pqc/external/flint-2.4.3/fmpz_matxx.h

535 lines
20 KiB
C++

/*=============================================================================
This file is part of FLINT.
FLINT is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 2 of the License, or
(at your option) any later version.
FLINT is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with FLINT; if not, write to the Free Software
Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA
=============================================================================*/
/******************************************************************************
Copyright (C) 2013 Tom Bachmann
******************************************************************************/
#ifndef FMPZ_MATXX_H
#define FMPZ_MATXX_H FMPZ_MATXX_H
#include "fmpz_mat.h"
#include "fmpq_mat.h" // fmpq_mat_get_fmpz_mat_mod_fmpz
#include "fmpzxx.h"
#include "fmpz_polyxx.h"
#include "permxx.h"
#include "flintxx/ltuple.h"
#include "flintxx/matrix.h"
#include "flintxx/traits_fwd.h"
// TODO input and output
// TODO addmul
// TODO nullspace member
namespace flint {
FLINT_DEFINE_BINOP(det_modular)
FLINT_DEFINE_BINOP(det_modular_accelerated)
FLINT_DEFINE_BINOP(mul_multi_mod)
FLINT_DEFINE_BINOP(solve_dixon)
FLINT_DEFINE_BINOP(solve_cramer)
FLINT_DEFINE_BINOP(solve_bound)
FLINT_DEFINE_THREEARY(det_modular_given_divisor)
FLINT_DEFINE_UNOP(det_bareiss)
FLINT_DEFINE_UNOP(det_bound)
FLINT_DEFINE_UNOP(det_cofactor)
FLINT_DEFINE_UNOP(det_divisor)
namespace detail {
template<class Mat>
struct fmpz_matxx_traits : matrices::generic_traits<Mat> { };
} // detail
template<class Operation, class Data>
class fmpz_matxx_expression
: public expression<derived_wrapper<fmpz_matxx_expression>, Operation, Data>
{
public:
typedef expression<derived_wrapper< ::flint::fmpz_matxx_expression>,
Operation, Data> base_t;
typedef detail::fmpz_matxx_traits<fmpz_matxx_expression> traits_t;
FLINTXX_DEFINE_BASICS(fmpz_matxx_expression)
FLINTXX_DEFINE_CTORS(fmpz_matxx_expression)
FLINTXX_DEFINE_C_REF(fmpz_matxx_expression, fmpz_mat_struct, _mat)
template<class Expr>
static evaluated_t create_temporary_rowscols(
const Expr&, slong rows, slong cols)
{
return evaluated_t(rows, cols);
}
FLINTXX_DEFINE_MATRIX_METHODS(traits_t)
template<class Nmod_mat>
static fmpz_matxx_expression lift(const Nmod_mat& mat,
typename mp::enable_if<traits::is_nmod_matxx<Nmod_mat> >::type* = 0)
{
fmpz_matxx_expression res(mat.rows(), mat.cols());
fmpz_mat_set_nmod_mat(res._mat(), mat.evaluate()._mat());
return res;
}
template<class Nmod_mat>
static fmpz_matxx_expression lift_unsigned(const Nmod_mat& mat,
typename mp::enable_if<traits::is_nmod_matxx<Nmod_mat> >::type* = 0)
{
fmpz_matxx_expression res(mat.rows(), mat.cols());
fmpz_mat_set_nmod_mat_unsigned(res._mat(), mat.evaluate()._mat());
return res;
}
template<class Fmpq_mat, class Fmpz>
static fmpz_matxx_expression reduce(const Fmpq_mat& mat, const Fmpz& mod,
typename mp::enable_if<traits::is_fmpq_matxx<Fmpq_mat> >::type* = 0,
typename mp::enable_if<traits::is_fmpzxx<Fmpz> >::type* = 0)
{
fmpz_matxx_expression res(mat.rows(), mat.cols());
fmpq_mat_get_fmpz_mat_mod_fmpz(res._mat(), mat.evaluate()._mat(),
mod.evaluate()._fmpz());
return res;
}
template<class Fmpq_mat>
static fmpz_matxx_expression from_integral_fraction(const Fmpq_mat& mat,
typename mp::enable_if<traits::is_fmpq_matxx<Fmpq_mat> >::type* = 0)
{
fmpz_matxx_expression res(mat.rows(), mat.cols());
res.set_integral_fraction(mat);
return res;
}
template<class Fmpq_mat>
void set_integral_fraction(const Fmpq_mat& mat,
typename mp::enable_if<traits::is_fmpq_matxx<Fmpq_mat> >::type* = 0)
{
execution_check(fmpq_mat_get_fmpz_mat(_mat(), mat.evaluate()._mat()),
"set_integral_fraction", "fmpq_matxx");
}
static fmpz_matxx_expression randbits(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits)
{
fmpz_matxx_expression res(rows, cols);
res.set_randbits(state, bits);
return res;
}
static fmpz_matxx_expression randtest(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits)
{
fmpz_matxx_expression res(rows, cols);
res.set_randtest(state, bits);
return res;
}
static fmpz_matxx_expression randintrel(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits)
{
fmpz_matxx_expression res(rows, cols);
res.set_randintrel(state, bits);
return res;
}
static fmpz_matxx_expression randsimdioph(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits, mp_bitcnt_t bits2)
{
fmpz_matxx_expression res(rows, cols);
res.set_randsimdioph(state, bits, bits2);
return res;
}
static fmpz_matxx_expression randntrulike(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits, ulong q)
{
fmpz_matxx_expression res(rows, cols);
res.set_randntrulike(state, bits, q);
return res;
}
static fmpz_matxx_expression randntrulike2(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits, ulong q)
{
fmpz_matxx_expression res(rows, cols);
res.set_randntrulike2(state, bits, q);
return res;
}
static fmpz_matxx_expression randajtai(slong rows, slong cols,
frandxx& state, mp_bitcnt_t bits, double alpha)
{
fmpz_matxx_expression res(rows, cols);
res.set_randajtai(state, bits, alpha);
return res;
}
static fmpz_matxx_expression randrank(slong rows, slong cols,
frandxx& state, slong rank, mp_bitcnt_t bits)
{
fmpz_matxx_expression res(rows, cols);
res.set_randrank(state, rank, bits);
return res;
}
template<class Fmpz>
static typename mp::enable_if<traits::is_fmpzxx<Fmpz>,
fmpz_matxx_expression>::type
randdet(slong rows, slong cols, frandxx& state, const Fmpz& d)
{
fmpz_matxx_expression res(rows, cols);
res.set_randdet(state, d);
return res;
}
static fmpz_matxx_expression zero(slong rows, slong cols)
{return fmpz_matxx_expression(rows, cols);}
static fmpz_matxx_expression one(slong rows, slong cols)
{
fmpz_matxx_expression res(rows, cols);
res.set_one();
return res;
}
// these only make sense with targets
void set_randbits(frandxx& state, mp_bitcnt_t bits)
{fmpz_mat_randbits(_mat(), state._data(), bits);}
void set_randtest(frandxx& state, mp_bitcnt_t bits)
{fmpz_mat_randtest(_mat(), state._data(), bits);}
void set_randintrel(frandxx& state, mp_bitcnt_t bits)
{fmpz_mat_randintrel(_mat(), state._data(), bits);}
void set_randsimdioph(frandxx& state, mp_bitcnt_t bits, mp_bitcnt_t bits2)
{fmpz_mat_randsimdioph(_mat(), state._data(), bits, bits2);}
void set_randntrulike(frandxx& state, mp_bitcnt_t bits, ulong q)
{fmpz_mat_randntrulike(_mat(), state._data(), bits, q);}
void set_randntrulike2(frandxx& state, mp_bitcnt_t bits, ulong q)
{fmpz_mat_randntrulike2(_mat(), state._data(), bits, q);}
void set_randajtai(frandxx& state, mp_bitcnt_t bits, double alpha)
{fmpz_mat_randajtai(_mat(), state._data(), bits, alpha);}
void set_randrank(frandxx& state, slong rank, mp_bitcnt_t bits)
{fmpz_mat_randrank(_mat(), state._data(), rank, bits);}
template<class Fmpz>
typename mp::enable_if<traits::is_fmpzxx<Fmpz> >::type
set_randdet(frandxx& state, const Fmpz& d)
{fmpz_mat_randdet(_mat(), state._data(), d.evaluate()._fmpz());}
template<class Vec>
int set_randpermdiag(frandxx& state, const Vec& v)
{
return fmpz_mat_randpermdiag(_mat(), state._data(), v._array(), v.size());
}
void apply_randops(frandxx& state, slong count)
{fmpz_mat_randops(_mat(), state._data(), count);}
void set_zero()
{fmpz_mat_zero(_mat());}
void set_one()
{fmpz_mat_one(_mat());}
template<class Fmpz>
slong set_rref_mod(const Fmpz& p, permxx* perm = 0,
typename mp::enable_if<traits::is_fmpzxx<Fmpz> >::type* = 0)
{
return fmpz_mat_rref_mod(maybe_perm_data(perm), _mat(), p.evaluate()._fmpz());
}
// these cause evaluation
slong rank() const {return fmpz_mat_rank(this->evaluate()._mat());}
bool is_zero() const {return fmpz_mat_is_zero(this->evaluate()._mat());}
bool is_empty() const {return fmpz_mat_is_empty(this->evaluate()._mat());}
bool is_square() const {return fmpz_mat_is_square(this->evaluate()._mat());}
slong find_pivot_any(slong start, slong end, slong c) const
{return fmpz_mat_find_pivot_any(this->evaluate()._mat(), start, end, c);}
// forwarded lazy ops
FLINTXX_DEFINE_MEMBER_BINOP(det_modular)
FLINTXX_DEFINE_MEMBER_BINOP(det_modular_accelerated)
FLINTXX_DEFINE_MEMBER_BINOP(divexact)
FLINTXX_DEFINE_MEMBER_BINOP(mul_classical)
FLINTXX_DEFINE_MEMBER_BINOP(mul_multi_mod)
FLINTXX_DEFINE_MEMBER_BINOP(pow)
FLINTXX_DEFINE_MEMBER_BINOP(solve)
FLINTXX_DEFINE_MEMBER_BINOP(solve_bound)
FLINTXX_DEFINE_MEMBER_BINOP(solve_cramer)
FLINTXX_DEFINE_MEMBER_BINOP(solve_dixon)
FLINTXX_DEFINE_MEMBER_BINOP(solve_fflu)
FLINTXX_DEFINE_MEMBER_3OP(det_modular_given_divisor)
FLINTXX_DEFINE_MEMBER_UNOP(sqr)
FLINTXX_DEFINE_MEMBER_UNOP(transpose)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpz_polyxx, charpoly)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, det)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, det_bareiss)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, det_bound)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, det_cofactor)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, det_divisor)
FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(fmpzxx, trace)
//FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(nullspace) // TODO
//FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(???, inv) // TODO
//FLINTXX_DEFINE_MEMBER_UNOP_RTYPE(???, rref) // TODO
FLINTXX_DEFINE_MEMBER_4OP(CRT)
FLINTXX_DEFINE_MEMBER_FFLU
};
namespace detail {
struct fmpz_mat_data;
} // detail
typedef fmpz_matxx_expression<operations::immediate, detail::fmpz_mat_data> fmpz_matxx;
typedef fmpz_matxx_expression<operations::immediate,
flint_classes::ref_data<fmpz_matxx, fmpz_mat_struct> > fmpz_matxx_ref;
typedef fmpz_matxx_expression<operations::immediate, flint_classes::srcref_data<
fmpz_matxx, fmpz_matxx_ref, fmpz_mat_struct> > fmpz_matxx_srcref;
template<>
struct matrix_traits<fmpz_matxx>
{
template<class M> static slong rows(const M& m)
{
return fmpz_mat_nrows(m._mat());
}
template<class M> static slong cols(const M& m)
{
return fmpz_mat_ncols(m._mat());
}
template<class M> static fmpzxx_srcref at(const M& m, slong i, slong j)
{
return fmpzxx_srcref::make(fmpz_mat_entry(m._mat(), i, j));
}
template<class M> static fmpzxx_ref at(M& m, slong i, slong j)
{
return fmpzxx_ref::make(fmpz_mat_entry(m._mat(), i, j));
}
};
namespace detail {
template<>
struct fmpz_matxx_traits<fmpz_matxx_srcref>
: matrices::generic_traits_srcref<fmpzxx_srcref> { };
template<>
struct fmpz_matxx_traits<fmpz_matxx_ref>
: matrices::generic_traits_ref<fmpzxx_ref> { };
template<> struct fmpz_matxx_traits<fmpz_matxx>
: matrices::generic_traits_nonref<fmpzxx_ref, fmpzxx_srcref> { };
struct fmpz_mat_data
{
typedef fmpz_mat_t& data_ref_t;
typedef const fmpz_mat_t& data_srcref_t;
fmpz_mat_t inner;
fmpz_mat_data(slong m, slong n)
{
fmpz_mat_init(inner, m, n);
}
fmpz_mat_data(const fmpz_mat_data& o)
{
fmpz_mat_init_set(inner, o.inner);
}
fmpz_mat_data(fmpz_matxx_srcref o)
{
fmpz_mat_init_set(inner, o._data().inner);
}
~fmpz_mat_data() {fmpz_mat_clear(inner);}
};
} // detail
#define FMPZ_MATXX_COND_S FLINTXX_COND_S(fmpz_matxx)
#define FMPZ_MATXX_COND_T FLINTXX_COND_T(fmpz_matxx)
namespace traits {
template<class T> struct is_fmpz_matxx
: flint_classes::is_Base<fmpz_matxx, T> { };
} // traits
namespace mp {
template<class T1, class T2 = void, class T3 = void, class T4 = void>
struct all_fmpz_matxx : mp::and_<all_fmpz_matxx<T1>, all_fmpz_matxx<T2, T3, T4> > { };
template<class T>
struct all_fmpz_matxx<T, void, void, void> : traits::is_fmpz_matxx<T> { };
template<class Out, class T1, class T2 = void, class T3 = void, class T4 = void>
struct enable_all_fmpz_matxx
: mp::enable_if<all_fmpz_matxx<T1, T2, T3, T4>, Out> { };
} // mp
namespace matrices {
template<>
struct outsize<operations::mul_multi_mod_op>
: outsize<operations::times> { };
template<> struct outsize<operations::solve_cramer_op>
: outsize<operations::solve_op> { };
template<> struct outsize<operations::solve_dixon_op>
: outsize<operations::solve_op> { };
} // matrices
// temporary instantiation stuff
FLINTXX_DEFINE_TEMPORARY_RULES(fmpz_matxx)
namespace rules {
FLINT_DEFINE_DOIT_COND2(assignment, FMPZ_MATXX_COND_T, FMPZ_MATXX_COND_S,
fmpz_mat_set(to._mat(), from._mat()))
FLINTXX_DEFINE_SWAP(fmpz_matxx, fmpz_mat_swap(e1._mat(), e2._mat()))
FLINTXX_DEFINE_EQUALS(fmpz_matxx, fmpz_mat_equal(e1._mat(), e2._mat()))
FLINT_DEFINE_PRINT_COND(FMPZ_MATXX_COND_S, fmpz_mat_fprint(to, from._mat()))
FLINT_DEFINE_READ_COND(FMPZ_MATXX_COND_T, fmpz_mat_fread(from, to._mat()))
FLINT_DEFINE_PRINT_PRETTY_COND(FMPZ_MATXX_COND_S,
fmpz_mat_fprint_pretty(to, from._mat()))
FLINT_DEFINE_BINARY_EXPR_COND2(times, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_mul(to._mat(), e1._mat(), e2._mat()))
FLINT_DEFINE_CBINARY_EXPR_COND2(times, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZXX_COND_S,
fmpz_mat_scalar_mul_fmpz(to._mat(), e1._mat(), e2._fmpz()))
FLINT_DEFINE_CBINARY_EXPR_COND2(times, fmpz_matxx,
FMPZ_MATXX_COND_S, traits::is_unsigned_integer,
fmpz_mat_scalar_mul_ui(to._mat(), e1._mat(), e2))
FLINT_DEFINE_CBINARY_EXPR_COND2(times, fmpz_matxx,
FMPZ_MATXX_COND_S, traits::is_signed_integer,
fmpz_mat_scalar_mul_si(to._mat(), e1._mat(), e2))
FLINT_DEFINE_BINARY_EXPR_COND2(divexact_op, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZXX_COND_S,
fmpz_mat_scalar_divexact_fmpz(to._mat(), e1._mat(), e2._fmpz()))
FLINT_DEFINE_BINARY_EXPR_COND2(divexact_op, fmpz_matxx,
FMPZ_MATXX_COND_S, traits::is_unsigned_integer,
fmpz_mat_scalar_divexact_ui(to._mat(), e1._mat(), e2))
FLINT_DEFINE_BINARY_EXPR_COND2(divexact_op, fmpz_matxx,
FMPZ_MATXX_COND_S, traits::is_signed_integer,
fmpz_mat_scalar_divexact_si(to._mat(), e1._mat(), e2))
FLINT_DEFINE_BINARY_EXPR_COND2(plus, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_add(to._mat(), e1._mat(), e2._mat()))
FLINT_DEFINE_BINARY_EXPR_COND2(minus, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_sub(to._mat(), e1._mat(), e2._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(negate, fmpz_matxx, FMPZ_MATXX_COND_S,
fmpz_mat_neg(to._mat(), from._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(transpose_op, fmpz_matxx, FMPZ_MATXX_COND_S,
fmpz_mat_transpose(to._mat(), from._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(trace_op, fmpzxx, FMPZ_MATXX_COND_S,
fmpz_mat_trace(to._fmpz(), from._mat()))
#define FMPZ_MATXX_DEFINE_DET(name) \
FLINT_DEFINE_UNARY_EXPR_COND(name##_op, fmpzxx, FMPZ_MATXX_COND_S, \
fmpz_mat_##name(to._fmpz(), from._mat()))
FMPZ_MATXX_DEFINE_DET(det)
FMPZ_MATXX_DEFINE_DET(det_cofactor)
FMPZ_MATXX_DEFINE_DET(det_bareiss)
FMPZ_MATXX_DEFINE_DET(det_divisor)
FMPZ_MATXX_DEFINE_DET(det_bound)
FLINT_DEFINE_BINARY_EXPR_COND2(det_modular_op, fmpzxx,
FMPZ_MATXX_COND_S, tools::is_bool,
fmpz_mat_det_modular(to._fmpz(), e1._mat(), e2))
FLINT_DEFINE_BINARY_EXPR_COND2(det_modular_accelerated_op, fmpzxx,
FMPZ_MATXX_COND_S, tools::is_bool,
fmpz_mat_det_modular_accelerated(to._fmpz(), e1._mat(), e2))
FLINT_DEFINE_THREEARY_EXPR_COND3(det_modular_given_divisor_op, fmpzxx,
FMPZ_MATXX_COND_S, FMPZXX_COND_S, tools::is_bool,
fmpz_mat_det_modular_given_divisor(to._fmpz(), e1._mat(), e2._fmpz(), e3))
FLINT_DEFINE_THREEARY_EXPR_COND3(mat_at_op, fmpzxx,
FMPZ_MATXX_COND_S, traits::fits_into_slong, traits::fits_into_slong,
fmpz_set(to._fmpz(), fmpz_mat_entry(e1._mat(), e2, e3)))
FLINT_DEFINE_BINARY_EXPR_COND2(mul_classical_op, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_mul_classical(to._mat(), e1._mat(), e2._mat()))
FLINT_DEFINE_BINARY_EXPR_COND2(mul_multi_mod_op, fmpz_matxx,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_mul_multi_mod(to._mat(), e1._mat(), e2._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(sqr_op, fmpz_matxx, FMPZ_MATXX_COND_S,
fmpz_mat_sqr(to._mat(), from._mat()))
FLINT_DEFINE_BINARY_EXPR_COND2(pow_op, fmpz_matxx,
FMPZ_MATXX_COND_S, traits::is_unsigned_integer,
fmpz_mat_pow(to._mat(), e1._mat(), e2))
namespace rdetail {
typedef make_ltuple<mp::make_tuple<bool, fmpz_matxx, fmpzxx>::type >::type
fmpz_mat_inv_rt;
typedef make_ltuple<mp::make_tuple<fmpzxx, fmpzxx>::type >::type
fmpz_solve_bound_rt;
typedef make_ltuple<mp::make_tuple<slong, fmpz_matxx>::type >::type
fmpz_mat_nullspace_rt;
} // rdetail
FLINT_DEFINE_UNARY_EXPR_COND(inv_op, rdetail::fmpz_mat_inv_rt,
FMPZ_MATXX_COND_S,
to.template get<0>() = fmpz_mat_inv(to.template get<1>()._mat(),
to.template get<2>()._fmpz(), from._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(charpoly_op, fmpz_polyxx, FMPZ_MATXX_COND_S,
fmpz_mat_charpoly(to._poly(), from._mat()))
#define FMPZ_MATXX_DEFINE_SOLVE(name) \
FLINT_DEFINE_BINARY_EXPR_COND2(name##_op, rdetail::fmpz_mat_inv_rt, \
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S, \
to.template get<0>() = fmpz_mat_##name(to.template get<1>()._mat(), \
to.template get<2>()._fmpz(), e1._mat(), e2._mat()))
FMPZ_MATXX_DEFINE_SOLVE(solve)
FMPZ_MATXX_DEFINE_SOLVE(solve_dixon)
FMPZ_MATXX_DEFINE_SOLVE(solve_cramer)
FMPZ_MATXX_DEFINE_SOLVE(solve_fflu)
FLINT_DEFINE_BINARY_EXPR_COND2(solve_bound_op,
rdetail::fmpz_solve_bound_rt,
FMPZ_MATXX_COND_S, FMPZ_MATXX_COND_S,
fmpz_mat_solve_bound(to.template get<0>()._fmpz(),
to.template get<1>()._fmpz(), e1._mat(), e2._mat()))
FLINT_DEFINE_UNARY_EXPR_COND(nullspace_op, rdetail::fmpz_mat_nullspace_rt,
FMPZ_MATXX_COND_S, to.template get<0>() = fmpz_mat_nullspace(
to.template get<1>()._mat(), from._mat()))
namespace rdetail {
typedef make_ltuple<mp::make_tuple<slong, fmpz_matxx, fmpzxx>::type>::type
fmpz_matxx_fflu_rt;
} // rdetail
FLINT_DEFINE_THREEARY_EXPR_COND3(fflu_op, rdetail::fmpz_matxx_fflu_rt,
FMPZ_MATXX_COND_S, traits::is_maybe_perm, tools::is_bool,
to.template get<0>() = fmpz_mat_fflu(to.template get<1>()._mat(),
to.template get<2>()._fmpz(), maybe_perm_data(e2), e1._mat(), e3))
FLINT_DEFINE_UNARY_EXPR_COND(rref_op, rdetail::fmpz_matxx_fflu_rt,
FMPZ_MATXX_COND_S,
to.template get<0>() = fmpz_mat_rref(to.template get<1>()._mat(),
to.template get<2>()._fmpz(), from._mat()))
} // rules
} // flint
#include "nmod_matxx.h" // modular reconstruction code
#endif