.. _documentation: Documentation ------------- Documentation helps others use your code! Please document new contributions. SimPEG tries to follow the `numpydoc` style of docstrings (check out the `style guide <https://numpydoc.readthedocs.io/en/latest/format.html>`_). SimPEG then uses `sphinx <https://www.sphinx-doc.org/>`_ to build the documentation. When documenting a new class or function, please include a description (with math if it solves an equation), inputs, outputs and preferably a small example. For example: .. code:: python class WeightedLeastSquares(BaseComboRegularization): r"""Weighted least squares measure on model smallness and smoothness. L2 regularization with both smallness and smoothness (first order derivative) contributions. Parameters ---------- mesh : discretize.base.BaseMesh The mesh on which the model parameters are defined. This is used for constructing difference operators for the smoothness terms. active_cells : array_like of bool or int, optional List of active cell indices, or a `mesh.n_cells` boolean array describing active cells. alpha_s : float, optional Smallness weight alpha_x, alpha_y, alpha_z : float or None, optional First order smoothness weights for the respective dimensions. `None` implies setting these weights using the `length_scale` parameters. alpha_xx, alpha_yy, alpha_zz : float, optional Second order smoothness weights for the respective dimensions. length_scale_x, length_scale_y, length_scale_z : float, optional First order smoothness length scales for the respective dimensions. mapping : simpeg.maps.IdentityMap, optional A mapping to apply to the model before regularization. reference_model : array_like, optional reference_model_in_smooth : bool, optional Whether to include the reference model in the smoothness terms. weights : None, array_like, or dict or array_like, optional User defined weights. It is recommended to interact with weights using the `get_weights`, `set_weights` functionality. Notes ----- The function defined here approximates: .. math:: \phi_m(\mathbf{m}) = \alpha_s \| W_s (\mathbf{m} - \mathbf{m_{ref}} ) \|^2 + \alpha_x \| W_x \frac{\partial}{\partial x} (\mathbf{m} - \mathbf{m_{ref}} ) \|^2 + \alpha_y \| W_y \frac{\partial}{\partial y} (\mathbf{m} - \mathbf{m_{ref}} ) \|^2 + \alpha_z \| W_z \frac{\partial}{\partial z} (\mathbf{m} - \mathbf{m_{ref}} ) \|^2 Note if the key word argument `reference_model_in_smooth` is False, then mref is not included in the smoothness contribution. If length scales are used to set the smoothness weights, alphas are respectively set internally using: >>> alpha_x = (length_scale_x * min(mesh.edge_lengths)) ** 2 """ Building the documentation ~~~~~~~~~~~~~~~~~~~~~~~~~~ You can build the documentation pages locally to see how the new changes will look. First, make sure that you have :ref:`created and activated an environment <setting-up-environment>` with simpeg installed in it. Then, navigate to the ``docs`` folder: .. code:: bash cd docs And run the following to build the docs: .. code:: bash make html .. note:: This command will build all documentation pages, including all the examples and tutorials. Running the examples might take considerable amount of time. If you want to build the docs, but avoid running the examples, you can alternatively run: .. code:: bash make html-noplot Serving the documentation locally ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ Once the documentation is built, you can view it using the following command (make sure you are in the ``docs`` directory): .. code:: bash make serve It will automatically serve the docs and you can see them in your browser. Alternatively, you can open your file manager and open the ``index.html`` file in the ``docs/_build/html`` folder.