Scripts to reproduce the results of the dissertation.
All notebooks include a Google Colab link. The following files can be run directly by clicking the Google Colab link:
1_model_validation.ipynb, 2_1_anode_potential_validation.ipynb, 2_2_anode_potential_at_three_temp.ipynb, 3_1_reversible_li_plt_loss.ipynb, 4_1_temperature_degradation_standard_cycling_vs_lunana_cycling.ipynb
The following files requires Google Colab Pro with enough available RAM:
3_2_permanent_li_plt_loss_standa, 4_2_temp_cap_loss_over_throughput_time.ipynb,5_1_SOC_degradation.ipynb, 5_2_load_plot_SOC.ipynb
Make sure to connect your Google Drive in order to save simulations.
I thank Valentin Sulzer, Michael Schimpe and Michael O'Kane for their support and guidance.\
I thank Bjarte Steinsund for providing the code used in ref. [15]. The code in 5_1_SOC_degradation.ipynb is largely based on that code.\
I thank Ferran Brosa Planella for his openly available code in ref. [16] that has been used to compare the SPMe vs DFN model.
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