//===--------- command_buffer.cpp - HIP Adapter ---------------------------===//
//
// Copyright (C) 2023 Intel Corporation
//
// Part of the Unified-Runtime Project, under the Apache License v2.0 with LLVM
// Exceptions. See LICENSE.TXT
// SPDX-License-Identifier: Apache-2.0 WITH LLVM-exception
//
//===----------------------------------------------------------------------===//

#include "command_buffer.hpp"

#include <hip/hip_runtime.h>

#include "common.hpp"
#include "enqueue.hpp"
#include "event.hpp"
#include "kernel.hpp"
#include "memory.hpp"
#include "queue.hpp"

#include <cstring>

ur_exp_command_buffer_handle_t_::ur_exp_command_buffer_handle_t_(
    ur_context_handle_t hContext, ur_device_handle_t hDevice, bool IsUpdatable)
    : Context(hContext), Device(hDevice), IsUpdatable(IsUpdatable),
      HIPGraph{nullptr}, HIPGraphExec{nullptr}, RefCount{1}, NextSyncPoint{0} {
  urContextRetain(hContext);
  urDeviceRetain(hDevice);
}

/// The ur_exp_command_buffer_handle_t_ destructor releases
/// all the memory objects allocated for command_buffer managment
ur_exp_command_buffer_handle_t_::~ur_exp_command_buffer_handle_t_() {
  // Release the memory allocated to the Context stored in the command_buffer
  UR_TRACE(urContextRelease(Context));

  // Release the device
  UR_TRACE(urDeviceRelease(Device));

  // Release the memory allocated to the HIPGraph
  (void)hipGraphDestroy(HIPGraph);

  // Release the memory allocated to the HIPGraphExec
  if (HIPGraphExec) {
    (void)hipGraphExecDestroy(HIPGraphExec);
  }
}

ur_exp_command_buffer_command_handle_t_::
    ur_exp_command_buffer_command_handle_t_(
        ur_exp_command_buffer_handle_t CommandBuffer, ur_kernel_handle_t Kernel,
        hipGraphNode_t Node, hipKernelNodeParams Params, uint32_t WorkDim,
        const size_t *GlobalWorkOffsetPtr, const size_t *GlobalWorkSizePtr,
        const size_t *LocalWorkSizePtr, uint32_t NumKernelAlternatives,
        ur_kernel_handle_t *KernelAlternatives)
    : CommandBuffer(CommandBuffer), Kernel(Kernel), Node(Node), Params(Params),
      WorkDim(WorkDim) {
  const size_t CopySize = sizeof(size_t) * WorkDim;
  std::memcpy(GlobalWorkOffset, GlobalWorkOffsetPtr, CopySize);
  std::memcpy(GlobalWorkSize, GlobalWorkSizePtr, CopySize);
  // Local work size may be nullptr
  if (LocalWorkSizePtr) {
    std::memcpy(LocalWorkSize, LocalWorkSizePtr, CopySize);
  } else {
    std::memset(LocalWorkSize, 0, sizeof(size_t) * 3);
  }

  if (WorkDim < 3) {
    const size_t ZeroSize = sizeof(size_t) * (3 - WorkDim);
    std::memset(GlobalWorkOffset + WorkDim, 0, ZeroSize);
    std::memset(GlobalWorkSize + WorkDim, 0, ZeroSize);
  }

  /* Add the default Kernel as a valid kernel handle for this command */
  ValidKernelHandles.insert(Kernel);
  if (KernelAlternatives) {
    ValidKernelHandles.insert(KernelAlternatives,
                              KernelAlternatives + NumKernelAlternatives);
  }
}

/// Helper function for finding the HIP Nodes associated with the commands in a
/// command-buffer, each event is pointed to by a sync-point in the wait list.
///
/// @param[in] CommandBuffer to lookup the events from.
/// @param[in] NumSyncPointsInWaitList Length of \p SyncPointWaitList.
/// @param[in] SyncPointWaitList List of sync points in \p CommandBuffer
/// to find the events for.
/// @param[out] HipNodesList Return parameter for the HIP Nodes associated with
/// each sync-point in \p SyncPointWaitList.
///
/// @return UR_RESULT_SUCCESS or an error code on failure
static ur_result_t getNodesFromSyncPoints(
    const ur_exp_command_buffer_handle_t &CommandBuffer,
    size_t NumSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *SyncPointWaitList,
    std::vector<hipGraphNode_t> &HIPNodesList) {
  // Map of ur_exp_command_buffer_sync_point_t to ur_event_handle_t defining
  // the event associated with each sync-point
  auto SyncPoints = CommandBuffer->SyncPoints;

  // For each sync-point add associated HIP graph node to the return list.
  for (size_t i = 0; i < NumSyncPointsInWaitList; i++) {
    if (auto NodeHandle = SyncPoints.find(SyncPointWaitList[i]);
        NodeHandle != SyncPoints.end()) {
      HIPNodesList.push_back(NodeHandle->second);
    } else {
      return UR_RESULT_ERROR_INVALID_VALUE;
    }
  }
  return UR_RESULT_SUCCESS;
}

// Helper function for enqueuing memory fills
static ur_result_t enqueueCommandBufferFillHelper(
    ur_exp_command_buffer_handle_t CommandBuffer, void *DstDevice,
    const hipMemoryType DstType, const void *Pattern, size_t PatternSize,
    size_t Size, uint32_t NumSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *SyncPointWaitList,
    ur_exp_command_buffer_sync_point_t *RetSyncPoint) try {
  std::vector<hipGraphNode_t> DepsList;

  UR_CHECK_ERROR(getNodesFromSyncPoints(CommandBuffer, NumSyncPointsInWaitList,
                                        SyncPointWaitList, DepsList));

  // Graph node added to graph, if multiple nodes are created this will
  // be set to the leaf node
  hipGraphNode_t GraphNode;

  const size_t N = Size / PatternSize;
  auto DstPtr = DstType == hipMemoryTypeDevice
                    ? *static_cast<hipDeviceptr_t *>(DstDevice)
                    : DstDevice;

  if ((PatternSize == 1) || (PatternSize == 2) || (PatternSize == 4)) {
    hipMemsetParams NodeParams = {};
    NodeParams.dst = DstPtr;
    NodeParams.elementSize = PatternSize;
    NodeParams.height = N;
    NodeParams.pitch = PatternSize;
    NodeParams.width = 1;

    // pattern size in bytes
    switch (PatternSize) {
    case 1: {
      auto Value = *static_cast<const uint8_t *>(Pattern);
      NodeParams.value = Value;
      break;
    }
    case 2: {
      auto Value = *static_cast<const uint16_t *>(Pattern);
      NodeParams.value = Value;
      break;
    }
    case 4: {
      auto Value = *static_cast<const uint32_t *>(Pattern);
      NodeParams.value = Value;
      break;
    }
    }

    UR_CHECK_ERROR(hipGraphAddMemsetNode(&GraphNode, CommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParams));

  } else {
    // HIP has no memset functions that allow setting values more than 4
    // bytes. UR API lets you pass an arbitrary "pattern" to the buffer
    // fill, which can be more than 4 bytes. We must break up the pattern
    // into 1 byte values, and set the buffer using multiple strided calls.
    // This means that one hipGraphAddMemsetNode call is made for every 1
    // bytes in the pattern.

    size_t NumberOfSteps = PatternSize / sizeof(uint8_t);

    // Update NodeParam
    hipMemsetParams NodeParamsStepFirst = {};
    NodeParamsStepFirst.dst = DstPtr;
    NodeParamsStepFirst.elementSize = 4;
    NodeParamsStepFirst.height = Size / sizeof(uint32_t);
    NodeParamsStepFirst.pitch = 4;
    NodeParamsStepFirst.value = *(static_cast<const uint32_t *>(Pattern));
    NodeParamsStepFirst.width = 1;

    UR_CHECK_ERROR(hipGraphAddMemsetNode(&GraphNode, CommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParamsStepFirst));

    DepsList.clear();
    DepsList.push_back(GraphNode);

    // we walk up the pattern in 1-byte steps, and add Memset node for each
    // 1-byte chunk of the pattern.
    for (auto Step = 4u; Step < NumberOfSteps; ++Step) {
      // take 1 bytes of the pattern
      auto Value = *(static_cast<const uint8_t *>(Pattern) + Step);

      // offset the pointer to the part of the buffer we want to write to
      auto OffsetPtr = reinterpret_cast<void *>(
          reinterpret_cast<uint8_t *>(DstPtr) + (Step * sizeof(uint8_t)));

      // Update NodeParam
      hipMemsetParams NodeParamsStep = {};
      NodeParamsStep.dst = reinterpret_cast<void *>(OffsetPtr);
      NodeParamsStep.elementSize = sizeof(uint8_t);
      NodeParamsStep.height = Size / NumberOfSteps;
      NodeParamsStep.pitch = NumberOfSteps * sizeof(uint8_t);
      NodeParamsStep.value = Value;
      NodeParamsStep.width = 1;

      UR_CHECK_ERROR(hipGraphAddMemsetNode(&GraphNode, CommandBuffer->HIPGraph,
                                           DepsList.data(), DepsList.size(),
                                           &NodeParamsStep));

      DepsList.clear();
      DepsList.push_back(GraphNode);
    }
  }

  // Get sync point and register the node with it.
  auto SyncPoint = CommandBuffer->addSyncPoint(GraphNode);
  if (RetSyncPoint) {
    *RetSyncPoint = SyncPoint;
  }

  return UR_RESULT_SUCCESS;
} catch (ur_result_t Err) {
  return Err;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferCreateExp(
    ur_context_handle_t hContext, ur_device_handle_t hDevice,
    const ur_exp_command_buffer_desc_t *pCommandBufferDesc,
    ur_exp_command_buffer_handle_t *phCommandBuffer) {
  const bool IsUpdatable =
      pCommandBufferDesc ? pCommandBufferDesc->isUpdatable : false;

  try {
    *phCommandBuffer =
        new ur_exp_command_buffer_handle_t_(hContext, hDevice, IsUpdatable);
  } catch (const std::bad_alloc &) {
    return UR_RESULT_ERROR_OUT_OF_HOST_MEMORY;
  } catch (...) {
    return UR_RESULT_ERROR_UNKNOWN;
  }

  try {
    UR_CHECK_ERROR(hipGraphCreate(&(*phCommandBuffer)->HIPGraph, 0));
  } catch (...) {
    return UR_RESULT_ERROR_OUT_OF_RESOURCES;
  }

  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL
urCommandBufferRetainExp(ur_exp_command_buffer_handle_t hCommandBuffer) {
  hCommandBuffer->incrementReferenceCount();
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL
urCommandBufferReleaseExp(ur_exp_command_buffer_handle_t hCommandBuffer) {
  if (hCommandBuffer->decrementReferenceCount() == 0) {
    delete hCommandBuffer;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL
urCommandBufferFinalizeExp(ur_exp_command_buffer_handle_t hCommandBuffer) {
  UR_ASSERT(hCommandBuffer->HIPGraphExec == nullptr,
            UR_RESULT_ERROR_INVALID_OPERATION);
  try {
    const unsigned long long flags = 0;
    UR_CHECK_ERROR(hipGraphInstantiateWithFlags(
        &hCommandBuffer->HIPGraphExec, hCommandBuffer->HIPGraph, flags));
  } catch (...) {
    return UR_RESULT_ERROR_UNKNOWN;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendKernelLaunchExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_kernel_handle_t hKernel,
    uint32_t workDim, const size_t *pGlobalWorkOffset,
    const size_t *pGlobalWorkSize, const size_t *pLocalWorkSize,
    uint32_t numKernelAlternatives, ur_kernel_handle_t *phKernelAlternatives,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  // Preconditions
  // Command handles can only be obtained from updatable command-buffers
  UR_ASSERT(!(phCommand && !hCommandBuffer->IsUpdatable),
            UR_RESULT_ERROR_INVALID_OPERATION);
  UR_ASSERT(hCommandBuffer->Context == hKernel->getContext(),
            UR_RESULT_ERROR_INVALID_KERNEL);
  UR_ASSERT(workDim > 0, UR_RESULT_ERROR_INVALID_WORK_DIMENSION);
  UR_ASSERT(workDim < 4, UR_RESULT_ERROR_INVALID_WORK_DIMENSION);

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  for (uint32_t i = 0; i < numKernelAlternatives; ++i) {
    UR_ASSERT(phKernelAlternatives[i] != hKernel,
              UR_RESULT_ERROR_INVALID_VALUE);
  }

  try {
    hipGraphNode_t GraphNode;
    std::vector<hipGraphNode_t> DepsList;

    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    if (*pGlobalWorkSize == 0) {
      // Create an empty node if the kernel workload size is zero
      UR_CHECK_ERROR(hipGraphAddEmptyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                          DepsList.data(), DepsList.size()));

      // Get sync point and register the node with it.
      auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
      if (pSyncPoint) {
        *pSyncPoint = SyncPoint;
      }
      return UR_RESULT_SUCCESS;
    }

    // Set the number of threads per block to the number of threads per warp
    // by default unless user has provided a better number
    size_t ThreadsPerBlock[3] = {64u, 1u, 1u};
    size_t BlocksPerGrid[3] = {1u, 1u, 1u};

    uint32_t LocalSize = hKernel->getLocalSize();
    hipFunction_t HIPFunc = hKernel->get();
    UR_CHECK_ERROR(setKernelParams(
        hCommandBuffer->Device, workDim, pGlobalWorkOffset, pGlobalWorkSize,
        pLocalWorkSize, hKernel, HIPFunc, ThreadsPerBlock, BlocksPerGrid));

    // Set node param structure with the kernel related data
    auto &ArgPointers = hKernel->getArgPointers();
    hipKernelNodeParams NodeParams;
    NodeParams.func = HIPFunc;
    NodeParams.gridDim.x = BlocksPerGrid[0];
    NodeParams.gridDim.y = BlocksPerGrid[1];
    NodeParams.gridDim.z = BlocksPerGrid[2];
    NodeParams.blockDim.x = ThreadsPerBlock[0];
    NodeParams.blockDim.y = ThreadsPerBlock[1];
    NodeParams.blockDim.z = ThreadsPerBlock[2];
    NodeParams.sharedMemBytes = LocalSize;
    NodeParams.kernelParams = const_cast<void **>(ArgPointers.data());
    NodeParams.extra = nullptr;

    // Create and add an new kernel node to the HIP graph
    UR_CHECK_ERROR(hipGraphAddKernelNode(&GraphNode, hCommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParams));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }

    auto NewCommand = std::make_unique<ur_exp_command_buffer_command_handle_t_>(
        hCommandBuffer, hKernel, GraphNode, NodeParams, workDim,
        pGlobalWorkOffset, pGlobalWorkSize, pLocalWorkSize,
        numKernelAlternatives, phKernelAlternatives);

    if (phCommand) {
      *phCommand = NewCommand.get();
    }

    hCommandBuffer->CommandHandles.push_back(std::move(NewCommand));

  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendUSMMemcpyExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, void *pDst, const void *pSrc,
    size_t size, uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));
    UR_CHECK_ERROR(hipGraphAddMemcpyNode1D(&GraphNode, hCommandBuffer->HIPGraph,
                                           DepsList.data(), DepsList.size(),
                                           pDst, pSrc, size, hipMemcpyDefault));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendMemBufferCopyExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hSrcMem,
    ur_mem_handle_t hDstMem, size_t srcOffset, size_t dstOffset, size_t size,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);
  UR_ASSERT(size + dstOffset <= std::get<BufferMem>(hDstMem->Mem).getSize(),
            UR_RESULT_ERROR_INVALID_SIZE);
  UR_ASSERT(size + srcOffset <= std::get<BufferMem>(hSrcMem->Mem).getSize(),
            UR_RESULT_ERROR_INVALID_SIZE);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto Src = std::get<BufferMem>(hSrcMem->Mem)
                   .getPtrWithOffset(hCommandBuffer->Device, srcOffset);
    auto Dst = std::get<BufferMem>(hDstMem->Mem)
                   .getPtrWithOffset(hCommandBuffer->Device, dstOffset);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode1D(
        &GraphNode, hCommandBuffer->HIPGraph, DepsList.data(), DepsList.size(),
        Dst, Src, size, hipMemcpyDeviceToDevice));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendMemBufferCopyRectExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hSrcMem,
    ur_mem_handle_t hDstMem, ur_rect_offset_t srcOrigin,
    ur_rect_offset_t dstOrigin, ur_rect_region_t region, size_t srcRowPitch,
    size_t srcSlicePitch, size_t dstRowPitch, size_t dstSlicePitch,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto SrcPtr =
        std::get<BufferMem>(hSrcMem->Mem).getPtr(hCommandBuffer->Device);
    auto DstPtr =
        std::get<BufferMem>(hDstMem->Mem).getPtr(hCommandBuffer->Device);
    hipMemcpy3DParms NodeParams = {};

    setCopyRectParams(region, SrcPtr, hipMemoryTypeDevice, srcOrigin,
                      srcRowPitch, srcSlicePitch, DstPtr, hipMemoryTypeDevice,
                      dstOrigin, dstRowPitch, dstSlicePitch, NodeParams);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParams));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT
ur_result_t UR_APICALL urCommandBufferAppendMemBufferWriteExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hBuffer,
    size_t offset, size_t size, const void *pSrc,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto Dst = std::get<BufferMem>(hBuffer->Mem)
                   .getPtrWithOffset(hCommandBuffer->Device, offset);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode1D(
        &GraphNode, hCommandBuffer->HIPGraph, DepsList.data(), DepsList.size(),
        Dst, pSrc, size, hipMemcpyHostToDevice));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT
ur_result_t UR_APICALL urCommandBufferAppendMemBufferReadExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hBuffer,
    size_t offset, size_t size, void *pDst, uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto Src = std::get<BufferMem>(hBuffer->Mem)
                   .getPtrWithOffset(hCommandBuffer->Device, offset);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode1D(
        &GraphNode, hCommandBuffer->HIPGraph, DepsList.data(), DepsList.size(),
        pDst, Src, size, hipMemcpyDeviceToHost));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT
ur_result_t UR_APICALL urCommandBufferAppendMemBufferWriteRectExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hBuffer,
    ur_rect_offset_t bufferOffset, ur_rect_offset_t hostOffset,
    ur_rect_region_t region, size_t bufferRowPitch, size_t bufferSlicePitch,
    size_t hostRowPitch, size_t hostSlicePitch, void *pSrc,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto DstPtr =
        std::get<BufferMem>(hBuffer->Mem).getPtr(hCommandBuffer->Device);
    hipMemcpy3DParms NodeParams = {};

    setCopyRectParams(region, pSrc, hipMemoryTypeHost, hostOffset, hostRowPitch,
                      hostSlicePitch, DstPtr, hipMemoryTypeDevice, bufferOffset,
                      bufferRowPitch, bufferSlicePitch, NodeParams);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParams));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT
ur_result_t UR_APICALL urCommandBufferAppendMemBufferReadRectExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hBuffer,
    ur_rect_offset_t bufferOffset, ur_rect_offset_t hostOffset,
    ur_rect_region_t region, size_t bufferRowPitch, size_t bufferSlicePitch,
    size_t hostRowPitch, size_t hostSlicePitch, void *pDst,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    auto SrcPtr =
        std::get<BufferMem>(hBuffer->Mem).getPtr(hCommandBuffer->Device);
    hipMemcpy3DParms NodeParams = {};

    setCopyRectParams(region, SrcPtr, hipMemoryTypeDevice, bufferOffset,
                      bufferRowPitch, bufferSlicePitch, pDst, hipMemoryTypeHost,
                      hostOffset, hostRowPitch, hostSlicePitch, NodeParams);

    UR_CHECK_ERROR(hipGraphAddMemcpyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                         DepsList.data(), DepsList.size(),
                                         &NodeParams));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendUSMPrefetchExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, const void * /* Mem */,
    size_t /*Size*/, ur_usm_migration_flags_t /*Flags*/,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  // Prefetch cmd is not supported by Hip Graph.
  // We implement it as an empty node to enforce dependencies.
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    // Create an empty node if the kernel workload size is zero
    UR_CHECK_ERROR(hipGraphAddEmptyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                        DepsList.data(), DepsList.size()));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendUSMAdviseExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, const void * /* Mem */,
    size_t /*Size*/, ur_usm_advice_flags_t /*Advice*/,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  // Mem-Advise cmd is not supported by Hip Graph.
  // We implement it as an empty node to enforce dependencies.
  hipGraphNode_t GraphNode;
  std::vector<hipGraphNode_t> DepsList;

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  try {
    UR_CHECK_ERROR(getNodesFromSyncPoints(
        hCommandBuffer, numSyncPointsInWaitList, pSyncPointWaitList, DepsList));

    // Create an empty node if the kernel workload size is zero
    UR_CHECK_ERROR(hipGraphAddEmptyNode(&GraphNode, hCommandBuffer->HIPGraph,
                                        DepsList.data(), DepsList.size()));

    // Get sync point and register the node with it.
    auto SyncPoint = hCommandBuffer->addSyncPoint(GraphNode);
    if (pSyncPoint) {
      *pSyncPoint = SyncPoint;
    }
  } catch (ur_result_t Err) {
    return Err;
  }
  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendMemBufferFillExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_mem_handle_t hBuffer,
    const void *pPattern, size_t patternSize, size_t offset, size_t size,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;
  auto ArgsAreMultiplesOfPatternSize =
      (offset % patternSize == 0) || (size % patternSize == 0);

  auto PatternIsValid = (pPattern != nullptr);

  auto PatternSizeIsValid = ((patternSize & (patternSize - 1)) == 0) &&
                            (patternSize > 0); // is a positive power of two
  UR_ASSERT(ArgsAreMultiplesOfPatternSize && PatternIsValid &&
                PatternSizeIsValid,
            UR_RESULT_ERROR_INVALID_SIZE);
  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);

  auto DstDevice = std::get<BufferMem>(hBuffer->Mem)
                       .getPtrWithOffset(hCommandBuffer->Device, offset);

  return enqueueCommandBufferFillHelper(
      hCommandBuffer, &DstDevice, hipMemoryTypeDevice, pPattern, patternSize,
      size, numSyncPointsInWaitList, pSyncPointWaitList, pSyncPoint);
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferAppendUSMFillExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, void *pPtr,
    const void *pPattern, size_t patternSize, size_t size,
    uint32_t numSyncPointsInWaitList,
    const ur_exp_command_buffer_sync_point_t *pSyncPointWaitList,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_exp_command_buffer_sync_point_t *pSyncPoint, ur_event_handle_t *phEvent,
    ur_exp_command_buffer_command_handle_t *phCommand) {
  std::ignore = numEventsInWaitList;
  std::ignore = phEventWaitList;
  std::ignore = phEvent;
  std::ignore = phCommand;

  auto PatternIsValid = (pPattern != nullptr);

  auto PatternSizeIsValid = ((patternSize & (patternSize - 1)) == 0) &&
                            (patternSize > 0); // is a positive power of two

  UR_ASSERT(!(pSyncPointWaitList == NULL && numSyncPointsInWaitList > 0),
            UR_RESULT_ERROR_INVALID_EVENT_WAIT_LIST);
  UR_ASSERT(PatternIsValid && PatternSizeIsValid, UR_RESULT_ERROR_INVALID_SIZE);
  return enqueueCommandBufferFillHelper(
      hCommandBuffer, pPtr, hipMemoryTypeUnified, pPattern, patternSize, size,
      numSyncPointsInWaitList, pSyncPointWaitList, pSyncPoint);
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferEnqueueExp(
    ur_exp_command_buffer_handle_t hCommandBuffer, ur_queue_handle_t hQueue,
    uint32_t numEventsInWaitList, const ur_event_handle_t *phEventWaitList,
    ur_event_handle_t *phEvent) {
  try {
    std::unique_ptr<ur_event_handle_t_> RetImplEvent{nullptr};
    ScopedDevice Active(hQueue->getDevice());
    uint32_t StreamToken;
    ur_stream_guard Guard;
    hipStream_t HIPStream = hQueue->getNextComputeStream(
        numEventsInWaitList, phEventWaitList, Guard, &StreamToken);

    UR_CHECK_ERROR(enqueueEventsWait(hQueue, HIPStream, numEventsInWaitList,
                                     phEventWaitList));

    if (phEvent) {
      RetImplEvent = std::unique_ptr<ur_event_handle_t_>(
          ur_event_handle_t_::makeNative(UR_COMMAND_COMMAND_BUFFER_ENQUEUE_EXP,
                                         hQueue, HIPStream, StreamToken));
      UR_CHECK_ERROR(RetImplEvent->start());
    }

    // Launch graph
    UR_CHECK_ERROR(hipGraphLaunch(hCommandBuffer->HIPGraphExec, HIPStream));

    if (phEvent) {
      UR_CHECK_ERROR(RetImplEvent->record());
      *phEvent = RetImplEvent.release();
    }
  } catch (ur_result_t Err) {
    return Err;
  }

  return UR_RESULT_SUCCESS;
}

/**
 * Validates contents of the update command description.
 * @param[in] Command The command which is being updated.
 * @param[in] UpdateCommandDesc The update command description.
 * @return UR_RESULT_SUCCESS or an error code on failure
 */
ur_result_t
validateCommandDesc(ur_exp_command_buffer_command_handle_t Command,
                    const ur_exp_command_buffer_update_kernel_launch_desc_t
                        *UpdateCommandDesc) {

  auto CommandBuffer = Command->CommandBuffer;

  // Update requires the command-buffer to be finalized and updatable.
  if (!CommandBuffer->HIPGraphExec || !CommandBuffer->IsUpdatable) {
    return UR_RESULT_ERROR_INVALID_OPERATION;
  }

  if (UpdateCommandDesc->newWorkDim != Command->WorkDim &&
      (!UpdateCommandDesc->pNewGlobalWorkOffset ||
       !UpdateCommandDesc->pNewGlobalWorkSize)) {
    return UR_RESULT_ERROR_INVALID_VALUE;
  }

  if (UpdateCommandDesc->hNewKernel &&
      !Command->ValidKernelHandles.count(UpdateCommandDesc->hNewKernel)) {
    return UR_RESULT_ERROR_INVALID_VALUE;
  }

  return UR_RESULT_SUCCESS;
}

/**
 * Updates the arguments of a kernel command.
 * @param[in] Command The command associated with the kernel node being updated.
 * @param[in] UpdateCommandDesc The update command description that contains the
 * new arguments.
 * @return UR_RESULT_SUCCESS or an error code on failure
 */
ur_result_t
updateKernelArguments(ur_exp_command_buffer_command_handle_t Command,
                      const ur_exp_command_buffer_update_kernel_launch_desc_t
                          *UpdateCommandDesc) {

  ur_kernel_handle_t Kernel = Command->Kernel;
  ur_device_handle_t Device = Command->CommandBuffer->Device;

  // Update pointer arguments to the kernel
  uint32_t NumPointerArgs = UpdateCommandDesc->numNewPointerArgs;
  const ur_exp_command_buffer_update_pointer_arg_desc_t *ArgPointerList =
      UpdateCommandDesc->pNewPointerArgList;
  for (uint32_t i = 0; i < NumPointerArgs; i++) {
    const auto &PointerArgDesc = ArgPointerList[i];
    uint32_t ArgIndex = PointerArgDesc.argIndex;
    const void *ArgValue = PointerArgDesc.pNewPointerArg;

    try {
      Kernel->setKernelArg(ArgIndex, sizeof(ArgValue), ArgValue);
    } catch (ur_result_t Err) {
      return Err;
    }
  }

  // Update memobj arguments to the kernel
  uint32_t NumMemobjArgs = UpdateCommandDesc->numNewMemObjArgs;
  const ur_exp_command_buffer_update_memobj_arg_desc_t *ArgMemobjList =
      UpdateCommandDesc->pNewMemObjArgList;
  for (uint32_t i = 0; i < NumMemobjArgs; i++) {
    const auto &MemobjArgDesc = ArgMemobjList[i];
    uint32_t ArgIndex = MemobjArgDesc.argIndex;
    ur_mem_handle_t ArgValue = MemobjArgDesc.hNewMemObjArg;

    try {
      if (ArgValue == nullptr) {
        Kernel->setKernelArg(ArgIndex, 0, nullptr);
      } else {
        void *HIPPtr = std::get<BufferMem>(ArgValue->Mem).getVoid(Device);
        Kernel->setKernelArg(ArgIndex, sizeof(void *), (void *)&HIPPtr);
      }
    } catch (ur_result_t Err) {
      return Err;
    }
  }

  // Update value arguments to the kernel
  uint32_t NumValueArgs = UpdateCommandDesc->numNewValueArgs;
  const ur_exp_command_buffer_update_value_arg_desc_t *ArgValueList =
      UpdateCommandDesc->pNewValueArgList;
  for (uint32_t i = 0; i < NumValueArgs; i++) {
    const auto &ValueArgDesc = ArgValueList[i];
    uint32_t ArgIndex = ValueArgDesc.argIndex;
    size_t ArgSize = ValueArgDesc.argSize;
    const void *ArgValue = ValueArgDesc.pNewValueArg;

    try {
      // Local memory args are passed as value args with nullptr value
      if (ArgValue) {
        Kernel->setKernelArg(ArgIndex, ArgSize, ArgValue);
      } else {
        Kernel->setKernelLocalArg(ArgIndex, ArgSize);
      }
    } catch (ur_result_t Err) {
      return Err;
    }
  }

  return UR_RESULT_SUCCESS;
}

/**
 * Updates the command-buffer command with new values from the update
 * description.
 * @param[in] Command The command to be updated.
 * @param[in] UpdateCommandDesc The update command description.
 * @return UR_RESULT_SUCCESS or an error code on failure
 */
ur_result_t
updateCommand(ur_exp_command_buffer_command_handle_t Command,
              const ur_exp_command_buffer_update_kernel_launch_desc_t
                  *UpdateCommandDesc) {

  if (UpdateCommandDesc->hNewKernel) {
    Command->Kernel = UpdateCommandDesc->hNewKernel;
  }

  if (UpdateCommandDesc->hNewKernel) {
    Command->WorkDim = UpdateCommandDesc->newWorkDim;
  }

  if (UpdateCommandDesc->pNewGlobalWorkOffset) {
    Command->setGlobalOffset(UpdateCommandDesc->pNewGlobalWorkOffset);
  }

  if (UpdateCommandDesc->pNewGlobalWorkSize) {
    Command->setGlobalSize(UpdateCommandDesc->pNewGlobalWorkSize);
    if (!UpdateCommandDesc->pNewLocalWorkSize) {
      Command->setNullLocalSize();
    }
  }

  if (UpdateCommandDesc->pNewLocalWorkSize) {
    Command->setLocalSize(UpdateCommandDesc->pNewLocalWorkSize);
  }

  return UR_RESULT_SUCCESS;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferUpdateKernelLaunchExp(
    ur_exp_command_buffer_command_handle_t hCommand,
    const ur_exp_command_buffer_update_kernel_launch_desc_t
        *pUpdateKernelLaunch) try {

  ur_exp_command_buffer_handle_t CommandBuffer = hCommand->CommandBuffer;

  UR_CHECK_ERROR(validateCommandDesc(hCommand, pUpdateKernelLaunch));
  UR_CHECK_ERROR(updateCommand(hCommand, pUpdateKernelLaunch));
  UR_CHECK_ERROR(updateKernelArguments(hCommand, pUpdateKernelLaunch));

  // If no worksize is provided make sure we pass nullptr to setKernelParams
  // so it can guess the local work size.
  const bool ProvidedLocalSize = !hCommand->isNullLocalSize();
  size_t *LocalWorkSize = ProvidedLocalSize ? hCommand->LocalWorkSize : nullptr;

  // Set the number of threads per block to the number of threads per warp
  // by default unless user has provided a better number
  size_t ThreadsPerBlock[3] = {32u, 1u, 1u};
  size_t BlocksPerGrid[3] = {1u, 1u, 1u};
  hipFunction_t HIPFunc = hCommand->Kernel->get();
  UR_CHECK_ERROR(setKernelParams(
      CommandBuffer->Device, hCommand->WorkDim, hCommand->GlobalWorkOffset,
      hCommand->GlobalWorkSize, LocalWorkSize, hCommand->Kernel, HIPFunc,
      ThreadsPerBlock, BlocksPerGrid));

  hipKernelNodeParams &Params = hCommand->Params;

  Params.func = HIPFunc;
  Params.gridDim.x = BlocksPerGrid[0];
  Params.gridDim.y = BlocksPerGrid[1];
  Params.gridDim.z = BlocksPerGrid[2];
  Params.blockDim.x = ThreadsPerBlock[0];
  Params.blockDim.y = ThreadsPerBlock[1];
  Params.blockDim.z = ThreadsPerBlock[2];
  Params.sharedMemBytes = hCommand->Kernel->getLocalSize();
  Params.kernelParams =
      const_cast<void **>(hCommand->Kernel->getArgPointers().data());

  hipGraphNode_t Node = hCommand->Node;
  hipGraphExec_t HipGraphExec = CommandBuffer->HIPGraphExec;
  UR_CHECK_ERROR(hipGraphExecKernelNodeSetParams(HipGraphExec, Node, &Params));
  return UR_RESULT_SUCCESS;
} catch (ur_result_t Err) {
  return Err;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferUpdateSignalEventExp(
    ur_exp_command_buffer_command_handle_t hCommand,
    ur_event_handle_t *phEvent) {
  std::ignore = hCommand;
  std::ignore = phEvent;
  return UR_RESULT_ERROR_UNSUPPORTED_FEATURE;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferUpdateWaitEventsExp(
    ur_exp_command_buffer_command_handle_t hCommand,
    uint32_t NumEventsInWaitList, const ur_event_handle_t *phEventWaitList) {
  std::ignore = hCommand;
  std::ignore = NumEventsInWaitList;
  std::ignore = phEventWaitList;
  return UR_RESULT_ERROR_UNSUPPORTED_FEATURE;
}

UR_APIEXPORT ur_result_t UR_APICALL urCommandBufferGetInfoExp(
    ur_exp_command_buffer_handle_t hCommandBuffer,
    ur_exp_command_buffer_info_t propName, size_t propSize, void *pPropValue,
    size_t *pPropSizeRet) {
  UrReturnHelper ReturnValue(propSize, pPropValue, pPropSizeRet);

  switch (propName) {
  case UR_EXP_COMMAND_BUFFER_INFO_REFERENCE_COUNT:
    return ReturnValue(hCommandBuffer->getReferenceCount());
  case UR_EXP_COMMAND_BUFFER_INFO_DESCRIPTOR: {
    ur_exp_command_buffer_desc_t Descriptor{};
    Descriptor.stype = UR_STRUCTURE_TYPE_EXP_COMMAND_BUFFER_DESC;
    Descriptor.pNext = nullptr;
    Descriptor.isUpdatable = hCommandBuffer->IsUpdatable;
    Descriptor.isInOrder = false, Descriptor.enableProfiling = false;

    return ReturnValue(Descriptor);
  }
  default:
    assert(!"Command-buffer info request not implemented");
  }

  return UR_RESULT_ERROR_INVALID_ENUMERATION;
}