/**
 * Copyright (C) 2016-2019 Xilinx, Inc
 *
 * Licensed under the Apache License, Version 2.0 (the "License"). You may
 * not use this file except in compliance with the License. A copy of the
 * License is located 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.
 */

#define XDP_SOURCE

#include "base_profile.h"

#include "xdp/profile/core/rt_profile.h"


namespace xdp {
  //********************
  // Base Profile Writer
  //********************
  ProfileWriterI::ProfileWriterI(XDPPluginI* Plugin,
      const std::string& platformName, const std::string& fileName) :
    mPluginHandle(Plugin),
    mPlatformName(platformName),
    mFileName(fileName)
  {
  }
  
  void ProfileWriterI::openStream(std::ofstream& ofs, const std::string& fileName)
  {
    ofs.open(fileName);
    if (!ofs.is_open()) {
      throw std::runtime_error("Unable to open profile report for writing");
    }
  }

  void ProfileWriterI::writeSummary(RTProfile* profile)
  {
    auto flowMode = mPluginHandle->getFlowMode();

    // Sub-header
    writeDocumentSubHeader(getStream(), profile);

    //Table 1: API Call summary
    std::vector<std::string> APICallSummaryColumnLabels = { "API Name",
        "Number Of Calls", "Total Time (ms)", "Minimum Time (ms)",
        "Average Time (ms)", "Maximum Time (ms)" };

    writeTableHeader(getStream(), "OpenCL API Calls", APICallSummaryColumnLabels);
    profile->writeAPISummary(this);
    writeTableFooter(getStream());

    // Table 2: Kernel Execution Summary
    std::vector<std::string> KernelExecutionSummaryColumnLabels = {
        "Kernel", "Number Of Enqueues", "Total Time (ms)",
        "Minimum Time (ms)", "Average Time (ms)", "Maximum Time (ms)" };

    std::string table2Caption = (flowMode == xdp::RTUtil::HW_EM) ?
        "Kernel Execution (includes estimated device times)" : "Kernel Execution";
    writeTableHeader(getStream(), table2Caption, KernelExecutionSummaryColumnLabels);
    profile->writeKernelSummary(this);
    writeTableFooter(getStream());

    // Table 3: Compute Unit Utilization
    std::vector<std::string> ComputeUnitExecutionSummaryColumnLabels = {
        "Device", "Compute Unit", "Kernel", "Global Work Size", "Local Work Size",
        "Number Of Calls", "Dataflow Execution","Max Overlapping Executions",
        "Dataflow Acceleration", "Total Time (ms)", "Minimum Time (ms)",
        "Average Time (ms)", "Maximum Time (ms)", "Clock Frequency (MHz)" };

    std::string table3Caption = (flowMode == xdp::RTUtil::HW_EM) ?
        "Compute Unit Utilization (includes estimated device times)" : "Compute Unit Utilization";
    writeTableHeader(getStream(), table3Caption, ComputeUnitExecutionSummaryColumnLabels);
    profile->writeComputeUnitSummary(this);
    writeTableFooter(getStream());

    // Table 4: Compute Units: Stall Information
    if (mEnStallTable) {
      std::vector<std::string> KernelStallLabels = {
        "Compute Unit", "Execution Count", "Running Time (ms)", "Intra-Kernel Dataflow Stalls (ms)", 
        "External Memory Stalls (ms)", "Inter-Kernel Pipe Stalls (ms)"
      };

      writeTableHeader(getStream(), "Compute Units: Stall Information", KernelStallLabels);
      profile->writeStallSummary(this);
      writeTableFooter(getStream());
    }

    // Table 5: Data Transfer: Host to Global Memory
    std::vector<std::string> DataTransferSummaryColumnLabels = {
        "Context:Number of Devices", "Transfer Type", "Number Of Buffer Transfers",
        "Transfer Rate (MB/s)", "Average Bandwidth Utilization (%)",
        "Average Buffer Size (KB)", "Total Time (ms)", "Average Time (ms)"
    };
    writeTableHeader(getStream(), "Data Transfer: Host to Global Memory",
        DataTransferSummaryColumnLabels);

    if ((flowMode != xdp::RTUtil::CPU) && (flowMode != xdp::RTUtil::COSIM_EM)) {
      profile->writeTransferSummary(this, xdp::RTUtil::MON_HOST_DYNAMIC);
    }

    writeTableFooter(getStream());

    // Table 6: Data Transfer: Kernels to Global Memory
    std::vector<std::string> KernelDataTransferSummaryColumnLabels = {
      "Device", "Compute Unit/Port Name", "Kernel Arguments", "Memory Resources",
		  "Transfer Type", "Number Of Transfers", "Transfer Rate (MB/s)",
		  "Average Bandwidth Utilization (%)", "Average Size (KB)", "Average Latency (ns)"
    };
    writeTableHeader(getStream(), "Data Transfer: Kernels to Global Memory",
        KernelDataTransferSummaryColumnLabels);
    if (profile->isDeviceProfileOn()) {
      profile->writeKernelTransferSummary(this);
    }
    writeTableFooter(getStream());

    // Table 7 : Stream Data Transfers
    if (mEnStreamTable) {
      std::vector<std::string> StreamTransferSummaryColumnLabels = {
        "Device", "Master Port", "Master Kernel Arguments",
        "Slave Port", "Slave Kernel Arguments",
        "Number Of Transfers", "Transfer Rate (MB/s)", "Average Size (KB)",
        "Link Utilization (%)", "Link Starve (%)", "Link Stall (%)"
      };
      writeTableHeader(getStream(), "Data Transfer: Streams", StreamTransferSummaryColumnLabels);
      profile->writeKernelStreamSummary(this);
      writeTableFooter(getStream());
    }


    if (mEnShellTables) {
      std::vector<std::string> DataTransferSummaryColumnLabels2 = {
        "Device", "Transfer Type", "Number Of Transfers", "Transfer Rate (MB/s)",
        "Total Data Transfer (MB)", "Total Time (ms)", "Average Size (KB)",
        "Average Latency (ns)"
      };

      // Table 8 : Data Transfer: DMA
      writeTableHeader(getStream(), "Data Transfer: DMA",
          DataTransferSummaryColumnLabels2);
      profile->writeTransferSummary(this, xdp::RTUtil::MON_SHELL_XDMA);
      writeTableFooter(getStream());

      // Table 9 : Data Transfer: DMA Bypass
      writeTableHeader(getStream(), "Data Transfer: DMA Bypass",
          DataTransferSummaryColumnLabels2);
      profile->writeTransferSummary(this, xdp::RTUtil::MON_SHELL_P2P);
      writeTableFooter(getStream());

      // Table 10 : Data Transfer: Global Memory to Global Memory
      writeTableHeader(getStream(), "Data Transfer: Global Memory to Global Memory",
          DataTransferSummaryColumnLabels2);
      profile->writeTransferSummary(this, xdp::RTUtil::MON_SHELL_KDMA);
      writeTableFooter(getStream());
    }

    // Table 11 : Top Data Transfer: Kernel & Global
    std::vector<std::string> TopKernelDataTransferSummaryColumnLabels = {
        "Device", "Compute Unit", "Number of Transfers", "Average Bytes per Transfer",
        "Transfer Efficiency (%)", "Total Data Transfer (MB)", "Total Write (MB)",
        "Total Read (MB)", "Total Transfer Rate (MB/s)"
    };
    writeTableHeader(getStream(), "Top Data Transfer: Kernels to Global Memory",
        TopKernelDataTransferSummaryColumnLabels);
    if (profile->isDeviceProfileOn()) {
      profile->writeTopKernelTransferSummary(this);
    }
    writeTableFooter(getStream());
  }

  // Tables 1 and 2: API Call and Kernel Execution Summary: Name, Number Of Calls,
  // Total Time (ms), Minimum Time (ms), Average Time (ms), Maximum Time (ms)
  void ProfileWriterI::writeTimeStats(const std::string& name, const TimeStats& stats)
  {
    writeTableRowStart(getStream());
    writeTableCells(getStream(), name, stats.getNoOfCalls(),
                    stats.getTotalTime(), stats.getMinTime(),
                    stats.getAveTime(), stats.getMaxTime());
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeStallSummary(std::string& cuName, uint32_t cuRunCount,
      double cuRunTimeMsec, double cuStallExt, double cuStallStr, double cuStallInt)
  {
    writeTableRowStart(getStream());
    writeTableCells(getStream(),cuName,cuRunCount, cuRunTimeMsec,
                    cuStallInt, cuStallExt, cuStallStr);
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeKernelStreamSummary(
    const std::string& deviceName, const std::string& MasterPort, const std::string& MasterArgs,
    const std::string& SlavePort, const std::string& SlaveArgs, uint64_t strNumTranx,
    double transferRateMBps, double avgSize, double avgUtil,
    double linkStarve, double linkStall)
  {
    writeTableRowStart(getStream());
    writeTableCells(getStream(), deviceName , MasterPort, MasterArgs,
                    SlavePort, SlaveArgs, strNumTranx, transferRateMBps,
                    avgSize, avgUtil, linkStarve, linkStall);
    writeTableRowEnd(getStream());
  }

  // Table 5: Data Transfer: Host & Global Memory
  // Context ID, Transfer Type, Number Of Transfers, Transfer Rate (MB/s),
  // Average Size (KB), Total Time (ms), Average Time (ms)
  void ProfileWriterI::writeHostTransferSummary(const std::string& name,
      const BufferStats& stats, uint64_t totalBytes, uint64_t totalTranx,
      double totalTimeMsec, double maxTransferRateMBps)
  {
    //double aveTimeMsec = stats.getAveTime();
    double aveTimeMsec = (totalTranx == 0) ? 0.0 : totalTimeMsec / totalTranx;

    // Get min/average/max bytes per transaction
    // NOTE: to remove the dependency on trace, we calculate it based on counter values
    //       also, v1.1 of Alpha Data DSA has incorrect AXI lengths so these will always be 16K
#if 0
    double minBytes = (double)(stats.getMin());
    double aveBytes = (double)(stats.getAverage());
    double maxBytes = (double)(stats.getMax());
#else
    double aveBytes = (totalTranx == 0) ? 0.0 : (double)(totalBytes) / totalTranx;
    //double minBytes = aveBytes;
    //double maxBytes = aveBytes;
#endif

    double transferRateMBps = (totalTimeMsec == 0) ? 0.0 :
        totalBytes / (1000.0 * totalTimeMsec);
    double aveBWUtil = (100.0 * transferRateMBps) / maxTransferRateMBps;
    if (aveBWUtil > 100.0)
      aveBWUtil = 100.0;

    if (aveBWUtil > 0) {
      XDP_LOG("%s: Transfered %u bytes in %.3f msec\n", name.c_str(), totalBytes, totalTimeMsec);
      XDP_LOG("  AveBWUtil = %.3f = %.3f / %.3f\n", aveBWUtil, transferRateMBps, maxTransferRateMBps);
    }

    // Don't show these values for HW emulation
    std::string transferRateStr = std::to_string(transferRateMBps);
    std::string aveBWUtilStr = std::to_string(aveBWUtil);
    std::string totalTimeStr = std::to_string(totalTimeMsec);
    std::string aveTimeStr = std::to_string(aveTimeMsec);
    if (mPluginHandle->getFlowMode() == xdp::RTUtil::HW_EM) {
      transferRateStr = "N/A";
      aveBWUtilStr = "N/A";
      totalTimeStr = "N/A";
      aveTimeStr = "N/A";
    }

    std::string contextDevices = "context" + std::to_string(stats.getContextId())
        + ":" + std::to_string(stats.getNumDevices());

    writeTableRowStart(getStream());
    writeTableCells(getStream(), contextDevices, name, totalTranx,
        transferRateStr, aveBWUtilStr, aveBytes/1000.0, totalTimeStr, aveTimeStr);

    writeTableRowEnd(getStream());
  }

  // Tables 8-10 : Data Transfer: Host to Device, Peer to Peer, & Memory to Memory
  // Device, Transfer Type, Number Of Transfers, Transfer Rate (MB/s),
  // Average Size (KB), Average Latency (ns)
  void ProfileWriterI::writeShellTransferSummary(const std::string& deviceName, const std::string& transferType,
      uint64_t totalBytes, uint64_t totalTranx, double totalLatencyNsec, double totalTimeMsec)
  {
    double totalMB = totalBytes / 1.0e6;
    double transferRateMBps = (totalTimeMsec == 0) ? 0.0 :
        totalBytes / (1000.0 * totalTimeMsec);
    double aveBytes = (totalTranx == 0) ? 0.0 : (double)(totalBytes) / totalTranx;
    double aveLatencyNsec = (totalTranx == 0) ? 0.0 : totalLatencyNsec / totalTranx;

    // Don't show these values for HW emulation or when invalid
    std::string transferRateStr = std::to_string(transferRateMBps);
    std::string totalTimeStr = std::to_string(totalTimeMsec);
    std::string aveLatencyStr = std::to_string(aveLatencyNsec);
    if ((mPluginHandle->getFlowMode() == xdp::RTUtil::HW_EM)
        || (totalTimeMsec == 0) || (totalTranx == 0)) {
      transferRateStr = "N/A";
      totalTimeStr = "N/A";
      aveLatencyStr = "N/A";
    }

    writeTableRowStart(getStream());
    writeTableCells(getStream(), deviceName, transferType, totalTranx,
        transferRateStr, totalMB, totalTimeStr, aveBytes/1000.0, aveLatencyStr);
    writeTableRowEnd(getStream());
  }

  // Table 5: Data Transfer: Kernels & Global Memory
  // Device, CU Port, Kernel Arguments, DDR Bank, Transfer Type, Number Of Transfers,
  // Transfer Rate (MB/s), Average Size (KB), Maximum Size (KB), Average Latency (ns)
  void ProfileWriterI::writeKernelTransferSummary(const std::string& deviceName,
      const std::string& cuPortName, const std::string& argNames, const std::string& memoryName,
	  const std::string& transferType, uint64_t totalBytes, uint64_t totalTranx,
	  double totalTxTimeMsec, double totalTxLatencyMsec, double maxTransferRateMBps)
  {
    double aveLatencyMsec = (totalTranx == 0) ? 0.0 : totalTxLatencyMsec / totalTranx;
    double aveBytes = (totalTranx == 0) ? 0.0 : (double)(totalBytes) / totalTranx;

    double transferRateMBps = (totalTxTimeMsec == 0) ? 0.0 :
        totalBytes / (1000.0 * totalTxTimeMsec);
    double aveBWUtil = (100.0 * transferRateMBps) / maxTransferRateMBps;
    if (aveBWUtil > 100.0)
      aveBWUtil = 100.0;

    if (aveBWUtil > 0) {
      XDP_LOG("Kernel %s: Transfered %u bytes in %.3f msec (device: %s)\n",
          transferType.c_str(), totalBytes, totalTxTimeMsec, deviceName.c_str());
      XDP_LOG("  AveBWUtil = %.3f = %.3f / %.3f\n",
          aveBWUtil, transferRateMBps, maxTransferRateMBps);
    }

    // Get memory name from CU port name string (if found)
    std::string cuPortName2 = cuPortName;
    std::string memoryName2 = memoryName;
    size_t index = cuPortName.find_last_of(IP_LAYOUT_SEP);
    if (index != std::string::npos) {
      cuPortName2 = cuPortName.substr(0, index);
      memoryName2 = cuPortName.substr(index+1);
    }

    writeTableRowStart(getStream());
    writeTableCells(getStream(), deviceName, cuPortName2, argNames, memoryName2,
    	transferType, totalTranx, transferRateMBps, aveBWUtil,
        aveBytes/1000.0, 1.0e6*aveLatencyMsec);

    writeTableRowEnd(getStream());
  }

  // Table 6: Data Transfer: Top Kernel & Global
  // Device, Compute Unit, Number of Transfers, Average Bytes per Transfer,
  // Total Data Transfer (MB), Total Write (MB), Total Read (MB), Total Transfer Rate (MB/s)
  void ProfileWriterI::writeTopKernelTransferSummary(
      const std::string& deviceName, const std::string& cuName,
      uint64_t totalWriteBytes, uint64_t totalReadBytes,
      uint64_t totalWriteTranx, uint64_t totalReadTranx,
      double totalWriteTimeMsec, double totalReadTimeMsec,
      uint32_t maxBytesPerTransfer, double /*maxTransferRateMBps*/)
  {
    double totalTimeMsec = totalWriteTimeMsec + totalReadTimeMsec;

    double transferRateMBps = (totalTimeMsec == 0) ? 0.0 :
        (double)(totalReadBytes + totalWriteBytes) / (1000.0 * totalTimeMsec);
#if 0
    double aveBWUtil = (100.0 * transferRateMBps) / maxTransferRateMBps;
    if (aveBWUtil > 100.0)
      aveBWUtil = 100.0;
#endif

    double aveBytesPerTransfer = ((totalReadTranx + totalWriteTranx) == 0) ? 0.0 :
        (double)(totalReadBytes + totalWriteBytes) / (totalReadTranx + totalWriteTranx);
    double transferEfficiency = (100.0 * aveBytesPerTransfer) / maxBytesPerTransfer;
    if (transferEfficiency > 100.0)
      transferEfficiency = 100.0;

    writeTableRowStart(getStream());
    writeTableCells(getStream(),
        deviceName, cuName,
        totalReadTranx + totalWriteTranx,
        aveBytesPerTransfer, transferEfficiency,
        (double)(totalReadBytes + totalWriteBytes) / 1.0e6,
        (double)(totalWriteBytes) / 1.0e6, (double)(totalReadBytes) / 1.0e6,
        transferRateMBps);
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeKernel(const KernelTrace& trace)
  {
    writeTableRowStart(getStream());

    std::string globalWorkSize = std::to_string(trace.getGlobalWorkSizeByIndex(0))
        + ":" + std::to_string(trace.getGlobalWorkSizeByIndex(1))
        + ":" + std::to_string(trace.getGlobalWorkSizeByIndex(2) ) ;

    std::string localWorkSize = std::to_string(trace.getLocalWorkSizeByIndex(0))  + ":" + std::to_string(trace.getLocalWorkSizeByIndex(1))
    + ":" + std::to_string(trace.getLocalWorkSizeByIndex(2) ) ;

    writeTableCells(getStream(), trace.getAddress(), trace.getKernelName(),
        trace.getContextId(), trace.getCommandQueueId(),
        trace.getDeviceName(), trace.getStart(), trace.getDuration(),
        //globalWorkSize, trace.getWorkGroupSize());
        globalWorkSize, localWorkSize);
    writeTableRowEnd(getStream());
  }

  // Write buffer trace summary (host to global memory)
  void ProfileWriterI::writeBuffer(const BufferTrace& trace)
  {
    std::string durationStr = std::to_string( trace.getDuration() );
    double rate = (double)(trace.getSize()) / (1000.0 * trace.getDuration());
    std::string rateStr = std::to_string(rate);
    if  (  mPluginHandle->getFlowMode() == xdp::RTUtil::CPU
        || mPluginHandle->getFlowMode() == xdp::RTUtil::COSIM_EM
        || mPluginHandle->getFlowMode() == xdp::RTUtil::HW_EM) {
      durationStr = "N/A";
      rateStr = "N/A";
    }

    writeTableRowStart(getStream());

    writeTableCells(getStream(), trace.getAddress(), trace.getContextId(),
        trace.getCommandQueueId(), trace.getStart(), durationStr,
        (double)(trace.getSize())/1000.0, rateStr);

    writeTableRowEnd(getStream());
  }

  // Write device trace summary
  void ProfileWriterI::writeDeviceTransfer(const DeviceTrace& trace)
  {
    writeTableRowStart(getStream());
    writeTableCells(getStream(), trace.Name, trace.ContextId, trace.Start,
        trace.BurstLength, (trace.EndTime - trace.StartTime),
        1000.0*(trace.End - trace.Start));
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeComputeUnitSummary(const std::string& name, const TimeStats& stats)
  {
    if (stats.getTotalTime() == 0.0)
      return;
    //"name" is of the form "deviceName|kernelName|globalSize|localSize|cuName"
    size_t first_index = name.find_first_of("|");
    size_t second_index = name.find('|', first_index+1);
    size_t third_index = name.find('|', second_index+1);
    size_t fourth_index = name.find_last_of("|");

    auto cuName = name.substr(fourth_index+1);
    auto deviceName = name.substr(0, first_index);
    auto maxParallelIter = stats.getMetadata();
    std::string isDataflow = stats.getFlags() ? "Yes" : "No";
    double speedup = (stats.getAveTime() * stats.getNoOfCalls()) / stats.getTotalTime();
    std::string speedup_string = std::to_string(speedup) + "x";

    writeTableRowStart(getStream());
    writeTableCells(getStream(), deviceName,
        cuName,
        name.substr(first_index+1, second_index - first_index -1), // kernelName
        name.substr(second_index+1, third_index - second_index -1), // globalSize
        name.substr(third_index+1, fourth_index - third_index -1), // localSize
        stats.getNoOfCalls(), isDataflow, maxParallelIter, speedup_string,
        stats.getTotalTime(), stats.getMinTime(),
        stats.getAveTime(), stats.getMaxTime(), stats.getClockFreqMhz());
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeAcceleratorSummary(const std::string& name, const TimeStats& stats)
  {
    //"name" is of the form "deviceName|kernelName|globalSize|localSize|cuName"
    size_t first_index = name.find_first_of("|");
    //size_t second_index = name.find('|', first_index+1);
    //size_t third_index = name.find('|', second_index+1);
    size_t fourth_index = name.find_last_of("|");

    std::string deviceName = name.substr(0, first_index);
    auto clockFreqMHz = mPluginHandle->getKernelClockFreqMHz(deviceName);

    writeTableRowStart(getStream());
    writeTableCells(getStream(), deviceName,
        name.substr(fourth_index+1), // cuName
        stats.getNoOfCalls(), stats.getTotalTime(), stats.getMinTime(),
        stats.getAveTime(), stats.getMaxTime(), clockFreqMHz);
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeBufferStats(const std::string& name,
      const BufferStats& stats)
  {
    writeTableRowStart(getStream());
    writeTableCells(getStream(), name, stats.getCount(),
        stats.getTotalTime(), stats.getAveTime(),
        stats.getAveTransferRate(), (double)(stats.getMin())/1000.0,
        (double)(stats.getAverage())/1000.0, (double)(stats.getMax())/1000.0);
    writeTableRowEnd(getStream());
  }

  void ProfileWriterI::writeGuidanceMetadataSummary(RTProfile *profile)
  {
    auto deviceExecTimesMap  = mPluginHandle->getDeviceExecTimesMap();
    auto computeUnitCallsMap = mPluginHandle->getComputeUnitCallsMap();
    auto kernelCountsMap     = mPluginHandle->getKernelCountsMap();
    auto numMonitorMap       = mPluginHandle->getNumMonitorMap();

    // 1. Device execution times
    std::string checkName;
    XDPPluginI::getGuidanceName(XDPPluginI::DEVICE_EXEC_TIME, checkName);

    for(auto& itr : deviceExecTimesMap) {
      writeTableRowStart(getStream());
      writeTableCells(getStream(), checkName, itr.first /*deviceName*/, itr.second /*value*/);
      writeTableRowEnd(getStream());
    }

    // 2. Compute Unit calls
    std::string checkName2;
    XDPPluginI::getGuidanceName(XDPPluginI::CU_CALLS, checkName2);

    for(auto& itr : computeUnitCallsMap) {
      writeTableRowStart(getStream());
      writeTableCells(getStream(), checkName2, itr.first /*cuName*/, itr.second /*value*/);
      writeTableRowEnd(getStream());
    }

    // 3. Number of monitors on devices
    std::string checkName3;
    XDPPluginI::getGuidanceName(XDPPluginI::NUM_MONITORS, checkName3);

    for(auto& itr : numMonitorMap) {
      writeTableRowStart(getStream());
      writeTableCells(getStream(), checkName3, itr.first /*deviceName|monType*/, itr.second /*value*/);
      writeTableRowEnd(getStream());
    }

    // 4. Usage of MigrateMemObjects
    std::string checkName4;
    XDPPluginI::getGuidanceName(XDPPluginI::MIGRATE_MEM, checkName4);
    int migrateMemCalls = profile->getMigrateMemCalls();
    writeTableCells(getStream(), checkName4, "host", migrateMemCalls);
    writeTableRowEnd(getStream());

    // 5. Usage of memory resources
    {
      std::string check;
      auto map = mPluginHandle->getDeviceMemUsageStatsMap();
      XDPPluginI::getGuidanceName(XDPPluginI::MEMORY_USAGE, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // 5a. PLRAM device
    std::string checkName5a;
    XDPPluginI::getGuidanceName(XDPPluginI::PLRAM_DEVICE, checkName5a);
    int isPlram = (mPluginHandle->isPlramDevice()) ? 1 : 0;
    writeTableCells(getStream(), checkName5a, "all", isPlram);
    writeTableRowEnd(getStream());

    // 5b. HBM device
    std::string checkName5b;
    XDPPluginI::getGuidanceName(XDPPluginI::HBM_DEVICE, checkName5b);
    int isHbm = (mPluginHandle->isHbmDevice()) ? 1 : 0;
    writeTableCells(getStream(), checkName5b, "all", isHbm);
    writeTableRowEnd(getStream());

    // 5c. KDMA device
    std::string checkName5c;
    XDPPluginI::getGuidanceName(XDPPluginI::KDMA_DEVICE, checkName5c);
    int isKdma = (mPluginHandle->isKdmaDevice()) ? 1 : 0;
    writeTableCells(getStream(), checkName5c, "all", isKdma);
    writeTableRowEnd(getStream());

    // 5d. P2P device
    std::string checkName5d;
    XDPPluginI::getGuidanceName(XDPPluginI::P2P_DEVICE, checkName5d);
    int isP2P = (mPluginHandle->isP2PDevice()) ? 1 : 0;
    writeTableCells(getStream(), checkName5d, "all", isP2P);
    writeTableRowEnd(getStream());

    // 5e. Host transfers from P2P buffers
    std::string checkName5e;
    XDPPluginI::getGuidanceName(XDPPluginI::P2P_HOST_TRANSFERS, checkName5e);
    int hostP2PTransfers = profile->getHostP2PTransfers();
    writeTableCells(getStream(), checkName5e, "host", hostP2PTransfers);
    writeTableRowEnd(getStream());

    // 6. Port data widths
    std::string checkName6;
    XDPPluginI::getGuidanceName(XDPPluginI::PORT_BIT_WIDTH, checkName6);
    auto cuPortVector = mPluginHandle->getCUPortVector();

    for (auto& cuPort : cuPortVector) {
      auto cu    = std::get<0>(cuPort);
      auto port  = std::get<1>(cuPort);
      std::string portName = cu + "/" + port;
      auto portWidth = std::get<4>(cuPort);
      writeTableCells(getStream(), checkName6, portName, portWidth);
      writeTableRowEnd(getStream());
    }

    // 7. Kernel CU counts
    std::string checkName7;
    XDPPluginI::getGuidanceName(XDPPluginI::KERNEL_COUNT, checkName7);

    for (auto kernelCount : kernelCountsMap) {
      writeTableCells(getStream(), checkName7, kernelCount.first, kernelCount.second);
      writeTableRowEnd(getStream());
    }

    // 8. OpenCL objects released
    std::string checkName8;
    XDPPluginI::getGuidanceName(XDPPluginI::OBJECTS_RELEASED, checkName8);
    int numReleased = (mPluginHandle->isObjectsReleased()) ? 1 : 0;
    writeTableCells(getStream(), checkName8, "all", numReleased);
    writeTableRowEnd(getStream());

    // 9. Trace memory
    std::string checkName9;
    XDPPluginI::getGuidanceName(XDPPluginI::TRACE_MEMORY, checkName9);
    std::string traceMem = mPluginHandle->getTraceMemory();
    writeTableCells(getStream(), checkName9, "all", traceMem);
    writeTableRowEnd(getStream());

    // Context Enabled in CU
    std::string checkName10;
    XDPPluginI::getGuidanceName(XDPPluginI::CU_CONTEXT_EN, checkName10);
    int ctxUsed = mPluginHandle->isCtxEn() ? 1 : 0;
    writeTableCells(getStream(), checkName10, "all", ctxUsed);
    writeTableRowEnd(getStream());

    // Max Parallel Enqueues for each kernel
    {
      std::string check;
      auto map = mPluginHandle->getKernelMaxParallelStartsMap();
      XDPPluginI::getGuidanceName(XDPPluginI::MAX_PARALLEL_KERNEL_ENQUEUES, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // Out of order Command Queues
    {
      std::string check;
      auto map = mPluginHandle->getmCQInfoMap();
      XDPPluginI::getGuidanceName(XDPPluginI::COMMAND_QUEUE_OOO, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // PLRAM Sizes on devices
    {
      std::string check;
      auto map = mPluginHandle->getDevicePlramSizeMap();
      XDPPluginI::getGuidanceName(XDPPluginI::PLRAM_SIZE_BYTES, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // Kernel Buffer Info
    {
      std::string check;
      auto map = mPluginHandle->getKernelBufferInfoMap();
      XDPPluginI::getGuidanceName(XDPPluginI::KERNEL_BUFFER_INFO, check);
      for (auto const& it : map) {
        for (auto const& entry: it.second) {
          writeTableCells(getStream(), check, entry);
          writeTableRowEnd(getStream());
        }
      }
    }

    // If Trace Buffer is Full on devices
    {
      std::string check;
      auto map = mPluginHandle->getDeviceTraceBufferFullMap();
      XDPPluginI::getGuidanceName(XDPPluginI::TRACE_BUFFER_FULL, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // Bit widths of each memory type on devices
    {
      std::string check;
      auto map = mPluginHandle->getDeviceMemTypeBitWidthMap();
      XDPPluginI::getGuidanceName(XDPPluginI::MEMORY_TYPE_BIT_WIDTH, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // xrt.ini settings
    {
      std::string check;
      auto map = mPluginHandle->getXrtIniMap();
      XDPPluginI::getGuidanceName(XDPPluginI::XRT_INI_SETTING, check);
      for (auto const& it : map) {
        writeTableCells(getStream(), check, it.first, it.second);
        writeTableRowEnd(getStream());
      }
    }

    // Time period during which host buffer read transfers were active
    {
      std::string check;
      double time = mPluginHandle->getRdBufferActiveTimeMs();
      XDPPluginI::getGuidanceName(XDPPluginI::BUFFER_RD_ACTIVE_TIME_MS, check);
      writeTableCells(getStream(), check, "all", time);
      writeTableRowEnd(getStream());
    }

    // Time period during which host buffer write transfers were active
    {
      std::string check;
      double time = mPluginHandle->getWrBufferActiveTimeMs();
      XDPPluginI::getGuidanceName(XDPPluginI::BUFFER_WR_ACTIVE_TIME_MS, check);
      writeTableCells(getStream(), check, "all", time);
      writeTableRowEnd(getStream());
    }

    // Time period during which all host buffer transfers were active
    {
      std::string check;
      double time = mPluginHandle->getBufferActiveTimeMs();
      XDPPluginI::getGuidanceName(XDPPluginI::BUFFER_TX_ACTIVE_TIME_MS, check);
      writeTableCells(getStream(), check, "all", time);
      writeTableRowEnd(getStream());
    }

    // Application Run Time Ms
    {
      std::string check;
      double time = mPluginHandle->getApplicationRunTimeMs();
      XDPPluginI::getGuidanceName(XDPPluginI::APPLICATION_RUN_TIME_MS, check);
      writeTableCells(getStream(), check, "all", time);
      writeTableRowEnd(getStream());
    }

    // Total kernel runtime across entire application
    {
      std::string check;
      double time = mPluginHandle->getTotalApplicationKernelTimeMs();
      XDPPluginI::getGuidanceName(XDPPluginI::TOTAL_KERNEL_RUN_TIME_MS, check);
      writeTableCells(getStream(), check, "all", time);
      writeTableRowEnd(getStream());
    }
  }

} // xdp
