Directional motion of DNA liquid condensates under localized photo-swtiching, Fig. 7b,e,g,h, Supplementary Fig. 11c

Fig. 7b:.csv files ('JF_*.csv') contain the tracked displacements of DNA liquid condensates at lower switching frequencies (#1–#11).From these .csv files, Python scipt ('2D_motion_normal.py') generates the 2D map of the tracked displacements ('2D_plot_interface_tracking_normal_inset.pdf', Fig. 7b).<br>Fig. 7e:.csv files ('fast_*.csv') contain the tracked displacements of DNA liquid condensates at intermediate switching frequencies (#1–#10).From these .csv files, Python scipt ('2D_motion_fast_inset.py') generates the 2D map of the tracked displacements ('2D_plot_interface_tracking_fast_inset.pdf', Fig. 7e).<br>Fig. 7g:From .csv files (three categories: 'JF_*.csv', 'fast_*.csv', and 'too_fast_*.csv'), Python script ('net_vs_freq.py') generates the scatter plot of max. net displacements as a function of switching frequency f ('net_vs_freq_push_pull.pdf', Fig. 7g).<br>Fig. 7hFrom .csv files ( 'JF_*.csv' and 'fast_*.csv'), Python script ('net_vs_time.py') generates the time-evolution of net displacements ('displacement_vs_time_push_pull.pdf', Fig. 7h).<br>Supplementary Fig. 11cPython script ('disp_per_unit_time.py') generates the scatter plot on the distribution of switching interval displacements for the push-/pull-swimming ('distribute_uv_vis.pdf', Supplementary Fig. 11c).