import math
import re
sample = {
    1:{
    'ore': [4, 0, 0, 0],
    'clay': [2, 0, 0, 0],
    'obsidian': [3, 14, 0, 0],
    'geode': [2, 0, 7, 0],
}, 
    2:{
    'ore': [2, 0, 0, 0],
    'clay': [3, 0, 0, 0],
    'obsidian': [3, 8, 0, 0],
    'geode': [3, 0, 12, 0],
}}

robot_number = {'ore': 0, 'clay': 1, 'obsidian': 2, 'geode': 3, 'nothing': 99}

def parse(line):
    line = re.sub(r'[^\d]+', ' ', line)
    idx, ore1, ore2, ore3, clay3, ore4, obs4 = map(int, line.split())
    return idx, {
        'ore': [ore1, 0,0,0],
        'clay': [ore2, 0,0,0],
        'obsidian': [ore3,clay3,0,0],
        'geode': [ore4,0,obs4,0],
    }

def simulate(blueprint):
    B = blueprint
    resources = [0]*4
    robots = [1,0,0,0]
    
    rmax = [max(x[i] for x in B.values()) for i in range(3)] + [99]


    worth = {}
    worth['ore'] = 1
    worth['clay'] = worth['ore']*B['clay'][0]
    worth['obsidian'] = worth['ore']*B['obsidian'][0] + worth['clay']*B['obsidian'][1]
    worth['geode'] = worth['ore']*B['geode'][0] + worth['obsidian']*B['geode'][2]

    print(worth)


    B_items = list(B.items())
    B_items.reverse()

    #B_items.append(('nothing', [0,0,0,0]))

    print(B_items)

    minutes = 24
    buckets = [[] for _ in range(minutes+1)]
    def enqueue(t, robots, resources):
        if t < 0 or t >= len(buckets):
            return
        #x = (resources[3], max(resources[3], robots[3]), max(resources[2], robots[2]), max(resources[1], robots[1]), max(resources[0], robots[0]))
        x = resources[3]
        #w = sum(worth[r]*robots[robot_number[r]] for r in worth)
        #x = tuple(reversed(resources+robots+[resources[3]]))
        #x = (resources[3], robots)
        #n = sum(x==0 for x in robots)
        #if n == 3:
        #    x = (resources[0], robots[0])
        #elif n == 2:
        #    x = (resources[1], resources[0], robots[1], robots[0])
        #elif n == 1:
        #    x = (robots[3], min(resources[2],resources[0]), max(resources[2],resources[1]), robots[2], robots[1],robots[0])
        #else:
        #    x = (resources[3], min(resources[2],resources[0]), max(resources[2],resources[0]), resources[1])
        buckets[t].append((x,robots, resources))

    enqueue(minutes, robots, resources)
    del resources
    del robots

    max_geodes = 0
        
    for _ in range(minutes):
        #next = [[] for _ in range(4)]
        buckets[minutes].sort(reverse=True)
        print(minutes, buckets[minutes][:1])
        for _, robots, resources in buckets[minutes]:
            can_build = 0
            if robots[3]:
                geodes = robots[3]*minutes + resources[3]
                if geodes > max_geodes:
                    max_geodes = geodes
            for robot, cost in B_items:
                i = robot_number[robot]
                if robots[i] >= rmax[i]:
                    # don't build more of 1 robot than we can spend in 1 minute
                    continue

                # figure out how soon we can afford it
                wait = 0
                for x,y,r in zip(resources, cost, robots):
                    if y == 0:
                        continue
                    if r <= 0:
                        wait = 9999
                        break
                    if y > x:
                        wait = max(wait, int(math.ceil((y - x)/r)))
                if wait > minutes:
                    continue

                new_resources = [x+(wait+1)*r-y for x,y,r in zip(resources, cost, robots)]
                if robot != 'nothing':
                    new_robots = list(robots)
                    new_robots[i] += 1
                else:
                    new_robots = robots
                enqueue(minutes-wait-1, new_robots, new_resources)
        #print(len(next))

        #limit = 2500

        #q = []
        #for bucket in next:
        #    bucket.sort(reverse=True)
        #    q.extend(bucket[:limit])

        #count = sum(len(b) for b in next)
        #print(count, q[:1])
        print(minutes, [len(x) for x in buckets])

        minutes -= 1

    #print(buckets)
    #q = buckets[0]
    #print(q[0])
    #return q[0][-1][-1]
    return max_geodes
    
#simulate(blueprints[1])

input = {}
with open('input') as f:
    for line in f:
        idx, bp = parse(line)
        input[idx] = bp

def solve(input):
    t = 0
    for idx, B in input.items():
        g = simulate(B)
        t += idx*g
        print(idx, g)
        print("---")
    print(t)
    return t

assert solve(sample) == 33
solve(input)