![]() ![]() show () # Create new empty grid to store results for next generation new_grid = np. arange ( i + 1 ), total_live ) # Re-plot the entire line plt. pcolormesh ( grid, cmap = 'gray' ) right_img = fig. array () for i in range ( N ): clear_output ( wait = True ) fig = plt. shape, N_seeds ) grid = 1 N = 100 offset_rows = np. seed ( 2 ) # 2 N_seeds = 1000 row_seeds = np. # Final version with Torus and subplots grid_rows = 100 grid_cols = 100 grid = np. sum () # Decide whether current cell grid will live or die if grid = 1 : # Cell with fewer than two live neighbours dies (underpopulation) if cell_sum 3 : new_grid = 0 else : # Cell with exactly three live neighbours becomes a live cell (reproduction) if cell_sum = 3 : new_grid = 1 # Replace current generation with next generation grid = new_grid shape - 1 ): # Compute sum of neighbors cell_sum = grid. shape - 1 ): for col in range ( 1, grid. zeros () # Grid scanning loops for row in range ( 1, grid. N = 100 # days # Time loop for i in range ( N ): clear_output ( wait = True ) plt. Rootzone Soil Water from Surface Observations ![]() Neutron Counts to Volumetric Water Content Central Dogma: Decoding a Single PolypeptideĬentral Dogma: Decoding Multiple PolypeptidesĮxploring Bird Counts with Pandas and HoloViewsĬoronavirus COVID-19 Timeseries of Global Cases ![]()
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