#include using namespace std; template struct FenwickTree { const int n; vector t; FenwickTree(int _n) : n(_n), t(n + 1) {} void add(int i, T x) { for (++i; i <= n; i += i & -i) t[i] ^= x; } T sum(int i) const { T s = 0; for (; i; i -= i & -i) s ^= t[i]; return s; } }; int main() { cin.tie(nullptr); ios::sync_with_stdio(false); int n; cin >> n; vector h(n); for (auto&& e : h) { cin >> e; } struct Event { bool add; int c, l, r; }; vector< vector > es(2 * n); for (int i = 0; i < n; ++i) { int a, b, c, d, e; cin >> a >> b >> c >> d >> e; --e; es[a].emplace_back(Event{true, e, b, d}); es[c].emplace_back(Event{false, e, b, d}); } int q; cin >> q; struct Query { int id, i; }; vector< vector > qs(2 * n); for (int i = 0; i < q; ++i) { int x, y; cin >> x >> y; qs[x].emplace_back(Query{i, y}); } vector res(q); FenwickTree ft(2 * n); vector< set > lr(n), ls(n), rs(n); for (int t = 0; t < 2 * n; ++t) { for (auto e : es[t]) { if (e.add) { { auto it = lr[e.c].lower_bound(e.l); if (it != begin(lr[e.c]) and ls[e.c].count(*--it)) { e.l = *it; } } { auto it = lr[e.c].upper_bound(e.r); if (it != end(lr[e.c]) and rs[e.c].count(*it)) { e.r = *it; } } lr[e.c].erase(lr[e.c].lower_bound(e.l), lr[e.c].lower_bound(e.r + 1)); ls[e.c].erase(ls[e.c].lower_bound(e.l), ls[e.c].lower_bound(e.r + 1)); rs[e.c].erase(rs[e.c].lower_bound(e.l), rs[e.c].lower_bound(e.r + 1)); } else { { auto it = lr[e.c].lower_bound(e.l); if (it != end(lr[e.c]) and *it == e.l) { assert(ls[e.c].count(e.l)); lr[e.c].erase(e.l); ls[e.c].erase(e.l); } else if (it != begin(lr[e.c]) and ls[e.c].count(*--it)) { lr[e.c].insert(e.l); rs[e.c].insert(e.l); } } { auto it = lr[e.c].upper_bound(e.r); if (it != begin(lr[e.c]) and *--it == e.r) { assert(rs[e.c].count(e.r)); lr[e.c].erase(e.r); rs[e.c].erase(e.r); } else if (it != end(lr[e.c]) and rs[e.c].count(*it)) { lr[e.c].insert(e.r); ls[e.c].insert(e.r); } } } ft.add(e.l, h[e.c]); ft.add(e.r, h[e.c]); } for (auto e : qs[t]) { res[e.id] = ft.sum(e.i + 1); } } for (auto e : res) { cout << e << '\n'; } }