// Copyright (c) 2010-2025, Lawrence Livermore National Security, LLC. Produced // at the Lawrence Livermore National Laboratory. All Rights reserved. See files // LICENSE and NOTICE for details. LLNL-CODE-806117. // // This file is part of the MFEM library. For more information and source code // availability visit https://mfem.org. // // MFEM is free software; you can redistribute it and/or modify it under the // terms of the BSD-3 license. We welcome feedback and contributions, see file // CONTRIBUTING.md for details. #include "eval_hdiv.hpp" namespace mfem { namespace internal { namespace quadrature_interpolator { void InitTensorEvalHDivKernels() { using k = QuadratureInterpolator::TensorEvalHDivKernels; constexpr auto LNODES = QVectorLayout::byNODES; constexpr auto LVDIM = QVectorLayout::byVDIM; constexpr auto PV = QuadratureInterpolator::PHYSICAL_VALUES; constexpr auto PM = QuadratureInterpolator::PHYSICAL_MAGNITUDES; // Do not instantiate FLAGS = QuadratureInterpolator::VALUES, for now. // FLAGS = QuadratureInterpolator::PHYSICAL_VALUES: // 2D, QVectorLayout::byNODES k::Specialization<2,LNODES,PV,2,2>::Add(); // RT(0), 2^2 qpts // 2D, QVectorLayout::byVDIM k::Specialization<2,LVDIM, PV,2,2>::Add(); // RT(0), 2^2 qpts k::Specialization<2,LVDIM, PV,3,3>::Add(); // RT(1), 3^2 qpts k::Specialization<2,LVDIM, PV,4,4>::Add(); // RT(2), 4^2 qpts k::Specialization<2,LVDIM, PV,5,5>::Add(); // RT(3), 5^2 qpts // 3D, QVectorLayout::byNODES k::Specialization<3,LNODES,PV,2,3>::Add(); // RT(0), 3^3 qpts // 3D, QVectorLayout::byVDIM k::Specialization<3,LVDIM, PV,2,3>::Add(); // RT(0), 3^3 qpts k::Specialization<3,LVDIM, PV,3,4>::Add(); // RT(1), 4^3 qpts k::Specialization<3,LVDIM, PV,4,5>::Add(); // RT(2), 5^3 qpts k::Specialization<3,LVDIM, PV,5,6>::Add(); // RT(3), 6^3 qpts // FLAGS = QuadratureInterpolator::PHYSICAL_MAGNITUDES: // For vdim = 1: QVectorLayout::byNODES = QVectorLayout::byVDIM, so // we use just QVectorLayout::byNODES: // 2D k::Specialization<2,LNODES,PM,2,2>::Add(); // RT(0), 2^2 qpts k::Specialization<2,LNODES,PM,3,3>::Add(); // RT(1), 3^2 qpts k::Specialization<2,LNODES,PM,4,4>::Add(); // RT(2), 4^2 qpts k::Specialization<2,LNODES,PM,5,5>::Add(); // RT(3), 5^2 qpts // 3D k::Specialization<3,LNODES,PM,2,3>::Add(); // RT(0), 3^3 qpts k::Specialization<3,LNODES,PM,3,4>::Add(); // RT(1), 4^3 qpts k::Specialization<3,LNODES,PM,4,5>::Add(); // RT(2), 5^3 qpts k::Specialization<3,LNODES,PM,5,6>::Add(); // RT(3), 6^3 qpts } } // namespace quadrature_interpolator } // namespace internal /// @cond Suppress_Doxygen_warnings QuadratureInterpolator::TensorEvalHDivKernelType QuadratureInterpolator::TensorEvalHDivKernels::Fallback( int DIM, QVectorLayout Q_LAYOUT, unsigned FLAGS, int D1D, int Q1D) { using namespace internal::quadrature_interpolator; MFEM_CONTRACT_VAR(D1D); MFEM_CONTRACT_VAR(Q1D); constexpr auto RV = QuadratureInterpolator::VALUES; constexpr auto PV = QuadratureInterpolator::PHYSICAL_VALUES; constexpr auto PM = QuadratureInterpolator::PHYSICAL_MAGNITUDES; if (DIM == 2) { if (FLAGS & RV) { return (Q_LAYOUT == QVectorLayout::byNODES) ? EvalHDiv2D : EvalHDiv2D; } else if (FLAGS & PV) { return (Q_LAYOUT == QVectorLayout::byNODES) ? EvalHDiv2D : EvalHDiv2D; } else { return EvalHDiv2D; } } else if (DIM == 3) { if (FLAGS & RV) { return (Q_LAYOUT == QVectorLayout::byNODES) ? EvalHDiv3D : EvalHDiv3D; } else if (FLAGS & PV) { return (Q_LAYOUT == QVectorLayout::byNODES) ? EvalHDiv3D : EvalHDiv3D; } else { return EvalHDiv3D; } } MFEM_ABORT("DIM = " << DIM << " is not implemented!"); } /// @endcond } // namespace mfem