/* ************************************************************************
 * Copyright (c) 2018-2021 Advanced Micro Devices, Inc.
 *
 * Permission is hereby granted, free of charge, to any person obtaining a copy
 * of this software and associated documentation files (the "Software"), to deal
 * in the Software without restriction, including without limitation the rights
 * to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
 * copies of the Software, and to permit persons to whom the Software is
 * furnished to do so, subject to the following conditions:
 *
 * The above copyright notice and this permission notice shall be included in
 * all copies or substantial portions of the Software.
 *
 * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
 * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
 * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
 * AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
 * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
 * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
 * THE SOFTWARE.
 *
 * ************************************************************************ */

#include "hip_vector.hpp"
#include "../../utils/allocate_free.hpp"
#include "../../utils/def.hpp"
#include "../../utils/log.hpp"
#include "../../utils/math_functions.hpp"
#include "../backend_manager.hpp"
#include "../base_vector.hpp"
#include "../host/host_vector.hpp"
#include "hip_allocate_free.hpp"
#include "hip_blas.hpp"
#include "hip_kernels_general.hpp"
#include "hip_kernels_vector.hpp"
#include "hip_utils.hpp"

#include <hip/hip_runtime.h>

#ifdef SUPPORT_COMPLEX
#include <complex>
#include <hip/hip_complex.h>
#endif

#include "hip_rand_normal.hpp"
#include "hip_rand_uniform.hpp"

namespace rocalution
{
    template <typename ValueType>
    HIPAcceleratorVector<ValueType>::HIPAcceleratorVector()
    {
        // no default constructors
        LOG_INFO("no default constructor");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    HIPAcceleratorVector<ValueType>::HIPAcceleratorVector(
        const Rocalution_Backend_Descriptor& local_backend)
    {
        log_debug(
            this, "HIPAcceleratorVector::HIPAcceleratorVector()", "constructor with local_backend");

        this->vec_ = NULL;
        this->set_backend(local_backend);

        this->index_array_  = NULL;
        this->index_buffer_ = NULL;

        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    HIPAcceleratorVector<ValueType>::~HIPAcceleratorVector()
    {
        log_debug(this, "HIPAcceleratorVector::~HIPAcceleratorVector()", "destructor");

        this->Clear();
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Info(void) const
    {
        LOG_INFO("HIPAcceleratorVector<ValueType>");
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Allocate(int n)
    {
        assert(n >= 0);

        if(this->size_ > 0)
        {
            this->Clear();
        }

        if(n > 0)
        {
            allocate_hip(n, &this->vec_);
            set_to_zero_hip(this->local_backend_.HIP_block_size, n, this->vec_);

            this->size_ = n;
        }

        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetDataPtr(ValueType** ptr, int size)
    {
        assert(*ptr != NULL);
        assert(size > 0);

        hipDeviceSynchronize();

        this->vec_  = *ptr;
        this->size_ = size;
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::LeaveDataPtr(ValueType** ptr)
    {
        assert(this->size_ > 0);

        hipDeviceSynchronize();
        *ptr       = this->vec_;
        this->vec_ = NULL;

        this->size_ = 0;
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Clear(void)
    {
        if(this->size_ > 0)
        {
            free_hip(&this->vec_);
            this->size_ = 0;
        }

        if(this->index_size_ > 0)
        {
            free_hip(&this->index_buffer_);
            free_hip(&this->index_array_);
            this->index_size_ = 0;
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromHost(const HostVector<ValueType>& src)
    {
        // CPU to HIP copy
        const HostVector<ValueType>* cast_vec;
        if((cast_vec = dynamic_cast<const HostVector<ValueType>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                // Allocate local structure
                this->Allocate(cast_vec->size_);

                // Check for boundary
                assert(this->index_size_ == 0);
                if(cast_vec->index_size_ > 0)
                {
                    this->index_size_ = cast_vec->index_size_;
                    allocate_hip<int>(this->index_size_, &this->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &this->index_buffer_);
                }
            }

            assert(cast_vec->size_ == this->size_);
            assert(cast_vec->index_size_ == this->index_size_);

            if(this->size_ > 0)
            {
                hipMemcpy(this->vec_,
                          cast_vec->vec_,
                          this->size_ * sizeof(ValueType),
                          hipMemcpyHostToDevice);
                CHECK_HIP_ERROR(__FILE__, __LINE__);

                hipMemcpy(this->index_array_,
                          cast_vec->index_array_,
                          this->index_size_ * sizeof(int),
                          hipMemcpyHostToDevice);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            this->Info();
            src.Info();
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyToHost(HostVector<ValueType>* dst) const
    {
        // HIP to CPU copy
        HostVector<ValueType>* cast_vec;
        if((cast_vec = dynamic_cast<HostVector<ValueType>*>(dst)) != NULL)
        {
            if(cast_vec->size_ == 0)
            {
                // Allocate local vector
                cast_vec->Allocate(this->size_);

                // Check for boundary
                assert(cast_vec->index_size_ == 0);
                if(this->index_size_ > 0)
                {
                    cast_vec->index_size_ = this->index_size_;
                    allocate_host(this->index_size_, &cast_vec->index_array_);
                }
            }

            assert(cast_vec->size_ == this->size_);
            assert(cast_vec->index_size_ == this->index_size_);

            if(this->size_ > 0)
            {
                hipMemcpy(cast_vec->vec_,
                          this->vec_,
                          this->size_ * sizeof(ValueType),
                          hipMemcpyDeviceToHost);
                CHECK_HIP_ERROR(__FILE__, __LINE__);

                hipMemcpy(cast_vec->index_array_,
                          this->index_array_,
                          this->index_size_ * sizeof(int),
                          hipMemcpyDeviceToHost);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            this->Info();
            dst->Info();
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromHostAsync(const HostVector<ValueType>& src)
    {
        // CPU to HIP copy
        const HostVector<ValueType>* cast_vec;
        if((cast_vec = dynamic_cast<const HostVector<ValueType>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                // Allocate local vector
                this->Allocate(cast_vec->size_);

                // Check for boundary
                assert(this->index_size_ == 0);
                if(cast_vec->index_size_ > 0)
                {
                    this->index_size_ = cast_vec->index_size_;
                    allocate_hip<int>(this->index_size_, &this->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &this->index_buffer_);
                }
            }

            assert(cast_vec->size_ == this->size_);
            assert(cast_vec->index_size_ == this->index_size_);

            if(this->size_ > 0)
            {
                hipMemcpyAsync(this->vec_,
                               cast_vec->vec_,
                               this->size_ * sizeof(ValueType),
                               hipMemcpyHostToDevice);
                CHECK_HIP_ERROR(__FILE__, __LINE__);

                hipMemcpyAsync(this->index_array_,
                               cast_vec->index_array_,
                               this->index_size_ * sizeof(int),
                               hipMemcpyHostToDevice);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            this->Info();
            src.Info();
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyToHostAsync(HostVector<ValueType>* dst) const
    {
        // HIP to CPU copy
        HostVector<ValueType>* cast_vec;
        if((cast_vec = dynamic_cast<HostVector<ValueType>*>(dst)) != NULL)
        {
            if(cast_vec->size_ == 0)
            {
                // Allocate local vector
                cast_vec->Allocate(this->size_);

                // Check for boundary
                assert(cast_vec->index_size_ == 0);
                if(this->index_size_ > 0)
                {
                    cast_vec->index_size_ = this->index_size_;
                    allocate_host(this->index_size_, &cast_vec->index_array_);
                }
            }

            assert(cast_vec->size_ == this->size_);
            assert(cast_vec->index_size_ == this->index_size_);

            if(this->size_ > 0)
            {
                hipMemcpyAsync(cast_vec->vec_,
                               this->vec_,
                               this->size_ * sizeof(ValueType),
                               hipMemcpyDeviceToHost);
                CHECK_HIP_ERROR(__FILE__, __LINE__);

                hipMemcpyAsync(cast_vec->index_array_,
                               this->index_array_,
                               this->index_size_ * sizeof(int),
                               hipMemcpyDeviceToHost);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            this->Info();
            dst->Info();
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFrom(const BaseVector<ValueType>& src)
    {
        const HIPAcceleratorVector<ValueType>* hip_cast_vec;
        const HostVector<ValueType>*           host_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                // Allocate local vector
                this->Allocate(hip_cast_vec->size_);

                // Check for boundary
                assert(this->index_size_ == 0);
                if(hip_cast_vec->index_size_ > 0)
                {
                    this->index_size_ = hip_cast_vec->index_size_;
                    allocate_hip<int>(this->index_size_, &this->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &this->index_buffer_);
                }
            }

            assert(hip_cast_vec->size_ == this->size_);
            assert(hip_cast_vec->index_size_ == this->index_size_);

            if(this != hip_cast_vec)
            {
                if(this->size_ > 0)
                {
                    hipMemcpy(this->vec_,
                              hip_cast_vec->vec_,
                              this->size_ * sizeof(ValueType),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);

                    hipMemcpy(this->index_array_,
                              hip_cast_vec->index_array_,
                              this->index_size_ * sizeof(int),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);
                }
            }
        }
        else
        {
            // HIP to CPU copy
            if((host_cast_vec = dynamic_cast<const HostVector<ValueType>*>(&src)) != NULL)
            {
                this->CopyFromHost(*host_cast_vec);
            }
            else
            {
                LOG_INFO("Error unsupported HIP vector type");
                this->Info();
                src.Info();
                FATAL_ERROR(__FILE__, __LINE__);
            }
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromAsync(const BaseVector<ValueType>& src)
    {
        const HIPAcceleratorVector<ValueType>* hip_cast_vec;
        const HostVector<ValueType>*           host_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                // Allocate local vector
                this->Allocate(hip_cast_vec->size_);

                // Check for boundary
                assert(this->index_size_ == 0);
                if(hip_cast_vec->index_size_ > 0)
                {
                    this->index_size_ = hip_cast_vec->index_size_;
                    allocate_hip<int>(this->index_size_, &this->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &this->index_buffer_);
                }
            }

            assert(hip_cast_vec->size_ == this->size_);
            assert(hip_cast_vec->index_size_ == this->index_size_);

            if(this != hip_cast_vec)
            {
                if(this->size_ > 0)
                {
                    hipMemcpy(this->vec_,
                              hip_cast_vec->vec_,
                              this->size_ * sizeof(ValueType),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);

                    hipMemcpy(this->index_array_,
                              hip_cast_vec->index_array_,
                              this->index_size_ * sizeof(int),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);
                }
            }
        }
        else
        {
            // HIP to CPU copy
            if((host_cast_vec = dynamic_cast<const HostVector<ValueType>*>(&src)) != NULL)
            {
                this->CopyFromHostAsync(*host_cast_vec);
            }
            else
            {
                LOG_INFO("Error unsupported HIP vector type");
                this->Info();
                src.Info();
                FATAL_ERROR(__FILE__, __LINE__);
            }
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFrom(const BaseVector<ValueType>& src,
                                                   int                          src_offset,
                                                   int                          dst_offset,
                                                   int                          size)
    {
        assert(this->size_ > 0);
        assert(size > 0);
        assert(dst_offset + size <= this->size_);

        const HIPAcceleratorVector<ValueType>* cast_src
            = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&src);

        assert(cast_src != NULL);
        assert(cast_src->size_ > 0);
        assert(src_offset + size <= cast_src->size_);

        dim3 BlockSize(this->local_backend_.HIP_block_size);
        dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

        hipLaunchKernelGGL((kernel_copy_offset_from<ValueType, int>),
                           GridSize,
                           BlockSize,
                           0,
                           0,
                           size,
                           src_offset,
                           dst_offset,
                           cast_src->vec_,
                           this->vec_);
        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyTo(BaseVector<ValueType>* dst) const
    {
        HIPAcceleratorVector<ValueType>* hip_cast_vec;
        HostVector<ValueType>*           host_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<HIPAcceleratorVector<ValueType>*>(dst)) != NULL)
        {
            if(hip_cast_vec->size_ == 0)
            {
                // Allocate local vector
                hip_cast_vec->Allocate(this->size_);

                // Check for boundary
                assert(hip_cast_vec->index_size_ == 0);
                if(this->index_size_ > 0)
                {
                    hip_cast_vec->index_size_ = this->index_size_;
                    allocate_hip<int>(this->index_size_, &hip_cast_vec->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &hip_cast_vec->index_buffer_);
                }
            }

            assert(hip_cast_vec->size_ == this->size_);
            assert(hip_cast_vec->index_size_ == this->index_size_);

            if(this != hip_cast_vec)
            {
                if(this->size_ > 0)
                {
                    hipMemcpy(hip_cast_vec->vec_,
                              this->vec_,
                              this->size_ * sizeof(ValueType),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);

                    hipMemcpy(hip_cast_vec->index_array_,
                              this->index_array_,
                              this->index_size_ * sizeof(int),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);
                }
            }
        }
        else
        {
            // HIP to CPU copy
            if((host_cast_vec = dynamic_cast<HostVector<ValueType>*>(dst)) != NULL)
            {
                this->CopyToHost(host_cast_vec);
            }
            else
            {
                LOG_INFO("Error unsupported HIP vector type");
                this->Info();
                dst->Info();
                FATAL_ERROR(__FILE__, __LINE__);
            }
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyToAsync(BaseVector<ValueType>* dst) const
    {
        HIPAcceleratorVector<ValueType>* hip_cast_vec;
        HostVector<ValueType>*           host_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<HIPAcceleratorVector<ValueType>*>(dst)) != NULL)
        {
            if(hip_cast_vec->size_ == 0)
            {
                // Allocate local vector
                hip_cast_vec->Allocate(this->size_);

                // Check for boundary
                assert(hip_cast_vec->index_size_ == 0);
                if(this->index_size_ > 0)
                {
                    hip_cast_vec->index_size_ = this->index_size_;
                    allocate_hip<int>(this->index_size_, &hip_cast_vec->index_array_);
                    allocate_hip<ValueType>(this->index_size_, &hip_cast_vec->index_buffer_);
                }
            }

            assert(hip_cast_vec->size_ == this->size_);
            assert(hip_cast_vec->index_size_ == this->index_size_);

            if(this != hip_cast_vec)
            {
                if(this->size_ > 0)
                {
                    hipMemcpy(hip_cast_vec->vec_,
                              this->vec_,
                              this->size_ * sizeof(ValueType),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);

                    hipMemcpy(hip_cast_vec->index_array_,
                              this->index_array_,
                              this->index_size_ * sizeof(int),
                              hipMemcpyDeviceToDevice);
                    CHECK_HIP_ERROR(__FILE__, __LINE__);
                }
            }
        }
        else
        {
            // HIP to CPU copy
            if((host_cast_vec = dynamic_cast<HostVector<ValueType>*>(dst)) != NULL)
            {
                this->CopyToHostAsync(host_cast_vec);
            }
            else
            {
                LOG_INFO("Error unsupported HIP vector type");
                this->Info();
                dst->Info();
                FATAL_ERROR(__FILE__, __LINE__);
            }
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromFloat(const BaseVector<float>& src)
    {
        LOG_INFO("Mixed precision for non-complex to complex casting is not allowed");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    void HIPAcceleratorVector<double>::CopyFromFloat(const BaseVector<float>& src)
    {
        const HIPAcceleratorVector<float>* hip_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<const HIPAcceleratorVector<float>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                this->Allocate(hip_cast_vec->size_);
            }

            assert(hip_cast_vec->size_ == this->size_);

            if(this->size_ > 0)
            {
                dim3 BlockSize(this->local_backend_.HIP_block_size);
                dim3 GridSize(this->size_ / this->local_backend_.HIP_block_size + 1);

                hipLaunchKernelGGL((kernel_copy_from_float<double, int>),
                                   GridSize,
                                   BlockSize,
                                   0,
                                   0,
                                   this->size_,
                                   hip_cast_vec->vec_,
                                   this->vec_);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromDouble(const BaseVector<double>& src)
    {
        LOG_INFO("Mixed precision for non-complex to complex casting is not allowed");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    void HIPAcceleratorVector<float>::CopyFromDouble(const BaseVector<double>& src)
    {
        const HIPAcceleratorVector<double>* hip_cast_vec;

        // HIP to HIP copy
        if((hip_cast_vec = dynamic_cast<const HIPAcceleratorVector<double>*>(&src)) != NULL)
        {
            if(this->size_ == 0)
            {
                this->Allocate(hip_cast_vec->size_);
            }

            assert(hip_cast_vec->size_ == this->size_);

            if(this->size_ > 0)
            {
                dim3 BlockSize(this->local_backend_.HIP_block_size);
                dim3 GridSize(this->size_ / this->local_backend_.HIP_block_size + 1);

                hipLaunchKernelGGL((kernel_copy_from_double<float, int>),
                                   GridSize,
                                   BlockSize,
                                   0,
                                   0,
                                   this->size_,
                                   hip_cast_vec->vec_,
                                   this->vec_);
                CHECK_HIP_ERROR(__FILE__, __LINE__);
            }
        }
        else
        {
            LOG_INFO("Error unsupported HIP vector type");
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromData(const ValueType* data)
    {
        if(this->size_ > 0)
        {
            hipMemcpy(this->vec_, data, this->size_ * sizeof(ValueType), hipMemcpyDeviceToDevice);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyToData(ValueType* data) const
    {
        if(this->size_ > 0)
        {
            hipMemcpy(data, this->vec_, this->size_ * sizeof(ValueType), hipMemcpyDeviceToDevice);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Zeros(void)
    {
        if(this->size_ > 0)
        {
            set_to_zero_hip(this->local_backend_.HIP_block_size, this->size_, this->vec_);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Ones(void)
    {
        if(this->size_ > 0)
        {
            set_to_one_hip(this->local_backend_.HIP_block_size, this->size_, this->vec_);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetValues(ValueType val)
    {
        LOG_INFO("HIPAcceleratorVector::SetValues NYI");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::AddScale(const BaseVector<ValueType>& x, ValueType alpha)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

            assert(cast_x != NULL);
            assert(this->size_ == cast_x->size_);

            rocblas_status status;
            status = rocblasTaxpy(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  &alpha,
                                  cast_x->vec_,
                                  1,
                                  this->vec_,
                                  1);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }
    }

    template <>
    void HIPAcceleratorVector<bool>::AddScale(const BaseVector<bool>& x, bool alpha)
    {
        LOG_INFO("No bool axpy function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    void HIPAcceleratorVector<int>::AddScale(const BaseVector<int>& x, int alpha)
    {
        LOG_INFO("No int axpy function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ScaleAdd(ValueType alpha, const BaseVector<ValueType>& x)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

            assert(cast_x != NULL);
            assert(this->size_ == cast_x->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_scaleadd),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               alpha,
                               cast_x->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ScaleAddScale(ValueType                    alpha,
                                                        const BaseVector<ValueType>& x,
                                                        ValueType                    beta)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

            assert(cast_x != NULL);
            assert(this->size_ == cast_x->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_scaleaddscale<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               alpha,
                               beta,
                               cast_x->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ScaleAddScale(ValueType                    alpha,
                                                        const BaseVector<ValueType>& x,
                                                        ValueType                    beta,
                                                        int                          src_offset,
                                                        int                          dst_offset,
                                                        int                          size)
    {
        if(this->size_ > 0)
        {
            assert(this->size_ > 0);
            assert(size > 0);
            assert(dst_offset + size <= this->size_);

            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

            assert(cast_x != NULL);
            assert(cast_x->size_ > 0);
            assert(src_offset + size <= cast_x->size_);

            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_scaleaddscale_offset<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               src_offset,
                               dst_offset,
                               alpha,
                               beta,
                               cast_x->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ScaleAdd2(ValueType                    alpha,
                                                    const BaseVector<ValueType>& x,
                                                    ValueType                    beta,
                                                    const BaseVector<ValueType>& y,
                                                    ValueType                    gamma)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);
            const HIPAcceleratorVector<ValueType>* cast_y
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&y);

            assert(cast_x != NULL);
            assert(cast_y != NULL);
            assert(this->size_ == cast_x->size_);
            assert(this->size_ == cast_y->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_scaleadd2<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               alpha,
                               beta,
                               gamma,
                               cast_x->vec_,
                               cast_y->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Scale(ValueType alpha)
    {
        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTscal(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  &alpha,
                                  this->vec_,
                                  1);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }
    }

    template <>
    void HIPAcceleratorVector<bool>::Scale(bool alpha)
    {
        LOG_INFO("No bool rocBLAS scale function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    void HIPAcceleratorVector<int>::Scale(int alpha)
    {
        LOG_INFO("No int rocBLAS scale function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    ValueType HIPAcceleratorVector<ValueType>::Dot(const BaseVector<ValueType>& x) const
    {
        const HIPAcceleratorVector<ValueType>* cast_x
            = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

        assert(cast_x != NULL);
        assert(this->size_ == cast_x->size_);

        ValueType res = static_cast<ValueType>(0);

        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTdotc(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  this->vec_,
                                  1,
                                  cast_x->vec_,
                                  1,
                                  &res);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }

        return res;
    }

    template <>
    bool HIPAcceleratorVector<bool>::Dot(const BaseVector<bool>& x) const
    {
        LOG_INFO("No bool dot function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    int HIPAcceleratorVector<int>::Dot(const BaseVector<int>& x) const
    {
        LOG_INFO("No int dot function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    ValueType HIPAcceleratorVector<ValueType>::DotNonConj(const BaseVector<ValueType>& x) const
    {
        const HIPAcceleratorVector<ValueType>* cast_x
            = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

        assert(cast_x != NULL);
        assert(this->size_ == cast_x->size_);

        ValueType res = static_cast<ValueType>(0);

        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTdotu(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  this->vec_,
                                  1,
                                  cast_x->vec_,
                                  1,
                                  &res);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }

        return res;
    }

    template <>
    bool HIPAcceleratorVector<bool>::DotNonConj(const BaseVector<bool>& x) const
    {
        LOG_INFO("No bool dotc function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    int HIPAcceleratorVector<int>::DotNonConj(const BaseVector<int>& x) const
    {
        LOG_INFO("No int dotc function");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    ValueType HIPAcceleratorVector<ValueType>::Norm(void) const
    {
        ValueType res = static_cast<ValueType>(0);

        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTnrm2(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  this->vec_,
                                  1,
                                  &res);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }

        return res;
    }

    template <>
    bool HIPAcceleratorVector<bool>::Norm(void) const
    {
        LOG_INFO("What is bool HIPAcceleratorVector<ValueType>::Norm(void) const?");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    int HIPAcceleratorVector<int>::Norm(void) const
    {
        LOG_INFO("What is int HIPAcceleratorVector<ValueType>::Norm(void) const?");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    ValueType HIPAcceleratorVector<ValueType>::Reduce(void) const
    {
        ValueType res = static_cast<ValueType>(0);

        if(this->size_ > 0)
        {
            void*  buffer = NULL;
            size_t size   = 0;

            ValueType* dres = NULL;
            allocate_hip(1, &dres);

            rocprimTreduce(buffer, size, this->vec_, dres, this->size_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);

            hipMalloc(&buffer, size);

            rocprimTreduce(buffer, size, this->vec_, dres, this->size_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);

            hipFree(buffer);

            hipMemcpy(&res, dres, sizeof(ValueType), hipMemcpyDeviceToHost);

            free_hip(&dres);
        }

        return res;
    }

    template <>
    bool HIPAcceleratorVector<bool>::Reduce(void) const
    {
        LOG_INFO("What is bool HIPAcceleratorVector::<ValueType>::Reduce(void) const?");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    ValueType HIPAcceleratorVector<ValueType>::Asum(void) const
    {
        ValueType res = static_cast<ValueType>(0);

        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTasum(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  this->vec_,
                                  1,
                                  &res);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);
        }

        return res;
    }

    template <>
    bool HIPAcceleratorVector<bool>::Asum(void) const
    {
        LOG_INFO("Asum<bool> not implemented");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    int HIPAcceleratorVector<int>::Asum(void) const
    {
        LOG_INFO("Asum<int> not implemented");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    int HIPAcceleratorVector<ValueType>::Amax(ValueType& value) const
    {
        int index = 0;
        value     = static_cast<ValueType>(0.0);

        if(this->size_ > 0)
        {
            rocblas_status status;
            status = rocblasTamax(ROCBLAS_HANDLE(this->local_backend_.ROC_blas_handle),
                                  this->size_,
                                  this->vec_,
                                  1,
                                  &index);
            CHECK_ROCBLAS_ERROR(status, __FILE__, __LINE__);

            hipMemcpy(&value, this->vec_ + index, sizeof(ValueType), hipMemcpyDeviceToHost);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }

        value = std::abs(value);
        return index;
    }

    template <>
    int HIPAcceleratorVector<bool>::Amax(bool& value) const
    {
        LOG_INFO("Amax<bool> not implemented");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    int HIPAcceleratorVector<int>::Amax(int& value) const
    {
        LOG_INFO("Amax<int> not implemented");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::PointWiseMult(const BaseVector<ValueType>& x)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);

            assert(cast_x != NULL);
            assert(this->size_ == cast_x->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_pointwisemult<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_x->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::PointWiseMult(const BaseVector<ValueType>& x,
                                                        const BaseVector<ValueType>& y)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_x
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&x);
            const HIPAcceleratorVector<ValueType>* cast_y
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&y);

            assert(cast_x != NULL);
            assert(cast_y != NULL);
            assert(this->size_ == cast_x->size_);
            assert(this->size_ == cast_y->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL((kernel_pointwisemult2<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_x->vec_,
                               cast_y->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Permute(const BaseVector<int>& permutation)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<int>* cast_perm
                = dynamic_cast<const HIPAcceleratorVector<int>*>(&permutation);

            assert(cast_perm != NULL);
            assert(this->size_ == cast_perm->size_);

            HIPAcceleratorVector<ValueType> vec_tmp(this->local_backend_);
            vec_tmp.Allocate(this->size_);
            vec_tmp.CopyFrom(*this);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            // this->vec_[ cast_perm->vec_[i] ] = vec_tmp.vec_[i];
            hipLaunchKernelGGL((kernel_permute<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_perm->vec_,
                               vec_tmp.vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::PermuteBackward(const BaseVector<int>& permutation)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<int>* cast_perm
                = dynamic_cast<const HIPAcceleratorVector<int>*>(&permutation);

            assert(cast_perm != NULL);
            assert(this->size_ == cast_perm->size_);

            HIPAcceleratorVector<ValueType> vec_tmp(this->local_backend_);
            vec_tmp.Allocate(this->size_);
            vec_tmp.CopyFrom(*this);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            //    this->vec_[i] = vec_tmp.vec_[ cast_perm->vec_[i] ];
            hipLaunchKernelGGL((kernel_permute_backward<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_perm->vec_,
                               vec_tmp.vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::CopyFromPermute(const BaseVector<ValueType>& src,
                                                          const BaseVector<int>&       permutation)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_vec
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&src);
            const HIPAcceleratorVector<int>* cast_perm
                = dynamic_cast<const HIPAcceleratorVector<int>*>(&permutation);
            assert(cast_perm != NULL);
            assert(cast_vec != NULL);

            assert(cast_vec->size_ == this->size_);
            assert(cast_perm->size_ == this->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            //    this->vec_[ cast_perm->vec_[i] ] = cast_vec->vec_[i];
            hipLaunchKernelGGL((kernel_permute<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_perm->vec_,
                               cast_vec->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void
        HIPAcceleratorVector<ValueType>::CopyFromPermuteBackward(const BaseVector<ValueType>& src,
                                                                 const BaseVector<int>& permutation)
    {
        if(this->size_ > 0)
        {
            const HIPAcceleratorVector<ValueType>* cast_vec
                = dynamic_cast<const HIPAcceleratorVector<ValueType>*>(&src);
            const HIPAcceleratorVector<int>* cast_perm
                = dynamic_cast<const HIPAcceleratorVector<int>*>(&permutation);
            assert(cast_perm != NULL);
            assert(cast_vec != NULL);

            assert(cast_vec->size_ == this->size_);
            assert(cast_perm->size_ == this->size_);

            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            //    this->vec_[i] = cast_vec->vec_[ cast_perm->vec_[i] ];
            hipLaunchKernelGGL((kernel_permute_backward<ValueType, int>),
                               GridSize,
                               BlockSize,
                               0,
                               0,
                               size,
                               cast_perm->vec_,
                               cast_vec->vec_,
                               this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetIndexArray(int size, const int* index)
    {
        assert(size > 0);
        assert(this->size_ >= size);

        this->index_size_ = size;

        allocate_hip<int>(this->index_size_, &this->index_array_);
        allocate_hip<ValueType>(this->index_size_, &this->index_buffer_);

        hipMemcpy(
            this->index_array_, index, this->index_size_ * sizeof(int), hipMemcpyHostToDevice);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::GetIndexValues(ValueType* values) const
    {
        assert(values != NULL);

        dim3 BlockSize(this->local_backend_.HIP_block_size);
        dim3 GridSize(this->index_size_ / this->local_backend_.HIP_block_size + 1);

        hipLaunchKernelGGL((kernel_get_index_values<ValueType, int>),
                           GridSize,
                           BlockSize,
                           0,
                           0,
                           this->index_size_,
                           this->index_array_,
                           this->vec_,
                           this->index_buffer_);
        CHECK_HIP_ERROR(__FILE__, __LINE__);

        hipMemcpy(values,
                  this->index_buffer_,
                  this->index_size_ * sizeof(ValueType),
                  hipMemcpyDeviceToHost);
        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetIndexValues(const ValueType* values)
    {
        assert(values != NULL);

        hipMemcpy(this->index_buffer_,
                  values,
                  this->index_size_ * sizeof(ValueType),
                  hipMemcpyHostToDevice);
        CHECK_HIP_ERROR(__FILE__, __LINE__);

        dim3 BlockSize(this->local_backend_.HIP_block_size);
        dim3 GridSize(this->index_size_ / this->local_backend_.HIP_block_size + 1);

        hipLaunchKernelGGL((kernel_set_index_values<ValueType, int>),
                           GridSize,
                           BlockSize,
                           0,
                           0,
                           this->index_size_,
                           this->index_array_,
                           this->index_buffer_,
                           this->vec_);
        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::GetContinuousValues(int        start,
                                                              int        end,
                                                              ValueType* values) const
    {
        assert(start >= 0);
        assert(end >= start);
        assert(end <= this->size_);
        assert(values != NULL);

        hipMemcpy(
            values, this->vec_ + start, (end - start) * sizeof(ValueType), hipMemcpyDeviceToHost);
        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetContinuousValues(int              start,
                                                              int              end,
                                                              const ValueType* values)
    {
        assert(start >= 0);
        assert(end >= start);
        assert(end <= this->size_);
        assert(values != NULL);

        hipMemcpy(
            this->vec_ + start, values, (end - start) * sizeof(ValueType), hipMemcpyHostToDevice);
        CHECK_HIP_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ExtractCoarseMapping(
        int start, int end, const int* index, int nc, int* size, int* map) const
    {
        LOG_INFO("ExtractCoarseMapping() NYI for HIP");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::ExtractCoarseBoundary(
        int start, int end, const int* index, int nc, int* size, int* boundary) const
    {
        LOG_INFO("ExtractCoarseBoundary() NYI for HIP");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::Power(double power)
    {
        if(this->size_ > 0)
        {
            int  size = this->size_;
            dim3 BlockSize(this->local_backend_.HIP_block_size);
            dim3 GridSize(size / this->local_backend_.HIP_block_size + 1);

            hipLaunchKernelGGL(
                (kernel_power<ValueType, int>), GridSize, BlockSize, 0, 0, size, power, this->vec_);
            CHECK_HIP_ERROR(__FILE__, __LINE__);
        }
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetRandomUniform(unsigned long long seed,
                                                           ValueType          a,
                                                           ValueType          b)
    {
        if(this->size_ > 0)
        {
            //
            // Create the random calculator.
            //
            HIPRandUniform_rocRAND<ValueType> rand_engine_uniform(
                seed, std::real(a), std::real(b), this->local_backend_.HIP_block_size);

            //
            // Apply the random calculator.
            //
            this->SetRandom(rand_engine_uniform);
        }
    }

    //
    // No internal usage for integral types, so let's skip the implementation rather than providing one we do not use.
    //
    template <>
    void HIPAcceleratorVector<bool>::SetRandomUniform(unsigned long long seed, bool a, bool b)
    {
        LOG_INFO("HIPAcceleratorVector::SetRandomUniform(), available implementation are for "
                 "float, double, complex float and complex double only.");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    //
    // No internal usage for integral types, so let's skip the implementation rather than providing one we do not use.
    //
    template <>
    void HIPAcceleratorVector<int>::SetRandomUniform(unsigned long long seed, int a, int b)
    {
        LOG_INFO("HIPAcceleratorVector::SetRandomUniform(), available implementation are for "
                 "float, double, complex float and complex double only.");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <typename ValueType>
    void HIPAcceleratorVector<ValueType>::SetRandomNormal(unsigned long long seed,
                                                          ValueType          mean,
                                                          ValueType          var)
    {
        //
        // Create the random calculator.
        //
        HIPRandNormal_rocRAND<ValueType> rand_engine_normal(seed, std::real(mean), std::real(var));

        //
        // Apply the random calculator.
        //
        this->SetRandom(rand_engine_normal);
    }

    //
    // No internal usage for integral types, so let's skip the implementation rather than providing one we do not use.
    //
    template <>
    void HIPAcceleratorVector<bool>::SetRandomNormal(unsigned long long seed, bool mean, bool var)
    {
        LOG_INFO("HIPAcceleratorVector::SetRandomNormal(), available implementation are for float, "
                 "double, complex float and complex double only.");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    //
    // No internal usage for integral types, so let's skip the implementation rather than providing one we do not use.
    //
    template <>
    void HIPAcceleratorVector<int>::SetRandomNormal(unsigned long long seed, int mean, int var)
    {
        LOG_INFO("HIPAcceleratorVector::SetRandomNormal(), available implementation are for float, "
                 "double, complex float and complex double only.");
        FATAL_ERROR(__FILE__, __LINE__);
    }

    template <>
    void HIPAcceleratorVector<std::complex<float>>::Power(double power)
    {
        if(this->size_ > 0)
        {
            LOG_INFO("HIPAcceleratorVector::Power(), no pow() for complex float in HIP");
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <>
    void HIPAcceleratorVector<std::complex<double>>::Power(double power)
    {
        if(this->size_ > 0)
        {
            LOG_INFO("HIPAcceleratorVector::Power(), no pow() for complex double in HIP");
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template <>
    void HIPAcceleratorVector<int>::Power(double power)
    {
        if(this->size_ > 0)
        {
            LOG_INFO("HIPAcceleratorVector::Power(), no pow() for int in HIP");
            FATAL_ERROR(__FILE__, __LINE__);
        }
    }

    template class HIPAcceleratorVector<double>;
    template class HIPAcceleratorVector<float>;
#ifdef SUPPORT_COMPLEX
    template class HIPAcceleratorVector<std::complex<double>>;
    template class HIPAcceleratorVector<std::complex<float>>;
#endif
    template class HIPAcceleratorVector<bool>;
    template class HIPAcceleratorVector<int>;

} // namespace rocalution