本文整理汇总了C++中vector_type::close方法的典型用法代码示例。如果您正苦于以下问题：C++ vector_type::close方法的具体用法？C++ vector_type::close怎么用？C++ vector_type::close使用的例子？那么恭喜您, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类vector_type的用法示例。
在下文中一共展示了vector_type::close方法的3个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的C++代码示例。
示例1: tic
int
PreconditionerBlockMS<space_type>::applyInverse ( const vector_type& X, vector_type& Y ) const
{
tic();
U = X;
U.close();
*M_uin = U.template element<0>();
M_uin->close();
*M_pin = U.template element<1>();
M_pin->close();
// Solve eq (12)
// solve here eq 15 : Pm v = c
backend(_name=M_prefix_11)->solve(_matrix=M_11,
_rhs=M_uin,
_solution=M_uout
) ;
M_uout->close();
// solve here eq 16
backend(_name=M_prefix_22)->solve(_matrix=M_L,
_rhs=M_pin,
_solution=M_pout
);
M_pout->close();
U.template element<0>() = *M_uout;
U.template element<1>() = *M_pout;
U.close();
Y=U;
Y.close();
toc("[PreconditionerBlockMS] applyInverse update solution",FLAGS_v>0);
return 0;
}示例2: prod
void prod( sparse_matrix_type const& A,
vector_type const& x,
vector_type& b ) const
{
int ierr = 0;
petsc_sparse_matrix_type const& _A = dynamic_cast<petsc_sparse_matrix_type const&>( A );
petsc_vector_type const& _x = dynamic_cast<petsc_vector_type const&>( x );
petsc_vector_type const& _b = dynamic_cast<petsc_vector_type const&>( b );
if ( _A.mapCol().worldComm().globalSize() == x.map().worldComm().globalSize() )
{
//std::cout << "BackendPetsc::prod STANDART"<< std::endl;
ierr = MatMult( _A.mat(), _x.vec(), _b.vec() );
CHKERRABORT( _A.comm().globalComm(),ierr );
}
else
{
//std::cout << "BackendPetsc::prod with convert"<< std::endl;
auto x_convert = petscMPI_vector_type(_A.mapColPtr());
x_convert.duplicateFromOtherPartition(x);
x_convert.close();
ierr = MatMult( _A.mat(), x_convert.vec(), _b.vec() );
CHKERRABORT( _A.comm().globalComm(),ierr );
}
b.close();
}示例3: if
int
PreconditionerAS<space_type,coef_space_type>::applyInverse ( const vector_type& X /*R*/, vector_type& Y /*W*/) const
{
/*
* We solve Here P_v w = r
* With P_v^-1 = diag(P_m)^-1 (=A)
* + P (\bar L + g \bar Q) P^t (=B)
* + C (L^-1) C^T (=C)
*/
U = X;
U.close();
// solve equ (12)
if ( this->type() == AS )
{
tic();
*M_r = U;
M_r->close();
// step A : diag(Pm)^-1*r
A->pointwiseDivide(*M_r,*M_diagPm);
A->close();
// s = P^t r
M_Pt->multVector(M_r,M_s);
// Impose boundary conditions on M_s
#if 1
M_qh3_elt = *M_s;
M_qh3_elt.close();
#if FEELPP_DIM == 3
M_qh3_elt.on( _range=boundaryfaces( M_Qh3->mesh() ), _expr=vec(cst(0.), cst(0.), cst(0.)) );
#else
M_qh3_elt.on( _range=boundaryfaces( M_Qh3->mesh() ), _expr=vec(cst(0.), cst(0.)) );
#endif
*M_s = M_qh3_elt;
M_s->close();
#endif
#if 1
// Subvectors for M_s (per component) need to be updated
M_s1 = M_s->createSubVector(M_Qh3_indices[0], true);
M_s2 = M_s->createSubVector(M_Qh3_indices[1], true);
#if FEELPP_DIM == 3
M_s3 = M_s->createSubVector(M_Qh3_indices[2], true);
#endif
#else
// s = [ s1, s2, s3 ]
M_s->updateSubVector(M_s1, M_Qh3_indices[0]);
M_s->updateSubVector(M_s2, M_Qh3_indices[1]);
#if FEELPP_DIM == 3
M_s->updateSubVector(M_s3, M_Qh3_indices[2]);
#endif
#endif
M_s->close();
/*
* hat(L) + g Q is a (Qh,Qh) matrix
* [[ hat(L) + g Q, 0 , 0 ], [ y1 ] [ s1 ]
* [ 0, hat(L) + g Q, 0 ], * [ y2 ] = [ s2 ]
* [ 0, 0 , hat(L) + g Q ]] [ y3 ] [ s3 ]
*/
M_lgqOp->applyInverse(M_s1,M_y1);
M_lgqOp->applyInverse(M_s2,M_y2);
#if FEELPP_DIM == 3
M_lgqOp->applyInverse(M_s3,M_y3);
#endif
// y = [ y1, y2, y3 ]
M_y->updateSubVector(M_y1, M_Qh3_indices[0]);
M_y->updateSubVector(M_y2, M_Qh3_indices[1]);
#if FEELPP_DIM == 3
M_y->updateSubVector(M_y3, M_Qh3_indices[2]);
#endif
M_y->close();
// step B : P*y
M_P->multVector(M_y,B);
// Impose boundary conditions on B = Py
#if 1
M_vh_elt = *B;
M_vh_elt.close();
#if FEELPP_DIM == 3
M_vh_elt.on( _range=boundaryfaces( M_Qh3->mesh() ), _expr=vec(cst(0.), cst(0.), cst(0.)) );
#else
M_vh_elt.on( _range=boundaryfaces( M_Qh3->mesh() ), _expr=vec(cst(0.), cst(0.)) );
#endif
*B = M_vh_elt;
B->close();
#endif
// t = C^t r
M_Ct->multVector(M_r,M_t);
// Impose boundary conditions on M_t
#if 1
M_qh_elt = *M_t;
M_qh_elt.close();
M_qh_elt.on( _range=boundaryfaces( M_Qh3->mesh() ), _expr=cst(0.) );
*M_t = M_qh_elt;
M_t->close();
#endif
//.........这里部分代码省略.........