#define AUTO_GENERATED
// competitive-verifier: PROBLEM https://judge.yosupo.jp/problem/range_affine_point_get
#include "../../../src/ds/segtree/hp/lib.hpp"
using namespace tifa_libs;
CEXP u32 MOD = 998244353;
#include "../../../src/math/ds/mint/ms64/lib.hpp"
using namespace tifa_libs;
using mint = mint_ms64<MOD>;
using T = std::pair<mint, usz>; // sum len
using F = std::pair<mint, mint>; // mul add
auto op(T a, T b) { return T{a.first + b.first, a.second + b.second}; }
void mapping(T& a, F f) {
a.first = f.first * a.first + f.second * a.second;
}
void composition(F& f, F g) {
f = F{f.first * g.first, g.first * f.second + g.second};
// g(x) = g.mul * x + g.add
// f(g(x)) = f.mul * (g.mul * x + g.add) + f.add = f.mul * g.mul * x + f.mul * g.add + f.add
}
int main() {
std::cin.tie(nullptr)->std::ios::sync_with_stdio(false);
u32 n, q;
std::cin >> n >> q;
vec<T> a(n);
for (auto& x : a) std::cin >> x.first, x.second = 1;
tifa_libs::segtree<T, op, F, mapping, composition> segt({0, 0}, {1, 0}, a);
flt_ (u32, i, 1, q + 1) {
u32 opt, l, r;
std::cin >> opt >> l;
if (opt == 0) {
mint x, y;
std::cin >> r >> x >> y;
segt.update(l, r, F{x, y});
} else
std::cout << segt.query(l).first << '\n';
}
return 0;
}
#line 1 "test/cpv/library-checker-datastructure/range_affine_point_get.mints-ms64.cpp"
#define AUTO_GENERATED
// competitive-verifier: PROBLEM https://judge.yosupo.jp/problem/range_affine_point_get
#line 2 "src/ds/segtree/hp/lib.hpp"
#line 2 "src/util/alias/others/lib.hpp"
#line 2 "src/util/consts/lib.hpp"
#line 2 "src/util/alias/num/lib.hpp"
#line 2 "src/util/util/lib.hpp"
// https://github.com/Tiphereth-A/CP-lib
#include <bits/extc++.h>
// clang-format off
namespace tifa_libs {
#define CEXP constexpr
#define CEXPE constexpr explicit
#define CR const&
#define CP const*
#define PC *const
#define CPC const*const
#define TPN typename
#define NE noexcept
#define CNE const noexcept
#define ND [[nodiscard]]
#define cT_(...) std::conditional_t<sizeof(__VA_ARGS__) <= sizeof(size_t) * 2, __VA_ARGS__, __VA_ARGS__ CR>
// NOLINTNEXTLINE(misc-const-correctness)
#define flt_(T, i, l, r, ...) for (T i = (l), i##e = (r)__VA_OPT__(, ) __VA_ARGS__; i < i##e; ++i)
#define retif_(cond, if_true, ...) if cond return if_true __VA_OPT__(; else return __VA_ARGS__)
#ifdef ONLINE_JUDGE
#undef assert
#define assert(x) 42
#endif
using namespace std::ranges;
using namespace std::literals;
template <class T>
CEXP T abs(T x) NE { retif_((x < 0), -x, x); }
} // namespace tifa_libs
// clang-format on
#line 4 "src/util/alias/num/lib.hpp"
// clang-format off
namespace tifa_libs {
#define mk0_(w, t) using w = t; using c##w = const t
#define mk_(w, t) mk0_(w, t); CEXP w operator""_##w(unsigned long long x) NE { return (w)x; }
mk_(i8, int8_t) mk_(u8, uint8_t) mk_(i16, int16_t) mk_(u16, uint16_t) mk_(i32, int32_t) mk_(u32, uint32_t) mk_(i64, int64_t) mk_(u64, uint64_t) mk_(isz, ssize_t) mk_(usz, size_t) mk_(chr, char) mk_(schr, signed char) mk_(uchr, unsigned char) mk_(sint, signed) mk_(uint, unsigned);
mk0_(i128, __int128_t); mk0_(u128, __uint128_t); mk0_(f32, float); mk0_(f64, double); mk0_(f128, long double);
#undef mk0_
#undef mk_
} // namespace tifa_libs
// clang-format on
#line 4 "src/util/consts/lib.hpp"
// clang-format off
namespace tifa_libs {
using std::numbers::pi_v;
template <std::floating_point FP>
inline FP eps_v = std::sqrt(std::numeric_limits<FP>::epsilon());
template <std::floating_point FP>
CEXP void set_eps(FP v) NE { eps_v<FP> = v; }
CEXP u32 TIME = ((__TIME__[0] & 15) << 20) | ((__TIME__[1] & 15) << 16) | ((__TIME__[3] & 15) << 12) | ((__TIME__[4] & 15) << 8) | ((__TIME__[6] & 15) << 4) | (__TIME__[7] & 15);
CEXP auto STR2U16 = [] { std::array<u32, 65536> table{}; table.fill(-1_u32); flt_ (u32, i, 48, 58) flt_ (u32, j, 48, 58) table[i << 8 | j] = (j & 15) * 10 + (i & 15); return table; }();
inline const auto fn_0 = [](auto&&...) NE {};
inline const auto fn_is0 = [](auto x) NE { return x == 0; };
} // namespace tifa_libs
// clang-format on
#line 4 "src/util/alias/others/lib.hpp"
namespace tifa_libs {
template <class T>
struct chash {
CEXP static u64 C = u64(pi_v<f128> * 2e18) | 71;
CEXP u64 operator()(T x) CNE { return __builtin_bswap64(((u64)x ^ TIME) * C); }
};
// clang-format off
#define mk_(w, t) using w = t; using c##w = const t;
mk_(strn, std::string) mk_(strnv, std::string_view)
#undef mk_
template <class T> struct edge_t { T w; u32 u, v; CEXP auto operator<=>(edge_t CR) const = default; }; template <class T> using cedge_t = const edge_t<T>;
template <class T> struct pt3 { T _0, _1, _2; CEXP auto operator<=>(pt3 CR) const = default; }; template <class T> using cpt3 = const pt3<T>;
template <class T> struct pt4 { T _0, _1, _2, _3; CEXP auto operator<=>(pt4 CR) const = default; }; template <class T> using cpt4 = const pt4<T>;
#define mkT_(w, t, ...) template <class T> using w = t __VA_OPT__(, ) __VA_ARGS__; template <class T> using c##w = const t __VA_OPT__(, ) __VA_ARGS__;
mkT_(ptt, std::pair<T, T>) mkT_(alc, std::pmr::polymorphic_allocator<T>) mkT_(vec, std::vector<T>) mkT_(vvec, vec<vec<T>>) mkT_(v3ec, vvec<vec<T>>) mkT_(vecpt, vec<ptt<T>>) mkT_(vvecpt, vvec<ptt<T>>) mkT_(ptvec, ptt<vec<T>>) mkT_(ptvvec, ptt<vvec<T>>)
#undef mkT_
template <class T> using itl = std ::initializer_list<T>;
template <class T, usz ext = std::dynamic_extent> using spn = std::span<T const, ext>;
template <class T, usz N> using arr = std::array<T, N>; template <class T, usz N> using carr = std::array<const T, N>;
template <class U, class T> using vecp = vec<std::pair<U, T>>; template <class U, class T> using vvecp = vvec<std::pair<U, T>>;
template <class U, class T> using vvecp = vvec<std::pair<U, T>>; template <class U, class T> using vvvecp = vvec<vvec<std::pair<U, T>>>;
#ifdef PB_DS_ASSOC_CNTNR_HPP
template <class T, class C = std::less<T>> using set = __gnu_pbds::tree<T, __gnu_pbds::null_type, C>;
template <class K, class V, class C = std::less<K>> using map = __gnu_pbds::tree<K, V, C>;
// hset<u64> s({}, {}, {}, {}, {1<<16});
template <class T, class HF = chash<T>> using hset = __gnu_pbds::gp_hash_table<T, __gnu_pbds::null_type, HF>;
// hmap<u64, int> s({}, {}, {}, {}, {1<<16});
template <class K, class V, class HF = chash<K>> using hmap = __gnu_pbds::gp_hash_table<K, V, HF>;
#else
using std::set, std::map;
template <class T, class HF = chash<T>> using hset = std::unordered_set<T, HF>;
template <class K, class V, class HF = chash<K>> using hmap = std::unordered_map<K, V, HF>;
#endif
#ifdef PB_DS_PRIORITY_QUEUE_HPP
template <class T, class C = std::less<T>> using pq = __gnu_pbds::priority_queue<T, C>;
#else
template <class T, class C = std::less<T>> using pq = std::priority_queue<T, vec<T>, C>;
#endif
template <class T> using pqg = pq<T, std::greater<T>>;
// clang-format on
#define mk1_(V, A, T) using V##A = V<T>;
#define mk_(V, A, T) mk1_(V, A, T) mk1_(c##V, A, T)
#define mk(A, T) mk_(edge_t, A, T) mk_(ptt, A, T) mk_(pt3, A, T) mk_(pt4, A, T) mk_(vec, A, T) mk_(vvec, A, T) mk_(v3ec, A, T) mk_(vecpt, A, T) mk_(vvecpt, A, T) mk_(ptvec, A, T) mk_(ptvvec, A, T) mk1_(spn, A, T) mk1_(itl, A, T)
mk(b, bool) mk(c, chr) mk(i, i32) mk(u, u32) mk(ii, i64) mk(uu, u64) mk(t, isz) mk(z, usz) mk(f, f32) mk(d, f64) mk(s, strn);
#undef mk
#undef mk_
#undef mk1_
} // namespace tifa_libs
#line 4 "src/ds/segtree/hp/lib.hpp"
namespace tifa_libs {
namespace segtree_impl_ {
template <bool enable_tag, class T, auto op, class F, auto mapping, auto composition>
requires requires(T val, T new_val, F tag, F new_tag) {
{ op(val, new_val) } -> std::same_as<T>;
{ mapping(val, tag) } -> std::same_as<void>;
{ composition(tag, new_tag) } -> std::same_as<void>;
}
struct segtree {
const T E;
const F ID;
private:
u32 sz, lbn, n;
vec<T> val;
vec<F> tag;
vecb vset;
public:
CEXP segtree(cT_(T) e, cT_(F) id) NE : E(e), ID(id), sz(0), lbn(0), n(0), val{}, tag{}, vset{} {}
template <class V>
CEXP segtree(cT_(T) e, cT_(F) id, V&& a) NE : segtree(e, id) { reset(std::forward<V>(a)); }
CEXP segtree(cT_(T) e, cT_(F) id, u32 n) NE : segtree(e, id) { reset(vec<T>(n, e)); }
template <class V>
CEXP void reset(V&& a) NE {
if (a.empty()) {
sz = lbn = n = 0, val.clear(), tag.clear(), vset.clear();
return;
}
sz = (u32)a.size(), lbn = (u32)std::bit_width(sz - 1), n = 1_u32 << lbn;
if (!n) return;
val = vec<T>(n * 2, E), copy(a, begin(val) + n);
if CEXP (enable_tag) tag = vec<F>(n, ID), vset = vecb(n);
for (u32 i = n - 1; i; --i) pushup(i);
}
//! 0-indexed, [l, r)
CEXP void update(u32 l, u32 r, cT_(F) v) NE { upd_set<true>(l, r, v); }
//! 0-indexed, [l, r)
// set(3, 7, v): val[[3, 4), [4, 6), [6, 7)] <- v
//! val[[4, 6)] != op(val[[3, 4)], val[[6, 7)])
CEXP void set(u32 l, u32 r, cT_(F) v) NE { upd_set<false>(l, r, v); }
//! 0-indexed, [l, r)
CEXP T query(u32 l, u32 r) NE {
if (assert(l <= r && r <= sz); l == r) return E;
l += n, r += n;
cu32 zl = (u32)std::countr_zero(l), zr = (u32)std::countr_zero(r), ie = (u32)max(1, (i32)min(zl, zr));
for (u32 i = lbn; i >= ie; --i) {
if (zl < i) pushdown(l >> i);
if (zr < i) pushdown((r - 1) >> i);
}
T ql = E, qr = E;
while (l < r) {
if (l & 1) ql = op(ql, val[l++]);
if (r & 1) qr = op(val[--r], qr);
l /= 2, r /= 2;
}
return op(ql, qr);
}
CEXP void update(u32 x, cT_(F) v) NE { upd_set<true>(x, v); }
CEXP void set(u32 x, cT_(T) v) NE { upd_set<false>(x, v); }
CEXP T query(u32 x) NE {
assert(x < sz), x += n;
for (u32 i = lbn; i; --i) pushdown(x >> i);
return val[x];
}
template <class G>
requires requires(G check, T val) {
{ check(val) } -> std::same_as<bool>;
}
CEXP u32 max_right(u32 l, G&& chk) NE {
if (assert(l <= sz && chk(ID)); l == n) return n;
l += n;
for (u32 i = lbn; i; --i) pushdown(l >> i);
T _ = E;
do {
if (!chk(op(_, val[l >>= std::countr_zero(l)]))) {
while (l < n)
if (pushdown(l), l *= 2; chk(op(_, val[l]))) _ = op(_, val[l++]);
return l - n;
}
_ = op(_, val[l++]);
} while (!std::has_single_bit(l));
return sz;
}
template <class G>
requires requires(G check, T val) {
{ check(val) } -> std::same_as<bool>;
}
CEXP u32 min_left(u32 r, G chk) NE {
if (assert(r <= sz && chk(ID)); !r) return 0;
r += n;
for (u32 i = lbn; i; --i) pushdown((r - 1) >> i);
T _ = E;
do {
if (!(--r, r >>= std::countr_one(r))) r = 1;
if (!chk(op(val[r], _))) {
while (r < n)
if (pushdown(r), r = r * 2 + 1; chk(op(val[r], _))) _ = op(val[r--], _);
return r + 1 - n;
}
_ = op(val[r], _);
} while (!std::has_single_bit(r));
return 0;
}
private:
CEXP void compose(F& a, cT_(F) b) CNE {
if (a == ID) a = b;
else composition(a, b);
}
CEXP void pushup(u32 x) NE { val[x] = op(val[x * 2], val[x * 2 + 1]); }
template <bool upd>
CEXP void apply(u32 x, std::conditional_t<upd, cT_(F), cT_(T)> f) NE {
if CEXP (upd) {
if (f == ID) return;
if CEXP (mapping(val[x], f); enable_tag)
if (x < n) compose(tag[x], f);
} else if CEXP (val[x] = f; enable_tag)
if (x < n) tag[x] = ID, vset[x] = true;
}
CEXP void pushdown(u32 x) NE {
if CEXP (enable_tag) {
if (vset[x]) {
val[x * 2] = val[x * 2 + 1] = val[x];
if (x * 2 < n) tag[x * 2] = tag[x * 2 + 1] = ID, vset[x * 2] = vset[x * 2 + 1] = true;
vset[x] = false;
} else if (tag[x] != ID) {
mapping(val[x * 2], tag[x]), mapping(val[x * 2 + 1], tag[x]);
if (x * 2 < n) compose(tag[x * 2], tag[x]), compose(tag[x * 2 + 1], tag[x]);
tag[x] = ID;
}
}
}
template <bool upd>
CEXP void upd_set(u32 l, u32 r, std::conditional_t<upd, cT_(F), cT_(T)> v) NE {
if (assert(l <= r && r <= sz); l == r) return;
l += n, r += n;
cu32 zl = (u32)std::countr_zero(l), zr = (u32)std::countr_zero(r), zm = min(zl, zr), ie = (u32)max(1, (i32)zm);
for (u32 i = lbn; i >= ie; --i) {
if (zl < i) pushdown(l >> i);
if (zr < i) pushdown((r - 1) >> i);
}
u32 l2 = l, r2 = r;
while (l2 < r2) {
if (l2 & 1) apply<upd>(l2++, v);
if (r2 & 1) apply<upd>(--r2, v);
l2 /= 2, r2 /= 2;
}
flt_ (u32, i, zm + 1, lbn + 1) {
if (zl < i) pushup(l >> i);
if (zr < i) pushup((r - 1) >> i);
}
}
template <bool upd>
CEXP void upd_set(u32 x, std::conditional_t<upd, cT_(F), cT_(T)> v) NE {
assert(x < sz), x += n;
for (u32 i = lbn; i; --i) pushdown(x >> i);
if CEXP (upd) mapping(val[x], v);
else val[x] = v;
flt_ (u32, i, 1, lbn + 1) pushup(x >> i);
}
};
} // namespace segtree_impl_
template <class T, auto op, class F, auto mapping, auto composition>
using segtree = segtree_impl_::segtree<true, T, op, F, mapping, composition>;
template <class T, auto op, auto mapping>
class segtree_notag : public segtree_impl_::segtree<false, T, op, T, mapping, mapping> {
using base = segtree_impl_::segtree<false, T, op, T, mapping, mapping>;
public:
CEXPE segtree_notag(cT_(T) e) NE : base(e, e) {}
template <class V>
CEXP segtree_notag(cT_(T) e, V&& a) NE : base(e, e, std::forward<V>(a)) {}
CEXP segtree_notag(cT_(T) e, u32 n) NE : base(e, e, n) {}
};
} // namespace tifa_libs
#line 4 "test/cpv/library-checker-datastructure/range_affine_point_get.mints-ms64.cpp"
using namespace tifa_libs;
CEXP u32 MOD = 998244353;
#line 2 "src/math/ds/mint/ms64/lib.hpp"
#line 2 "src/nt/mod/montgomery64/lib.hpp"
#line 4 "src/nt/mod/montgomery64/lib.hpp"
namespace tifa_libs {
template <u64 MOD>
struct montgomery64 {
static CEXP u64 R = [] {
u64 iv = MOD * (2 - MOD * MOD);
iv *= 2 - MOD * iv, iv *= 2 - MOD * iv, iv *= 2 - MOD * iv;
return iv * (2 - MOD * iv);
}();
static CEXP u64 R2 = [] {
u64 iv = -MOD % MOD;
for (u32 i = 0; i != 64; ++i)
if ((iv *= 2) >= MOD) iv -= MOD;
return iv;
}();
static_assert(MOD & 1);
static_assert(R * MOD == 1);
static_assert((MOD >> 63) == 0);
static_assert(MOD != 1);
static CEXP u64 mulh(u64 x, u64 y) NE { return u64((u128)x * y >> 64); }
static CEXP u64 redc_mul(u64 x, u64 y) NE {
u64 res = mulh(x, y) - mulh(x * y * R, MOD);
return res + (MOD & -(res >> 63));
}
static CEXP u64 norm(i64 x) NE { return (u64)x + (MOD & u64(-(x < 0))); }
};
template <> // dynamic
struct montgomery64<0> {
u64 MOD, R, R2;
CEXP montgomery64() NE = default;
CEXPE montgomery64(u64 m) NE { reset(m); }
CEXP void reset(u64 m) NE {
assert(!((m & 1) == 0 || m == 1 || m >> 63)), MOD = m;
u64 iv = MOD * (2 - MOD * MOD);
iv *= 2 - MOD * iv, iv *= 2 - MOD * iv, iv *= 2 - MOD * iv, R = iv * (2 - MOD * iv), R2 = -MOD % MOD;
flt_ (u32, i, 0, 64)
if ((R2 *= 2) >= MOD) R2 -= MOD;
}
ND CEXP u64 mul_h(u64 x, u64 y) CNE { return u64((u128)x * y >> 64); }
ND CEXP u64 redc_mul(u64 x, u64 y) CNE {
cu64 res = mul_h(x, y) - mul_h(x * y * R, MOD);
return res + (MOD & -(res >> 63));
}
ND CEXP u64 norm(i64 x) CNE { return u64(x + i64(MOD & u64(-(x < 0)))); }
};
} // namespace tifa_libs
#line 2 "src/math/ds/mint/_base/lib.hpp"
#line 2 "src/nt/inverse/lib.hpp"
#line 2 "src/nt/gl/inv_gcd/lib.hpp"
#line 2 "src/math/safe_mod/lib.hpp"
#line 2 "src/util/traits/math/lib.hpp"
// clang-format off
#line 4 "src/util/traits/math/lib.hpp"
namespace tifa_libs {
template <class T> concept char_c = std::same_as<T, char> || std::same_as<T, signed char> || std::same_as<T, unsigned char>;
#pragma GCC diagnostic ignored "-Wpedantic"
template <class T> concept s128_c = std::same_as<T, __int128_t> || std::same_as<T, __int128>;
template <class T> concept u128_c = std::same_as<T, __uint128_t> || std::same_as<T, unsigned __int128>;
template <class T> concept i128_c = s128_c<T> || u128_c<T>;
#pragma GCC diagnostic warning "-Wpedantic"
template <class T> concept imost64_c = std::integral<T> && sizeof(T) * __CHAR_BIT__ <= 64;
template <class T> concept smost64_c = imost64_c<T> && std::signed_integral<T>;
template <class T> concept umost64_c = imost64_c<T> && std::unsigned_integral<T>;
template <class T> concept int_c = i128_c<T> || imost64_c<T>;
template <class T> concept sint_c = s128_c<T> || smost64_c<T>;
template <class T> concept uint_c = u128_c<T> || umost64_c<T>;
template <class T> concept arithm_c = std::is_arithmetic_v<T> || int_c<T>;
template <class T> concept mint_c = requires(T x) { {x.mod()} -> uint_c; {x.val()} -> uint_c; };
template <class T> concept dft_c = requires(T x, std::vector<TPN T::data_t> v, u32 n) { {x.size()} -> std::same_as<u32>; x.bzr(n); x.dif(v, n); x.dit(v, n); };
template <class T> concept ntt_c = dft_c<T> && requires(T x) { T::max_size; T::G; };
template <class T> struct to_sint : std::make_signed<T> {};
template <> struct to_sint<u128> { using type = i128; };
template <> struct to_sint<i128> { using type = i128; };
template <class T> using to_sint_t = TPN to_sint<T>::type;
template <class T> struct to_uint : std::make_unsigned<T> {};
template <> struct to_uint<u128> { using type = u128; };
template <> struct to_uint<i128> { using type = u128; };
template <class T> using to_uint_t = TPN to_uint<T>::type;
template <arithm_c T> struct to_bigger : std::make_unsigned<T> {};
#define _(w,ww) template <> struct to_bigger<w> { using type = ww; }
#define _2(w,ww) _(i##w,i##ww); _(u##w,u##ww);
_2(8, 16); _2(16, 32); _2(32, 64); _2(64, 128); _(f32, f64); _(f64, f128);
#undef _2
#undef _
template <class T> using to_bigger_t = TPN to_bigger<T>::type;
template <arithm_c T> CEXP T inf_v = [] {
if CEXP(sint_c<T>) return T(to_uint_t<T>(-1) / 4 - 1);
else if CEXP(uint_c<T>) return T(-1) / 2 - 1;
else return std::numeric_limits<T>::max() / 2 - 1;
}();
} // namespace tifa_libs
// clang-format on
#line 4 "src/math/safe_mod/lib.hpp"
namespace tifa_libs {
template <int_c T>
CEXP T safe_mod(T x, to_uint_t<T> mod) NE {
if CEXP (sint_c<T>) {
if (x <= -(T)mod || x >= (T)mod) x %= (T)mod;
retif_((x < 0), x + (T)mod, x);
} else {
retif_((x >= mod), x % mod, x);
}
}
} // namespace tifa_libs
#line 2 "src/nt/gl/exgcd/lib.hpp"
#line 4 "src/nt/gl/exgcd/lib.hpp"
namespace tifa_libs {
// Binary exgcd
template <uint_c U, bool only_x = false>
CEXP auto exgcd_b(U a, U b) NE {
using T = to_sint_t<U>;
if CEXP (only_x) {
if (!a) return std::make_tuple(b, (T)0);
if (!b) return std::make_tuple(a, (T)1);
} else {
if (!a) return std::make_tuple(b, (T)0, (T) !!b);
if (!b) return std::make_tuple(a, (T)1, (T)0);
}
auto r = std::__countr_zero(a | b);
a >>= r, b >>= r;
T x = (T)a, y = (T)b, s = 1, t = 0, u = 0, v = 1;
while (x) {
while (!(x & 1))
if (x /= 2; !((s | t) & 1)) s /= 2, t /= 2;
else s = (s + (T)b) / 2, t = (t - (T)a) / 2;
while (!(y & 1))
if (y /= 2; !((u | v) & 1)) u /= 2, v /= 2;
else u = (u + (T)b) / 2, v = (v - (T)a) / 2;
if (x >= y) x -= y, s -= u, t -= v;
else y -= x, u -= s, v -= t;
}
if (y > 1) a /= (U)y, b /= (U)y;
if (a && (U)abs(v) >= a) {
const T _ = v / (T)a;
v -= _ * (T)a, u += _ * (T)b;
}
if (b && (U)abs(u) >= b) {
const T _ = u / (T)b;
u -= _ * (T)b, v += _ * (T)a;
}
if (const T u_ = u + (T)b, v_ = v - (T)a; abs(u_) + abs(v_) <= abs(u) + abs(v)) u = u_, v = v_;
if (const T u_ = u - (T)b, v_ = v + (T)a; abs(u_) + abs(v_) <= abs(u) + abs(v)) u = u_, v = v_;
if CEXP (only_x) return std::make_tuple(U(y << r), u);
else return std::make_tuple(U(y << r), u, v);
}
// @return then return tuple(g, x[, y]) s.t. g = gcd(a, b), xa + yb = g, |x| + |y| is the minimal (primary) and x <= y (secondarily)
template <sint_c T, bool only_x = false>
CEXP auto exgcd(T a, T b) NE {
using U = to_uint_t<T>;
if (auto [x, y] = minmax(a, b); x >= 0 && y <= T(U(-1) >> sizeof(U))) return exgcd_b<U, only_x>((U)a, (U)b);
if CEXP (only_x) {
T s = 1, u = 0;
while (b) {
T c = a / b;
std::tie(s, u, a, b) = std::make_tuple(u, s - u * c, b, a - b * c);
}
return std::make_tuple((U)a, s);
} else {
T s = 1, t = 0, u = 0, v = 1;
while (b) {
T c = a / b;
std::tie(s, t, u, v, a, b) = std::make_tuple(u, v, s - u * c, t - v * c, b, a - b * c);
}
return std::make_tuple((U)a, s, t);
}
}
} // namespace tifa_libs
#line 6 "src/nt/gl/inv_gcd/lib.hpp"
namespace tifa_libs {
template <uint_c T>
CEXP ptt<T> inv_gcd(T n, T mod) NE {
using U = to_sint_t<T>;
auto [g, x] = exgcd<U, true>(U(n % mod), (U)mod);
return {g, safe_mod(x, mod)};
}
} // namespace tifa_libs
#line 4 "src/nt/inverse/lib.hpp"
namespace tifa_libs {
// simple but slower: inv(n, mod) -> 1 < n ? mod - inv(mod % n, n) * mod / n : 1;
template <uint_c T, uint_c U>
CEXP U inverse(T n, U mod) NE {
auto [g, x] = inv_gcd(U(n % mod), mod);
assert(g == 1);
return x;
}
} // namespace tifa_libs
#line 2 "src/util/traits/others/lib.hpp"
// clang-format off
#line 4 "src/util/traits/others/lib.hpp"
namespace tifa_libs {
//! only for template without non-type argument
template <class, template <class...> class> CEXP bool specialized_from_v = false;
template <template <class...> class T, class... Args> CEXP bool specialized_from_v<T<Args...>, T> = true;
static_assert(specialized_from_v<vecu, std::vector>);
template <class T> concept container_c = common_range<T> && !std::is_array_v<std::remove_cvref_t<T>> && !std::same_as<std::remove_cvref_t<T>, strn> && !std::same_as<std::remove_cvref_t<T>, strnv>;
template <class T> concept istream_c = std::derived_from<T, std::istream> || std::derived_from<T, std::wistream> || requires(T is) { is.peek(); };
template <class T> concept ostream_c = std::derived_from<T, std::ostream> || std::derived_from<T, std::wostream> || requires(T os) { os.flush(); };
} // namespace tifa_libs
// clang-format on
#line 5 "src/math/ds/mint/_base/lib.hpp"
namespace tifa_libs::mint_impl_ {
struct mint_tag_base {};
template <std::derived_from<mint_tag_base> tag_t>
struct mint : tag_t {
CEXP mint() = default;
CEXP mint(int_c auto v) NE : tag_t(v) {}
using raw_t = tag_t::raw_t;
using sraw_t = to_sint_t<raw_t>;
static CEXP sraw_t smod() NE { return (sraw_t)tag_t::mod(); }
ND CEXP sraw_t sval() CNE { return (sraw_t)tag_t::val(); }
template <int_c T>
CEXPE operator T() CNE { return (T)tag_t::val(); }
CEXP mint& operator+=(mint CR r) NE {
mint::add(r);
return *this;
}
CEXP mint& operator-=(mint CR r) NE {
mint::sub(r);
return *this;
}
CEXP mint& operator*=(mint CR r) NE {
mint::mul(r);
return *this;
}
CEXP mint& operator/=(mint CR r) NE { return *this = *this * r.inv(); }
CEXP mint CR operator+() CNE { return *this; }
CEXP mint operator-() CNE { return tag_t::template neg<mint>(); }
ND CEXP mint inv() CNE { return inverse(tag_t::val(), tag_t::mod()); }
friend CEXP mint operator+(mint l, mint CR r) NE { return l += r; }
friend CEXP mint operator-(mint l, mint CR r) NE { return l -= r; }
friend CEXP mint operator*(mint l, mint CR r) NE { return l *= r; }
friend CEXP mint operator/(mint l, mint CR r) NE { return l /= r; }
friend CEXP bool operator==(mint CR l, mint CR r) NE { return l.val() == r.val(); }
friend CEXP auto operator<=>(mint CR l, mint CR r) NE { return l.sval() <=> r.sval(); }
friend auto& operator>>(istream_c auto& is, mint& x) NE {
i64 _;
is >> _, x = mint(_);
return is;
}
friend auto& operator<<(ostream_c auto& os, mint CR x) NE { return os << x.val(); }
friend CEXP auto abs(mint CR x) NE { return x.val(); }
};
} // namespace tifa_libs::mint_impl_
#line 5 "src/math/ds/mint/ms64/lib.hpp"
namespace tifa_libs {
template <u64 MOD>
class mint_ms64_tag : public mint_impl_::mint_tag_base {
using core = montgomery64<MOD>;
public:
static CEXP bool FIXED_MOD = true;
protected:
using raw_t = u64;
raw_t v_{};
CEXP mint_ms64_tag() NE = default;
CEXP mint_ms64_tag(int_c auto v) NE : v_{mod(v)} {}
public:
static CEXP raw_t mod(sint_c auto v) NE {
if CEXP (smost64_c<decltype(v)>) {
retif_((v >= 0 && (u64)v < mod()) [[likely]], core::redc_mul((u64)v, core::R2));
}
return core::redc_mul(core::norm(i64(v % (i64)mod())), core::R2);
}
static CEXP raw_t mod(uint_c auto v) NE {
if CEXP (umost64_c<decltype(v)>) {
retif_((cu64 x = (u64)v; x < mod()) [[likely]], core::redc_mul(x, core::R2), core::redc_mul(x % mod(), core::R2));
} else retif_((v < mod()) [[likely]], core::redc_mul((u64)v, core::R2), core::redc_mul((u64)(v % mod()), core::R2));
}
static CEXP raw_t mod() NE { return MOD; }
ND CEXP raw_t val() CNE {
const raw_t res = -core::mulh(this->v_ * core::R, mod());
return res + (mod() & -(res >> 63));
}
CEXP raw_t& data() NE { return v_; }
protected:
template <class mint>
CEXP auto neg() CNE {
mint res;
res.v_ = (mod() & -raw_t(this->v_ != 0)) - v_;
return res;
}
CEXP void add(mint_ms64_tag CR r) NE { v_ += r.v_ - mod(), v_ += mod() & -(this->v_ >> 63); }
CEXP void sub(mint_ms64_tag CR r) NE { v_ -= r.v_, v_ += mod() & -(this->v_ >> 63); }
CEXP void mul(mint_ms64_tag CR r) NE { v_ = core::redc_mul(this->v_, r.v_); }
};
template <u64 MOD>
using mint_ms64 = mint_impl_::mint<mint_ms64_tag<MOD>>;
} // namespace tifa_libs
#line 9 "test/cpv/library-checker-datastructure/range_affine_point_get.mints-ms64.cpp"
using namespace tifa_libs;
using mint = mint_ms64<MOD>;
using T = std::pair<mint, usz>; // sum len
using F = std::pair<mint, mint>; // mul add
auto op(T a, T b) { return T{a.first + b.first, a.second + b.second}; }
void mapping(T& a, F f) {
a.first = f.first * a.first + f.second * a.second;
}
void composition(F& f, F g) {
f = F{f.first * g.first, g.first * f.second + g.second};
// g(x) = g.mul * x + g.add
// f(g(x)) = f.mul * (g.mul * x + g.add) + f.add = f.mul * g.mul * x + f.mul * g.add + f.add
}
int main() {
std::cin.tie(nullptr)->std::ios::sync_with_stdio(false);
u32 n, q;
std::cin >> n >> q;
vec<T> a(n);
for (auto& x : a) std::cin >> x.first, x.second = 1;
tifa_libs::segtree<T, op, F, mapping, composition> segt({0, 0}, {1, 0}, a);
flt_ (u32, i, 1, q + 1) {
u32 opt, l, r;
std::cin >> opt >> l;
if (opt == 0) {
mint x, y;
std::cin >> r >> x >> y;
segt.update(l, r, F{x, y});
} else
std::cout << segt.query(l).first << '\n';
}
return 0;
}
test/cpv/library-checker-datastructure/range_affine_point_get.mints-ms64.cpp