class Fenwick_Tree:
  def __init__(self,N:int):
    self.N = N
    self.dat = [0]*(N+1)
  def add(self,p:int,x:int):
    p += 1
    while p <= self.N:
      self.dat[p] += x
      p += p&-p
  def _sum(self,r:int):
    s = 0
    while r:
      s += self.dat[r]
      r -= r&-r
    return s
  sum = lambda self,l,r:self._sum(r)-self._sum(l)

class EulerTour:
  def __init__(self,G):
    self.N = len(G)
    self.begin = [0]*self.N
    self.end = [0]*self.N
    self.B_v = Fenwick_Tree(self.N*2)
    cnt = 0
    f = 0
    itr = [0]*self.N
    par = [0]*self.N
    par[f] = -1
    while f != -1:
      if itr[f] == 0:
        self.begin[f] = cnt;cnt+=1
      if itr[f] == len(G[f]):
        self.end[f] = cnt;cnt+=1
        f = par[f]
        continue
      par[G[f][itr[f]]] = f
      itr[f]+=1
      f = G[f][itr[f]-1]
  def add(self,p:int,num:int =1):
    self.B_v.add(self.begin[p],num)
    self.B_v.add(self.end[p],-num)
  def query(self,p:int):
    return self.B_v.sum(0,self.begin[p]+1)

def main():
  N = int(input())
  S = [input() for _ in range(N)]
  Q = int(input())
  T = [0]*Q
  X = [0]*Q
  C = [""]*Q
  for i in range(Q):
    I = input().split()
    T[i] = int(I[0]);X[i] = int(I[1])-1
    if T[i]==1:C[i] = I[2]
  
  path = [[0] for _ in range(N)]
  node = [""]
  nex = [[-1]*26]
  S2 = S[:]
  for i in range(Q):
    if T[i] == 1:
      S2[X[i]] += C[i]
  for i in range(N):
    now_node = 0
    for c in S2[i]:
      z = ord(c)-ord("a")
      if nex[now_node][z] == -1:
        nex[now_node][z] = len(node)
        node.append(c)
        nex.append([-1]*26)
      now_node = nex[now_node][z]
      path[i].append(now_node)
  
  V = len(node)
  G = [[] for _ in range(V)]
  for i in range(V):
    for j in range(26):
      if nex[i][j] != -1:
        G[i].append(nex[i][j])
  Eul = EulerTour(G)
  for i in range(N):
    for j in range(len(S[i])):Eul.add(path[i][j+1])
  for i in range(Q):
    if T[i] == 1:
      S[X[i]] += C[i]
      Eul.add(path[X[i]][len(S[X[i]])])
    else:
      print(Eul.query(path[X[i]][len(S[X[i]])]))

if __name__ == "__main__":
  main()