b \right)` (:code:`dot(a, b)`) is the dot product between vectors :math:`\vec a` and :math:`\vec b`. **Notes:** #. Vector area is a vector quantity whose magnitude denotes the area of the surface it represents and whose direction denotes the orientation of the surface. **Conditions:** #. The electric field is uniform. This might be achieved by choosing a small enough surface that the electric field would be constant throughout it. **Links:** #. `Electric flux `__. .. py:currentmodule:: symplyphysics.electromagnetism.electrostatics.electric_flux.electric_flux_of_uniform_electric_field .. py:data:: electric_flux :attr:`~symplyphysics.symbols.electrodynamics.electric_flux`. Symbol: :code:`Phi_E` Latex: :math:`\Phi_{\vec E}` Dimension: :code:`length*voltage` .. py:data:: electric_field Vector of the electric field. See :attr:`~symplyphysics.symbols.electrodynamics.electric_field_strength`. Symbol: :code:`E` Latex: :math:`{\vec E}` Dimension: :code:`voltage/length` .. py:data:: area Area pseudovector, i.e. a vector that is aligned in the direction of the unit normal to the surface and whose magnitude is equal to the area of the surface. See :attr:`~symplyphysics.symbols.classical_mechanics.area`. Symbol: :code:`A` Latex: :math:`{\vec A}` Dimension: :code:`area` .. py:data:: law :code:`Phi_E = dot(E, A)` Latex: .. math:: \Phi_{\vec E} = \left( {\vec E}, {\vec A} \right)