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LibXPUInfo_IGCL.cpp
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LibXPUInfo_IGCL.cpp
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// Copyright (C) 2024 Intel Corporation
// SPDX-License-Identifier: Apache-2.0
#ifdef XPUINFO_USE_IGCL
#include "LibXPUInfo.h"
#include "LibXPUInfo_EXT_IGCL.h"
#include "DebugStream.h"
#include "LibXPUInfo_Util.h"
namespace XI
{
#define RUN_IGCL_TELEMETRY_TESTS 0
#if RUN_IGCL_TELEMETRY_TESTS
#define PRINT_LOGS(...) printf(__VA_ARGS__)
// Decoding the return code for the most common error codes.
std::string DecodeRetCode(ctl_result_t Res)
{
switch (Res)
{
case CTL_RESULT_SUCCESS:
{
return std::string("[CTL_RESULT_SUCCESS]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_NOT_SUPPORTED:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_NOT_SUPPORTED]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_VOLTAGE_OUTSIDE_RANGE:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_VOLTAGE_OUTSIDE_RANGE]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_FREQUENCY_OUTSIDE_RANGE:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_FREQUENCY_OUTSIDE_RANGE]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_POWER_OUTSIDE_RANGE:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_POWER_OUTSIDE_RANGE]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_TEMPERATURE_OUTSIDE_RANGE:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_TEMPERATURE_OUTSIDE_RANGE]");
}
case CTL_RESULT_ERROR_GENERIC_START:
{
return std::string("[CTL_RESULT_ERROR_GENERIC_START]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_RESET_REQUIRED:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_RESET_REQUIRED]");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_IN_VOLTAGE_LOCKED_MODE:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_IN_VOLTAGE_LOCKED_MODE");
}
case CTL_RESULT_ERROR_CORE_OVERCLOCK_WAIVER_NOT_SET:
{
return std::string("[CTL_RESULT_ERROR_CORE_OVERCLOCK_WAIVER_NOT_SET]");
}
case CTL_RESULT_ERROR_NOT_INITIALIZED:
{
return std::string("[CTL_RESULT_ERROR_NOT_INITIALIZED]");
}
case CTL_RESULT_ERROR_ALREADY_INITIALIZED:
{
return std::string("[CTL_RESULT_ERROR_ALREADY_INITIALIZED]");
}
case CTL_RESULT_ERROR_DEVICE_LOST:
{
return std::string("[CTL_RESULT_ERROR_DEVICE_LOST]");
}
case CTL_RESULT_ERROR_INSUFFICIENT_PERMISSIONS:
{
return std::string("[CTL_RESULT_ERROR_INSUFFICIENT_PERMISSIONS]");
}
case CTL_RESULT_ERROR_NOT_AVAILABLE:
{
return std::string("[CTL_RESULT_ERROR_NOT_AVAILABLE]");
}
case CTL_RESULT_ERROR_UNINITIALIZED:
{
return std::string("[CTL_RESULT_ERROR_UNINITIALIZED]");
}
case CTL_RESULT_ERROR_UNSUPPORTED_VERSION:
{
return std::string("[CTL_RESULT_ERROR_UNSUPPORTED_VERSION]");
}
case CTL_RESULT_ERROR_UNSUPPORTED_FEATURE:
{
return std::string("[CTL_RESULT_ERROR_UNSUPPORTED_FEATURE]");
}
case CTL_RESULT_ERROR_INVALID_ARGUMENT:
{
return std::string("[CTL_RESULT_ERROR_INVALID_ARGUMENT]");
}
case CTL_RESULT_ERROR_INVALID_NULL_HANDLE:
{
return std::string("[CTL_RESULT_ERROR_INVALID_NULL_HANDLE]");
}
case CTL_RESULT_ERROR_INVALID_NULL_POINTER:
{
return std::string("[CTL_RESULT_ERROR_INVALID_NULL_POINTER]");
}
case CTL_RESULT_ERROR_INVALID_SIZE:
{
return std::string("[CTL_RESULT_ERROR_INVALID_SIZE]");
}
case CTL_RESULT_ERROR_UNSUPPORTED_SIZE:
{
return std::string("[CTL_RESULT_ERROR_UNSUPPORTED_SIZE]");
}
case CTL_RESULT_ERROR_NOT_IMPLEMENTED:
{
return std::string("[CTL_RESULT_ERROR_NOT_IMPLEMENTED]");
}
case CTL_RESULT_ERROR_ZE_LOADER:
{
return std::string("[CTL_RESULT_ERROR_ZE_LOADER]");
}
case CTL_RESULT_ERROR_INVALID_OPERATION_TYPE:
{
return std::string("[CTL_RESULT_ERROR_INVALID_OPERATION_TYPE]");
}
case CTL_RESULT_ERROR_UNKNOWN:
{
return std::string("[CTL_RESULT_ERROR_UNKNOWN]");
}
default:
return std::string("[Unknown Error]");
}
}
/***************************************************************
* @brief
* place_holder_for_Detailed_desc
* @param
* @return
***************************************************************/
void CtlFrequencyTest(ctl_device_adapter_handle_t hDAhandle)
{
uint32_t FrequencyHandlerCount = 0;
ctl_result_t res = ctlEnumFrequencyDomains(hDAhandle, &FrequencyHandlerCount, nullptr);
if ((res != CTL_RESULT_SUCCESS) || FrequencyHandlerCount == 0)
{
PRINT_LOGS("\nTemperature component not supported. Error: %s", DecodeRetCode(res).c_str());
return;
}
else
{
PRINT_LOGS("\nNumber of Frequency Handles [%d]", FrequencyHandlerCount);
}
ctl_freq_handle_t* pFrequencyHandle = new ctl_freq_handle_t[FrequencyHandlerCount];
res = ctlEnumFrequencyDomains(hDAhandle, &FrequencyHandlerCount, pFrequencyHandle);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nError: %s for Frequency handle.", DecodeRetCode(res).c_str());
goto cleanUp;
}
for (uint32_t i = 0; i < FrequencyHandlerCount; i++)
{
PRINT_LOGS("\n\nFor Frequency Handle: [%d]", i);
PRINT_LOGS("\n\n[Frequency] Properties:");
ctl_freq_properties_t freqProperties = { 0 };
freqProperties.Size = sizeof(ctl_freq_properties_t);
res = ctlFrequencyGetProperties(pFrequencyHandle[i], &freqProperties);
if (res)
{
PRINT_LOGS("\n from Frequency get properties. %s", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Frequency] Min [%f]] Mhz", freqProperties.min);
PRINT_LOGS("\n[Frequency] Max [%f]] Mhz", freqProperties.max);
PRINT_LOGS("\n[Frequency] Can Control Frequency? [%d]]", (uint32_t)freqProperties.canControl);
PRINT_LOGS("\n[Frequency] Frequency Domain [%s]]", ((freqProperties.type == CTL_FREQ_DOMAIN_GPU) ? "GPU" : "MEMORY"));
}
PRINT_LOGS("\n\n[Frequency] State:");
ctl_freq_state_t freqState = { 0 };
freqState.Size = sizeof(ctl_freq_state_t);
res = ctlFrequencyGetState(pFrequencyHandle[i], &freqState);
if (res)
{
PRINT_LOGS("\n %s from Frequency get state.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Frequency] Actual Frequency [%f] Mhz", freqState.actual);
PRINT_LOGS("\n[Frequency] Efficient Frequency [%f] Mhz", freqState.efficient);
PRINT_LOGS("\n[Frequency] Requested Frequency [%f] Mhz", freqState.request);
PRINT_LOGS("\n[Frequency] Max Frequency at current TDP [%f] MHz", freqState.tdp);
PRINT_LOGS("\n[Frequency] Throttle Reasons [%d]", freqState.throttleReasons);
PRINT_LOGS("\n[Frequency] Voltage [%f] Volts", freqState.currentVoltage);
}
PRINT_LOGS("\n\n[Frequency] Get throttle time:");
ctl_freq_throttle_time_t throttleTime = { 0 };
throttleTime.Size = sizeof(ctl_freq_throttle_time_t);
res = ctlFrequencyGetThrottleTime(pFrequencyHandle[i], &throttleTime);
if (res)
{
PRINT_LOGS("\n %s from Frequency get throttle time.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Frequency] Throttle Time [%I64u ] s", throttleTime.throttleTime);
PRINT_LOGS("\n[Frequency] Timestamp [%I64u] s", throttleTime.timestamp);
}
PRINT_LOGS("\n\n[Frequency] Available clocks:");
uint32_t numClocks = 0;
res = ctlFrequencyGetAvailableClocks(pFrequencyHandle[i], &numClocks, 0);
if (res || numClocks == 0)
{
PRINT_LOGS("\n %s from Frequency get available clocks.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Frequency] Number of Available clocks [%d]", numClocks);
//clocks = new double[numClocks];
//res = ctlFrequencyGetAvailableClocks(pFrequencyHandle[i], &numClocks, clocks);
//for (uint32_t i = 0; i < numClocks; i++)
//{
// PRINT_LOGS("\n[Frequency] Clock [%d] Freq[%f] Mhz", i, clocks[i]);
//}
//delete[] clocks;
//clocks = nullptr;
}
PRINT_LOGS("\n\n[Frequency] Frequency range:");
ctl_freq_range_t freqRange = { 0 };
freqRange.Size = sizeof(ctl_freq_range_t);
res = ctlFrequencyGetRange(pFrequencyHandle[i], &freqRange);
if (res)
{
PRINT_LOGS("\n %s from Frequency get range.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Frequency] Range Max [%f] Mhz", freqRange.max);
PRINT_LOGS("\n[Frequency] Range Min [%f] Mhz", freqRange.min);
}
PRINT_LOGS("\n\n[Frequency] Set Frequency range:");
res = ctlFrequencySetRange(pFrequencyHandle[i], &freqRange);
if (res)
{
PRINT_LOGS("\n %s from Frequency set range.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n\n[Frequency] Success for Set Range");
}
}
cleanUp:
delete[] pFrequencyHandle;
pFrequencyHandle = nullptr;
}
void CtlPowerTest(ctl_device_adapter_handle_t hDAhandle)
{
uint32_t PowerHandlerCount = 0;
ctl_result_t res = ctlEnumPowerDomains(hDAhandle, &PowerHandlerCount, nullptr);
if ((res != CTL_RESULT_SUCCESS) || PowerHandlerCount == 0)
{
PRINT_LOGS("\nPower component not supported. Error: %s", DecodeRetCode(res).c_str());
return;
}
else
{
PRINT_LOGS("\nNumber of Power Handles [%d]", PowerHandlerCount);
}
ctl_pwr_handle_t* pPowerHandle = new ctl_pwr_handle_t[PowerHandlerCount];
res = ctlEnumPowerDomains(hDAhandle, &PowerHandlerCount, pPowerHandle);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nError: %s for Power handle.", DecodeRetCode(res).c_str());
goto cleanUp;
}
for (uint32_t i = 0; i < PowerHandlerCount; i++)
{
PRINT_LOGS("\n\nFor Power Handle [%d]", i);
ctl_power_properties_t properties = { 0 };
properties.Size = sizeof(ctl_power_properties_t);
res = ctlPowerGetProperties(pPowerHandle[i], &properties);
PRINT_LOGS("\n\n[Power] Properties:");
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\n %s from Power get properties.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Power] Can Control [%d]", (uint32_t)properties.canControl);
PRINT_LOGS("\n[Power] Max Power Limit [%d] mW", properties.maxLimit);
PRINT_LOGS("\n[Power] Min Power Limit [%d] mW", properties.minLimit);
}
PRINT_LOGS("\n\n[Power] Energy counter:");
ctl_power_energy_counter_t energyCounter = { 0 };
energyCounter.Size = sizeof(ctl_power_energy_counter_t);
res = ctlPowerGetEnergyCounter(pPowerHandle[i], &energyCounter);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\n %s from Power get energy counter.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Power] Energy Counter [%I64u] micro J", energyCounter.energy);
PRINT_LOGS("\n[Power] Time Stamp [%I64u] time stamp", energyCounter.timestamp);
}
PRINT_LOGS("\n\n[Power] Get Limits:");
ctl_power_limits_t powerLimits = {};
powerLimits.Size = sizeof(ctl_power_limits_t);
res = ctlPowerGetLimits(pPowerHandle[i], &powerLimits); // TODO: Partially works for DG2
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\n %s from Power get limits.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Power] Sustained Power Limit Enabled [%d]", (uint32_t)powerLimits.sustainedPowerLimit.enabled);
PRINT_LOGS("\n[Power] Sustained Power (PL1) Value [%d] mW", powerLimits.sustainedPowerLimit.power);
PRINT_LOGS("\n[Power] Sustained Power (PL1 Tau) Time Window [%d] ms", powerLimits.sustainedPowerLimit.interval);
PRINT_LOGS("\n[Power] Burst Power Limit Enabled [%d]", (uint32_t)powerLimits.burstPowerLimit.enabled);
PRINT_LOGS("\n[Power] Burst Power (PL2) Value [%d] mW", powerLimits.burstPowerLimit.power);
PRINT_LOGS("\n[Power] Peak Power (PL4) AC Value [%d] mW", powerLimits.peakPowerLimits.powerAC);
PRINT_LOGS("\n[Power] Peak Power (PL4) DC Value [%d] mW", powerLimits.peakPowerLimits.powerDC);
}
PRINT_LOGS("\n\n[Power] Set Limits:");
res = ctlPowerSetLimits(pPowerHandle[i], &powerLimits);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\n %s from Power set limits.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n\n[Power] Set Limits Success!");
}
}
cleanUp:
delete[] pPowerHandle;
pPowerHandle = nullptr;
}
/***************************************************************
* @brief
* place_holder_for_Detailed_desc
* @param
* @return
***************************************************************/
void CtlEngineTest(ctl_device_adapter_handle_t hDAhandle)
{
PRINT_LOGS("\n::::::::::::::Print Engine Properties::::::::::::::\n");
uint32_t EngineHandlerCount = 0;
ctl_result_t res = ctlEnumEngineGroups(hDAhandle, &EngineHandlerCount, nullptr);
if ((res != CTL_RESULT_SUCCESS) || EngineHandlerCount == 0)
{
PRINT_LOGS("\nEngine component not supported. Error: %s", DecodeRetCode(res).c_str());
return;
}
else
{
PRINT_LOGS("\nNumber of Engine Handles [%d]", EngineHandlerCount);
}
ctl_engine_handle_t* pEngineHandle = new ctl_engine_handle_t[EngineHandlerCount];
res = ctlEnumEngineGroups(hDAhandle, &EngineHandlerCount, pEngineHandle);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nError: %s for Engine handle.", DecodeRetCode(res).c_str());
goto cleanUp;
}
for (uint32_t i = 0; i < EngineHandlerCount; i++)
{
PRINT_LOGS("\n\nFor Engine Handle [%d]", i);
ctl_engine_properties_t engineProperties = { 0 };
engineProperties.Size = sizeof(ctl_engine_properties_t);
res = ctlEngineGetProperties(pEngineHandle[i], &engineProperties);
if (res)
{
PRINT_LOGS("\nError: %s from Engine get properties.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Engine] Engine type [%s]", ((engineProperties.type == CTL_ENGINE_GROUP_GT) ? "Gt" :
(engineProperties.type == CTL_ENGINE_GROUP_RENDER) ? "Render" :
(engineProperties.type == CTL_ENGINE_GROUP_MEDIA) ? "Media" :
"Unknown"));
}
ctl_engine_stats_t engineStats = { 0 };
engineStats.Size = sizeof(ctl_engine_stats_t);
const int totalIterations = 3;
int32_t iterations = totalIterations;
uint64_t prevActiveCounter = 0, prevTimeStamp = 0;
do
{
res = ctlEngineGetActivity(pEngineHandle[i], &engineStats);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nError: %s from Engine get activity.", DecodeRetCode(res).c_str());
}
else
{
if (totalIterations != iterations) // need previous value
{
uint64_t activeDiff = engineStats.activeTime - prevActiveCounter;
uint64_t timeWindow = engineStats.timestamp - prevTimeStamp;
double percentActivity = static_cast<double>(activeDiff) / static_cast<double>(timeWindow);
percentActivity *= 100.0;
PRINT_LOGS("\n[Engine] Active Time [%I64u]\n", activeDiff);
PRINT_LOGS("[Engine] Time Stamp [%I64u]\n", timeWindow);
PRINT_LOGS("[Engine] Usage [%f] \n \n \n", percentActivity);
}
prevActiveCounter = engineStats.activeTime;
prevTimeStamp = engineStats.timestamp;
}
iterations--;
Sleep(200);
} while (iterations > 0);
}
cleanUp:
delete[] pEngineHandle;
pEngineHandle = nullptr;
}
const char* printType(ctl_data_type_t Type)
{
switch (Type)
{
case ctl_data_type_t::CTL_DATA_TYPE_INT8:
{
return "CTL_DATA_TYPE_INT8";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_UINT8:
{
return "CTL_DATA_TYPE_UINT8";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_INT16:
{
return "CTL_DATA_TYPE_INT16";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_UINT16:
{
return "CTL_DATA_TYPE_UINT16";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_INT32:
{
return "CTL_DATA_TYPE_INT32";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_UINT32:
{
return "CTL_DATA_TYPE_UINT32";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_INT64:
{
return "CTL_DATA_TYPE_INT64";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_UINT64:
{
return "CTL_DATA_TYPE_UINT64";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_FLOAT:
{
return "CTL_DATA_TYPE_FLOAT";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_DOUBLE:
{
return "CTL_DATA_TYPE_DOUBLE";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_STRING_ASCII:
{
return "CTL_DATA_TYPE_STRING_ASCII";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_STRING_UTF16:
{
return "CTL_DATA_TYPE_STRING_UTF16";
}
break;
case ctl_data_type_t::CTL_DATA_TYPE_STRING_UTF132:
{
return "CTL_DATA_TYPE_STRING_UTF132";
}
break;
default:
return "Unknown units";
}
}
const char* printUnits(ctl_units_t Units)
{
switch (Units)
{
case ctl_units_t::CTL_UNITS_FREQUENCY_MHZ:
{
return "Frequency in MHz";
}
break;
case ctl_units_t::CTL_UNITS_OPERATIONS_GTS:
{
return "GigaOperations per Second";
}
break;
case ctl_units_t::CTL_UNITS_OPERATIONS_MTS:
{
return "MegaOperations per Second";
}
break;
case ctl_units_t::CTL_UNITS_VOLTAGE_VOLTS:
{
return "Voltage in Volts";
}
break;
case ctl_units_t::CTL_UNITS_POWER_WATTS:
{
return "Power in Watts";
}
break;
case ctl_units_t::CTL_UNITS_TEMPERATURE_CELSIUS:
{
return "Temperature in Celsius";
}
break;
case ctl_units_t::CTL_UNITS_ENERGY_JOULES:
{
return "Energy in Joules";
}
break;
case ctl_units_t::CTL_UNITS_TIME_SECONDS:
{
return "Time in Seconds";
}
break;
case ctl_units_t::CTL_UNITS_MEMORY_BYTES:
{
return "Memory in Bytes";
}
break;
case ctl_units_t::CTL_UNITS_ANGULAR_SPEED_RPM:
{
return "Angular Speed in RPM";
}
break;
default:
return "Unknown units";
}
return "Unknown units";
}
void CtlPowerTelemetryTest(ctl_device_adapter_handle_t hDAhandle)
{
PRINT_LOGS("\n:: :: :: :: :: :: ::Print Telemetry:: :: :: :: :: :: ::\n");
ctl_power_telemetry_t pPowerTelemetry = {};
pPowerTelemetry.Size = sizeof(ctl_power_telemetry_t);
ctl_result_t status = ctlPowerTelemetryGet(hDAhandle, &pPowerTelemetry);
if (status == ctl_result_t::CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nTelemetry Success \n");
PRINT_LOGS("\nTimeStamp:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.timeStamp.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.timeStamp.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.timeStamp.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.timeStamp.value.datadouble);
PRINT_LOGS("\nGpu Energy Counter:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.gpuEnergyCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.gpuEnergyCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.gpuEnergyCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.gpuEnergyCounter.value.datadouble);
PRINT_LOGS("\nGpu Voltage:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.gpuVoltage.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.gpuVoltage.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.gpuVoltage.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.gpuVoltage.value.datadouble);
PRINT_LOGS("\nGpu Current Frequency:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.gpuCurrentClockFrequency.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.gpuCurrentClockFrequency.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.gpuCurrentClockFrequency.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.gpuCurrentClockFrequency.value.datadouble);
PRINT_LOGS("\nGpu Current Temperature:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.gpuCurrentTemperature.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.gpuCurrentTemperature.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.gpuCurrentTemperature.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.gpuCurrentTemperature.value.datadouble);
PRINT_LOGS("\nGpu Activity Counter:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.globalActivityCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.globalActivityCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.globalActivityCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.globalActivityCounter.value.datadouble);
PRINT_LOGS("\nRender Activity Counter:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.renderComputeActivityCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.renderComputeActivityCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.renderComputeActivityCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.renderComputeActivityCounter.value.datadouble);
PRINT_LOGS("\nMedia Activity Counter:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.mediaActivityCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.mediaActivityCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.mediaActivityCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.mediaActivityCounter.value.datadouble);
PRINT_LOGS("\nVRAM Energy Counter:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramEnergyCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramEnergyCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramEnergyCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramEnergyCounter.value.datadouble);
PRINT_LOGS("\nVRAM Voltage:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramVoltage.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramVoltage.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramVoltage.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramVoltage.value.datadouble);
PRINT_LOGS("\nVRAM Frequency:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramCurrentClockFrequency.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramCurrentClockFrequency.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramCurrentClockFrequency.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramCurrentClockFrequency.value.datadouble);
PRINT_LOGS("\nVRAM Effective Frequency:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramCurrentEffectiveFrequency.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramCurrentEffectiveFrequency.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramCurrentEffectiveFrequency.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramCurrentEffectiveFrequency.value.datadouble);
PRINT_LOGS("\nVRAM Read Bandwidth:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramReadBandwidthCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramReadBandwidthCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramReadBandwidthCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramReadBandwidthCounter.value.datadouble);
PRINT_LOGS("\nVRAM Write Bandwidth:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramWriteBandwidthCounter.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramWriteBandwidthCounter.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramWriteBandwidthCounter.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramWriteBandwidthCounter.value.datadouble);
PRINT_LOGS("\nVRAM Temperature:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.vramCurrentTemperature.bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.vramCurrentTemperature.units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.vramCurrentTemperature.type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.vramCurrentTemperature.value.datadouble);
PRINT_LOGS("\nFan Speed:");
PRINT_LOGS("\nSupported: %s", ((pPowerTelemetry.fanSpeed[0].bSupported) ? "true" : "false"));
PRINT_LOGS("\nUnits: %s", printUnits(pPowerTelemetry.fanSpeed[0].units));
PRINT_LOGS("\nType: %s", printType(pPowerTelemetry.fanSpeed[0].type));
PRINT_LOGS("\nValue: %f", pPowerTelemetry.fanSpeed[0].value.datadouble);
}
else
{
PRINT_LOGS("\nError: %s", DecodeRetCode(status).c_str());
}
PRINT_LOGS("\n \n");
}
#endif
void XPUInfo::initIGCL(bool useL0)
{
ctl_result_t Result = CTL_RESULT_SUCCESS;
uint32_t Adapter_count = 0;
ctl_init_args_t CtlInitArgs;
ctl_api_handle_t hAPIHandle;
CtlInitArgs.AppVersion = CTL_IMPL_VERSION;
CtlInitArgs.flags = useL0 ? CTL_INIT_FLAG_USE_LEVEL_ZERO : 0;
CtlInitArgs.Size = sizeof(CtlInitArgs);
CtlInitArgs.Version = 0;
ZeroMemory(&CtlInitArgs.ApplicationUID, sizeof(ctl_application_id_t));
Result = ctlInit(&CtlInitArgs, &hAPIHandle);
DebugStream dStr;
if (CTL_RESULT_SUCCESS == Result)
{
// Initialization successful
// Get the list of Intel Adapters
Result = ctlEnumerateDevices(hAPIHandle, &Adapter_count, nullptr);
if (CTL_RESULT_SUCCESS == Result)
{
std::vector<ctl_device_adapter_handle_t> hDevices(Adapter_count);
Result = ctlEnumerateDevices(hAPIHandle, &Adapter_count, hDevices.data());
if (CTL_RESULT_SUCCESS != Result)
{
dStr << ("ctlEnumerateDevices returned failure code: 0x%") << std::hex << Result << std::dec << std::endl;
}
else if (0 == Adapter_count)
{
dStr << ("IGCL: No adapters found\n");
}
else
{
for (uint32_t Index = 0; Index < Adapter_count; Index++)
{
if (nullptr != hDevices[Index])
{
IGCLAdapterPropertiesPtr pStDeviceAdapterProperties(new IGCLAdapterProperties);
if (nullptr == pStDeviceAdapterProperties->pDeviceID)
{
break;
}
Result = ctlGetDeviceProperties(hDevices[Index], pStDeviceAdapterProperties.get());
if (Result != CTL_RESULT_SUCCESS)
{
dStr << "ctlGetDeviceProperties returned failure code: 0x" << std::hex << Result << std::dec << std::endl;
break;
}
if (CTL_DEVICE_TYPE_GRAPHICS != pStDeviceAdapterProperties->device_type)
{
//printf("This is not a Graphics device \n");
continue;
}
if (0x8086 == pStDeviceAdapterProperties->pci_vendor_id)
{
if (nullptr != pStDeviceAdapterProperties->pDeviceID)
{
uint64_t AdapterID{ 0 };
AdapterID = *(static_cast<uint64_t*>(pStDeviceAdapterProperties->pDeviceID));
//PRINT_LOGS("\nIGCL LUID: 0x%.8zx --> %s \n", AdapterID, pStDeviceAdapterProperties->name);
auto it = m_Devices.find(AdapterID);
if (it != m_Devices.end())
{
it->second->initIGCLDevice(hDevices[Index], pStDeviceAdapterProperties);
if (!(m_UsedAPIs & API_TYPE_IGCL))
{
m_UsedAPIs |= API_TYPE_IGCL;
if (useL0)
{
m_UsedAPIs |= API_TYPE_IGCL_L0;
}
}
}
}
}
}
}
}
}
}
else
{
dStr << ("IGCL: ctlInit failed!\n");
}
}
bool CtlMemoryTest_GetMaxBandwidth(ctl_device_adapter_handle_t hDAhandle, I64& outMaxBandwidth)
{
uint32_t MemoryHandlerCount = 0;
ctl_result_t res = ctlEnumMemoryModules(hDAhandle, &MemoryHandlerCount, nullptr);
if ((res != CTL_RESULT_SUCCESS) || MemoryHandlerCount == 0)
{
//PRINT_LOGS("\nMemory component not supported. Error: %s", DecodeRetCode(res).c_str());
return false;
}
else
{
//PRINT_LOGS("\nNumber of Memory Handles [%d]", MemoryHandlerCount);
}
std::vector<ctl_mem_handle_t> pMemoryHandle(MemoryHandlerCount);
res = ctlEnumMemoryModules(hDAhandle, &MemoryHandlerCount, pMemoryHandle.data());
if (res == CTL_RESULT_SUCCESS)
{
for (uint32_t i = 0; i < MemoryHandlerCount; i++)
{
//PRINT_LOGS("\n\nFor Memory Handle [%d]", i);
//PRINT_LOGS("\n[Memory] Get Memory properties:");
ctl_mem_properties_t memoryProperties = { 0 };
memoryProperties.Size = sizeof(ctl_mem_properties_t);
res = ctlMemoryGetProperties(pMemoryHandle[i], &memoryProperties);
if (res != CTL_RESULT_SUCCESS)
{
//PRINT_LOGS("\nError: %s from Memory get properties.", DecodeRetCode(res).c_str());
}
else
{
// PRINT_LOGS("\n[Memory] Bus Width [%d]", memoryProperties.busWidth);
// PRINT_LOGS("\n[Memory] Location [%d]", (uint32_t)memoryProperties.location);
// PRINT_LOGS("\n[Memory] Number of Channels [%d]", memoryProperties.numChannels);
// PRINT_LOGS("\n[Memory] Physical Size [%I64u]", memoryProperties.physicalSize);
// PRINT_LOGS("\n[Memory] Memory Type [%d]", memoryProperties.type);
#if 0
PRINT_LOGS("\n[Memory] Get Memory State:");
ctl_mem_state_t state = { 0 };
state.Size = sizeof(ctl_mem_state_t);
res = ctlMemoryGetState(pMemoryHandle[i], &state);
if (res != CTL_RESULT_SUCCESS)
{
PRINT_LOGS("\nError: %s from Memory get State.", DecodeRetCode(res).c_str());
}
else
{
PRINT_LOGS("\n[Memory] Memory Size [%I64u]", state.size);
PRINT_LOGS("\n[Memory] Memory Free [%I64u]", state.free);
}
#endif
if (memoryProperties.location == CTL_MEM_LOC_DEVICE)
{
//PRINT_LOGS("\n[Memory] Get Memory Bandwidth:");
ctl_mem_bandwidth_t bandwidth;
memset(&bandwidth, 0, sizeof(bandwidth));
bandwidth.Size = sizeof(ctl_mem_bandwidth_t);
bandwidth.Version = 1;
res = ctlMemoryGetBandwidth(pMemoryHandle[i], &bandwidth);
if (res != CTL_RESULT_SUCCESS)
{
//PRINT_LOGS("Error: %s from Memory get Bandwidth.", DecodeRetCode(res).c_str());
}
else
{
if (bandwidth.maxBandwidth)
{
//PRINT_LOGS("\tMax Memory Bandwidth = %.2lf GB/s\n", bandwidth.maxBandwidth / double(1024 * 1024 * 1024));
//PRINT_LOGS("\n[Memory] Time Stamp [%I64u] \n \n", bandwidth.timestamp);
outMaxBandwidth = bandwidth.maxBandwidth;
return true;
}
}
}
}
}
}
return false;
}
void Device::initIGCLDevice(ctl_device_adapter_handle_t inHandle, IGCLAdapterPropertiesPtr& inPropsPtr)
{
{
DebugStream dStr(!!RUN_IGCL_TELEMETRY_TESTS);
dStr << "Initializing IGCL device: " << inPropsPtr->name << std::endl;
}
m_IGCLAdapterName = inPropsPtr->name;
if (inPropsPtr->device_type == CTL_DEVICE_TYPE_GRAPHICS)
{
updateIfDstVal(m_type, DEVICE_TYPE_UNKNOWN, DEVICE_TYPE_GPU);
}
// With older drivers, this is wrong!
updateIfDstVal(m_props.UMA, UMA_UNKNOWN,
(inPropsPtr->graphics_adapter_properties & CTL_ADAPTER_PROPERTIES_FLAG_INTEGRATED) ? UMA_INTEGRATED : NONUMA_DISCRETE);
m_hIGCLAdapter = inHandle;
validAPIs = validAPIs | API_TYPE_IGCL;
IGCLPciPropertiesPtr pIGCLPciProps(new IGCLPciProperties);
ctl_result_t Result = ctlPciGetProperties(m_hIGCLAdapter, pIGCLPciProps.get());
DebugStream dStr(false);
if (Result != CTL_RESULT_SUCCESS)
{
dStr << "ctlPciGetProperties returned failure code: 0x" << std::hex << Result << std::dec << std::endl;
}
else
{
updateIfNotZero(m_props.PCIDeviceGen, pIGCLPciProps->maxSpeed.gen);
updateIfNotZero(m_props.PCIDeviceWidth, pIGCLPciProps->maxSpeed.width);
updateIfNotZero(m_props.PCIDeviceMaxBandwidth, pIGCLPciProps->maxSpeed.maxBandwidth);
Result = ctlPciGetState(m_hIGCLAdapter, &pIGCLPciProps->InitialPCIState);
if (Result == CTL_RESULT_SUCCESS)
{
// Sanity-check IGCL result as some drivers mis-report on certain iGfx parts
// Current PCIe gen is 4, max width is 16. Limit to 8 and 64
if (pIGCLPciProps->InitialPCIState.speed.gen != -1)
{
if ((pIGCLPciProps->InitialPCIState.speed.gen > 0) &&
(pIGCLPciProps->InitialPCIState.speed.gen <= 8))
{
updateIfNotZero(m_props.PCICurrentGen, pIGCLPciProps->InitialPCIState.speed.gen);
}
else
{
dStr << "Invalid data from IGCL: pIGCLPciProps->InitialPCIState.speed.gen = " << pIGCLPciProps->InitialPCIState.speed.gen << std::endl;
}
}
if (pIGCLPciProps->InitialPCIState.speed.width != -1)
{
if ((pIGCLPciProps->InitialPCIState.speed.width > 0) &&
(pIGCLPciProps->InitialPCIState.speed.width <= 64))
{
updateIfNotZero(m_props.PCICurrentWidth, pIGCLPciProps->InitialPCIState.speed.width);
}
else
{
dStr << "Invalid data from IGCL: pIGCLPciProps->InitialPCIState.speed.width = " << pIGCLPciProps->InitialPCIState.speed.width << std::endl;
}
}
double bwDev = m_props.PCIDeviceGen * m_props.PCIDeviceWidth;
double bwScale = (bwDev > 0.) ? ((m_props.PCICurrentGen * m_props.PCICurrentWidth) / bwDev) : 0.;
if ((bwScale > 0.) && (m_props.PCIDeviceMaxBandwidth > 0))
{
m_props.PCICurrentMaxBandwidth = I64(bwScale * m_props.PCIDeviceMaxBandwidth);
}
}
// For iGfx, getting strange result !supported but enabled - filter out
if (!m_props.PCIReBAR.valid)
{
m_props.PCIReBAR.valid = pIGCLPciProps->resizable_bar_supported ||
(!pIGCLPciProps->resizable_bar_supported && !pIGCLPciProps->resizable_bar_enabled);
m_props.PCIReBAR.supported = pIGCLPciProps->resizable_bar_supported;
m_props.PCIReBAR.enabled = pIGCLPciProps->resizable_bar_enabled;
}
if (!m_props.PCIAddress.valid() && isValidPCIAddr(pIGCLPciProps->address))
{
m_props.PCIAddress.domain = pIGCLPciProps->address.domain;
m_props.PCIAddress.bus = pIGCLPciProps->address.bus;
m_props.PCIAddress.device = pIGCLPciProps->address.device;
m_props.PCIAddress.function = pIGCLPciProps->address.function;
}
if (m_props.MemoryBandWidthMax == -1)
{
CtlMemoryTest_GetMaxBandwidth(m_hIGCLAdapter, m_props.MemoryBandWidthMax);
}