================================ Welcome to tofu's documentation! ================================ **tofu** stands for **To**\mography for **Fu**\sion, it is an IMAS-compatible open-source machine-independent python library with non-open source plugins containing all machine-dependent routines. It aims at providing the **fusion** and **plasma** community with an object- oriented, transparent and documented tool for designing **tomography diagnostics**, computing **synthetic signal** (direct problem) as well as **tomographic inversions** (inverse problem). It gives access to a full 3D description of the diagnostic geometry, thus reducing the impact of geometrical approximations on the direct and, most importantly, on the inverse problem. **tofu** is relevant for all diagnostics integrating, in a finitie field of view or along a set of lines of sight, a quantity (scalar or vector) for which the plasma can be considered transparent (e.g.: light in the visible, UV, soft and hard X-ray ranges, or electron density for interferometers). **tofu** is **command-line oriented**, for maximum flexibility and scriptability. The absence of a GUI is compensated by built-in one-liners for interactive plots. **tofu** is hosted on github_. .. _github: https://github.com/tofuproject/tofu .. Adding thumbnails to some tutorials .. raw:: html
Contents --------- **Tutorials and how to's:** .. toctree:: :maxdepth: 1 How to install tofu A guide to contributing to tofu A list of all different device configurations available (ITER, WEST, JET, ...) Tutorials and examples Using tofu from a bash terminal * How to create / handle a diagnostic geometry - Visit the basic_ tutorial for getting started: create, plot and save your first configuration: a vessel and its structures; - To know how to load a configuration and create 1D and 2D cameras, see the cameras_ tutorial. * How to compute integrated signal from 2D or 3D synthetic emissivity - Visit the tutorial_ for getting started: load an already-existing diagnostic geometry in a synthetic diagnostic approach to solve the direct problem and compute the line Of Sight and / or Volume of Sight integrated signals from a simulated emissivity field that you provide as an input. * How to compute tomographic inversions (to do) - Use existing diagnostic geometry and signals to solve the inverse problem and compute tomographic inversions using a choice of discretization basis functions and regularisation functionals. * How to compute a integrated solid angle map in a poloidal cross section, for a set of spherical particles (see the `solid angle`_ tutorial). * Advanced tutorials for developpers: :ref:`devtutos` .. _basic: auto_examples/tutorials/tuto_plot_create_geometry.html .. _cameras: auto_examples/tutorials/tuto_plot_basic.html .. _tutorial: auto_examples/tutorials/tuto_plot_custom_emissivity.html .. _solid angle: auto_examples/tutorials/tuto_plot_solid_angles.html **Code documentation:** .. note:: Main **tofu** classes and methods have docstrings so you can access contextual help with the usual python syntax from a `ipython` console (`print .__doc__`, or `?`). .. toctree:: :maxdepth: 1 :titlesonly: tofu tofu.geom tofu.dumpro tofu.data tofu.dust .. raw:: html :file: columns.html ---------------- .. _Homepage: index.html