#include <iostream>
#include <cstdint>
#include <cassert>
#include <vector>
#include <memory>
#include <algorithm>
#include <numeric>
#ifndef __GNUC__
#include <intrin.h>
#endif
using namespace std;

#if defined(_M_X64) || defined(__amd64__)
#define FFT_64BIT
#endif

namespace uint_util {
template<typename T> struct Utils {};

#ifdef FFT_64BIT

#if defined(_MSC_VER) && !defined(__clang__)
#pragma section(".mycode", execute)
__declspec(allocate(".mycode")) const unsigned char udiv128Data[] = {0x48, 0x89, 0xD0, 0x48, 0x89, 0xCA, 0x49, 0xF7, 0xF0, 0x49, 0x89, 0x11, 0xC3};
uint64_t(__fastcall *udiv128)(uint64_t numhi, uint64_t numlo, uint64_t den, uint64_t* rem) = (uint64_t(__fastcall *)(uint64_t, uint64_t, uint64_t, uint64_t*))(void*)(udiv128Data);
#endif

template<>
struct Utils<uint64_t> {

#if defined(_MSC_VER) && !defined(__clang__)
	static void umul_full(uint64_t a, uint64_t b, uint64_t *lo, uint64_t *hi) {
		*lo = _umul128(a, b, hi);
	}
	static uint64_t umul_hi(uint64_t a, uint64_t b) {
		uint64_t hi;
		_umul128(a, b, &hi);
		return hi;
	}

	static uint64_t mulmod_invert(uint64_t b, uint64_t n) {
		uint64_t dummy;
		return udiv128(b, 0, n, &dummy);
	}
#else
	static void umul_full(uint64_t a, uint64_t b, uint64_t *lo, uint64_t *hi) {
		const auto c = (unsigned __int128)a * b;
		*lo = (uint64_t)c;
		*hi = (uint64_t)(c >> 64);
	}
	static uint64_t umul_hi(uint64_t a, uint64_t b) {
		return (uint64_t)((unsigned __int128)a * b >> 64);
	}
	static uint64_t mulmod_invert(uint64_t b, uint64_t n) {
		uint64_t r;
		asm("div %3":"=a"(r):"a"(0),"d"(b),"r"(n));
		return r;
	}
#endif

	static uint64_t umul_lo(uint64_t a, uint64_t b) {
		return a * b;
	}
	static uint64_t mulmod_precalculated(uint64_t a, uint64_t b, uint64_t n, uint64_t bninv) {
		const auto q = umul_hi(a, bninv);
		uint64_t r = a * b - q * n;
		if(r >= n) r -= n;
		return r;
	}

	static uint64_t invert_twoadic(uint64_t x) {
		uint64_t i = x, p;
		do {
			p = i * x;
			i *= 2 - p;
		} while(p != 1);
		return i;
	}
};

#endif

template<> struct Utils<uint32_t> {
	static void umul_full(uint32_t a, uint32_t b, uint32_t *lo, uint32_t *hi) {
		const uint64_t c = (uint64_t)a * b;
		*lo = (uint32_t)c;
		*hi = (uint32_t)(c >> 32);
	}
	static  uint32_t umul_hi(uint32_t a, uint32_t b) {
		return (uint32_t)((uint64_t)a * b >> 32);
	}
	static uint32_t mulmod_invert(uint32_t b, uint32_t n) {
		return ((uint64_t)b << 32) / n;
	}

	static uint32_t umul_lo(uint32_t a, uint32_t b) {
		return a * b;
	}
	static uint32_t mulmod_precalculated(uint32_t a, uint32_t b, uint32_t n, uint32_t bninv) {
		const auto q = umul_hi(a, bninv);
		uint32_t r = a * b - q * n;
		if(r >= n) r -= n;
		return r;
	}

	static uint32_t invert_twoadic(uint32_t x) {
		uint32_t i = x, p;
		do {
			p = i * x;
			i *= 2 - p;
		} while(p != 1);
		return i;
	}
};

}


namespace modnum {

template<typename NumType> struct ModNumTypes {
	using Util = uint_util::Utils<NumType>;

	template<int Lazy> struct LazyModNum;

	//x < Lazy * P
	template<int Lazy>
	struct LazyModNum {
		NumType x;
		LazyModNum() : x() {}
		template<int L>
		explicit LazyModNum(LazyModNum<L> t) : x(t.x) { static_assert(L <= Lazy, "invalid conversion"); }

		static LazyModNum raw(NumType x) {
			LazyModNum r; r.x = x;
			return r;
		}

		template<int L>
		static LazyModNum *coerceArray(LazyModNum<L> *a) { return reinterpret_cast<LazyModNum*>(a); }

		bool operator==(LazyModNum that) const {
			static_assert(Lazy == 1, "cannot compare");
			return x == that.x;
		}
	};

	typedef LazyModNum<1> ModNum;

	class ModInfo {
	public:
		enum {
			MAX_ROOT_ORDER = 23
		};

	private:
		NumType P, P2;
		ModNum _one;
		NumType _twoadic_inverse;
		NumType _order;
		NumType _one_P_inv;	//floor(W * (W rem P) / P)
		
		bool _support_fft;
		ModNum _roots[MAX_ROOT_ORDER + 1], _inv_roots[MAX_ROOT_ORDER + 1];
		ModNum _inv_two_powers[MAX_ROOT_ORDER + 1];

	public:
		NumType getP() const { return P; }

		ModNum one() const { return _one; }

		ModNum to_alt(NumType x) const {
			return ModNum::raw(Util::mulmod_precalculated(x, _one.x, P, _one_P_inv));
		}
		NumType from_alt(ModNum x) const {
			return _reduce(x.x, 0);
		}

		bool support_fft() const { return _support_fft; }

		ModNum root(int n) const {
			assert(support_fft());
			if(n > 0) {
				assert(n <= MAX_ROOT_ORDER);
				return _roots[n];
			} else if(n < 0) {
				assert(n >= -MAX_ROOT_ORDER);
				return _inv_roots[-n];
			} else {
				return one();
			}
		}

		ModNum inv_two_power(int n) const {
			assert(support_fft());
			assert(0 <= n && n <= MAX_ROOT_ORDER);
			return _inv_two_powers[n];
		}

		ModNum add(ModNum a, ModNum b) const {
			auto c = a.x + b.x;
			if(c >= P) c -= P;
			return ModNum::raw(c);
		}

		ModNum sub(ModNum a, ModNum b) const {
			auto c = a.x + (P - b.x);
			if(c >= P) c -= P;
			return ModNum::raw(c);
		}

		LazyModNum<4> add_lazy(LazyModNum<2> a, LazyModNum<2> b) const {
			return LazyModNum<4>::raw(a.x + b.x);
		}
		LazyModNum<4> sub_lazy(LazyModNum<2> a, LazyModNum<2> b) const {
			return LazyModNum<4>::raw(a.x + (P2 - b.x));
		}

		ModNum mul(ModNum a, ModNum b) const {
			NumType lo, hi;
			Util::umul_full(a.x, b.x, &lo, &hi);
			return ModNum::raw(_reduce(lo, hi));
		}
		ModNum sqr(ModNum a) const {
			return mul(a, a);
		}

		template<int LA, int LB>
		LazyModNum<2> mul_lazy(LazyModNum<LA> a, LazyModNum<LB> b) const {
			static_assert(LA + LB <= 5, "too lazy");
			NumType lo, hi;
			Util::umul_full(a.x, b.x, &lo, &hi);
			return LazyModNum<2>::raw(_reduce_lazy(lo, hi));
		}

		ModNum pow(ModNum a, NumType k) const {
			LazyModNum<2> base{a}, res{one()};
			while(1) {
				if(k & 1) res = mul_lazy(res, base);
				if(k >>= 1) base = mul_lazy(base, base);
				else break;
			}
			return lazy_reduce_1(res);
		}

		ModNum inverse(ModNum a) const {
			return pow(a, _order - 1);
		}

		//a < 2P, res < P
		ModNum lazy_reduce_1(LazyModNum<2> a) const {
			NumType x = a.x;
			if(x >= P) x -= P;
			return ModNum::raw(x);
		}
		//a < 4P, res < 2P
		LazyModNum<2> lazy_reduce_2(LazyModNum<4> a) const {
			NumType x = a.x;
			if(x >= P2) x -= P2;
			return LazyModNum<2>::raw(x);
		}

	private:
		NumType _reduce(NumType lo, NumType hi) const {
			const auto q = Util::umul_lo(lo, _twoadic_inverse);
			const auto h = Util::umul_hi(q, P);
			NumType t = hi + P - h;
			if(t >= P) t -= P;
			return t;
		}

		NumType _reduce_lazy(NumType lo, NumType hi) const {
			const auto q = Util::umul_lo(lo, _twoadic_inverse);
			const auto h = Util::umul_hi(q, P);
			return hi + P - h;
		}

	public:
		static ModInfo make(NumType P, NumType order = NumType(-1)) {
			ModInfo res;

			res.P = P;
			res.P2 = P * 2;
			res._one.x = -Util::umul_lo(Util::mulmod_invert(1, P), P);
			res._order = order == NumType(-1) ? P - 1 : order;
			res._twoadic_inverse = Util::invert_twoadic(P);

			res._one_P_inv = Util::mulmod_invert(res._one.x, P);

			res._support_fft = false;

			assert(res.mul(res.one(), res.one()) == res.one());

			return res;
		}

		static ModInfo make_support_fft(NumType P, NumType order, NumType original_root, int valuation) {
			ModInfo res = make(P, order);
			_compute_fft_info(res, original_root, valuation);
			return res;
		}

	private:
		static void _compute_fft_info(ModInfo &res, NumType original_root, int valuation) {
			assert(res.P <= 1ULL << (sizeof(NumType) * 8 - 2));
			assert(valuation >= MAX_ROOT_ORDER);

			res._support_fft = true;

			ModNum max_root = res.to_alt(original_root);
			for(int i = valuation; i > MAX_ROOT_ORDER; -- i)
				max_root = res.sqr(max_root);

			res._roots[MAX_ROOT_ORDER] = max_root;
			for(int i = MAX_ROOT_ORDER - 1; i >= 0; -- i)
				res._roots[i] = res.sqr(res._roots[i + 1]);

			res._inv_roots[MAX_ROOT_ORDER] = res.inverse(max_root);
			for(int i = MAX_ROOT_ORDER - 1; i >= 0; -- i)
				res._inv_roots[i] = res.sqr(res._inv_roots[i + 1]);

			res._inv_two_powers[0] = res.one();
			res._inv_two_powers[1] = res.inverse(res.add(res.one(), res.one()));
			for(int i = 1; i < MAX_ROOT_ORDER; ++ i)
				res._inv_two_powers[i] = res.mul(res._inv_two_powers[1], res._inv_two_powers[i - 1]);

			assert(res.mul(res._roots[1], res._inv_roots[1]) == res.one());
			assert(res.root(0) == res.one());
			assert(!(res.root(1) == res.one()));
		}
	};
};

}

namespace fft {

using namespace modnum;

#ifdef FFT_64BIT
using NumType = uint64_t;
#else
using NumType = uint32_t;
#endif

using ModNumType = ModNumTypes<NumType>;
template<int Lazy>
using LazyModNum = ModNumType::LazyModNum<Lazy>;
using ModNum = ModNumType::ModNum;
using ModInfo = ModNumType::ModInfo;

using ModNumType32 = ModNumTypes<uint32_t>;
using ModNum32 = ModNumType32::ModNum;
using ModInfo32 = ModNumType32::ModInfo;

//f[i] < 2P
void ntt_dit_lazy_core(LazyModNum<2> *f_inout, int n, int sign, const ModInfo &mod) {
	LazyModNum<4> * const f = LazyModNum<4>::coerceArray(f_inout);

	int N = 1 << n;
	if(n & 1) {
		for(int i = 0; i < N; i += 2) {
			const auto a = f_inout[i + 0];
			const auto b = f_inout[i + 1];

			f[i + 0] = mod.add_lazy(a, b);
			f[i + 1] = mod.sub_lazy(a, b);
		}
	}

	if(n <= 1) {
		if(n & 1) {
			for(int i = 0; i < N; ++ i)
				f_inout[i] = mod.lazy_reduce_2(f[i]);
		}
		return;
	}

	const auto imag = mod.root(2 * sign);
	for(int m = 2 + (n & 1); m <= n; m += 2) {
		int M = 1 << m, M_4 = M >> 2;
		const auto omega = mod.root(m * sign);
		ModNum w = mod.one(), w2 = w, w3 = w;
		for(int j = 0; j < M_4; ++ j) {
			for(int i = j; i < N; i += M) {
				const auto a0 = mod.lazy_reduce_2(f[i + M_4 * 0]);
				const auto a2 = mod.mul_lazy(f[i + M_4 * 1], w2);
				const auto a1 = mod.mul_lazy(f[i + M_4 * 2], w);
				const auto a3 = mod.mul_lazy(f[i + M_4 * 3], w3);

				const auto t02 = mod.lazy_reduce_2(mod.add_lazy(a0, a2));
				const auto t13 = mod.lazy_reduce_2(mod.add_lazy(a1, a3));

				f[i + M_4 * 0] = mod.add_lazy(t02, t13);
				f[i + M_4 * 2] = mod.sub_lazy(t02, t13);

				const auto u02 = mod.lazy_reduce_2(mod.sub_lazy(a0, a2));
				const auto u13 = mod.mul_lazy(mod.sub_lazy(a1, a3), imag);

				f[i + M_4 * 1] = mod.add_lazy(u02, u13);
				f[i + M_4 * 3] = mod.sub_lazy(u02, u13);
			}

			w = mod.mul(w, omega);
			w2 = mod.mul(w, w);
			w3 = mod.mul(w2, w);
		}
	}

	for(int i = 0; i < N; ++ i)
		f_inout[i] = mod.lazy_reduce_2(f[i]);
}

template<typename T>
void bit_reverse_permute(T *f, int n) {
	int N = 1 << n, N_2 = N >> 1, r = 0;
	for(int x = 1; x < N; ++ x) {
		int h = N_2;
		while(((r ^= h) & h) == 0) h >>= 1;
		if(r > x) swap(f[x], f[r]);
	}
}

void ntt_dit_lazy(LazyModNum<2> *f, int n, int sign, const ModInfo &mod) {
	bit_reverse_permute(f, n);
	ntt_dit_lazy_core(f, n, sign, mod);
}

template<int LF, int LG>
void componentwise_product_lazy(LazyModNum<2> *res, const LazyModNum<LF> *f, const LazyModNum<LG> *g, int N, const ModInfo &mod) {
	for(int i = 0; i < N; ++ i)
		res[i] = mod.mul_lazy(f[i], g[i]);
}

void normalize_and_lazy_reduce(LazyModNum<2> *f, int n, const ModInfo &mod) {
	const auto f_out = ModNum::coerceArray(f);
	int N = 1 << n;
	ModNum inv = mod.inv_two_power(n);
	assert(mod.mul(inv, mod.to_alt(N)) == mod.one());
	for(int i = 0; i < N; ++ i)
		f_out[i] = mod.lazy_reduce_1(mod.mul_lazy(f[i], inv));
}

void convolute(ModNum *f_in, ModNum *g_in, int n, const ModInfo &mod) {
	assert(mod.support_fft());
	const auto f = LazyModNum<2>::coerceArray(f_in);
	const auto g = LazyModNum<2>::coerceArray(g_in);
	ntt_dit_lazy(f, n, +1, mod);
	ntt_dit_lazy(g, n, +1, mod);
	componentwise_product_lazy(f, f, g, 1 << n, mod);
	ntt_dit_lazy(f, n, -1, mod);
	normalize_and_lazy_reduce(f, n, mod);
}

void auto_convolute(ModNum *f_in, int n, const ModInfo &mod) {
	assert(mod.support_fft());
	const auto f = LazyModNum<2>::coerceArray(f_in);
	ntt_dit_lazy(f, n, +1, mod);
	componentwise_product_lazy(f, f, f, 1 << n, mod);
	ntt_dit_lazy(f, n, -1, mod);
	normalize_and_lazy_reduce(f, n, mod);
}


#ifdef FFT_64BIT

enum { MULTIPRIME_NUM = 2 };

void multiprime_decompose(ModNum *res[MULTIPRIME_NUM], const ModNum32 *f, int N, const ModInfo32 &f_mod, const ModInfo * const mods[MULTIPRIME_NUM]) {
	for(int i = 0; i < N; ++ i) {
		const auto a = f_mod.from_alt(f[i]);
		for(int k = 0; k < MULTIPRIME_NUM; ++ k)
			res[k][i] = mods[k]->to_alt(a);
	}
}

void multiprime_compose(ModNum32 *res, const ModInfo32 &mod_res, const ModNum *f[MULTIPRIME_NUM], int N, const ModInfo * const mods[MULTIPRIME_NUM]) {
	const auto f0 = f[0], f1 = f[1];
	const auto &mod0 = *mods[0], &mod1 = *mods[1];
	const auto P0 = mod0.getP(), P1 = mod1.getP();
	const auto P_res = mod_res.getP();
	const auto t = mod1.inverse(mod1.to_alt(P0));
	const auto p = mod_res.to_alt(P0 % P_res);

	for(int i = 0; i < N; ++ i) {
		const auto a0 = mod0.from_alt(f0[i]), a1 = mod1.from_alt(f1[i]);
		const auto d = mod1.sub(mod1.to_alt(a1), mod1.to_alt(a0));
		const auto h = mod1.from_alt(mod1.mul(d, t));
		res[i] = mod_res.add(mod_res.to_alt(a0 % P_res), mod_res.mul(mod_res.to_alt(h % P_res), p));
	}
}

static const ModInfo fft_prime_mod0 = ModInfo::make_support_fft(0x3f91300000000001ULL, -1, 0x1941B388165C78EBULL, 44);
static const ModInfo fft_prime_mod1 = ModInfo::make_support_fft(0x3f93300000000001ULL, -1, 0x394ba9c52fec1825ULL, 44);
const ModInfo * const fft_prime_mods[MULTIPRIME_NUM] = { &fft_prime_mod0, &fft_prime_mod1 };

void multiprime_convolute(ModNum32 *res, int resN, const ModNum32 *f, int fN, const ModNum32 *g, int gN, int n, const ModInfo32 &mod) {
	int N = 1 << n;
	assert(fN <= N && gN <= N && resN <= N);
	//implicit zero-fill
	unique_ptr<ModNum[]> workspace(new ModNum[N * 4]);
	ModNum *fs[MULTIPRIME_NUM] = { workspace.get() + N * 0, workspace.get() + N * 2 };
	ModNum *gs[MULTIPRIME_NUM] = { workspace.get() + N * 1, workspace.get() + N * 3 };
	multiprime_decompose(fs, f, fN, mod, fft_prime_mods);
	multiprime_decompose(gs, g, gN, mod, fft_prime_mods);
	for(int k = 0; k < MULTIPRIME_NUM; ++ k)
		convolute(fs[k], gs[k], n, *fft_prime_mods[k]);
	multiprime_compose(res, mod, const_cast<const ModNum **>(fs), resN, fft_prime_mods);
}

void multiprime_auto_convolute(ModNum32 *res, int resN, const ModNum32 *f, int fN, int n, const ModInfo32 &mod) {
	int N = 1 << n;
	assert(fN <= N && resN <= N);
	unique_ptr<ModNum[]> workspace(new ModNum[N * 2]);
	ModNum *fs[MULTIPRIME_NUM] = { workspace.get() + N * 0, workspace.get() + N * 1 };
	multiprime_decompose(fs, f, fN, mod, fft_prime_mods);
	for(int k = 0; k < MULTIPRIME_NUM; ++ k)
		auto_convolute(fs[k], n, *fft_prime_mods[k]);
	multiprime_compose(res, mod, const_cast<const ModNum **>(fs), resN, fft_prime_mods);
}


#else

#error unimplemented

#endif


}

struct ModInt {
	using NumType = uint32_t;
	using ModNumType = modnum::ModNumTypes<NumType>;
	using ModNum = ModNumType::ModNum;
	using ModInfo = ModNumType::ModInfo;

public:
	ModNum x;

	ModInt() : x() {}
	explicit ModInt(NumType num) : x(mod.to_alt(num)) {}

	NumType get() const { return mod.from_alt(x); }

	static ModInt raw(ModNum x) { ModInt r; r.x = x; return r; }
	static ModInt one() { return raw(mod.one()); }

	ModInt operator+(ModInt that) const { return raw(mod.add(x, that.x)); }
	ModInt &operator+=(ModInt that) { return *this = *this + that; }

	ModInt operator-(ModInt that) const { return raw(mod.sub(x, that.x)); }
	ModInt &operator-=(ModInt that) { return *this = *this - that; }

	ModInt operator-() const { return raw(mod.sub(ModNum(), x)); }

	ModInt operator*(ModInt that) const { return raw(mod.mul(x, that.x)); }
	ModInt &operator*=(ModInt that) { return *this = *this * that; }

	ModInt inverse() const { return raw(mod.inverse(x)); }
	ModInt operator/(ModInt that) const { return *this * that.inverse(); }
	ModInt &operator/=(ModInt that) { return *this = *this / that.inverse(); }

	bool operator==(ModInt that) const { return x == that.x; }
	bool operator!=(ModInt that) const { return !(*this == that); }

private:
	static ModInfo mod;

public:
	static const ModInfo &get_mod_info() { return mod; }

	static void set_mod(NumType P, NumType order = -1) {
		mod = ModInfo::make(P, order);
	}
};
ModInt::ModInfo ModInt::mod;
typedef ModInt mint;

namespace mod_polynomial {

struct Polynomial {
	typedef mint R;
	static R ZeroR() { return R(); }
	static R OneR() { return R::one(); }
	static bool IsZeroR(R r) { return r == ZeroR(); }

	std::vector<R> coefs;

	Polynomial() {}
	explicit Polynomial(R c0) : coefs(1, c0) {}
	explicit Polynomial(R c0, R c1) : coefs(2) { coefs[0] = c0, coefs[1] = c1; }
	template<typename It> Polynomial(It be, It en) : coefs(be, en) {}

	static Polynomial Zero() { return Polynomial(); }
	static Polynomial One() { return Polynomial(OneR()); }
	static Polynomial X() { return Polynomial(ZeroR(), OneR()); }

	void resize(int n) { coefs.resize(n); }
	void clear() { coefs.clear(); }

	R *data() { return coefs.empty() ? NULL : &coefs[0]; }
	const R *data() const { return coefs.empty() ? NULL : &coefs[0]; }

	int size() const { return static_cast<int>(coefs.size()); }
	bool empty() const { return coefs.empty(); }
	int degree() const { return size() - 1; }

	bool normalized() const { return coefs.empty() || coefs.back() != ZeroR(); }
	bool monic() const { return !coefs.empty() && coefs.back() == OneR(); }

	R get(int i) const { return 0 <= i && i < size() ? coefs[i] : ZeroR(); }

	void set(int i, R x) {
		if(size() <= i)
			resize(i + 1);
		coefs[i] = x;
	}

	void normalize() { while(!empty() && IsZeroR(coefs.back())) coefs.pop_back(); }

	R evaluate(R x) const {
		if(empty()) return R();
		R r = coefs.back();
		for(int i = size() - 2; i >= 0; -- i) {
			r *= x;
			r += coefs[i];
		}
		return r;
	}

	Polynomial &operator+=(const Polynomial &that) {
		int m = size(), n = that.size();
		if(m < n) resize(n);
		_add(data(), that.data(), n);
		return *this;
	}
	Polynomial operator+(const Polynomial &that) const {
		return Polynomial(*this) += that;
	}

	Polynomial &operator-=(const Polynomial &that) {
		int m = size(), n = that.size();
		if(m < n) resize(n);
		_subtract(data(), that.data(), n);
		return *this;
	}
	Polynomial operator-(const Polynomial &that) const {
		return Polynomial(*this) -= that;
	}

	Polynomial &operator*=(R r) {
		_multiply_1(data(), size(), r);
		return *this;
	}
	Polynomial operator*(R r) const {
		Polynomial res;
		res.resize(size());
		_multiply_1(res.data(), data(), size(), r);
		return res;
	}

	Polynomial operator*(const Polynomial &that) const {
		Polynomial r;
		multiply(r, *this, that);
		return r;
	}

	Polynomial &operator*=(const Polynomial &that) {
		multiply(*this, *this, that);
		return *this;
	}

	static void multiply(Polynomial &res, const Polynomial &p, const Polynomial &q) {
		int pn = p.size(), qn = q.size();

		if(pn < qn)
			return multiply(res, q, p);

		if(&res == &p || &res == &q) {
			Polynomial tmp;
			multiply(tmp, p, q);
			res = tmp;
			return;
		}

		if(qn == 0) {
			res.coefs.clear();
		} else {
			res.resize(pn + qn - 1);
			_multiply_select_method(res.data(), p.data(), pn, q.data(), qn);
		}
	}

	Polynomial operator-() const {
		Polynomial res;
		res.resize(size());
		_negate(res.data(), data(), size());
		return res;
	}

	Polynomial precomputeInverse(int n) const {
		Polynomial res;
		res.resize(n);
		_precompute_inverse(res.data(), n, data(), size());
		return res;
	}

	static void divideRemainderPrecomputedInverse(Polynomial &quot, Polynomial &rem, const Polynomial &p, const Polynomial &q, const Polynomial &inv) {
		assert(&quot != &p && &quot != &q && &quot != &inv);
		int pn = p.size(), qn = q.size();
		assert(inv.size() >= pn - qn + 1);
		quot.resize(std::max(0, pn - qn + 1));
		rem.resize(qn - 1);
		_divide_remainder_precomputed_inverse(quot.data(), rem.data(), p.data(), pn, q.data(), qn, inv.data());
		quot.normalize();
		rem.normalize();
	}

	Polynomial computeRemainderPrecomputedInverse(const Polynomial &q, const Polynomial &inv) const {
		Polynomial quot, rem;
		divideRemainderPrecomputedInverse(quot, rem, *this, q, inv);
		return rem;
	}

	Polynomial powerMod(long long K, const Polynomial &q) const {
		int qn = q.size();
		assert(K >= 0 && qn > 0);
		assert(q.monic());
		if(qn == 1) return Polynomial();
		if(K == 0) return One();
		Polynomial inv = q.precomputeInverse(std::max(size() - qn + 1, qn));
		Polynomial p = this->computeRemainderPrecomputedInverse(q, inv);
		int l = 0;
		while((K >> l) > 1) ++ l;
		Polynomial res = p;
		for(-- l; l >= 0; -- l) {
			res *= res;
			res = res.computeRemainderPrecomputedInverse(q, inv);
			if(K >> l & 1) {
				res *= p;
				res = res.computeRemainderPrecomputedInverse(q, inv);
			}
		}
		return res;
	}

	static int MULTIPRIME_FFT_THRESHOLD;

private:
	class WorkSpaceStack;

	static void _fill_zero(R *res, int n);
	static void _copy(R *res, const R *p, int n);
	static void _negate(R *res, const R *p, int n);

	static void _add(R *p, const R *q, int n);
	static void _add(R *res, const R *p, int pn, const R *q, int qn);
	static void _subtract(R *p, const R *q, int n);
	static void _subtract(R *res, const R *p, int pn, const R *q, int qn);

	static void _multiply_select_method(R *res, const R *p, int pn, const R *q, int qn);
	static void _square_select_method(R *res, const R *p, int pn);

	static void _multiply_1(R *p, const R *q, int n, R c0);
	static void _multiply_1(R *p, int n, R c0);

	static void _multiply_power_of_two(R *res, const R *p, int n, int k);
	static void _divide_power_of_two(R *res, const R *p, int n, int k);

	static void _schoolbook_multiplication(R *res, const R *p, int pn, const R *q, int qn);

	static void _multiprime_fft(R *res, const R *p, int pn, const R *q, int qn);

	static void _reverse(R *res, const R *p, int pn);
	static void _inverse_power_series(R *res, int resn, const R *p, int pn);
	static void _precompute_inverse(R *res, int resn, const R *p, int pn);
	static void _divide_precomputed_inverse(R *res, int resn, const R *revp, int pn, const R *inv);
	static void _divide_remainder_precomputed_inverse(R *quot, R *rem, const R *p, int pn, const R *q, int qn, const R *inv);
};
int Polynomial::MULTIPRIME_FFT_THRESHOLD = 16;

void Polynomial::_fill_zero(R *res, int n) {
	for(int i = 0; i < n; ++ i)
		res[i] = ZeroR();
}

void Polynomial::_copy(R *res, const R *p, int n) {
	for(int i = 0; i < n; ++ i)
		res[i] = p[i];
}

void Polynomial::_negate(R *res, const R *p, int n) {
	for(int i = 0; i < n; ++ i)
		res[i] = -p[i];
}

void Polynomial::_add(R *res, const R *p, int pn, const R *q, int qn) {
	for(int i = 0; i < qn; ++ i)
		res[i] = p[i] + q[i];
	_copy(res + qn, p + qn, pn - qn);
}

void Polynomial::_subtract(R *res, const R *p, int pn, const R *q, int qn) {
	for(int i = 0; i < qn; ++ i)
		res[i] = p[i] - q[i];
	_copy(res + qn, p + qn, pn - qn);
}

void Polynomial::_add(R *p, const R *q, int n) {
	_add(p, p, n, q, n);
}

void Polynomial::_subtract(R *p, const R *q, int n) {
	_subtract(p, p, n, q, n);
}

void Polynomial::_multiply_1(R *res, const R *p, int n, R c0) {
	for(int i = 0; i < n; ++ i)
		res[i] = p[i] * c0;
}

void Polynomial::_multiply_1(R *p, int n, R c0) {
	_multiply_1(p, p, n, c0);
}

void Polynomial::_multiply_power_of_two(R *res, const R *p, int n, int k) {
	assert(0 < k && k < 31);
	R mul = R(1 << k);
	_multiply_1(res, p, n, mul);
}

void Polynomial::_divide_power_of_two(R *res, const R *p, int n, int k) {
	assert(0 < k && k < 31);
	static const R Inv2 = R(2).inverse();
	R inv = k == 1 ? Inv2 : R(1 << k).inverse();
	_multiply_1(res, p, n, inv);
}


void Polynomial::_multiply_select_method(R *res, const R *p, int pn, const R *q, int qn) {
	if(pn < qn) std::swap(p, q), std::swap(pn, qn);
	assert(res != p && res != q && pn >= qn && qn > 0);
	int rn = pn + qn - 1;
	if(qn == 1) {
		_multiply_1(res, p, pn, q[0]);
	} else if(qn < MULTIPRIME_FFT_THRESHOLD) {
		_schoolbook_multiplication(res, p, pn, q, qn);
	} else {
		_multiprime_fft(res, p, pn, q, qn);
	}
}

void Polynomial::_square_select_method(R *res, const R *p, int pn) {
	_multiply_select_method(res, p, pn, p, pn);
}

void Polynomial::_schoolbook_multiplication(R *res, const R *p, int pn, const R *q, int qn) {
	if(qn == 1) {
		_multiply_1(res, p, pn, q[0]);
		return;
	}
	assert(res != p && res != q && pn >= qn && qn > 0);

	_fill_zero(res, pn + qn - 1);
	for(int i = 0; i < pn; ++ i)
		for(int j = 0; j < qn; ++ j)
			res[i + j] += p[i] * q[j];
}

void Polynomial::_multiprime_fft(R *res, const R *p, int pn, const R *q, int qn) {
	int resn = pn + qn - 1;

	int n = 0;
	while((1 << n) < resn) ++ n;

	if(p == q) {
		assert(pn == qn);
		fft::multiprime_auto_convolute(reinterpret_cast<R::ModNum*>(res), resn, reinterpret_cast<const R::ModNum*>(p), pn, n, mint::get_mod_info());
	} else {
		fft::multiprime_convolute(reinterpret_cast<R::ModNum*>(res), resn, reinterpret_cast<const R::ModNum*>(p), pn, reinterpret_cast<const R::ModNum*>(q), qn, n, mint::get_mod_info());
	}
}

void Polynomial::_reverse(R *res, const R *p, int pn) {
	if(res == p) {
		std::reverse(res, res + pn);
	} else {
		for(int i = 0; i < pn; ++ i)
			res[pn - 1 - i] = p[i];
	}
}

void Polynomial::_inverse_power_series(R *res, int resn, const R *p, int pn) {
	if(resn == 0) return;
	assert(res != p);
	assert(p[0] == OneR());
	unique_ptr<R[]> ws(new R[resn * 4]);
	R *tmp1 = ws.get(), *tmp2 = tmp1 + resn * 2;
	_fill_zero(res, resn);
	res[0] = p[0];
	int curn = 1;
	while(curn < resn) {
		int nextn = std::min(resn, curn * 2);
		_square_select_method(tmp1, res, curn);
		_multiply_select_method(tmp2, tmp1, std::min(nextn, curn * 2 - 1), p, std::min(nextn, pn));
		_multiply_power_of_two(res, res, curn, 1);
		_subtract(res, tmp2, nextn);
		curn = nextn;
	}
}

void Polynomial::_precompute_inverse(R *res, int resn, const R *p, int pn) {
	unique_ptr<R[]> ws(new R[pn]);
	R *tmp = ws.get();
	_reverse(tmp, p, pn);
	_inverse_power_series(res, resn, tmp, pn);
}

void Polynomial::_divide_precomputed_inverse(R *res, int resn, const R *revp, int pn, const R *inv) {
	unique_ptr<R[]> ws(new R[pn + resn]);
	R *tmp = ws.get();
	_multiply_select_method(tmp, revp, pn, inv, resn);
	_reverse(res, tmp, resn);
}

void Polynomial::_divide_remainder_precomputed_inverse(R *quot, R *rem, const R *p, int pn, const R *q, int qn, const R *inv) {
	if(pn < qn) {
		_copy(rem, p, pn);
		_fill_zero(rem + pn, qn - 1 - pn);
		return;
	}
	assert(qn > 0);
	assert(q[qn - 1] == OneR());
	if(qn == 1) return;
	int quotn = pn - qn + 1;
	int rn = qn - 1, tn = std::min(quotn, rn), un = tn + rn;
	unique_ptr<R[]> ws(new R[pn + un + (quot != NULL ? 0 : quotn)]);
	R *revp = ws.get(), *quotmul = revp + pn;
	if(quot == NULL) quot = quotmul + un;
	_reverse(revp, p, pn);
	_divide_precomputed_inverse(quot, quotn, revp, pn, inv);
	_multiply_select_method(quotmul, q, rn, quot, tn);
	_subtract(rem, p, rn, quotmul, rn);
}

}

vector<mint> doDP(const int a[6], int n) {
	int maxX = a[5] * n;
	vector<vector<mint> > dp(n+1, vector<mint>(maxX+1));
	dp[0][0] = mint(1);
	int z = a[0];
	for(int k = 0; k < 6; ++ k) {
		int d = a[k];
		for(int t = 0; t < n; ++ t) {
			for(int i = t * z; i <= t * d; ++ i) {
				mint x = dp[t][i];
				if(x.x.x != 0)
					dp[t + 1][i + d] += x;
			}
		}
	}
	return dp[n];
}

//a_{i+n} = \sum_{j=0}^{n-1} c[j] a_{i+j}
vector<mint> computeLinearRecurrentSequenceCoefficients(const vector<mint> &c, long long N) {
	using namespace mod_polynomial;
	int n = (int)c.size();
	Polynomial poly;
	poly.resize(n+1);
	for(int i = 0; i < n; ++ i)
		poly.set(i, -c[i]);
	poly.set(n, mint(1));

	Polynomial resp = Polynomial::X().powerMod(N, poly);

	vector<mint> res(n);
	for(int i = 0; i < n; ++ i)
		res[i] = resp.get(i);
	return res;
}

int main() {
	mint::set_mod(1000000007);

	long long N; int P; int C;
	while(cin >> N >> P >> C) {
		const int primes[6] = { 2, 3, 5, 7, 11, 13 };
		const int composites[6] = { 4, 6, 8, 9, 10, 12 };
		vector<mint> cntP, cntC;
		cntP = doDP(primes, P);
		cntC = doDP(composites, C);
		int X = P * primes[5] + C * composites[5];
		vector<mint> ways(X+1);
		{
			using mod_polynomial::Polynomial;
			Polynomial p(cntP.begin(), cntP.end());
			Polynomial c(cntC.begin(), cntC.end());
			Polynomial pc = p * c;
			for(int i = 0; i <= X; ++ i)
				ways[i] = pc.get(i);
		}
		vector<mint> c(X);
		for(int i = 0; i < X; ++ i)
			c[i] = ways[X - i];
		vector<mint> coeffs;
		coeffs = computeLinearRecurrentSequenceCoefficients(c, X + (N - 1));
		mint ans = accumulate(coeffs.begin(), coeffs.end(), mint());
		printf("%d\n", (int)ans.get());
	}
	return 0;
}