# "constants":
DAYS = 256

# intialize shared data:
fish_reproducing_on_day = []
for i in range(0, DAYS + 9):
    fish_reproducing_on_day.append(0)

# functions:
def SimulateFish(days_until_next_fish, total_days_left):
    # # DEBUG(dev):
    # print('SimulateFish(', days_until_next_fish, ',', total_days_left, ')')

    # If we're past the final date, don't count any more:
    if(total_days_left - days_until_next_fish <= 0):
        # add 1 for THIS fish
        return 1

    total = 0
    # Add up all the totals of the fish this one is going to spawn
    for i in range(total_days_left - days_until_next_fish, 0, -7):
        total += SimulateFish(9, i)
    # Add this fish, as well
    total += 1

    # Return grand total from this fish (INCLUDING this fish)
    return total

def SimulateFishByDay(current_day):
    fish_reproducing_on_day[current_day + 7] += fish_reproducing_on_day[current_day]
    fish_reproducing_on_day[current_day + 9] += fish_reproducing_on_day[current_day]
    return fish_reproducing_on_day[current_day]

#### MAIN EXECUTION ####
fish = []
with open('data', 'r') as fp:
    fish = fp.readline().strip().split(',')

grand_total_1 = 0
for i in range(0, len(fish)):
    grand_total_1 += SimulateFish(int(fish[i]), 80)

print(grand_total_1)



for i in range(0, len(fish)):
    fish_reproducing_on_day[int(fish[i])] += 1

grand_total_2 = 300 # starting fish count
for i in range(0, DAYS):
    print(fish_reproducing_on_day)
    grand_total_2 += SimulateFishByDay(i)
print(grand_total_2)