def sim_and_rank_seasons(lineup, num_rotations=2):
ordered_seasons = [] # stores seasons in descending order by runs/game
counter = 0
lineup_copy = lineup[:]
while counter < num_rotations:
# generate random rotation
shuffle(lineup_copy)
# test all 9 possible orders of given rotation
for i in range(9):
lineup_copy.append(lineup_copy.pop(0)) # place first batter at end
s = Season(lineup=deepcopy(list(lineup_copy)), num_games=162)
s.play_season()
ordered_seasons.append(s)
#print to terminal so people don't freak out waiting for simulations to end
sys.stdout.write("\rSeasons Simulated: %d/%d" % (i+counter*9+1, num_rotations*9))
sys.stdout.flush()
counter += 1
ordered_seasons.sort(key=lambda s: s.get_runs_per_game())
sys.stdout.write("\n")
return ordered_seasons
def sim_and_rank_seasons(lineup, num_rotations=2):
ordered_seasons = [] # stores seasons in descending order by runs/game
counter = 0
lineup_copy = lineup[:]
while counter < num_rotations:
# generate random rotation
shuffle(lineup_copy)
# test all 9 possible orders of given rotation
for i in range(9):
lineup_copy.append(lineup_copy.pop(0)) # place first batter at end
s = Season(lineup=deepcopy(list(lineup_copy)), num_games=162)
s.play_season()
ordered_seasons.append(s)
#print to terminal so people don't freak out waiting for simulations to end
sys.stdout.write("\rSeasons Simulated: %d/%d" %
(i + counter * 9 + 1, num_rotations * 9))
sys.stdout.flush()
counter += 1
ordered_seasons.sort(key=lambda s: s.get_runs_per_game())
sys.stdout.write("\n")
return ordered_seasons
