def fn(cell, cell_count):
split = cell.split(':')
if (len(split) == 2):
split.append('')
(_, land_use, bmp) = split
et = et_max * lookup_ki(bmp or land_use)
return simulate_cell_day(precip, et, cell, cell_count)
def fn(cell, cell_count):
# Compute et for cell type
split = cell.split(':')
if (len(split) == 2):
(land_use, bmp) = split
else:
(_, land_use, bmp) = split
et = et_max * lookup_ki(bmp or land_use)
# Simulate the cell for one day
return simulate_cell_day(precip, et, cell, cell_count)
def simulate(precip, tile_string):
land_use = tile_string.split(':')[1]
ki = lookup_ki(land_use)
return simulate_cell_day(precip, 0.207 * ki, tile_string, 1)
def simulate(precip, tile_string):
land_use = tile_string.split(':')[1]
ki = lookup_ki(land_use)
return simulate_cell_day(precip, 0.207 * ki, tile_string, 1)
def fn(cell, cell_count):
(soil_type, land_use) = cell.lower().split(':')
et = et_max * lookup_ki(land_use)
return simulate_cell_day((precip, et), cell, cell_count)
def simulate_day(cell, cell_count):
soil_type, land_use = cell.lower().split(':')
et = et_max * lookup_ki(land_use)
return simulate_cell_day((precip, et), cell, cell_count)
def simulate(precip, tile_string):
soil_type, land_use = tile_string.split(":")
ki = lookup_ki(land_use)
return simulate_cell_day((precip, 0.207 * ki), tile_string, 1)
