LCOV - code coverage report
Current view: top level - legacy/ascend910/framework/common/src/topo - topoinfo_exchange_base.cc (source / functions) Coverage Total Hit
Test: coverage.info Lines: 8.5 % 293 25
Test Date: 2026-08-04 10:52:23 Functions: 26.3 % 19 5

            Line data    Source code
       1              : /**
       2              :  * Copyright (c) 2025 Huawei Technologies Co., Ltd.
       3              :  * This program is free software, you can redistribute it and/or modify it under the terms and conditions of
       4              :  * CANN Open Software License Agreement Version 2.0 (the "License").
       5              :  * Please refer to the License for details. You may not use this file except in compliance with the License.
       6              :  * THIS SOFTWARE IS PROVIDED ON AN "AS IS" BASIS, WITHOUT WARRANTIES OF ANY KIND, EITHER EXPRESS OR IMPLIED,
       7              :  * INCLUDING BUT NOT LIMITED TO NON-INFRINGEMENT, MERCHANTABILITY, OR FITNESS FOR A PARTICULAR PURPOSE.
       8              :  * See LICENSE in the root of the software repository for the full text of the License.
       9              :  */
      10              : 
      11              : #include "topoinfo_exchange_base.h"
      12              : #include <thread>
      13              : #include <iostream>
      14              : #include <fstream>
      15              : #include "externalinput_pub.h"
      16              : #include "mem_host_pub.h"
      17              : #include "json_utils.h"
      18              : 
      19              : namespace hccl {
      20              : 
      21              : std::atomic<BroadcastStage> g_broadcastStage(BroadcastStage::Idle);
      22              : std::mutex g_broadcast_stage_mutex;
      23              : std::condition_variable g_broadcast_stage_cv;
      24              : 
      25           38 : TopoInfoExchangeBase::TopoInfoExchangeBase()
      26           38 :     : currentStep_(0)
      27              : {
      28           38 : }
      29              : 
      30           38 : TopoInfoExchangeBase::~TopoInfoExchangeBase()
      31              : {
      32           38 : }
      33              : 
      34           21 : HcclResult TopoInfoExchangeBase::DisconnectSocket(std::shared_ptr<HcclSocket> socket) const
      35              : {
      36           21 :     if (socket) {
      37            0 :         socket->Close();
      38              :     }
      39           21 :     return HCCL_SUCCESS;
      40              : }
      41              : 
      42            0 : HcclResult TopoInfoExchangeBase::SendClusterInfoMsg(std::shared_ptr<HcclSocket> socket, const RankTable_t &clusterInfo,
      43              :                                                     const std::string buffer, const u32 msgLen)
      44              : {
      45            0 :     HcclResult ret = socket->Send(&msgLen, sizeof(msgLen));
      46            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS, HCCL_ERROR("[Send][ClusterInfoMsg]errNo[0x%016llx] ra send msg length failed! "\
      47              :         "msgLen[%u], ret[%u]", HCCL_ERROR_CODE(HCCL_E_TCP_TRANSFER), msgLen, ret), ret);
      48              : 
      49            0 :     ret = socket->Send(buffer.c_str(), msgLen);
      50            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS,
      51              :         HCCL_ERROR("[Send][ClusterInfoMsg]errNo[0x%016llx] ra send failed! size[%u], ret[%u]",
      52              :             HCCL_ERROR_CODE(HCCL_E_TCP_TRANSFER), msgLen, ret), ret);
      53              : 
      54            0 :     return HCCL_SUCCESS;
      55              : }
      56              : 
      57            0 : HcclResult TopoInfoExchangeBase::SendClusterInfo(std::shared_ptr<HcclSocket> socket, const RankTable_t &clusterInfo)
      58              : {
      59            0 :     nlohmann::json basicJson;
      60            0 :     CHK_RET(Struct2Json(clusterInfo, basicJson));
      61            0 :     basicJson[PROP_STEP] = currentStep_;  // add step to verify.
      62            0 :     std::string buffer = basicJson.dump();
      63            0 :     u32 msgLen = buffer.length();
      64            0 :     CHK_RET(SendClusterInfoMsg(socket, clusterInfo, buffer, msgLen));
      65            0 :     currentStep_++;
      66            0 :     return HCCL_SUCCESS;
      67            0 : }
      68              : 
      69            0 : void TopoInfoExchangeBase::PrintRecvFailReasons(std::shared_ptr<HcclSocket> socket, HcclResult ret)
      70              : {
      71            0 :     HCCL_ERROR("[%s][%s]receive msg length from fdhandle failed, ret[%d]",
      72              :         LOG_KEYWORDS_INIT_GROUP.c_str(),
      73              :         LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), ret);
      74            0 :     HCCL_ERROR("Current rank get socket with server[%s] success, but wait for recv rankTable from server failed, maybe due to following reasons:",
      75              :         socket->GetRemoteIp().GetReadableIP());
      76            0 :     HCCL_ERROR("1. client wait for recv timeout, please check [ERROR] info in server[%s], whether all ranks were executed to create the communication",
      77              :         socket->GetRemoteIp().GetReadableIP());
      78            0 :     HCCL_ERROR("2. in large-scale cluster scenarios, occasional connection failures may occur due to the maximum connection limit in the system configuration. ");
      79            0 :     HCCL_ERROR("   these issues can be resolved by modifying the system configuration in all node: `sysctl -w net.core.somaxconn=65535` and `sysctl -w net.ipv4.tcp_max_syn_backlog=65535`");
      80            0 : }
      81              : 
      82            0 : HcclResult TopoInfoExchangeBase::RecvClusterInfoMsg(std::shared_ptr<HcclSocket> socket, RankTable_t &clusterInfo)
      83              : {
      84            0 :     const u32 recvBufferLimit = 100 * 1024 * 1024; // 100 * 1024 * 1024 = 100MB
      85            0 :     u32 msgLen = 0;
      86            0 :     std::string errormessage = "";
      87            0 :     HcclResult ret = socket->Recv(reinterpret_cast<char *>(&msgLen), sizeof(msgLen));
      88            0 :     if (ret == HCCL_E_TIMEOUT) {
      89            0 :         errormessage = "Receiving message from the root node timed out. Check whether node " + std::string(socket->GetRemoteIp().GetReadableIP()) +
      90            0 :                                " reports an error";
      91            0 :         RPT_INPUT_ERR(true,
      92              :             "EI0015",
      93              :             std::vector<std::string>({"error_reason"}),
      94              :             std::vector<std::string>({errormessage}));
      95              :     }
      96            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS, PrintRecvFailReasons(socket, ret), HCCL_E_INTERNAL);
      97            0 :     CHK_PRT_RET(((msgLen == 0) || (msgLen > recvBufferLimit)), HCCL_ERROR("[%s][%s]receive msg "\
      98              :         "length[%u] from fdhandle failed, msg length is beyond [1 ~ %u].",LOG_KEYWORDS_INIT_GROUP.c_str(),
      99              :         LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), msgLen, recvBufferLimit), HCCL_E_INTERNAL);
     100              : 
     101            0 :     u32 recvBufferLen = msgLen + 1;
     102            0 :     HostMem recvMsg = HostMem::alloc(recvBufferLen);
     103            0 :     CHK_PTR_NULL(recvMsg.ptr());
     104            0 :     char *recvMsgBuf = static_cast<char *>(recvMsg.ptr());
     105              : 
     106            0 :     s32 sRet = memset_s(recvMsgBuf, recvBufferLen, 0, recvBufferLen);
     107            0 :     CHK_PRT_RET(sRet != EOK, HCCL_ERROR("[%s][%s]sockBuff memset failed", LOG_KEYWORDS_INIT_GROUP.c_str(),
     108              :         LOG_KEYWORDS_RANKTABLE_DETECT.c_str()), HCCL_E_MEMORY);
     109            0 :     ret = socket->Recv(recvMsgBuf, msgLen);
     110            0 :     if (ret == HCCL_E_TIMEOUT) {
     111            0 :         RPT_INPUT_ERR(true,
     112              :             "EI0015",
     113              :             std::vector<std::string>({"error_reason"}),
     114              :             std::vector<std::string>({errormessage}));
     115              :     }
     116            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS,
     117              :         HCCL_ERROR("[%s][%s]receive from fdhandle failed ,ret[%d]", LOG_KEYWORDS_INIT_GROUP.c_str(), LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), ret),
     118              :         HCCL_E_INTERNAL);
     119            0 :     nlohmann::json jClusterJson;
     120            0 :     CHK_RET(parseJsonBuff(recvMsgBuf, recvBufferLen, jClusterJson));
     121              : 
     122              :     // Verify json basic info
     123              :     u32 step;
     124            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson, PROP_STEP, step));
     125              : 
     126            0 :     CHK_PRT_RET(step != currentStep_, HCCL_ERROR("[Recv][ClusterInfoMsg]RecvClusterInfo step failed "\
     127              :         "step[%u] vs currentStep_[%u]", step, currentStep_), HCCL_E_INTERNAL);
     128              : 
     129            0 :     s32 logicDevId = 0;
     130            0 :     u32 devPhyId = 0;
     131            0 :     CHK_RET(hrtGetDevice(&logicDevId));
     132            0 :     CHK_RET(hrtGetDevicePhyIdByIndex(static_cast<u32>(logicDevId), devPhyId));
     133            0 :     HcclIpAddress localHostIp;
     134            0 :     CHK_RET(GetLocalHostIP(localHostIp, devPhyId));
     135              : 
     136            0 :     bool isRoot = (localHostIp == GetExternalInputMasterInfo().serverIp &&
     137            0 :         logicDevId == static_cast<s32>(GetExternalInputMasterInfo().serverDeviceId));
     138            0 :     errormessage = "No rank in the communicator can connect to the root node within the timeout period. List of unconnected ranks: " + 
     139            0 :                    std::string(jClusterJson["fault_info"].dump().c_str());
     140            0 :     if (!isRoot && jClusterJson.find("fault_type") != jClusterJson.end() &&
     141            0 :         jClusterJson.find("fault_info") != jClusterJson.end()) {
     142            0 :         RPT_INPUT_ERR(true,
     143              :             "EI0015",
     144              :             std::vector<std::string>({"error_reason"}),
     145              :             std::vector<std::string>({errormessage}));
     146            0 :         HCCL_ERROR("[%s][%s] TopoDetect ERROR occur fault_type[%s], fault_info[%s]",
     147              :             LOG_KEYWORDS_INIT_GROUP.c_str(),
     148              :             LOG_KEYWORDS_RANKTABLE_DETECT.c_str(),
     149              :             jClusterJson["fault_type"].dump().c_str(),
     150              :             jClusterJson["fault_info"].dump().c_str());
     151              :     }
     152              : 
     153            0 :     ret = Json2Struct(jClusterJson, clusterInfo);
     154            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS, HCCL_ERROR("[Recv][ClusterInfoMsg]step[%u] json to struct failed!", currentStep_),
     155              :         HCCL_E_INTERNAL);
     156            0 :     return HCCL_SUCCESS;
     157            0 : }
     158              : 
     159            0 : HcclResult TopoInfoExchangeBase::RecvClusterInfo(std::shared_ptr<HcclSocket> socket, RankTable_t &clusterInfo)
     160              : {
     161            0 :     CHK_RET(RecvClusterInfoMsg(socket, clusterInfo));
     162            0 :     std::string errormessage = "";
     163            0 :     if (isByMasterInfo_) {
     164            0 :         u32 identify = 0;
     165            0 :         auto ret = socket->Recv(reinterpret_cast<char *>(&identify), sizeof(identify));
     166            0 :         if (ret == HCCL_E_TIMEOUT) {
     167            0 :             errormessage = "Receiving message from the root node timed out. Check whether node " + std::string(socket->GetRemoteIp().GetReadableIP()) +
     168            0 :                             " reports an error";
     169            0 :             RPT_INPUT_ERR(true,
     170              :                 "EI0015",
     171              :                 std::vector<std::string>({"error_reason"}),
     172              :                 std::vector<std::string>({errormessage}));
     173              :         }
     174            0 :         CHK_PRT_RET(ret != HCCL_SUCCESS,
     175              :             HCCL_ERROR("[%s][%s] receive identify from fdhandle failed", LOG_KEYWORDS_INIT_GROUP.c_str(),
     176              :             LOG_KEYWORDS_RANKTABLE_DETECT.c_str()),
     177              :             HCCL_E_INTERNAL);
     178            0 :         identifierNum_ = identify;
     179              :     }
     180            0 :     currentStep_++;
     181            0 :     return HCCL_SUCCESS;
     182            0 : }
     183              : 
     184            0 : HcclResult TopoInfoExchangeBase::RecvClusterJson(std::shared_ptr<HcclSocket> socket, nlohmann::json &jClusterJson)
     185              : {
     186            0 :     const u32 recvBufferLimit = 10 * 1024 * 1024; // 10 * 1024 * 1024 = 10MB
     187            0 :     u32 msgLen = 0;
     188            0 :     std::string errormessage = "";
     189            0 :     HcclResult ret = socket->Recv(reinterpret_cast<char *>(&msgLen), sizeof(msgLen));
     190            0 :     if (ret == HCCL_E_TIMEOUT) {
     191            0 :         errormessage = "Receiving message from the root node timed out. Check whether node " + std::string(socket->GetRemoteIp().GetReadableIP()) +
     192            0 :             " reports an error";
     193            0 :         RPT_INPUT_ERR(true,
     194              :             "EI0015",
     195              :             std::vector<std::string>({"error_reason"}),
     196              :             std::vector<std::string>({errormessage}));
     197              :     }
     198            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS,
     199              :         HCCL_ERROR("[%s][%s] receive msg length from fdhandle failed, ret[%d]",
     200              :             LOG_KEYWORDS_INIT_GROUP.c_str(),
     201              :             LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), ret),
     202              :         HCCL_E_INTERNAL);
     203            0 :     CHK_PRT_RET(((msgLen == 0) || (msgLen > recvBufferLimit)), HCCL_ERROR("[%s][%s]receive msg length "\
     204              :         "from fdhandle failed, msg length is beyond [1 ~ %u].",LOG_KEYWORDS_INIT_GROUP.c_str(),
     205              :         LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), recvBufferLimit), HCCL_E_INTERNAL);
     206              : 
     207            0 :     u32 recvBufferLen = msgLen + 1;
     208            0 :     HostMem recvMsg = HostMem::alloc(recvBufferLen);
     209            0 :     CHK_PTR_NULL(recvMsg.ptr());
     210            0 :     char *recvMsgBuf = static_cast<char *>(recvMsg.ptr());
     211              : 
     212            0 :     s32 sRet = memset_s(recvMsgBuf, recvBufferLen, 0, recvBufferLen);
     213            0 :     CHK_PRT_RET(sRet != EOK, HCCL_ERROR("[Recv][ClusterInfoMsg]sockBuff memset failed"), HCCL_E_MEMORY);
     214            0 :     ret = socket->Recv(recvMsgBuf, msgLen);
     215            0 :     if (ret == HCCL_E_TIMEOUT) {
     216            0 :         errormessage = "Receiving message from the root node timed out. Check whether node " + std::string(socket->GetRemoteIp().GetReadableIP()) +
     217            0 :             " reports an error";
     218            0 :         RPT_INPUT_ERR(true,
     219              :             "EI0015",
     220              :             std::vector<std::string>({"error_reason"}),
     221              :             std::vector<std::string>({errormessage}));
     222              :     }
     223            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS,
     224              :         HCCL_ERROR("[%s][%s] receive from fdhandle failed ,ret[%d]",
     225              :             LOG_KEYWORDS_INIT_GROUP.c_str(),
     226              :             LOG_KEYWORDS_RANKTABLE_DETECT.c_str(), ret), HCCL_E_INTERNAL);
     227            0 :     CHK_RET(parseJsonBuff(recvMsgBuf, recvBufferLen, jClusterJson));
     228              : 
     229            0 :     return HCCL_SUCCESS;
     230            0 : }
     231              : 
     232            0 : HcclResult TopoInfoExchangeBase::RecvGrpLeaderInfoMsg(std::shared_ptr<HcclSocket> socket, GroupLeader_t &LeaderInfo)
     233              : {
     234            0 :     nlohmann::json jClusterJson;
     235            0 :     CHK_RET(RecvClusterJson(socket, jClusterJson));
     236              : 
     237              :     // Verify json basic info
     238              :     u32 step;
     239            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson, PROP_STEP, step));
     240              : 
     241            0 :     CHK_PRT_RET(step != currentStep_, HCCL_ERROR("[Recv][ClusterInfoMsg]RecvClusterInfo step failed "\
     242              :         "step[%u] vs currentStep_[%u]", step, currentStep_), HCCL_E_INTERNAL);
     243              : 
     244            0 :     HcclResult ret = Json2GrpLeader(jClusterJson, LeaderInfo);
     245            0 :     CHK_PRT_RET(ret != HCCL_SUCCESS, HCCL_ERROR("[Recv][ClusterInfoMsg]step[%u] json to struct failed!", currentStep_),
     246              :         HCCL_E_INTERNAL);
     247              : 
     248            0 :     return HCCL_SUCCESS;
     249            0 : }
     250              : 
     251            0 : HcclResult TopoInfoExchangeBase::BlockReceive(std::shared_ptr<HcclSocket> socket, char *buff, u32 size) const
     252              : {
     253            0 :     CHK_PTR_NULL(buff);
     254            0 :     CHK_RET(socket->Recv(buff, size));
     255            0 :     return HCCL_SUCCESS;
     256              : }
     257              : 
     258              : 
     259            0 : HcclResult TopoInfoExchangeBase::parseJsonBuff(const char buff[], u32 buffLen, nlohmann::json& buffJson) const
     260              : {
     261            0 :     u32 len = strnlen(buff, buffLen);
     262            0 :     CHK_PRT_RET((len > buffLen || len == 0), HCCL_ERROR("[Parse][JsonBuff]buff len invalid, buff len[%u], msgLen[%u]",
     263              :         len, buffLen), HCCL_E_INTERNAL);
     264              : 
     265            0 :     CHK_RET(JsonUtils::ParseInformation(buffJson, buff));
     266              :     u32 step;
     267            0 :     CHK_RET(JsonUtils::GetJsonProperty(buffJson, PROP_STEP, step));
     268            0 :     if (step != currentStep_) {
     269            0 :         HCCL_ERROR("[Parse][JsonBuff]errNo[0x%016llx] received step[%u] is invalid , expect step is %u", \
     270              :             HCCL_ERROR_CODE(HCCL_E_INTERNAL), step, currentStep_);
     271            0 :         return HCCL_E_INTERNAL;
     272              :     }
     273            0 :     return HCCL_SUCCESS;
     274              : }
     275              : 
     276            0 : HcclResult TopoInfoExchangeBase::Json2GrpLeader(const nlohmann::json& jClusterJson, GroupLeader_t &GrpLeaderInfo) const
     277              : {
     278            0 :     GrpLeaderInfo.grpLeaderNum = jClusterJson[PROP_RANK_NUM];
     279            0 :     for (auto& leaderInfoJson : jClusterJson[PROP_GROUP_LEADER_LIST]) {
     280              :         HcclRankHandle rankHandle;
     281            0 :         std::string strTmp = leaderInfoJson[PROP_NETWORK_IPADDR];
     282            0 :         s32 sRet = memcpy_s(rankHandle.ip, IP_ADDRESS_BUFFER_LEN, strTmp.c_str(), strTmp.size());
     283            0 :         CHK_PRT_RET(sRet != EOK, HCCL_ERROR("[Json2GrpLeader]memcpy_s failed, errorno[%d]", sRet), HCCL_E_MEMORY);
     284            0 :         rankHandle.ip[strTmp.size()] = '\0';
     285            0 :         rankHandle.port = leaderInfoJson[PROP_NETWORK_NETWORKPORT];
     286            0 :         strTmp = leaderInfoJson[PROP_NETWORK_IDENTIFIER];
     287            0 :         sRet = memcpy_s(rankHandle.identifier, ROOTINFO_INDENTIFIER_MAX_LENGTH, strTmp.c_str(), strTmp.size());
     288            0 :         CHK_PRT_RET(sRet != EOK, HCCL_ERROR("[Json2GrpLeader]memcpy_s failed, errorno[%d]", sRet), HCCL_E_MEMORY);
     289            0 :         rankHandle.identifier[strTmp.size()] = '\0';
     290            0 :         rankHandle.nicDeploy = leaderInfoJson[PROP_DEPLOY_MODE];
     291            0 :         rankHandle.rankId = leaderInfoJson[PROP_RANK_ID];
     292            0 :         GrpLeaderInfo.GroupLeaderList.emplace_back(rankHandle);
     293            0 :     }
     294              :  
     295            0 :     return HCCL_SUCCESS;
     296              : }
     297              : 
     298            0 : HcclResult TopoInfoExchangeBase::Json2Struct(const nlohmann::json& jClusterJson, RankTable_t &clusterInfo) const
     299              : {
     300            0 :     CHK_RET(SetClusterDeploy(jClusterJson,clusterInfo));  //deploymode为枚举类变量 需单独处理判断
     301            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson,PROP_DEV_NUM,clusterInfo.deviceNum));
     302            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson,PROP_SRV_NUM,clusterInfo.serverNum));
     303            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson,PROP_SUPER_POD_NUM,clusterInfo.superPodNum));
     304            0 :     CHK_RET(JsonUtils::GetJsonProperty(jClusterJson,PROP_RANK_NUM,clusterInfo.rankNum));
     305            0 :     for (auto& rankInfoJson : jClusterJson[PROP_RANK_LIST]) {
     306            0 :         RankInfo_t rankInfo;
     307            0 :         rankInfo.rankId = rankInfoJson[PROP_RANK_ID];
     308            0 :         rankInfo.serverId = rankInfoJson[PROP_SERVER_ID];
     309            0 :         rankInfo.tlsStatus = rankInfoJson[PROP_TLS_STATUS];
     310            0 :         CHK_RET(rankInfo.hostIp.SetReadableAddress(rankInfoJson[PROP_HOST_IP]));
     311            0 :         rankInfo.deviceInfo.devicePhyId = rankInfoJson[PROP_DEV_INFO][PROP_DEV_ID];
     312            0 :         rankInfo.deviceInfo.deviceType = rankInfoJson[PROP_DEV_INFO][PROP_DEV_TYPE];
     313            0 :         CHK_PRT_RET(rankInfoJson[PROP_DEV_INFO].find(PROP_DEV_NIC_PORT) == rankInfoJson[PROP_DEV_INFO].end()
     314              :             || rankInfoJson[PROP_DEV_INFO].find(PROP_DEV_VNIC_PORT) == rankInfoJson[PROP_DEV_INFO].end()
     315              :             || rankInfoJson[PROP_DEV_INFO].find(PROP_BACKUP_DEV_PORT) == rankInfoJson[PROP_DEV_INFO].end(),
     316              :             HCCL_ERROR("[Json2Struct] Fail to find port infos in rank info json. "
     317              :             "Please make sure the CANN version is consistent within the communication."),
     318              :             HCCL_E_NOT_SUPPORT);
     319            0 :         rankInfo.deviceInfo.port = rankInfoJson[PROP_DEV_INFO][PROP_DEV_NIC_PORT];
     320            0 :         rankInfo.deviceInfo.vnicPort = rankInfoJson[PROP_DEV_INFO][PROP_DEV_VNIC_PORT];
     321            0 :         rankInfo.deviceInfo.backupPort = rankInfoJson[PROP_DEV_INFO][PROP_BACKUP_DEV_PORT];
     322            0 :         for (auto& devIp : rankInfoJson[PROP_DEV_INFO][PROP_DEV_IP]) {
     323            0 :             std::string ipStr = devIp;
     324            0 :             rankInfo.deviceInfo.deviceIp.emplace_back(ipStr);
     325            0 :         }
     326            0 :         if (rankInfoJson[PROP_DEV_INFO].find(PROP_BACKUP_DEV_IP) == rankInfoJson[PROP_DEV_INFO].end()) {
     327            0 :             HCCL_RUN_WARNING("[Json2Struct] Fail to find backup device ip in rank info json. "
     328              :             "Backup device ip will not be parsed. If you want to use backup device ip, "
     329              :             "Please make sure the CANN version is consistent within the communication.");
     330              :         } else {
     331            0 :             for (auto& backupDevIp : rankInfoJson[PROP_DEV_INFO][PROP_BACKUP_DEV_IP]) {
     332            0 :                 std::string backupIpStr = backupDevIp;
     333            0 :                 rankInfo.deviceInfo.backupDeviceIp.emplace_back(backupIpStr);
     334            0 :             }
     335              :         }
     336              : 
     337            0 :         rankInfo.superPodId = rankInfoJson[PROP_SUPER_POD_ID];
     338            0 :         rankInfo.superDeviceId = rankInfoJson[PROP_SUPER_DEVICE_ID];
     339              : 
     340              :         /* Optional: for second communication stage */
     341            0 :         if (rankInfoJson.find(PROP_TRANS_INFO) != rankInfoJson.end()) {
     342            0 :             for (auto& transInfoJson : rankInfoJson[PROP_TRANS_INFO]) {
     343              :                 TransportInfo_t transportInfo;
     344            0 :                 transportInfo.dstRankId = transInfoJson[PROP_DEST_RANK];
     345            0 :                 transportInfo.transportType = transInfoJson[PROP_TRANS_TYPE];
     346            0 :                 rankInfo.transportInfo.push_back(transportInfo);
     347              :             }
     348              :         }
     349            0 :         clusterInfo.rankList.push_back(rankInfo);
     350            0 :     }
     351            0 :     for (auto& serverInfoJson : jClusterJson[PROP_SERVER_LIST]) {
     352            0 :         ServerInfo_t serverInfo;
     353            0 :         serverInfo.serverId = serverInfoJson[PROP_SERVER_ID];
     354            0 :         for (auto& networkInfoJson : serverInfoJson[PROP_NETWORK_INFO_LIST]) {
     355            0 :             NetworkInfo_t networkInfo;
     356            0 :             networkInfo.ethName = networkInfoJson[PROP_NETWORK_ETHNAME];
     357            0 :             CHK_RET(networkInfo.ipAddr.SetReadableAddress(networkInfoJson[PROP_NETWORK_IPADDR]));
     358            0 :             networkInfo.networkPort = networkInfoJson[PROP_NETWORK_NETWORKPORT];
     359            0 :             CHK_RET(networkInfo.refIp.SetReadableAddress(networkInfoJson[PROP_NETWORK_REFIP]));
     360            0 :             networkInfo.planeID = networkInfoJson[PROP_NETWORK_PLANEID];
     361            0 :             serverInfo.networkInfo.push_back(networkInfo);
     362            0 :         }
     363            0 :         clusterInfo.serverList.push_back(serverInfo);
     364            0 :     }
     365              : 
     366            0 :     return HCCL_SUCCESS;
     367              : }
     368              : 
     369           13 : HcclResult TopoInfoExchangeBase::Struct2Json(const RankTable_t &clusterInfo, nlohmann::json& ClusterJson)
     370              : {
     371           13 :     nlohmann::json rankListJson;
     372           13 :     nlohmann::json serverListJson;
     373              : 
     374           13 :     TransformRankListToJson(clusterInfo, rankListJson);
     375           13 :     for (auto& serverInfo : clusterInfo.serverList) {
     376            0 :         nlohmann::json serverJson;
     377            0 :         serverJson[PROP_SERVER_ID] = serverInfo.serverId;
     378            0 :         nlohmann::json networkInfoListJson;
     379            0 :         for (auto& networkInfo : serverInfo.networkInfo) {
     380            0 :             nlohmann::json networkInfoJson;
     381            0 :             networkInfoJson[PROP_NETWORK_ETHNAME] = networkInfo.ethName;
     382            0 :             networkInfoJson[PROP_NETWORK_IPADDR] = std::string(networkInfo.ipAddr.GetReadableIP());
     383            0 :             networkInfoJson[PROP_NETWORK_NETWORKPORT] = networkInfo.networkPort;
     384            0 :             networkInfoJson[PROP_NETWORK_REFIP] = std::string(networkInfo.refIp.GetReadableIP());
     385            0 :             networkInfoJson[PROP_NETWORK_PLANEID] = networkInfo.planeID;
     386            0 :             networkInfoListJson.push_back(networkInfoJson);
     387            0 :         }
     388            0 :         serverJson[PROP_NETWORK_INFO_LIST] = networkInfoListJson;
     389            0 :         serverListJson.push_back(serverJson);
     390            0 :     }
     391              : 
     392           13 :     ClusterJson[PROP_RANK_NUM] = clusterInfo.rankNum;
     393           13 :     ClusterJson[PROP_DEV_NUM] = clusterInfo.deviceNum;
     394           13 :     ClusterJson[PROP_SRV_NUM] = clusterInfo.serverNum;
     395           13 :     ClusterJson[PROP_SUPER_POD_NUM] = clusterInfo.superPodNum;
     396           13 :     ClusterJson[PROP_DEPLOY_MODE] = clusterInfo.nicDeploy;
     397           13 :     ClusterJson[PROP_RANK_LIST] = rankListJson;
     398           13 :     ClusterJson[PROP_SERVER_LIST] = serverListJson;
     399           13 :     return HCCL_SUCCESS;
     400           13 : }
     401              : 
     402            0 : HcclResult TopoInfoExchangeBase::GrpLeader2Json(const GroupLeader_t &GrpLeaderInfo, nlohmann::json& GroupLeaderJson)
     403              : {
     404            0 :     nlohmann::json leaderListJson;
     405              :  
     406            0 :     for (auto& leaderInfo : GrpLeaderInfo.GroupLeaderList) {
     407            0 :         nlohmann::json leaderJson;
     408              :  
     409            0 :         leaderJson[PROP_NETWORK_IPADDR] = std::string(leaderInfo.ip);
     410            0 :         leaderJson[PROP_NETWORK_NETWORKPORT] = leaderInfo.port;
     411            0 :         leaderJson[PROP_NETWORK_IDENTIFIER] = std::string(leaderInfo.identifier);
     412            0 :         leaderJson[PROP_DEPLOY_MODE] = leaderInfo.nicDeploy;
     413            0 :         leaderJson[PROP_RANK_ID] = leaderInfo.rankId;
     414              :  
     415            0 :         leaderListJson.push_back(leaderJson);
     416            0 :     }
     417              :  
     418            0 :     GroupLeaderJson[PROP_RANK_NUM] = GrpLeaderInfo.grpLeaderNum;
     419            0 :     GroupLeaderJson[PROP_GROUP_LEADER_LIST] = leaderListJson;
     420              :  
     421            0 :     return HCCL_SUCCESS;
     422            0 : }
     423              : 
     424           13 : HcclResult TopoInfoExchangeBase::TransformRankListToJson(const RankTable_t &clusterInfo, nlohmann::json& rankListJson)
     425              :     const
     426              : {
     427           13 :     for (auto& rankInfo : clusterInfo.rankList) {
     428            0 :         nlohmann::json deviceIp;
     429            0 :         for (auto& devIp : rankInfo.deviceInfo.deviceIp) {
     430            0 :             deviceIp.push_back(std::string(devIp.GetReadableIP()));
     431              :         }
     432            0 :         nlohmann::json backupDeviceIp;
     433            0 :         for (auto& backupDevIp : rankInfo.deviceInfo.backupDeviceIp) {
     434            0 :             backupDeviceIp.push_back(std::string(backupDevIp.GetReadableIP()));
     435              :         }
     436            0 :         nlohmann::json devInfoJson;
     437            0 :         devInfoJson[PROP_DEV_ID] = rankInfo.deviceInfo.devicePhyId;
     438            0 :         devInfoJson[PROP_DEV_TYPE] = rankInfo.deviceInfo.deviceType;
     439            0 :         devInfoJson[PROP_DEV_NIC_PORT] = rankInfo.deviceInfo.port;
     440            0 :         devInfoJson[PROP_DEV_VNIC_PORT] = rankInfo.deviceInfo.vnicPort;
     441            0 :         devInfoJson[PROP_BACKUP_DEV_PORT] = rankInfo.deviceInfo.backupPort;
     442            0 :         devInfoJson[PROP_DEV_IP] = deviceIp;
     443            0 :         devInfoJson[PROP_BACKUP_DEV_IP] = backupDeviceIp;
     444            0 :         nlohmann::json rankJson;
     445            0 :         rankJson[PROP_RANK_ID] = rankInfo.rankId;
     446            0 :         rankJson[PROP_SERVER_ID] = rankInfo.serverId;
     447            0 :         rankJson[PROP_HOST_IP] = std::string(rankInfo.hostIp.GetReadableIP());
     448            0 :         rankJson[PROP_DEV_INFO] = devInfoJson;
     449              : 
     450            0 :         rankJson[PROP_SUPER_POD_ID] = rankInfo.superPodId;
     451            0 :         rankJson[PROP_SUPER_DEVICE_ID] = rankInfo.superDeviceId;
     452            0 :         rankJson[PROP_TLS_STATUS] = rankInfo.tlsStatus;
     453              : 
     454              :         /* Optional: for second communication stage */
     455            0 :         nlohmann::json transInfosJson;
     456            0 :         for (auto& transInfo : rankInfo.transportInfo) {
     457            0 :             nlohmann::json transInfoJson;
     458            0 :             transInfoJson[PROP_TRANS_TYPE] = transInfo.transportType;
     459            0 :             transInfoJson[PROP_DEST_RANK]  = transInfo.dstRankId;
     460            0 :             transInfosJson.push_back(transInfoJson);
     461            0 :         }
     462            0 :         if (!transInfosJson.empty()) {
     463            0 :             rankJson[PROP_TRANS_INFO] = transInfosJson;
     464              :         }
     465            0 :         rankListJson.push_back(rankJson);
     466            0 :     }
     467           13 :     return HCCL_SUCCESS;
     468              : }
     469              : 
     470            0 : HcclResult TopoInfoExchangeBase::SetClusterDeploy (const nlohmann::json& jClusterJson, RankTable_t &clusterInfo ) 
     471              : const  
     472              : {
     473            0 :     if(!jClusterJson.contains(PROP_DEPLOY_MODE)) {
     474            0 :         HCCL_ERROR("[SetClusterDeploy]PROP_DEPLOY_MODE is invalid");
     475            0 :         return HCCL_E_INTERNAL;
     476              :     }
     477            0 :     clusterInfo.nicDeploy = jClusterJson[PROP_DEPLOY_MODE];
     478            0 :     return HCCL_SUCCESS;
     479              : }
     480              : 
     481              : }  // namespace hccl
        

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