.. _odp_1260_example: ODP 1260 ======== .. image:: https://img.shields.io/badge/python-3.11%2B-blue :alt: Python Version .. image:: https://img.shields.io/badge/license-GPLv3-blue :alt: License ODP Site 1260, drilled during Leg 207 on the Demerara Rise in the tropical western Atlantic, recovered an Eocene cyclic sedimentary sequence (Erbacher et al., 2004). The stratigraphy is well constrained by biostratigraphic and magnetostratigraphic data (Erbacher et al., 2004; Suganuma & Ogg, 2006; Edgar et al., 2007). High-resolution XRF core scanning data, particularly Fe intensity, were produced for cyclostratigraphy by Westerhold & Röhl (2013). The record exhibits a strong precession signal modulated by eccentricity, making it ideal for eccentricity reconstruction. This study focuses on the 42–44 Ma interval (magnetochrons C18r–C20r), where different eccentricity solutions begin to show slight divergence. ----- Files in the *data* Folder -------------------------- - **ODP1260.txt**: Data of the ODP 1260 site. - **ggge20293-sup-0011-suppinfo06.txt**: Age model data from . - **La2010d_ecc3L.txt**: Astronomical solution data (eccentricity component). ----- Execute the Example ------------------- .. note:: - The folder `examples` has to bee in the same directory as the `AstroGeoFit_tool.py` file. If not, this will not work. To run the example, open a terminal in the `AstroGeoFit` folder. Once this is open execute the following .. code-block:: bash python AstroGeoFit_tool.py --odp_1260 This command will execute the significance test, the genetic algorithm fitting, the MCMC, and the MCMC weights calculation. If you only want to run specific components (e.g., the genetic algorithm fitting and the MCMC), you can use: .. code-block:: bash python AstroGeoFit_tool.py --odp_1260 -fit -mcmc The full list of execution options can be found in :ref:`tool_documentation` ----- Visualization of the Results ---------------------------- To visualize the results, you can use the two Jupyter notebooks provided. To obtain the results of the `ODP_1260` data, just modify the variable `configuration_file_path` in the following way: .. code-block:: python configuration_file_path = "odp_1260" And then the visualization notebook will be ready to be executed. For a detailed guide on using the notebooks and interpreting the figures, please refer to :ref:`visualization-results`.