OpenHarmony-v3.2.1-Release/s

/**
 * Copyright 2020-2021 Huawei Technologies Co., Ltd

 * Licensed under the Apache License, Version 2.0 (the "License");
 * you may not use this file except in compliance with the License.
 * You may obtain a copy of the License at

 * http://www.apache.org/licenses/LICENSE-2.0

 * Unless required by applicable law or agreed to in writing, software
 * distributed under the License is distributed on an "AS IS" BASIS,
 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 * See the License for the specific language governing permissions and
 * limitations under the License.
*/

#include "backend/optimizer/somas/somas.h"
#include <algorithm>
#include <cstdio>
#include <fstream>
#include <iterator>
#include <memory>
#include <numeric>
#include <set>

#include "backend/optimizer/somas/somas_node.h"
#include "backend/optimizer/somas/somas_solver_pre.h"
#include "backend/optimizer/somas/somas_stream.h"
#include "backend/optimizer/somas/somas_tensor.h"
#ifdef ENABLE_D
#include "runtime/device/ascend/ascend_stream_assign.h"
#endif
#include "backend/optimizer/common/helper.h"
#include "utils/ms_context.h"
#include "debug/common.h"
#ifdef ENABLE_DUMP_IR
#include "debug/rdr/running_data_recorder.h"
#endif
#include "common/thread_pool.h"
#ifndef ENABLE_SECURITY
#include "profiler/device/ascend/memory_profiling.h"

using mindspore::profiler::ascend::MemoryProfiling;
using mindspore::profiler::ascend::NodeMemory;
using mindspore::profiler::ascend::TensorMemory;
#endif
namespace mindspore {
namespace somas {
constexpr auto kGapSize = 512;
constexpr auto kRetryIntervalSeconds = 500;
constexpr size_t kRefNodeTensorNum = 2;

constexpr auto kGraphId = "graph_id";
constexpr auto kHashId = "hash_id";
constexpr auto kMemOffset = "mem_offset";
constexpr auto kNodeSize = "node_size";
constexpr auto kTensorSize = "tensor_size";
constexpr auto kContiguousSize = "contiguous_size";
constexpr auto kRefNodeSize = "ref_node_size";
constexpr auto kStreamSize = "stream_size";
constexpr auto kStreamGroupSize = "stream_group_size";
constexpr auto kTensors = "tensors";

constexpr auto kTensorId = "tensor_id";
constexpr auto kSize = "size";
constexpr auto kOriSize = "ori_size";
constexpr auto kLifelongValue = "lifelong_value";
constexpr auto kLifeStart = "life_start";
constexpr auto kLifeEnd = "life_end";
constexpr auto kOffset = "offset";
constexpr auto kCachedResultThreshold = 2000;

std::map<TensorType, std::string> tensor_type_name_map = {{kCommon, "Common"},
                                                          {kOutputOnly, "OutputOnly"},
                                                          {kWorkspace, "Workspace"},
                                                          {kGetNextOutput, "GetNextOutput"},
                                                          {kSummaryInput, "SummaryInput"},
                                                          {kRefNodeInput, "RefNodeInput"},
                                                          {kRefNodeOutput, "RefNodeOutput"},
                                                          {kUnknown, "Unknown"}};

std::map<LifeLongType, std::string> life_long_name_map = {{kLifeLongNone, "LifeLongNone"},
                                                          {kLifeLongGraphAll, "LifeLongGraphAll"},
                                                          {kLifeLongGraphStart, "LifeLongGraphStart"},
                                                          {kLifeLongGraphEnd, "LifeLongGraphEnd"}};

bool Somas::Allocate(const session::KernelGraph *graph) {
  auto ret = InitSomasTensors(graph);
  if (!ret) {
    MS_LOG(EXCEPTION) << "Somas Initialize Failed.";
  }

  if (tensors_list_.empty()) {
    MS_LOG(INFO) << "No Tensor for Somas";
    return true;
  }

  ret = LoadSomasCache(graph);
  if (ret) {
    GenGraphStatisticInfo();
    return ret;
  }

  // Computing Conflict pairs
  MS_LOG(INFO) << "Start Computing Conflict Pairs";
  ComputeConflictPairs();
  MS_LOG(INFO) << "End Computing Conflict Pairs";

  ret = Assign(graph);
  if (!ret) {
    MS_LOG(EXCEPTION) << "Somas Assign Failed.";
  }
  SaveSomasResult(graph);
  GenGraphStatisticInfo();
  return ret;
}

bool Somas::LoadSomasCache(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  if (tensors_list_.size() < kCachedResultThreshold) {
    MS_LOG(DEBUG) << "Tensors size (" << tensors_list_.size() << ") less than " << kCachedResultThreshold
                  << ", no need to load cached";
    return false;
  }

  bool ret = CalcSomasModelHash(graph);
  if (ret) {
    std::string filename = GetSaveGraphsPathName(
      "/somas_meta/somas_graph" + std::to_string(graph->graph_id()) + "_" + hash_id_ + ".json", save_graphs_path_);
    ret = LoadSomasResult(graph, filename);
    if (ret) {
      MS_LOG(INFO) << "Load Somas Cache file " << filename << " Successfully.";
    }
  } else {
    MS_LOG(ERROR) << "Calculate somas's model hash id failed.";
  }
  return ret;
}

bool Somas::CalcSomasModelHash(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  auto model_str = SomasInfo(true);
  hash_id_ = std::to_string(std::hash<std::string>()(model_str));
  MS_LOG(INFO) << "Graph " << graph->graph_id() << "'s SOMAS Model hash id is " << hash_id_;
  std::string filename = GetSaveGraphsPathName(
    "/somas_meta/somas_graph" + std::to_string(graph->graph_id()) + "_" + hash_id_ + ".info", save_graphs_path_);
  return Common::SaveStringToFile(filename, model_str);
}

bool Somas::SaveSomasResult(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  if (tensors_list_.size() < kCachedResultThreshold) {
    MS_LOG(DEBUG) << "Tensors size (" << tensors_list_.size() << ") less than " << kCachedResultThreshold
                  << ", no need to save result";
    return false;
  }
  nlohmann::json somas_json;
  somas_json[kGraphId] = graph->graph_id();
  somas_json[kHashId] = hash_id_;
  somas_json[kMemOffset] = mem_offset_;
  somas_json[kNodeSize] = nodes_list_.size();
  somas_json[kTensorSize] = tensors_list_.size();
  somas_json[kContiguousSize] = contiguous_tensors_list_.size();
  somas_json[kRefNodeSize] = ref_node_constraints_.size();
  somas_json[kStreamSize] = streams_list_.size();
  somas_json[kStreamGroupSize] = streams_groups_.size();
  std::vector<nlohmann::json> tensors_json;
  for (auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    nlohmann::json tensor_json;
    tensor_json[kTensorId] = tensor->GetId();
    tensor_json[kSize] = tensor->GetAlignedSize();
    tensor_json[kOriSize] = tensor->GetOriginalSize();
    tensor_json[kLifelongValue] = tensor->lifelong_value_;
    tensor_json[kLifeStart] = tensor->lifetime_.start_;
    tensor_json[kLifeEnd] = tensor->lifetime_.end_;
    tensor_json[kOffset] = tensor->GetOffset();
    tensors_json.emplace_back(tensor_json);
  }
  somas_json[kTensors] = tensors_json;

  std::string filename = GetSaveGraphsPathName(
    "/somas_meta/somas_graph" + std::to_string(graph->graph_id()) + "_" + hash_id_ + ".json", save_graphs_path_);
  (void)Common::SaveStringToFile(filename, somas_json.dump());
  return true;
}

bool Somas::LoadSomasResult(const session::KernelGraph *graph, const string &filename) {
  if (filename.length() <= strlen(".json")) {
    MS_LOG(WARNING) << "please check somas cache file path.";
    return false;
  }
  std::ifstream somas_json_fs(filename);
  if (!somas_json_fs.is_open()) {
    MS_LOG(INFO) << "Open json file: " << filename << " error, Somas Cache Missed.";
    return false;
  }
  nlohmann::json somas_json;
  try {
    somas_json_fs >> somas_json;
    somas_json_fs.close();
  } catch (std::exception &e) {
    MS_LOG(WARNING) << "Parse json file error: " << filename << ", sleep 500ms and retry again.";
    somas_json_fs.close();
    std::this_thread::sleep_for(std::chrono::milliseconds(kRetryIntervalSeconds));
    std::ifstream retry_tmp(filename);
    if (!retry_tmp.is_open()) {
      MS_LOG(INFO) << "Open json file: " << filename << " error, please check kernel_meta.";
      return false;
    }
    retry_tmp >> somas_json;
    retry_tmp.close();
  }

  auto ret = VerifySomasResult(graph, somas_json);
  if (!ret) {
    MS_LOG(WARNING) << "Verify Somas Result Failed.";
    return false;
  }
  auto mem_offset = somas_json[kMemOffset];
  mem_offset_ = mem_offset;
  ret = UpdateTensorsOffset(somas_json[kTensors]);
  return ret;
}

bool Somas::VerifySomasResult(const session::KernelGraph *graph, const nlohmann::json &somas_json) const {
  MS_EXCEPTION_IF_NULL(graph);
  auto graph_id = somas_json[kGraphId];
  auto hash_id = somas_json[kHashId];
  auto node_size = somas_json[kNodeSize];
  auto tensor_size = somas_json[kTensorSize];
  auto contiguous_size = somas_json[kContiguousSize];
  auto ref_node_size = somas_json[kRefNodeSize];
  auto stream_size = somas_json[kStreamSize];
  auto stream_group_size = somas_json[kStreamGroupSize];

  if (graph_id != graph->graph_id()) {
    MS_LOG(WARNING) << "Mismatch graph id " << graph_id << " vs " << graph->graph_id();
    return false;
  }

  if (hash_id != hash_id_) {
    MS_LOG(WARNING) << "Mismatch hash id " << hash_id << " vs " << hash_id_;
    return false;
  }

  if (node_size != nodes_list_.size()) {
    MS_LOG(WARNING) << "Mismatch node size " << node_size << " vs " << nodes_list_.size();
    return false;
  }

  if (tensor_size != tensors_list_.size()) {
    MS_LOG(WARNING) << "Mismatch tensor size " << tensor_size << " vs " << tensors_list_.size();
    return false;
  }

  if (contiguous_size != contiguous_tensors_list_.size()) {
    MS_LOG(WARNING) << "Mismatch contiguous size " << contiguous_size << " vs " << contiguous_tensors_list_.size();
    return false;
  }

  if (ref_node_size != ref_node_constraints_.size()) {
    MS_LOG(WARNING) << "Mismatch ref node size " << ref_node_size << " vs " << ref_node_constraints_.size();
    return false;
  }

  if (stream_size != streams_list_.size()) {
    MS_LOG(WARNING) << "Mismatch stream size " << stream_size << " vs " << streams_list_.size();
    return false;
  }

  if (stream_group_size != streams_groups_.size()) {
    MS_LOG(WARNING) << "Mismatch stream group size " << stream_group_size << " vs " << streams_groups_.size();
    return false;
  }

  return true;
}

bool Somas::UpdateTensorsOffset(const std::vector<nlohmann::json> &tensors_json) {
  bool ret = true;
  for (auto &tensor_json : tensors_json) {
    auto tensor_id = tensor_json[kTensorId];
    auto size = tensor_json[kSize];
    auto ori_size = tensor_json[kOriSize];
    auto lifelong_value = tensor_json[kLifelongValue];
    auto life_start = tensor_json[kLifeStart];
    auto life_end = tensor_json[kLifeEnd];
    auto offset = tensor_json[kOffset];
    auto iter = tensors_map_.find(tensor_id);
    if (iter != tensors_map_.end()) {
      MS_EXCEPTION_IF_NULL(iter->second);
      if (size != iter->second->aligned_size_) {
        MS_LOG(WARNING) << "Mismatch size of tensor " << tensor_id << " " << size << " vs "
                        << iter->second->aligned_size_;
        ret = false;
        break;
      }

      if (ori_size != iter->second->GetOriginalSize()) {
        MS_LOG(WARNING) << "Mismatch original size of tensor " << tensor_id << " " << ori_size << " vs "
                        << iter->second->GetOriginalSize();
        ret = false;
        break;
      }

      if (lifelong_value != iter->second->lifelong_value_) {
        MS_LOG(WARNING) << "Mismatch lifelong value of tensor " << tensor_id << " " << lifelong_value << " vs "
                        << iter->second->lifelong_value_;
        ret = false;
        break;
      }

      if (life_start != iter->second->lifetime_.start_) {
        MS_LOG(WARNING) << "Mismatch life start of tensor " << tensor_id << " " << life_start << " vs "
                        << iter->second->lifetime_.start_;
        ret = false;
        break;
      }

      if (life_end != iter->second->lifetime_.end_) {
        MS_LOG(WARNING) << "Mismatch life start of tensor " << tensor_id << " " << life_end << " vs "
                        << iter->second->lifetime_.end_;
        ret = false;
        break;
      }

      // verify pass, update memory offset
      iter->second->offset_ = offset;
    } else {
      MS_LOG(WARNING) << "Can't find tensor " << tensor_id;
      ret = false;
      break;
    }
  }
  return ret;
}

bool Somas::InitSomasTensors(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  InitBasicInfo(graph);
  IndependentNodeOutputProcess(graph);
#ifndef ENABLE_SECURITY
  SummaryInputProcess(graph);
#endif
  RefNodeProcess(graph);
  NonTaskSplitProcess(graph);
  UnReuseNodeProcess(graph);
  GenContiguousList(graph);
  GetNextOutputProcess(graph);

  if (tensors_list_.empty()) {
    MS_LOG(INFO) << "No Tensor from graph " << graph->graph_id();
    return true;
  }

  MS_LOG(INFO) << "Created " << streams_list_.size() << " streams (" << streams_groups_.size() << " groups), "
               << nodes_list_.size() << " nodes, " << tensors_list_.size() << " tensors, and "
               << contiguous_tensors_list_.size() << " contiguous lists";

#ifdef ENABLE_DUMP_IR
  SubModuleId module = SubModuleId::SM_OPTIMIZER;
  std::string name = "somas_pre_processed_info." + std::to_string(graph->graph_id());
  (void)mindspore::RDR::RecordString(module, name, SomasInfo());
  name = "somas_offline_log." + std::to_string(graph->graph_id());
  (void)mindspore::RDR::RecordString(module, name, Offline());
#endif

  if (save_graphs_) {
    std::string file_path = GetSaveGraphsPathName(
      "/somas_pre_processed_info_" + std::to_string(graph->graph_id()) + ".ir", save_graphs_path_);
    DumpSomasInfoIR(file_path);

    std::string offline_file_path =
      GetSaveGraphsPathName("/somas_offline_log_" + std::to_string(graph->graph_id()) + ".ir", save_graphs_path_);
    DumpOfflineIR(offline_file_path);
  }

  return true;
}

void Somas::InitSomasStreamAndNode(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  std::vector<CNodePtr> kernel_cnodes;
  streams_list_ = {};
  nodes_list_ = {};
  size_t node_index = 0;
  if (graph->subgraph_multi_call()) {
    kernel_cnodes = graph->mem_reuse_exec_order();
  } else {
    kernel_cnodes = graph->execution_order();
  }
  for (size_t i = 0; i < kernel_cnodes.size(); i++) {
    auto kernel = kernel_cnodes[i];
    MS_EXCEPTION_IF_NULL(kernel);
    SomasStreamPtr stream;
    auto stream_id = AnfAlgo::GetStreamId(kernel);
    auto it = find_if(streams_list_.begin(), streams_list_.end(),
                      [stream_id](const SomasStreamPtr &s) { return s->GetId() == stream_id; });
    if (it == streams_list_.end()) {
      stream = std::make_shared<SomasStream>(stream_id);
      streams_list_.push_back(stream);
    } else {
      stream = *it;
    }

    // Node
    NodeType type = kCommonNode;
    if (AnfAlgo::IsCommunicationOp(kernel)) {
      type = kCommunicationNode;
    }
    auto node = std::make_shared<SomasNode>(node_index, type, stream);
    MS_EXCEPTION_IF_NULL(node);
    node->scope_full_name_ = kernel->fullname_with_scope();
    nodes_list_.push_back(node);
    stream->nodes_.push_back(node);
    auto key = kernel.get();
    auto &nodes = nodes_map_[key];
    nodes.push_back(node);
    node_index++;
  }
}

void Somas::InitSomasOutputAndWorkspaceTensors(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  tensors_list_ = {};
  size_t tensor_index = 0;
  auto kernel_cnodes = graph->execution_order();
  for (const auto &kernel : kernel_cnodes) {
    auto nodes = nodes_map_[kernel.get()];
    auto node = nodes[0];
    MS_EXCEPTION_IF_NULL(node);
    auto stream = node->GetStream();
    MS_EXCEPTION_IF_NULL(stream);

    // Output Tensor
    auto kernel_mod = AnfAlgo::GetKernelMod(kernel);
    MS_EXCEPTION_IF_NULL(kernel_mod);
    auto output_sizes = kernel_mod->GetOutputSizeList();
    auto index = 0;
    for (const auto &size : output_sizes) {
      auto output_tensor_index = tensor_index;
      tensor_index++;
      // Set all output tensor lifelong to true.
      auto tensor = std::make_shared<SomasTensor>(output_tensor_index, node, stream, size, kLifeLongNone);
      MS_EXCEPTION_IF_NULL(tensor);
      tensor->lifetime_.start_ = node->GetId();
      tensor->lifetime_.end_ = (nodes.size() > 1) ? nodes.back()->GetId() : node->GetId();
      tensor->type_ = kOutputOnly;
      if (AnfAlgo::OutputAddrExist(kernel, IntToSize(index))) {
        tensor->aligned_size_ = 0;
      }

      tensors_list_.push_back(tensor);
      tensors_map_[output_tensor_index] = tensor;
      stream->tensors_.push_back(tensor);
      std::for_each(nodes.begin(), nodes.end(), [tensor](auto &node) {
        MS_EXCEPTION_IF_NULL(node);
        node->tensors_.insert(tensor);
        node->output_tensors_.push_back(tensor);
      });
      index++;
    }

    // WorkSpace Tensor
    auto workspace_sizes = kernel_mod->GetWorkspaceSizeList();
    index = 0;
    for (const auto &size : workspace_sizes) {
      auto workspace_tensor_index = tensor_index;
      tensor_index++;
      SomasTensorPtr tensor = std::make_shared<SomasTensor>(workspace_tensor_index, node, stream, size, kLifeLongNone);
      MS_EXCEPTION_IF_NULL(tensor);
      tensor->type_ = kWorkspace;
      tensor->lifetime_.start_ = node->GetId();
      tensor->lifetime_.end_ = (nodes.size() > 1) ? nodes.back()->GetId() : node->GetId();
      if (AnfAlgo::WorkspaceAddrExist(kernel, IntToSize(index))) {
        tensor->aligned_size_ = 0;
      }
      tensors_list_.push_back(tensor);
      tensors_map_[workspace_tensor_index] = tensor;
      stream->tensors_.push_back(tensor);
      std::for_each(nodes.begin(), nodes.end(), [tensor](auto &node) {
        MS_EXCEPTION_IF_NULL(node);
        node->tensors_.insert(tensor);
        node->workspace_tensors_.push_back(tensor);
      });
      index++;
    }
  }
}

void Somas::InitSomasInputTensors(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  bool is_all_nop_node = opt::IsAllNopNode(graph);
  static const auto enable_fusion_clear = (common::GetEnv("ENV_FUSION_CLEAR") == "1");
  auto kernel_cnodes = graph->execution_order();
  for (const auto &kernel : kernel_cnodes) {
    if (AnfAlgo::GetCNodeName(kernel) != kAtomicAddrCleanOpName) {
      InitCommonNodeInputs(is_all_nop_node, kernel);
    } else {
      InitAtomicCleanInputs(enable_fusion_clear, kernel);
    }
  }
}

void Somas::InitCommonNodeInputs(bool is_all_nop_node, const CNodePtr &kernel) {
  auto nodes = nodes_map_[kernel.get()];
  auto node = nodes[0];
  MS_EXCEPTION_IF_NULL(node);
  auto stream = node->GetStream();
  MS_EXCEPTION_IF_NULL(stream);

  // Input Tensor
  auto input_tensor_num = AnfAlgo::GetInputTensorNum(kernel);
  size_t real_input_index = 0;
  for (size_t i = 0; i < input_tensor_num; i++) {
    auto input_node = kernel->input(i + 1);
    MS_EXCEPTION_IF_NULL(input_node);
    session::KernelWithIndex prenode_index;
    if (is_all_nop_node) {
      prenode_index = AnfAlgo::VisitKernelWithReturnType(input_node, 0, false);
    } else {
      prenode_index = AnfAlgo::VisitKernelWithReturnType(input_node, 0, true);
    }
    if (AnfAlgo::CheckPrimitiveType(prenode_index.first, prim::kPrimMakeTuple)) {
      MS_LOG(EXCEPTION) << "Input node [" << input_node->DebugString() << "]'s input " << i << " is MakeTuple";
    }
    MS_EXCEPTION_IF_NULL(prenode_index.first);
    if (!AnfAlgo::IsRealCNodeKernel(prenode_index.first)) {
      auto op_name = AnfAlgo::GetCNodeName(kernel);
      TypeId input_origin_type = AnfAlgo::GetPrevNodeOutputInferDataType(kernel, i);
      if ((op_name == kDynamicRNNOpName || op_name == kDynamicGRUV2OpName) && input_origin_type == kMetaTypeNone) {
        continue;
      }
      auto parameter = GetSomasParameter(prenode_index.first, prenode_index.second);
      node->input_parameters_map_[real_input_index] = parameter;
      real_input_index++;
      MS_LOG(DEBUG) << "Input  [" << prenode_index.first->fullname_with_scope() << "] is not a real cnode kernel.";
      continue;
    }

    auto iter = nodes_map_.find(prenode_index.first.get());
    if (iter == nodes_map_.end()) {
      MS_LOG(EXCEPTION) << "Kernel[" << kernel->fullname_with_scope() << "]'s input " << i << " ["
                        << prenode_index.first->fullname_with_scope() << "] is not init.";
    }
    auto pre_somas_node = iter->second.at(0);
    if (prenode_index.second > pre_somas_node->output_tensors_.size()) {
      MS_LOG(EXCEPTION) << "Output index " << prenode_index.second << " exceed input node ["
                        << prenode_index.first->fullname_with_scope() << "]'s outputs size "
                        << pre_somas_node->output_tensors_.size();
    }
    auto input_somas_tensor = pre_somas_node->output_tensors_[prenode_index.second];
    MS_EXCEPTION_IF_NULL(input_somas_tensor);
    std::for_each(nodes.begin(), nodes.end(),
                  [input_somas_tensor](auto &node) { node->input_tensors_.push_back(input_somas_tensor); });
    real_input_index++;
    if (input_somas_tensor->type_ == kOutputOnly) {
      input_somas_tensor->type_ = kCommon;
    }
    input_somas_tensor->destinationStreams_.insert(stream);
    for (auto &repeat_node : nodes) {
      input_somas_tensor->destinations_.insert(repeat_node);
      if (input_somas_tensor->lifetime_.end_ < repeat_node->GetId()) {
        input_somas_tensor->lifetime_.end_ = repeat_node->GetId();
      }
    }

    if (node != pre_somas_node) {
      node->ancestor_nodes_.insert(pre_somas_node);
    }
    auto input_tensor_stream = input_somas_tensor->GetSourceStream();
    if (input_tensor_stream != stream) {
      stream->ancestor_streams_.insert(input_tensor_stream);
      input_somas_tensor->between_streams_ = true;
    }
  }
}

void Somas::InitAtomicCleanInputs(bool enable_fusion_clear, const CNodePtr &kernel) {
  auto node = nodes_map_[kernel.get()].at(0);
  MS_EXCEPTION_IF_NULL(node);
  auto stream = node->GetStream();
  MS_EXCEPTION_IF_NULL(stream);

  auto input_tensor_num = AnfAlgo::GetInputTensorNum(kernel);
  for (size_t i = 0; i < input_tensor_num; i++) {
    MS_EXCEPTION_IF_NULL(kernel->inputs()[i + 1]);
    auto pre_node = kernel->input(i + 1)->cast<CNodePtr>();
    auto iter = nodes_map_.find(pre_node.get());
    if (iter == nodes_map_.end()) {
      MS_LOG(EXCEPTION) << "Kernel[" << kernel->fullname_with_scope() << "]'s input ["
                        << pre_node->fullname_with_scope() << "] is not init.";
    }
    auto pre_somas_node = iter->second.at(0);
    MS_EXCEPTION_IF_NULL(pre_somas_node);
    // set clean output tensors
    if (AnfAlgo::HasNodeAttr(kAttrAtomicOutputIndexs, pre_node)) {
      auto clean_output_indexs = AnfAlgo::GetNodeAttr<std::vector<size_t>>(pre_node, kAttrAtomicOutputIndexs);
      for (auto index : clean_output_indexs) {
        if (index > pre_somas_node->output_tensors_.size()) {
          MS_LOG(EXCEPTION) << "Output index " << index << " exceed input node [" << pre_node->fullname_with_scope()
                            << "]'s outputs size " << pre_somas_node->output_tensors_.size();
        }
        auto input_somas_tensor = pre_somas_node->output_tensors_[index];
        MS_EXCEPTION_IF_NULL(input_somas_tensor);
        node->input_tensors_.push_back(input_somas_tensor);
        if (enable_fusion_clear) {
          input_somas_tensor->lifelong_value_ = kLifeLongGraphAll;
          MS_LOG(INFO) << "Set " << node->scope_full_name_ << "'s Input node " << pre_somas_node->scope_full_name_
                       << " 's output" << index << " to lifelong";
        }
      }
    }
    // set clean workspace tensors
    if (AnfAlgo::HasNodeAttr(kAttrAtomicWorkspaceIndexs, pre_node)) {
      auto clean_workspace_indexs = AnfAlgo::GetNodeAttr<std::vector<size_t>>(pre_node, kAttrAtomicWorkspaceIndexs);
      for (const auto &index : clean_workspace_indexs) {
        if (index > pre_somas_node->output_tensors_.size()) {
          MS_LOG(EXCEPTION) << "Workspace index " << index << " exceed input node [" << pre_node->fullname_with_scope()
                            << "]'s Workspace size " << pre_somas_node->workspace_tensors_.size();
        }
        auto input_somas_tensor = pre_somas_node->workspace_tensors_[index];
        MS_EXCEPTION_IF_NULL(input_somas_tensor);
        node->input_tensors_.push_back(input_somas_tensor);
        if (enable_fusion_clear) {
          input_somas_tensor->lifelong_value_ = kLifeLongGraphAll;
          MS_LOG(INFO) << "Set " << node->scope_full_name_ << "'s Input node " << pre_somas_node->scope_full_name_
                       << " 's workspace" << index << " to lifelong";
        }
      }
    }
  }
}

SomasParameterPtr Somas::CreateSomasParameter(const AnfNodePtr &node, size_t index) {
  MS_EXCEPTION_IF_NULL(node);
  auto id = parameters_list_.size();
  auto device_addr = AnfAlgo::GetOutputAddr(node, index);
  if (device_addr == nullptr) {
    MS_LOG(EXCEPTION) << "Node " << node->fullname_with_scope() << " has no device address before Somas.";
  }
  auto param = std::make_shared<SomasParameter>(id, node->fullname_with_scope(), index, device_addr->GetPtr(),
                                                device_addr->GetSize());
  parameters_list_.push_back(param);
  return param;
}

SomasParameterPtr Somas::GetSomasParameter(const AnfNodePtr &node, size_t index) {
  auto key = node.get();
  auto iter = parameters_map_.find(key);
  if (iter != parameters_map_.end()) {
    auto it = std::find_if(iter->second.begin(), iter->second.end(),
                           [index](const SomasParameterPtr &param) -> bool { return index == param->output_index_; });
    if (it != iter->second.end()) {
      return *it;
    } else {
      auto new_param = CreateSomasParameter(node, index);
      iter->second.push_back(new_param);
      return new_param;
    }
  } else {
    auto param = CreateSomasParameter(node, index);
    parameters_map_[key].push_back(param);
    return param;
  }
}

void Somas::InitBasicInfo(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
#ifdef ENABLE_D
  streams_groups_ = device::ascend::AscendStreamAssign::GetInstance().get_stream_group();
#endif
  InitSomasStreamAndNode(graph);
  InitSomasOutputAndWorkspaceTensors(graph);
  InitSomasInputTensors(graph);

  auto context_ptr = MsContext::GetInstance();
  MS_EXCEPTION_IF_NULL(context_ptr);

#ifdef ENABLE_DUMP_IR
  SubModuleId module = SubModuleId::SM_OPTIMIZER;
  std::string name = "somas_initial_info." + std::to_string(graph->graph_id());
  (void)mindspore::RDR::RecordString(module, name, SomasInfo());
#endif

  save_graphs_ = context_ptr->get_param<bool>(MS_CTX_SAVE_GRAPHS_FLAG);
  save_graphs_path_ = context_ptr->get_param<std::string>(MS_CTX_SAVE_GRAPHS_PATH);
  if (save_graphs_path_.empty()) {
    save_graphs_path_ = ".";
  }
  if (save_graphs_) {
    std::string file_path =
      GetSaveGraphsPathName("/somas_initial_info_" + std::to_string(graph->graph_id()) + ".ir", save_graphs_path_);
    DumpSomasInfoIR(file_path);
  }
}

void Somas::GetNextOutputProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  auto kernel_cnodes = graph->execution_order();
  size_t total_size = 0;
  for (const auto &kernel : kernel_cnodes) {
    if (AnfAlgo::GetCNodeName(kernel) != kGetNextOpName) {
      continue;
    }
    auto iter = nodes_map_.find(kernel.get());
    if (iter != nodes_map_.end()) {
      auto &node = iter->second.at(0);
      MS_EXCEPTION_IF_NULL(node);
      auto getnext_output_tensors = node->output_tensors_;
      for (auto &tensor : getnext_output_tensors) {
        MS_EXCEPTION_IF_NULL(tensor);
        total_size += tensor->GetAlignedSize();
        tensor->lifelong_value_ = kLifeLongGraphAll;
        tensor->type_ = kGetNextOutput;
      }
    }
  }
  MS_LOG(INFO) << "Special Tensor total size: GetNext Output " << total_size;
}

void Somas::IndependentNodeOutputProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  auto kernel_cnodes = graph->execution_order();
  size_t total_size = 0;
  for (const auto &kernel : kernel_cnodes) {
    bool independent = AnfAlgo::IsIndependentNode(kernel);
    if (!independent) {
      continue;
    }
    auto iter = nodes_map_.find(kernel.get());
    if (iter != nodes_map_.end()) {
      auto &node = iter->second.at(0);
      MS_EXCEPTION_IF_NULL(node);
      auto semi_reuse_output_tensors = node->output_tensors_;
      for (auto &tensor : semi_reuse_output_tensors) {
        MS_EXCEPTION_IF_NULL(tensor);
        total_size += tensor->GetAlignedSize();
        tensor->lifelong_value_ = kLifeLongGraphAll;
      }
    }
  }

  MS_LOG(INFO) << "Special Tensor total size: Independent Node output " << total_size;
}

#ifndef ENABLE_SECURITY
void Somas::SummaryInputProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  bool summary_exist = graph->summary_node_exist();
  if (!summary_exist) {
    return;
  }

  auto summary_nodes = graph->summary_nodes();
  if (summary_nodes.empty()) {
    return;
  }

  size_t total_summary_size = 0;
  for (auto &node_item : summary_nodes) {
    auto node = node_item.second.first;
    size_t index = IntToSize(node_item.second.second);
    auto iter = nodes_map_.find(node.get());
    if (iter != nodes_map_.end()) {
      auto input_node = iter->second.at(0);
      MS_EXCEPTION_IF_NULL(input_node);
      if (index < input_node->output_tensors_.size()) {
        auto tensor = input_node->output_tensors_[index];
        MS_EXCEPTION_IF_NULL(tensor);
        tensor->lifelong_value_ = kLifeLongGraphAll;
        tensor->type_ = kSummaryInput;
        total_summary_size += tensor->GetAlignedSize();
        MS_LOG(INFO) << "Set summary node input tensor's lifelong, node: " << node->fullname_with_scope()
                     << " index: " << index;
      } else {
        MS_LOG(WARNING) << "Index exceed size, node " << node->fullname_with_scope() << " index: " << index
                        << " size: " << input_node->output_tensors_.size();
      }
    } else {
      MS_LOG(WARNING) << "Can't find summary input node " << node->fullname_with_scope() << " index: " << index;
    }
  }

  MS_LOG(INFO) << "Special Tensor total size: SummaryNodes: " << total_summary_size;
}
#endif

void Somas::RefNodeProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  auto kernel_cnodes = graph->execution_order();
  size_t total_output_size = 0;
  size_t total_input_size = 0;
  for (const auto &kernel : kernel_cnodes) {
    auto kernel_mod = AnfAlgo::GetKernelMod(kernel);
    if (kernel_mod == nullptr) {
      MS_LOG(WARNING) << "Kernel mode is NULL Of " << kernel->fullname_with_scope();
      continue;
    }
    auto output_sizes = kernel_mod->GetOutputSizeList();
    size_t output_index = 0;
    for (const auto &size : output_sizes) {
      auto out_index = output_index;
      output_index++;
      session::AnfWithOutIndex out_pair(kernel, out_index);
      if (graph->IsInRefOutputMap(out_pair)) {
        auto origin_pair = graph->GetRefCorrespondOutput(out_pair);
        MS_EXCEPTION_IF_NULL(origin_pair.first);
        auto &node = nodes_map_[kernel.get()].at(0);
        MS_EXCEPTION_IF_NULL(node);
        auto output_tensor = node->output_tensors_[out_index];
        MS_EXCEPTION_IF_NULL(output_tensor);
        output_tensor->type_ = kRefNodeOutput;
        total_output_size += size;

        if (AnfAlgo::IsRealCNodeKernel(origin_pair.first)) {
          auto ori_node = origin_pair.first->cast<CNodePtr>();
          auto ori_index = origin_pair.second;
          if (nodes_map_.find(ori_node.get()) == nodes_map_.end()) {
            MS_LOG(EXCEPTION)
              << "The ori_node is not included in nodes_map_ constructed from exec_order of graph. Info ori_node: "
              << ori_node->DebugString();
          }
          auto &repeat_node = nodes_map_[ori_node.get()].at(0);
          MS_EXCEPTION_IF_NULL(repeat_node);
          auto input_tensor = repeat_node->output_tensors_[ori_index];
          MS_EXCEPTION_IF_NULL(input_tensor);
          input_tensor->type_ = kRefNodeInput;
          total_input_size += input_tensor->aligned_size_;
          std::vector<size_t> refnode_input_output;
          refnode_input_output.push_back(input_tensor->GetId());
          refnode_input_output.push_back(output_tensor->GetId());
          ref_node_constraints_.push_back(refnode_input_output);
          MS_LOG(INFO) << "RefNode: input " << input_tensor->GetId() << " output " << output_tensor->GetId();
        }
      }
    }
  }

  MS_LOG(INFO) << "Special Tensor total size: RefNode: input " << total_input_size << " output " << total_output_size;
}

void Somas::NonTaskSplitProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  auto kernel_cnodes = graph->execution_order();
  for (const auto &kernel : kernel_cnodes) {
    auto op_name = AnfAlgo::GetCNodeName(kernel);
    if ((op_name == kSplitOpName || op_name == kSplitVOpName) && AnfAlgo::HasNodeAttr(kAttrNonTask, kernel)) {
      std::vector<size_t> refnode_input_output;
      auto node = nodes_map_[kernel.get()].at(0);
      MS_EXCEPTION_IF_NULL(node);
      if (node->input_tensors_.size() == 0) {
        MS_LOG(EXCEPTION) << op_name << " has no input tensor, can not do split non_task process.";
      }
      auto input_tensor = node->input_tensors_[0];
      MS_EXCEPTION_IF_NULL(input_tensor);
      input_tensor->type_ = kRefNodeInput;
      refnode_input_output.push_back(input_tensor->GetId());

      for (auto &output_tensor : node->output_tensors_) {
        MS_EXCEPTION_IF_NULL(output_tensor);
        output_tensor->type_ = kRefNodeOutput;
        refnode_input_output.push_back(output_tensor->GetId());
      }
      ref_node_constraints_.push_back(refnode_input_output);
    }
  }
}

void Somas::UnReuseNodeProcess(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  vector<string> full_name_list = {};
  if (full_name_list.size() == 0) {
    return;
  }

  auto kernel_cnodes = graph->execution_order();
  for (const auto &kernel : kernel_cnodes) {
    MS_EXCEPTION_IF_NULL(kernel);
    auto full_name = kernel->fullname_with_scope();
    auto iter = std::find(full_name_list.begin(), full_name_list.end(), full_name);
    if (iter != full_name_list.end()) {
      MS_LOG(INFO) << "Set UnReuse Node in somas, Node:" << full_name;
      auto key = kernel.get();
      auto somas_node = nodes_map_[key].at(0);
      MS_EXCEPTION_IF_NULL(somas_node);
      // input
      auto inputs = somas_node->input_tensors_;
      for (auto &input : inputs) {
        MS_EXCEPTION_IF_NULL(input);
        input->lifelong_value_ = kLifeLongGraphAll;
      }

      // output
      auto outputs = somas_node->output_tensors_;
      MS_LOG(INFO) << "Output size of " << kernel->fullname_with_scope() << " is  " << outputs.size();
      for (auto &output : outputs) {
        MS_EXCEPTION_IF_NULL(output);
        output->lifelong_value_ = kLifeLongGraphAll;
      }

      // workspace
      auto workspaces = somas_node->workspace_tensors_;
      for (auto &workspace : workspaces) {
        MS_EXCEPTION_IF_NULL(workspace);
        workspace->lifelong_value_ = kLifeLongGraphAll;
      }
    }
  }
}

void Somas::GenContiguousList(const session::KernelGraph *graph) {
  MS_EXCEPTION_IF_NULL(graph);
  for (const auto &node : nodes_list_) {
    MS_EXCEPTION_IF_NULL(node);
    if (node->GetType() != kCommunicationNode) {
      continue;
    }

    // Contiguous input
    if ((!node->input_tensors_.empty()) && (!node->input_tensors_[0]->contiguous_)) {
      if (node->input_tensors_[0]->aligned_size_) {
        node->input_tensors_[0]->aligned_size_ += kGapSize;
      }
      if (node->input_tensors_[node->input_tensors_.size() - 1]->aligned_size_) {
        node->input_tensors_[node->input_tensors_.size() - 1]->aligned_size_ += kGapSize;
      }
      std::vector<size_t> inputs;
      for (const auto &input_tensor : node->input_tensors_) {
        MS_EXCEPTION_IF_NULL(input_tensor);
        comm_input_total_size_ += input_tensor->aligned_size_;
        input_tensor->contiguous_ = true;
        inputs.push_back(input_tensor->GetId());
      }
      contiguous_tensors_list_.push_back(inputs);
    }

    // Contiguous output
    if ((!node->output_tensors_.empty()) && (!node->output_tensors_[0]->contiguous_)) {
      if (node->output_tensors_[0]->aligned_size_) {
        node->output_tensors_[0]->aligned_size_ += kGapSize;
      }
      if (node->output_tensors_[node->output_tensors_.size() - 1]->aligned_size_) {
        node->output_tensors_[node->output_tensors_.size() - 1]->aligned_size_ += kGapSize;
      }
      std::vector<size_t> outputs;
      for (const auto &output_tensor : node->output_tensors_) {
        MS_EXCEPTION_IF_NULL(output_tensor);
        comm_output_total_size_ += output_tensor->aligned_size_;
        output_tensor->contiguous_ = true;
        outputs.push_back(output_tensor->GetId());
      }
      contiguous_tensors_list_.push_back(outputs);
    }
  }
}

void Somas::ComputeConflictPairs() {
  if (tensors_list_.empty()) {
    MS_LOG(INFO) << "No Tensor for Conflict computing";
    return;
  }

  MS_LOG(INFO) << "Start Conflict Computing (Bitset Model)";
  auto start_conflict = std::chrono::system_clock::now();
  std::sort(nodes_list_.begin(), nodes_list_.end(), NodeSort);
  UpdateTensorDestinations();

  MS_LOG(INFO) << "Start Bitset";
  std::vector<DynamicBitSet> nodes_dependency;

  size_t count = nodes_list_.back()->GetId() + 1;
  for (size_t i = 0; i < count; i++) {
    nodes_dependency.emplace_back(count);
  }

  MS_LOG(INFO) << "Start Path Computing";
  // Loop to compute ancestor paths via bitset for time dependence
  for (const auto &node : nodes_list_) {
    for (const auto &ancestor : node->ancestor_nodes_) {
      nodes_dependency[node->GetId()].SetBitTrue(ancestor->GetId());
      Union(&nodes_dependency[node->GetId()], &nodes_dependency[ancestor->GetId()]);
    }
  }
  MS_LOG(INFO) << "End Path Computing";

  MS_LOG(INFO) << "Start Tensor Relation Computing";
  count = tensors_list_.back()->GetId() + 1;
  for (size_t i = 0; i < count; i++) {
    reuse_matrix_.emplace_back(count);
  }

  if (tensors_list_.size() < kParallelComputeSizeThreshold) {
    ComputeMultiTensorConflicts(tensors_list_, tensors_list_, nodes_dependency, &reuse_matrix_);
  } else {
    MS_LOG(INFO) << "Tensor Num " << tensors_list_.size() << " is larger than " << kParallelComputeSizeThreshold;
    MS_LOG(INFO) << "Enter Multi-Thread Mode...";
    size_t process_num = common::ThreadPool::GetInstance().GetSyncRunThreadNum();
    MS_LOG(INFO) << "Threads Num is " << process_num;

    int64_t start_index = 0;
    int64_t total_size = SizeToLong(tensors_list_.size());
    int64_t job_size = total_size / SizeToLong(process_num);
    if (job_size == 0) {
      job_size = total_size;
    }
    std::vector<common::Task> tasks;
    while (start_index < total_size) {
      int64_t end_index = (start_index + job_size) > total_size ? total_size : start_index + job_size;
      auto jobs = std::vector<SomasTensorPtr>(tensors_list_.begin() + start_index, tensors_list_.begin() + end_index);
      auto task = [this, jobs, &nodes_dependency]() {
        this->ComputeMultiTensorConflicts(jobs, tensors_list_, nodes_dependency, &reuse_matrix_);
        return common::SUCCESS;
      };
      tasks.emplace_back(task);
      start_index += job_size;
    }

    common::ThreadPool::GetInstance().SyncRun(tasks);
  }
  MS_LOG(INFO) << "End Tensor Relation Computing";
  auto end_conflict = std::chrono::system_clock::now();
  MS_LOG(INFO) << "End Conflict Computing (Bitset Model)(time taken "
               << std::chrono::duration_cast<std::chrono::milliseconds>(end_conflict - start_conflict).count() << "ms)";
}

void Somas::UpdateTensorDestinations() {
  // Loop to add edges within each stream (node order within stream)
  for (const auto &stream : streams_list_) {
    MS_EXCEPTION_IF_NULL(stream);
    auto &nodes = stream->nodes_;
    std::sort(nodes.begin(), nodes.end(), NodeSort);
    for (size_t i = 1; i < nodes.size(); i++) {
      const auto &previous_node = nodes[i - 1];
      const auto &current_node = nodes[i];
      MS_EXCEPTION_IF_NULL(current_node);
      current_node->ancestor_nodes_.insert(previous_node);
    }
  }

  // Loop to add edges from end to beginning of next group
  for (const auto &group : streams_groups_) {
    for (size_t i = 1; i < group.size(); i++) {
      int64_t previous_stream = group[i - 1];
      int64_t current_stream = group[i];

      auto it =
        std::find_if(streams_list_.begin(), streams_list_.end(),
                     [previous_stream](const SomasStreamPtr &stream) { return stream->GetId() == previous_stream; });
      if (it == streams_list_.end()) {
        continue;
      }
      auto &last_node_in_prev_stream = (*it)->nodes_.back();

      it = std::find_if(streams_list_.begin(), streams_list_.end(),
                        [current_stream](const SomasStreamPtr &stream) { return stream->GetId() == current_stream; });
      if (it == streams_list_.end()) {
        continue;
      }
      auto &first_node_in_cur_stream = (*it)->nodes_.front();

      first_node_in_cur_stream->ancestor_nodes_.insert(last_node_in_prev_stream);
    }
  }

  // Loop to avoid tensors with empty destinations (add itself)
  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    if (tensor->destinations_.size() == 0) {
      tensor->destinations_.insert(tensor->GetSourceNode());
    }
  }

  // Loop to compute max destinations in each stream
  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    tensor->ComputeMaxDestinationId();
  }
}

void Somas::ComputeMultiTensorConflicts(const std::vector<SomasTensorPtr> &calc_tensors_list,
                                        const std::vector<SomasTensorPtr> &all_tensors_list,
                                        const vector<DynamicBitSet> &nodes_dependency,
                                        std::vector<DynamicBitSet> *tensor_relation) const {
  auto start = std::chrono::system_clock::now();
  MS_LOG(INFO) << "Start Computing Conflicts Pairs, tensors list size is " << calc_tensors_list.size();
  for (size_t i = 0; i < calc_tensors_list.size(); i++) {
    auto calc_tensor = calc_tensors_list[i];
    MS_EXCEPTION_IF_NULL(calc_tensor);
    if (calc_tensor->IsLifelong() || calc_tensor->IsSemiLifelongEnd() || calc_tensor->IsRefOverlap() ||
        calc_tensor->GetAlignedSize() == 0) {
      continue;
    }

    ComputeOneTensorConflicts(calc_tensor, all_tensors_list, nodes_dependency, tensor_relation);
  }
  auto end = std::chrono::system_clock::now();
  MS_LOG(INFO) << "End Computing Conflicts Pairs (time taken "
               << std::chrono::duration_cast<std::chrono::milliseconds>(end - start).count() << "ms)";
}

void Somas::ComputeOneTensorConflicts(const std::shared_ptr<SomasTensor> &calc_tensor,
                                      const std::vector<SomasTensorPtr> &all_tensors_list,
                                      const vector<DynamicBitSet> &nodes_dependency,
                                      std::vector<DynamicBitSet> *tensor_relation) const {
  MS_EXCEPTION_IF_NULL(calc_tensor);
  for (size_t j = 0; j < all_tensors_list.size(); j++) {
    auto target_tensor = all_tensors_list[j];
    MS_EXCEPTION_IF_NULL(target_tensor);
    if (calc_tensor == target_tensor || target_tensor->IsLifelong() || target_tensor->IsSemiLifelongStart() ||
        target_tensor->IsRefOverlap() || target_tensor->GetAlignedSize() == 0) {
      continue;
    }
    size_t calc_src_node = calc_tensor->GetSourceNode()->GetId();
    size_t target_src_node = target_tensor->GetSourceNode()->GetId();
    if (calc_src_node == target_src_node) {
      continue;
    }
    if ((*tensor_relation)[calc_tensor->GetId()].IsBitTrue(target_tensor->GetId()) ||
        (*tensor_relation)[target_tensor->GetId()].IsBitTrue(calc_tensor->GetId())) {
      continue;
    }

    bool reuse = true;
    // check calc_tensor's all consumers is target_tensor's source node's dependency or not
    for (const auto &dst_map : calc_tensor->max_destinations_) {
      const auto &dst_node = dst_map.second;
      MS_EXCEPTION_IF_NULL(dst_node);
      if (nodes_dependency[target_src_node].IsBitTrue(dst_node->GetId()) == false) {
        // calc_tensor's consumer is not in target_tensor's source node's dependency, not sure this consumer is done or
        // not when target_tensor produced
        reuse = false;
        break;
      } else if (target_src_node == dst_node->GetId()) {
        // calc_tensor is target_tensor's source node's input, can't reuse
        reuse = false;
        break;
      } else {
        // calc_tensor's consumer is in target_tensor's source node's dependency, this consumer is done when
        // target_tensor produced
        reuse = true;
      }
    }

    if (reuse) {
      // calc_tensor and target_tensor have dependencies so they can reuse each other
      (*tensor_relation)[calc_tensor->GetId()].SetBitTrue(target_tensor->GetId());
      (*tensor_relation)[target_tensor->GetId()].SetBitTrue(calc_tensor->GetId());
    }
  }
}

bool Somas::NodeSort(const SomasNodePtr &node1, const SomasNodePtr &node2) { return node1->GetId() < node2->GetId(); }

bool Somas::Assign(const session::KernelGraph *graph) {
  if (tensors_list_.empty()) {
    MS_LOG(INFO) << "No Tensor for Assigner";
    return true;
  }

  // Ref Node Preprocessing
  UpdateRefTensorsConflict();
  std::map<size_t, size_t> contiguous_list_with_ref_index_map = GetContiguousListContainRefTensor();
  vector<vector<size_t>> contiguous_tensors_list_removed = contiguous_tensors_list_;
  std::set<vector<size_t>> contiguous_tensors_list_to_remove;
  for (auto ref_list_pair : contiguous_list_with_ref_index_map) {
    contiguous_tensors_list_to_remove.insert(contiguous_tensors_list_[ref_list_pair.second]);
  }

  // remove the contiguous list which all tensors' align size is 0
  for (auto contiguous_list : contiguous_tensors_list_) {
    bool all_outputs = true;
    for (auto tensor_id : contiguous_list) {
      auto tensor = tensors_list_[tensor_id];
      MS_EXCEPTION_IF_NULL(tensor);
      if (tensor->aligned_size_ != 0) {
        all_outputs = false;
        break;
      }
    }

    if (all_outputs) {
      contiguous_tensors_list_to_remove.insert(contiguous_list);
    }
  }

  for (auto contiguous_list : contiguous_tensors_list_to_remove) {
    auto iterator =
      std::find(contiguous_tensors_list_removed.begin(), contiguous_tensors_list_removed.end(), contiguous_list);
    if (iterator != contiguous_tensors_list_removed.end()) {
      contiguous_tensors_list_removed.erase(iterator);
    } else {
      MS_LOG(WARNING) << "Could not find contiguous list to remove for ref";
    }
  }
  MS_LOG(INFO) << "End Solving Preprocessing for Ref Node";
  UpdateRefOverlapTensorsConflicts();

#ifdef SOMAS_DEBUG
  // Compute number of constraints for each tensor
  auto tensors_num = tensors_list_.size();
  for (auto tensor1 : tensors_list_) {
    auto ones_num = reuse_matrix_[tensor1->GetId()].CountOnesNum();
    tensor1->num_constraints_ = tensors_num - ones_num;
  }
#endif

  // Prepare solver info
  MS_LOG(INFO) << "Start Loop to create solver info";
  for (auto tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    if (tensor->GetSolverTensorDesc() != nullptr) {
      SomasSolverTensorDescPtr pSolverTensor = tensor->GetSolverTensorDesc();
      solver_tensor_desc_map_.insert(std::pair<size_t, SomasSolverTensorDescPtr>(pSolverTensor->index_, pSolverTensor));
    }
  }
  MS_LOG(INFO) << "End Loop to create solver info";

  MS_LOG(INFO) << "Start Solving";
  if (solver_tensor_desc_map_.empty()) {
    MS_LOG(INFO) << "solver_tensor_desc_list is empty.";
    return true;
  }

  somas_solver_ = std::make_shared<SomasSolverPre>();
  auto status =
    somas_solver_->Solving(graph, &solver_tensor_desc_map_, &reuse_matrix_, contiguous_tensors_list_removed, false);
  MS_LOG(INFO) << "End Solving";
  if (status != SUCCESS) {
    GenGraphStatisticInfo();
    MS_LOG(EXCEPTION) << "SOMAS Solving Failed.";
  }

  // Update solver_tensor_desc offset to tensors list
  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    tensor->SetOffset();
  }

  UpdateRefTensorsOffset();
  UpdateContiguousTensorsOffset(contiguous_list_with_ref_index_map);

  // Set mem_offset_ value by solver result
  mem_offset_ = static_cast<size_t>(somas_solver_->GetMaxOffset());

  return true;
}

std::map<size_t, size_t> Somas::GetContiguousListContainRefTensor() {
  // key: contiguous list index with ref node input; value: contiguous list index with ref node output
  std::map<size_t, size_t> contiguous_list_with_ref_index_map;
  std::map<size_t, size_t> ref_tensors_in_contiguous_map = GetRefTensorsInContiguousList();
  std::map<size_t, std::map<size_t, std::set<size_t>>> contiguous_ref_list_error_check_map;
  for (auto ref_pair : ref_tensors_in_contiguous_map) {
    size_t ref_first = ref_pair.first;
    size_t ref_second = ref_pair.second;
    bool found_first = false;
    bool found_second = false;
    size_t index_first = 0;
    size_t index_second = 0;
    size_t index_in_list_first = 0;
    size_t index_in_list_second = 0;
    for (size_t index = 0; index < contiguous_tensors_list_.size() && (!found_first || !found_second); index++) {
      if (!found_first) {
        auto iterator_first =
          std::find(contiguous_tensors_list_[index].begin(), contiguous_tensors_list_[index].end(), ref_first);
        if (iterator_first != contiguous_tensors_list_[index].end()) {
          index_first = index;
          index_in_list_first = iterator_first - contiguous_tensors_list_[index].begin();
          found_first = true;
        }
      }
      if (!found_second) {
        auto iterator_second =
          std::find(contiguous_tensors_list_[index].begin(), contiguous_tensors_list_[index].end(), ref_second);
        if (iterator_second != contiguous_tensors_list_[index].end()) {
          index_second = index;
          index_in_list_second = iterator_second - contiguous_tensors_list_[index].begin();
          found_second = true;
        }
      }
    }

    if (!found_first) {
      MS_LOG(WARNING) << "Contiguous ref tensor " << ref_first << " not found in any contiguous list";
    }
    if (!found_second) {
      MS_LOG(WARNING) << "Contiguous ref tensor " << ref_second << " not found in any contiguous list";
    }
    if (contiguous_list_with_ref_index_map.find(index_first) == contiguous_list_with_ref_index_map.end() ||
        contiguous_list_with_ref_index_map[index_first] == index_second) {
      contiguous_list_with_ref_index_map[index_first] = index_second;
      // Checking for error cases
      if (index_in_list_first != index_in_list_second) {
        MS_LOG(WARNING) << "Inconsistency in contiguous ref: tensor " << ref_first << " in position "
                        << index_in_list_first << " of contiguous list " << index_first << " and tensor " << ref_second
                        << " in position " << index_in_list_second << " of contiguous list " << index_second;
      }
      contiguous_ref_list_error_check_map[index_first][index_second].insert(index_in_list_first);
    } else {
      MS_LOG(WARNING) << "Contiguous list " << index_first << " associated (ref node) with two other contiguous lists: "
                      << contiguous_list_with_ref_index_map[index_first] << " and " << index_second;
    }
  }

  for (auto check_list_pair : contiguous_ref_list_error_check_map) {
    auto first_list = check_list_pair.first;
    auto index_set_map = check_list_pair.second;
    for (auto index_set : index_set_map) {
      auto second_list = index_set.first;
      if (contiguous_tensors_list_[first_list].size() != contiguous_tensors_list_[second_list].size()) {
        MS_LOG(WARNING) << "Contiguous lists " << first_list << " and " << second_list
                        << " considered in ref do not have the same size";
      }
      for (size_t x = 0; x < contiguous_tensors_list_[second_list].size(); x++) {
        if (contiguous_ref_list_error_check_map[first_list][second_list].count(x) == 0) {
          MS_LOG(WARNING) << "Contiguous lists " << first_list << " and " << second_list
                          << " considered in ref: ref pair at in-lists index " << x << " has not been considered";
        }
      }
    }
  }
  return contiguous_list_with_ref_index_map;
}

std::map<size_t, size_t> Somas::GetRefTensorsInContiguousList() {
  // key: refnode input value: refnode output
  std::map<size_t, size_t> ref_tensors_in_contiguous_map;
  for (auto ref_node_list : ref_node_constraints_) {
    // Count contiguous tensors in ref list
    auto contiguous_in_ref_list = std::count_if(ref_node_list.begin(), ref_node_list.end(),
                                                [this](size_t tid) { return tensors_map_[tid]->contiguous_; });
    // Keep info about contiguous and check for errors
    if (ref_node_list.size() > kRefNodeTensorNum && contiguous_in_ref_list > 0) {
      MS_LOG(WARNING) << "Ref node of size greater than two with at least one contiguous tensor in";
    }
    if (ref_node_list.size() == kRefNodeTensorNum && contiguous_in_ref_list == 1) {
      MS_LOG(WARNING) << "Ref node of size two with only one contiguous tensor" << ref_node_list[0] << ":"
                      << tensors_map_[ref_node_list[0]]->contiguous_ << ", " << ref_node_list[1] << ":"
                      << tensors_map_[ref_node_list[1]]->contiguous_;
    }
    if (ref_node_list.size() == kRefNodeTensorNum && contiguous_in_ref_list == SizeToLong(kRefNodeTensorNum)) {
      ref_tensors_in_contiguous_map[ref_node_list[0]] = ref_node_list[1];
    }
  }
  return ref_tensors_in_contiguous_map;
}

void Somas::UpdateContiguousTensorsOffset(const std::map<size_t, size_t> &contiguous_ref_list_map) {
  // Handle contiguous ref node
  for (auto ref_list_pair : contiguous_ref_list_map) {
    size_t index_first = ref_list_pair.first;
    size_t index_second = ref_list_pair.second;
    for (size_t x = 0; x < contiguous_tensors_list_[index_second].size(); x++) {
      tensors_map_[contiguous_tensors_list_[index_second][x]]->offset_ =
        tensors_map_[contiguous_tensors_list_[index_first][x]]->offset_;
    }
  }

  // Contiguous gaps postprocessing
  for (auto list : contiguous_tensors_list_) {
    tensors_map_[list[0]]->offset_ += kGapSize;
  }
}

void Somas::UpdateRefTensorsOffset() {
  // Ref Node Postprocessing
  MS_LOG(INFO) << "\nStart Solving Postprocessing for Ref Node";
  // Set offset for rest of ref node list (ignored by solver due to ref node preprocessing)
  for (auto ref_node_list : ref_node_constraints_) {
    for (size_t i = 1; i < ref_node_list.size(); ++i) {
      tensors_map_[ref_node_list[i]]->offset_ = tensors_map_[ref_node_list[0]]->offset_;
    }
  }
}

void Somas::UpdateRefOverlapTensorsConflicts() {
  // Ref Overlap Preprocessing
  MS_LOG(INFO) << "Start Solving Preprocessing for Ref Overlap";
  // In ConflictComputing(), by use of ref_overlap_ flag, each tensor in a ref_overlap_list has all entries 1 in
  // cannot_reuse_ array Here, we allow reuse only among tensors in same list
  for (auto ref_overlap_list : ref_overlap_constraints_) {
    for (size_t tid_1 : ref_overlap_list) {
      for (size_t tid_2 : ref_overlap_list) {
        reuse_matrix_[tid_1].SetBitTrue(tid_2);
        reuse_matrix_[tid_2].SetBitTrue(tid_1);
      }
    }
  }
  MS_LOG(INFO) << "End Solving Preprocessing for Ref Overlap";
}

void Somas::UpdateRefTensorsConflict() {
  // Keep all constraints for first tensor in list
  for (auto ref_node_list : ref_node_constraints_) {
    size_t tid_0 = ref_node_list[0];
    for (SomasTensorPtr tensor : tensors_list_) {
      if (reuse_matrix_[tid_0].IsBitTrue(tensor->GetId()) == false) {
        continue;
      }
      for (size_t tid : ref_node_list) {
        if (reuse_matrix_[tid].IsBitTrue(tensor->GetId()) == false) {
          reuse_matrix_[tid_0].SetBitFalse(tensor->GetId());
          reuse_matrix_[tensor->GetId()].SetBitFalse(tid_0);
          break;
        }
      }
    }
    // Set rest to size 0, so that solver ignores them (if not contiguous)
    for (size_t i = 1; i < ref_node_list.size(); ++i) {
      if (!tensors_map_[ref_node_list[i]]->contiguous_) {
        tensors_map_[ref_node_list[i]]->aligned_size_ = 0;
      }
    }
  }
}

std::string Somas::GetSplitName(const std::string &scope_name) const {
  auto index = scope_name.rfind('/');
  if (index == std::string::npos) {
    return scope_name;
  } else {
    if (index < scope_name.size() - 1) {
      auto split_name = scope_name.substr(index + 1);
      return split_name;
    }
    return scope_name;
  }
}

std::string Somas::SomasInfo(bool calc_hash) const {
  std::ostringstream oss;
  if (!calc_hash) {
    DumpParameters(oss);
  }
  DumpTensors(oss);
  DumpNodes(oss);

  oss << "\n\nAll Stream Groups:\n\n";
  for (const auto &stream_group : streams_groups_) {
    for (const auto &stream : stream_group) {
      oss << "stm" << stream << " ";
    }
    oss << "\n";
  }

  if (!ref_node_constraints_.empty()) {
    oss << "\n\nAll Ref Node Info:\n\n";
    for (const auto &ref_in_out : ref_node_constraints_) {
      oss << "refnode input-output:";
      for (const auto &item : ref_in_out) {
        oss << "%" << item << "T ";
      }
      oss << "\n";
    }
  }
  return oss.str();
}

void Somas::DumpNodes(std::ostringstream &oss) const {
  oss << "\n\nAll Nodes:\n\n";
  for (const auto &node : nodes_list_) {
    MS_EXCEPTION_IF_NULL(node);
    auto scope_name = node->scope_full_name_;
    std::string split_name = GetSplitName(scope_name);
    oss << "$" << node->GetId() << "\t" << split_name << "\t" << static_cast<int>(node->GetType()) << "\t";
    auto input_num = node->input_tensors_.size() + node->input_parameters_map_.size();
    oss << "inputs[";
    size_t tensor_index = 0;
    for (size_t input_index = 0; input_index < input_num; input_index++) {
      auto iter = node->input_parameters_map_.find(input_index);
      if (iter != node->input_parameters_map_.end()) {
        oss << "%" << iter->second->id_ << "P"
            << ", ";
      } else {
        oss << "%" << node->input_tensors_[tensor_index]->GetId() << "T"
            << ", ";
        tensor_index++;
      }
    }

    oss << "]";
    oss << "\toutputs[";
    for (const auto &out : node->output_tensors_) {
      MS_EXCEPTION_IF_NULL(out);
      oss << "%" << out->GetId() << "T"
          << ", ";
    }
    oss << "]";
    oss << "\tworkspace[";
    for (const auto &wk : node->workspace_tensors_) {
      MS_EXCEPTION_IF_NULL(wk);
      oss << "%" << wk->GetId() << "T"
          << ", ";
    }
    oss << "]";
    oss << "\tstreamID["
        << "@" << node->GetStream()->GetId() << "]\n";
  }
}

void Somas::DumpTensors(std::ostringstream &oss) const {
  oss << "\n\nAll Tensors:\n\n";
  oss << "index:"
      << "\tsize:"
      << "\treal_size:"
      << "\toffset:"
      << "\taddr:"
      << "\ttype:"
      << "\tlifelong:"
      << "\tlife_start:"
      << "\tlife_end:"
      << "\tsource node name:\n";

  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    auto scope_name = tensor->GetSourceNode()->scope_full_name_;
    std::string split_name = GetSplitName(scope_name);
    oss << "%" << tensor->GetId() << "T"
        << "\t"
        << "#" << tensor->GetAlignedSize() << "S"
        << "\t"
        << "#" << tensor->GetOriginalSize() << "S"
        << "\t"
        << "&" << tensor->GetOffset() << ""
        << "\t"
        << "&" << static_cast<void *>(tensor->GetOffset() + mem_base_addr_) << "\t"
        << tensor_type_name_map[tensor->type_] << "\t" << tensor->IsLifelong() << "\t" << tensor->lifetime_.start_
        << "\t" << tensor->lifetime_.end_ << "\t" << split_name << "\n";
  }
}

void Somas::DumpParameters(std::ostringstream &oss) const {
  oss << "All Parameters:\n\n";
  oss << "index:"
      << "\tsize:"
      << "\tstart_addr:"
      << "\tsource node name:"
      << "\tnode out index:\n";

  for (const auto &param : parameters_list_) {
    MS_EXCEPTION_IF_NULL(param);
    oss << "%" << param->id_ << "P"
        << "\t"
        << "#" << param->size_ << "S"
        << "\t"
        << "&" << param->addr_ << "\t" << param->source_node_name_ << "\t" << param->output_index_ << "\n";
  }
}

void Somas::DumpSomasInfoIR(const string filename) const { (void)Common::SaveStringToFile(filename, SomasInfo()); }

std::string Somas::Offline() const {
  std::ostringstream oss;

  for (auto tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    if (tensor->IsOutputOnly() || tensor->type_ == TensorType::kRefNodeOutput) {
      oss << "Somas EDGE ERROR src=n" << tensor->GetSourceNode()->GetId()
          << ", srcstm=" << tensor->GetSourceStream()->GetId() << ", dst=nc"
          << ", dststm=nc"
          << ", workspace=0, size=" << tensor->GetOriginalSize()
          << ", lifelong=" << static_cast<int>(tensor->lifelong_value_) << ", tid=" << tensor->GetId()
          << ", start=" << tensor->lifetime_.start_ << ", end=" << tensor->lifetime_.end_ << std::endl;
    } else {
      std::map<size_t, size_t> dest_infos;
      for (SomasNodePtr dest_node : tensor->destinations_) {
        dest_infos.insert(std::make_pair(dest_node->GetId(), dest_node->GetStream()->GetId()));
      }

      for (auto dest_info : dest_infos) {
        oss << "Somas EDGE src=n" << tensor->GetSourceNode()->GetId()
            << ", srcstm=" << tensor->GetSourceStream()->GetId() << ", dst=n" << dest_info.first
            << ", dststm=" << dest_info.second << ", workspace=" << static_cast<int>(tensor->type_ == kWorkspace)
            << ", size=" << tensor->GetOriginalSize() << ", lifelong=" << static_cast<int>(tensor->lifelong_value_)
            << ", tid=" << tensor->GetId() << ", start=" << tensor->lifetime_.start_
            << ", end=" << tensor->lifetime_.end_ << std::endl;
      }
    }
  }
  for (vector<size_t> tList : contiguous_tensors_list_) {
    oss << "Somas CONTIGUOUS";
    for (size_t tid : tList) {
      oss << " " << tid;
    }
    oss << std::endl;
  }
  for (const auto &group : streams_groups_) {
    oss << "Somas GROUP";
    for (int64_t sid : group) {
      oss << " " << sid;
    }
    oss << std::endl;
  }
  return oss.str();
}

void Somas::DumpOfflineIR(const string filename) const {
  MS_LOG(INFO) << "Printing somas-log-from-graph log: " << filename;
  (void)Common::SaveStringToFile(filename, Offline());
}

std::string Somas::SomasMemory() const {
  std::ostringstream oss;

  std::map<size_t, size_t> mem_map;
  for (auto tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    mem_map[tensor->GetOffset()] = 0;
  }

  size_t num = 0;
  for (auto iter = mem_map.begin(); iter != mem_map.end(); ++iter, ++num) {
    iter->second = num;
  }

  std::map<size_t, std::map<size_t, SomasTensorPtr>> mem_list;

  for (const auto &output_tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(output_tensor);
    size_t key = output_tensor->offset_;
    auto iter = mem_list.find(key);
    if (iter == mem_list.end()) {
      std::map<size_t, SomasTensorPtr> id_tensor_map;
      id_tensor_map[output_tensor->GetId()] = output_tensor;
      mem_list[key] = id_tensor_map;
    } else {
      iter->second[output_tensor->GetId()] = output_tensor;
    }
  }

  oss << "mem_id:"
      << "\tstart_offset:"
      << "\tend_offset:"
      << "\ttensor_id:"
      << "\torigin_size:"
      << "\talign_size:"
      << "\tstart_addr:"
      << "\tend_addr:"
      << "\ttype:"
      << "\tsrc_node:"
      << "\tsrc_stm_id:"
      << "lifetime_start\t"
      << "lifetime_end\n";

  for (const auto &mem : mem_list) {
    auto id_tensor_map = mem.second;
    for (const auto &id_tensor : id_tensor_map) {
      auto place_tensor = id_tensor.second;
      MS_EXCEPTION_IF_NULL(place_tensor);
      std::string scope_name;
      int64_t src_stm_id = 0xffff;
      if (place_tensor->GetSourceNode() != nullptr) {
        scope_name = place_tensor->GetSourceNode()->scope_full_name_;
        src_stm_id = place_tensor->GetSourceNode()->GetStream()->GetId();
      } else {
        scope_name = "Somas Tensor";
      }

      std::string split_name = GetSplitName(scope_name);
      oss << "#" << mem_map[place_tensor->GetOffset()] << "\t" << place_tensor->GetOffset() << "\t"
          << place_tensor->GetOffset() + place_tensor->GetAlignedSize() << "\t%" << place_tensor->GetId() << "T\t"
          << place_tensor->GetOriginalSize() << "\t" << place_tensor->GetAlignedSize() << "\t&"
          << static_cast<void *>(place_tensor->GetOffset() + mem_base_addr_) << "\t&"
          << static_cast<void *>(place_tensor->GetOffset() + mem_base_addr_ + place_tensor->GetAlignedSize()) << "\t"
          << tensor_type_name_map[place_tensor->type_] << "\t" << split_name << "\tstm" << src_stm_id << "\t"
          << place_tensor->lifetime_.start_ << "\t" << place_tensor->lifetime_.end_ << "\n";
    }
  }
  return oss.str();
}

void Somas::DumpSomasMemoryIR(const string &filename) const { (void)Common::SaveStringToFile(filename, SomasMemory()); }

size_t Somas::CalcLowerBound() const {
  size_t max_node_id = std::accumulate(tensors_list_.begin(), tensors_list_.end(), 0, [](size_t max_id, auto tensor) {
    return std::max(max_id, tensor->lifetime_.end_);
  });

  std::map<size_t, size_t> lifetime_lb;
  for (size_t time = 0; time <= max_node_id; time++) {
    lifetime_lb[time] = 0;
  }

  size_t lower, upper;
  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    if (tensor->lifelong_value_ == kLifeLongGraphAll) {
      lower = 0;
      upper = max_node_id;
    } else {
      lower = tensor->lifetime_.start_;
      upper = tensor->lifetime_.end_;
    }

    for (size_t time = lower; time <= upper; time++) {
      lifetime_lb[time] += tensor->GetAlignedSize();
    }
  }

  size_t max_lifetime = 0;
  for (size_t time = 0; time <= max_node_id; time++) {
    if (max_lifetime < lifetime_lb[time]) {
      max_lifetime = lifetime_lb[time];
    }
  }
  return max_lifetime;
}

void Somas::GenGraphStatisticInfo() {
  lower_bound_ = CalcLowerBound();
  for (const auto &tensor : tensors_list_) {
    MS_EXCEPTION_IF_NULL(tensor);
    upper_bound_ += tensor->aligned_size_;
    if (tensor->type_ == kWorkspace) {
      workspace_total_size_ += tensor->aligned_size_;
    }
    if (tensor->lifelong_value_ == kLifeLongGraphAll) {
      lifelong_all_total_size_ += tensor->aligned_size_;
    } else if (tensor->lifelong_value_ == kLifeLongGraphStart) {
      lifelong_start_total_size_ += tensor->aligned_size_;
    } else if (tensor->lifelong_value_ == kLifeLongGraphEnd) {
      lifelong_end_total_size_ += tensor->aligned_size_;
    }
  }

  const double giga = 1024. * 1024. * 1024.;
  MS_LOG(INFO) << "Lower Bound: " << lower_bound_ << " (" << lower_bound_ / giga
               << " GB), Upper Bound: " << upper_bound_ << " (" << upper_bound_ / giga << " GB)";

  MS_LOG(INFO) << "\nTotal Dynamic Size (Upper Bound):\t" << upper_bound_ << "\n"
               << "Theoretical Optimal Size (Lower Bound):\t" << lower_bound_ << "\n"
               << "Total Workspace Size:\t" << workspace_total_size_ << "\n"
               << "Total Communication Input Tensor Size:\t" << comm_input_total_size_ << "\n"
               << "Total Communication Output Tensor Size:\t" << comm_output_total_size_ << "\n"
               << "Total LifeLong All Tensor Size:\t" << lifelong_all_total_size_ << "\n"
               << "Total LifeLong Start Tensor Size:\t" << lifelong_start_total_size_ << "\n"
               << "Total LifeLong End Tensor Size:\t" << lifelong_end_total_size_ << "\n"
               << "Reused Size(Allocate Size):\t" << GetTotalMemSize() << "\n\n\n";
}

uint8_t *Somas::GetNodeOutputPtr(const AnfNodePtr &node, size_t index) const {
  MS_EXCEPTION_IF_NULL(node);
  auto key = node.get();
  auto iter = nodes_map_.find(key);
  uint8_t *ptr = nullptr;
  if (iter != nodes_map_.end()) {
    auto &somas_node = iter->second.at(0);
    MS_EXCEPTION_IF_NULL(somas_node);
    if (index >= somas_node->output_tensors_.size()) {
      MS_LOG(EXCEPTION) << "index:[" << index << "] is larger than it's output size:["
                        << somas_node->output_tensors_.size() << "]";
    }
    auto output_tensor = somas_node->output_tensors_[index];
    ptr = mem_base_addr_ + output_tensor->offset_;
  } else {
    MS_LOG(EXCEPTION) << "node [" << AnfAlgo::GetCNodeName(node) << "] don't exist in nodes_map";
  }
  return ptr;
}

uint8_t *Somas::GetNodeWorkSpacePtr(const AnfNodePtr &node, size_t index) const {
  MS_EXCEPTION_IF_NULL(node);
  auto key = node.get();
  auto iter = nodes_map_.find(key);
  uint8_t *ptr = nullptr;
  if (iter != nodes_map_.end()) {
    auto &somas_node = iter->second.at(0);
    MS_EXCEPTION_IF_NULL(somas_node);
    if (index >= somas_node->workspace_tensors_.size()) {
      MS_LOG(EXCEPTION) << "index:[" << index << "] is larger than it's workspace size:["
                        << somas_node->workspace_tensors_.size() << "]";
    }
    auto workspace_tensor = somas_node->workspace_tensors_[index];
    ptr = mem_base_addr_ + workspace_tensor->offset_;
  }
  return ptr;
}
#ifndef ENABLE_SECURITY
void Somas::ConvertToProfilingNode(uint32_t graph_id) {
#ifdef ENABLE_D
  auto graph_node = MemoryProfiling::GetInstance().GetGraphMemoryNode(graph_id);
  if (graph_node == nullptr) {
    graph_node = MemoryProfiling::GetInstance().AddGraphMemoryNode(graph_id);
    MS_LOG(INFO) << "Add graph memory node for dynamic memory profiling, graph id is " << graph_id;
  }

  for (const auto &tensor : tensors_list_) {
    TensorMemory tensor_memory;
    tensor_memory.SetTensorId(tensor->GetId());
    tensor_memory.SetAlignedSize(tensor->GetAlignedSize());
    tensor_memory.SetType(tensor_type_name_map[tensor->type_]);
    tensor_memory.SetLifeStart(tensor->lifetime_.start_);
    tensor_memory.SetLifeEnd(tensor->lifetime_.end_);
    tensor_memory.SetLifeLong(life_long_name_map[tensor->lifelong_value_]);
    graph_node->AddTensorMemory(tensor_memory);
  }

  for (const auto &node : nodes_list_) {
    NodeMemory node_memory;
    std::string name = GetSplitName(node->scope_full_name_);
    node_memory.SetNodeName(name);
    node_memory.SetNodeId(node->GetId());
    for (const auto &input_tensor : node->input_tensors_) {
      node_memory.AddInputTensorId(input_tensor->GetId());
    }
    for (const auto &output_tensor : node->output_tensors_) {
      node_memory.AddOutputTensorId(output_tensor->GetId());
    }
    for (const auto &workspace_tensor : node->workspace_tensors_) {
      node_memory.AddWorkSpaceTensorId(workspace_tensor->GetId());
    }
    graph_node->AddNodeMemory(node_memory);
  }
#endif
}
#endif
}  // namespace somas
}  // namespace mindspore