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rocm-systems/projects/rocprofiler-systems/source/lib/rocprof-sys/library/amd_smi.cpp
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Milan Radosavljevic 4d670099fa [rocprof-sys] Refactor trace_cache architecture with improved type erasure and processing pipeline (#1710)
- Redesigned buffer_storage with a flush_worker pattern for better thread management and resource cleanup
- Introduced type-safe abstractions through new components: cacheable.hpp, cache_type_traits.hpp, sample_processor.hpp, and type_registry.hpp
- Optimized type erasure implementation in sample processor to reduce runtime overhead
- Renamed rocpd_post_processing to rocpd_processor and restructured the processing pipeline
- Removed storage_parser.cpp and integrated functionality into header-based template implementation
- Enhanced cache_manager with improved processing workflow and better separation of concerns
2025-11-20 14:18:13 -05:00

1329 lines
51 KiB
C++

// Copyright (c) 2018-2025 Advanced Micro Devices, Inc. All Rights Reserved.
//
// Permission is hereby granted, free of charge, to any person obtaining a copy
// of this software and associated documentation files (the "Software"), to deal
// with the Software without restriction, including without limitation the
// rights to use, copy, modify, merge, publish, distribute, sublicense, and/or
// sell copies of the Software, and to permit persons to whom the Software is
// furnished to do so, subject to the following conditions:
//
// * Redistributions of source code must retain the above copyright notice,
// this list of conditions and the following disclaimers.
//
// * Redistributions in binary form must reproduce the above copyright
// notice, this list of conditions and the following disclaimers in the
// documentation and/or other materials provided with the distribution.
//
// * Neither the names of Advanced Micro Devices, Inc. nor the names of its
// contributors may be used to endorse or promote products derived from
// this Software without specific prior written permission.
//
// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
// IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
// FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
// CONTRIBUTORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
// LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
// OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS WITH
// THE SOFTWARE.
#include "core/agent.hpp"
#include "core/trace_cache/cache_manager.hpp"
#include "core/trace_cache/cacheable.hpp"
#include "core/trace_cache/sample_type.hpp"
#include <amd_smi/amdsmi.h>
#include <cstdint>
#if defined(NDEBUG)
# undef NDEBUG
#endif
#include "core/common.hpp"
#include "core/components/fwd.hpp"
#include "core/config.hpp"
#include "core/debug.hpp"
#include "core/gpu.hpp"
#include "core/gpu_metrics.hpp"
#include "core/node_info.hpp"
#include "core/perfetto.hpp"
#include "core/state.hpp"
#include "core/trace_cache/metadata_registry.hpp"
#include "library/amd_smi.hpp"
#include "library/runtime.hpp"
#include "library/thread_info.hpp"
#include <timemory/backends/threading.hpp>
#include <timemory/components/timing/backends.hpp>
#include <timemory/mpl/type_traits.hpp>
#include <timemory/units.hpp>
#include <timemory/utility/delimit.hpp>
#include <timemory/utility/locking.hpp>
#include <cassert>
#include <optional>
#include <sstream>
#include <stdexcept>
#include <string>
#include <sys/resource.h>
#define ROCPROFSYS_AMD_SMI_CALL(...) \
::rocprofsys::amd_smi::check_error(__FILE__, __LINE__, __VA_ARGS__)
namespace rocprofsys
{
namespace amd_smi
{
using bundle_t = std::deque<data>;
using sampler_instances = thread_data<bundle_t, category::amd_smi>;
namespace
{
void
metadata_initialize_category()
{
trace_cache::get_metadata_registry().add_string(
trait::name<category::amd_smi>::value);
}
void
metadata_initialize_smi_tracks(size_t gpu_id)
{
const auto thread_id = std::nullopt;
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_gfx_busy>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_umc_busy>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_mm_busy>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_power>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_temp>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_memory_usage>(
gpu_id),
thread_id, "{}" });
auto add_vcn_track = [&](std::optional<int> xcp_idx) {
for(auto clk = 0; clk < AMDSMI_MAX_NUM_VCN; ++clk)
{
auto name = trace_cache::info::annotate_with_device_id<
category::amd_smi_vcn_activity>(gpu_id, xcp_idx, clk);
trace_cache::get_metadata_registry().add_track(
{ name.c_str(), thread_id, "{}" });
}
};
auto add_jpeg_track = [&](std::optional<int> xcp_idx) {
for(auto clk = 0; clk < AMDSMI_MAX_NUM_JPEG; ++clk)
{
auto name = trace_cache::info::annotate_with_device_id<
category::amd_smi_jpeg_activity>(gpu_id, xcp_idx, clk);
trace_cache::get_metadata_registry().add_track(
{ name.c_str(), thread_id, "{}" });
}
};
if(gpu::vcn_is_device_level_only(gpu_id))
{
add_vcn_track(std::nullopt);
}
else
{
for(int xcp = 0; xcp < AMDSMI_MAX_NUM_XCP; ++xcp)
{
add_vcn_track(xcp);
}
}
if(gpu::jpeg_is_device_level_only(gpu_id))
{
add_jpeg_track(std::nullopt);
}
else
{
for(auto xcp = 0; xcp < AMDSMI_MAX_NUM_XCP; ++xcp)
{
add_jpeg_track(xcp);
}
}
// Add XGMI tracks using specific categories for each metric type
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_xgmi_link_width>(
gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_xgmi_link_speed>(
gpu_id),
thread_id, "{}" });
for(size_t i = 0; i < AMDSMI_MAX_NUM_XGMI_LINKS; ++i)
{
auto read_name =
trace_cache::info::annotate_with_device_id<category::amd_smi_xgmi_read_data>(
gpu_id, std::nullopt, i);
trace_cache::get_metadata_registry().add_track(
{ read_name.c_str(), thread_id, "{}" });
auto write_name =
trace_cache::info::annotate_with_device_id<category::amd_smi_xgmi_write_data>(
gpu_id, std::nullopt, i);
trace_cache::get_metadata_registry().add_track(
{ write_name.c_str(), thread_id, "{}" });
}
// Add PCIe tracks using specific categories for each metric
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_pcie_link_width>(
gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<category::amd_smi_pcie_link_speed>(
gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<
category::amd_smi_pcie_bandwidth_acc>(gpu_id),
thread_id, "{}" });
trace_cache::get_metadata_registry().add_track(
{ trace_cache::info::annotate_with_device_id<
category::amd_smi_pcie_bandwidth_inst>(gpu_id),
thread_id, "{}" });
}
void
metadata_initialize_smi_pmc(size_t gpu_id)
{
// TODO: Find the proper values for a following definitions
size_t EVENT_CODE = 0;
size_t INSTANCE_ID = 0;
const char* LONG_DESCRIPTION = "";
const char* COMPONENT = "";
const char* BLOCK = "";
const char* EXPRESSION = "";
const char* CELSIUS_DEGREES = "\u00B0C";
auto ni = node_info::get_instance();
const char* TARGET_ARCH = "GPU";
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_gfx_busy>::value, "GFX Busy",
trait::name<category::amd_smi_gfx_busy>::description, LONG_DESCRIPTION,
COMPONENT, trace_cache::PERCENTAGE, rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0, "{}" });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_umc_busy>::value, "UMC Busy",
trait::name<category::amd_smi_umc_busy>::description, LONG_DESCRIPTION,
COMPONENT, trace_cache::PERCENTAGE, rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0, "{}" });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_mm_busy>::value, "MM Busy",
trait::name<category::amd_smi_mm_busy>::description, LONG_DESCRIPTION,
COMPONENT, trace_cache::PERCENTAGE, rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0, "{}" });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_temp>::value, "Temp",
trait::name<category::amd_smi_temp>::description, LONG_DESCRIPTION, COMPONENT,
CELSIUS_DEGREES, rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_power>::value, "Pow",
trait::name<category::amd_smi_power>::description, LONG_DESCRIPTION, COMPONENT,
"W", rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_memory_usage>::value, "MemUsg",
trait::name<category::amd_smi_memory_usage>::description, LONG_DESCRIPTION,
COMPONENT, tim::units::mem_repr(tim::units::megabyte),
rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
auto add_vcn_pmc = [&](std::optional<int> xcp_idx) {
for(int clk = 0; clk < AMDSMI_MAX_NUM_VCN; ++clk)
{
std::stringstream name_ss;
name_ss << trait::name<category::amd_smi_vcn_activity>::value;
if(xcp_idx) name_ss << "_" << *xcp_idx;
name_ss << "_" << clk;
std::stringstream symbol_ss;
symbol_ss << "VcnAct";
if(xcp_idx) symbol_ss << "_" << *xcp_idx;
symbol_ss << "_" << clk;
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
name_ss.str(), symbol_ss.str(),
trait::name<category::amd_smi_vcn_activity>::description,
LONG_DESCRIPTION, COMPONENT, trace_cache::PERCENTAGE,
rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
}
};
auto add_jpeg_pmc = [&](std::optional<int> xcp_idx) {
for(auto clk = 0; clk < AMDSMI_MAX_NUM_JPEG; ++clk)
{
std::stringstream name_ss;
name_ss << trait::name<category::amd_smi_jpeg_activity>::value;
if(xcp_idx) name_ss << "_" << *xcp_idx;
name_ss << "_" << std::to_string(clk);
std::stringstream symbol_ss;
symbol_ss << "JpegAct";
if(xcp_idx) symbol_ss << "_" << *xcp_idx;
symbol_ss << "_" << std::to_string(clk);
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
name_ss.str(), symbol_ss.str(),
trait::name<category::amd_smi_jpeg_activity>::description,
LONG_DESCRIPTION, COMPONENT, trace_cache::PERCENTAGE,
rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
}
};
if(gpu::vcn_is_device_level_only(gpu_id))
{
add_vcn_pmc(std::nullopt);
}
else
{
for(int xcp = 0; xcp < AMDSMI_MAX_NUM_XCP; ++xcp)
{
add_vcn_pmc(xcp);
}
}
if(gpu::jpeg_is_device_level_only(gpu_id))
{
add_jpeg_pmc(std::nullopt);
}
else
{
for(auto xcp = 0; xcp < AMDSMI_MAX_NUM_XCP; ++xcp)
{
add_jpeg_pmc(xcp);
}
}
// Add XGMI PMC info using specific categories for each metric type
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_xgmi_link_width>::value, "XgmiLinkWidth",
trait::name<category::amd_smi_xgmi_link_width>::description, LONG_DESCRIPTION,
COMPONENT, "bits", rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0,
0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_xgmi_link_speed>::value, "XgmiLinkSpeed",
trait::name<category::amd_smi_xgmi_link_speed>::description, LONG_DESCRIPTION,
COMPONENT, "GT/s", rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0,
0 });
for(size_t i = 0; i < AMDSMI_MAX_NUM_XGMI_LINKS; ++i)
{
std::stringstream read_name_ss, read_symbol_ss;
read_name_ss << trait::name<category::amd_smi_xgmi_read_data>::value << "_" << i;
read_symbol_ss << "XgmiRead_" << i;
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
read_name_ss.str(), read_symbol_ss.str(),
trait::name<category::amd_smi_xgmi_read_data>::description,
LONG_DESCRIPTION, COMPONENT, "KB", rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0 });
std::stringstream write_name_ss, write_symbol_ss;
write_name_ss << trait::name<category::amd_smi_xgmi_write_data>::value << "_"
<< i;
write_symbol_ss << "XgmiWrite_" << i;
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
write_name_ss.str(), write_symbol_ss.str(),
trait::name<category::amd_smi_xgmi_write_data>::description,
LONG_DESCRIPTION, COMPONENT, "KB", rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0 });
}
// Add PCIe PMC info using specific categories for each metric
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_pcie_link_width>::value, "PcieLinkWidth",
trait::name<category::amd_smi_pcie_link_width>::description, LONG_DESCRIPTION,
COMPONENT, "", rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0, 0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_pcie_link_speed>::value, "PcieLinkSpeed",
trait::name<category::amd_smi_pcie_link_speed>::description, LONG_DESCRIPTION,
COMPONENT, "GT/s", rocprofsys::trace_cache::ABSOLUTE, BLOCK, EXPRESSION, 0,
0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_pcie_bandwidth_acc>::value, "PcieBwAcc",
trait::name<category::amd_smi_pcie_bandwidth_acc>::description,
LONG_DESCRIPTION, COMPONENT, "MB", rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0 });
trace_cache::get_metadata_registry().add_pmc_info(
{ agent_type::GPU, gpu_id, TARGET_ARCH, EVENT_CODE, INSTANCE_ID,
trait::name<category::amd_smi_pcie_bandwidth_inst>::value, "PcieBwInst",
trait::name<category::amd_smi_pcie_bandwidth_inst>::description,
LONG_DESCRIPTION, COMPONENT, "MB/s", rocprofsys::trace_cache::ABSOLUTE, BLOCK,
EXPRESSION, 0, 0 });
}
auto&
get_settings(uint32_t _dev_id)
{
static auto _v = std::unordered_map<uint32_t, amd_smi::settings>{};
return _v[_dev_id];
}
bool&
is_initialized()
{
static bool _v = false;
return _v;
}
amdsmi_version_t&
get_version()
{
static amdsmi_version_t _v = {};
if(_v.major == 0 && _v.minor == 0)
{
auto _err = amdsmi_get_lib_version(&_v);
if(_err != AMDSMI_STATUS_SUCCESS)
ROCPROFSYS_THROW(
"amdsmi_get_version failed. No version information available.");
}
return _v;
}
void
check_error(const char* _file, int _line, amdsmi_status_t _code, bool* _option = nullptr)
{
if(_code == AMDSMI_STATUS_SUCCESS)
return;
else if(_code == AMDSMI_STATUS_NOT_SUPPORTED && _option)
{
*_option = false;
return;
}
const char* _msg = nullptr;
auto _err = amdsmi_status_code_to_string(_code, &_msg);
if(_err != AMDSMI_STATUS_SUCCESS)
ROCPROFSYS_THROW(
"amdsmi_status_code_to_string failed. No error message available. "
"Error code %i originated at %s:%i\n",
static_cast<int>(_code), _file, _line);
ROCPROFSYS_THROW("[%s:%i] Error code %i :: %s", _file, _line, static_cast<int>(_code),
_msg);
}
std::atomic<State>&
get_state()
{
static std::atomic<State> _v{ State::PreInit };
return _v;
}
std::vector<uint8_t>
serialize_gpu_metrics(uint32_t device_id, const data::gpu_metrics_t& metrics,
const gpu::gpu_metrics_capabilities_t& capabilities)
{
// Get settings for this device
auto settings = get_settings(device_id);
// Convert amd_smi::settings to gpu::gpu_metrics_settings_t
gpu::gpu_metrics_settings_t gpu_settings;
gpu_settings.vcn_activity = settings.vcn_activity;
gpu_settings.jpeg_activity = settings.jpeg_activity;
gpu_settings.xgmi = settings.xgmi;
gpu_settings.pcie = settings.pcie;
// Use the shared serialization function
return gpu::serialize_gpu_metrics(metrics, capabilities, gpu_settings);
}
size_t
serialize_settings(uint32_t _device_id)
{
auto settings = get_settings(_device_id);
std::bitset<8> settings_bits;
settings_bits.reset();
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::busy),
settings.busy);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::temp),
settings.temp);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::power),
settings.power);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::mem_usage),
settings.mem_usage);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::vcn_activity),
settings.vcn_activity);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::jpeg_activity),
settings.jpeg_activity);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::xgmi),
settings.xgmi);
settings_bits.set(
static_cast<int>(trace_cache::amd_smi_sample::settings_positions::pcie),
settings.pcie);
return settings_bits.to_ulong();
}
} // namespace
//--------------------------------------------------------------------------------------//
size_t data::device_count = 0;
std::set<uint32_t> data::device_list = {};
std::unique_ptr<data::promise_t> data::polling_finished = {};
data::data(uint32_t _dev_id) { sample(_dev_id); }
void
data::sample(uint32_t _device_id)
{
if(is_child_process()) return;
auto _timestamp = tim::get_clock_real_now<size_t, std::nano>();
assert(_timestamp < std::numeric_limits<int64_t>::max());
amdsmi_gpu_metrics_t _gpu_metrics;
bool _gpu_metrics_needed = false;
auto _state = get_state().load();
if(_state != State::Active) return;
m_dev_id = _device_id;
m_ts = _timestamp;
#define ROCPROFSYS_AMDSMI_GET(OPTION, FUNCTION, ...) \
if(OPTION) \
{ \
try \
{ \
ROCPROFSYS_AMD_SMI_CALL(FUNCTION(__VA_ARGS__), &OPTION); \
} catch(std::runtime_error & _e) \
{ \
ROCPROFSYS_VERBOSE_F( \
0, "[%s] Exception: %s. Disabling future samples from amd-smi...\n", \
#FUNCTION, _e.what()); \
get_state().store(State::Disabled); \
} \
}
amdsmi_processor_handle sample_handle = gpu::get_handle_from_id(_device_id);
ROCPROFSYS_AMDSMI_GET(get_settings(m_dev_id).busy, amdsmi_get_gpu_activity,
sample_handle, &m_busy_perc);
ROCPROFSYS_AMDSMI_GET(get_settings(m_dev_id).temp, amdsmi_get_temp_metric,
sample_handle, AMDSMI_TEMPERATURE_TYPE_JUNCTION,
AMDSMI_TEMP_CURRENT, &m_temp);
#if(AMDSMI_LIB_VERSION_MAJOR == 2 && AMDSMI_LIB_VERSION_MINOR == 0) || \
(AMDSMI_LIB_VERSION_MAJOR == 25 && AMDSMI_LIB_VERSION_MINOR == 2)
// This was a transient change in the AMD SMI API. It was never officially released.
ROCPROFSYS_AMDSMI_GET(get_settings(m_dev_id).power, amdsmi_get_power_info,
sample_handle, 0, &m_power)
#else
ROCPROFSYS_AMDSMI_GET(get_settings(m_dev_id).power, amdsmi_get_power_info,
sample_handle, &m_power)
#endif
ROCPROFSYS_AMDSMI_GET(get_settings(m_dev_id).mem_usage, amdsmi_get_gpu_memory_usage,
sample_handle, AMDSMI_MEM_TYPE_VRAM, &m_mem_usage);
// Check if GPU metrics are needed for VCN, JPEG, XGMI, or PCIe
_gpu_metrics_needed = get_settings(m_dev_id).vcn_activity ||
get_settings(m_dev_id).jpeg_activity ||
get_settings(m_dev_id).xgmi || get_settings(m_dev_id).pcie;
ROCPROFSYS_AMDSMI_GET(_gpu_metrics_needed, amdsmi_get_gpu_metrics_info, sample_handle,
&_gpu_metrics);
// Determine if basic metrics are enabled
bool _basic_metrics_enabled =
get_settings(m_dev_id).busy || get_settings(m_dev_id).temp ||
get_settings(m_dev_id).power || get_settings(m_dev_id).mem_usage;
// Process GPU metrics if needed
if(_gpu_metrics_needed || _basic_metrics_enabled)
{
gpu_metrics_t metrics;
bool has_data = false;
gpu::gpu_metrics_capabilities_t capabilities;
if(_gpu_metrics_needed)
{
capabilities.flags.vcn_is_device_level_only =
gpu::vcn_is_device_level_only(m_dev_id);
capabilities.flags.jpeg_is_device_level_only =
gpu::jpeg_is_device_level_only(m_dev_id);
// Helper lambda to filter max uint values (unsupported) - returns 0 if max,
// otherwise the value
auto filter_max_uint_value = [](const auto& value) {
using ValueType = std::decay_t<decltype(value)>;
return (value == std::numeric_limits<ValueType>::max()) ? ValueType{ 0 }
: value;
};
auto fill_gpu_metrics = [](auto& dest, const auto& src, auto max_val) {
for(const auto& val : src)
{
if(val != max_val) dest.push_back(val);
}
};
if(get_settings(m_dev_id).vcn_activity)
{
if(capabilities.flags.vcn_is_device_level_only)
{
fill_gpu_metrics(metrics.vcn_activity, _gpu_metrics.vcn_activity,
UINT16_MAX);
if(!metrics.vcn_activity.empty()) has_data = true;
}
else
{
for(const auto& xcp : _gpu_metrics.xcp_stats)
{
std::vector<uint16_t> xcp_vcn_data;
fill_gpu_metrics(xcp_vcn_data, xcp.vcn_busy, UINT16_MAX);
if(!xcp_vcn_data.empty())
{
metrics.vcn_busy.push_back(std::move(xcp_vcn_data));
has_data = true;
}
}
}
}
if(get_settings(m_dev_id).jpeg_activity)
{
if(capabilities.flags.jpeg_is_device_level_only)
{
fill_gpu_metrics(metrics.jpeg_activity, _gpu_metrics.jpeg_activity,
UINT16_MAX);
if(!metrics.jpeg_activity.empty()) has_data = true;
}
else
{
for(const auto& xcp : _gpu_metrics.xcp_stats)
{
std::vector<uint16_t> xcp_jpeg_data;
fill_gpu_metrics(xcp_jpeg_data, xcp.jpeg_busy, UINT16_MAX);
if(!xcp_jpeg_data.empty())
{
metrics.jpeg_busy.push_back(std::move(xcp_jpeg_data));
has_data = true;
}
}
}
}
// Process XGMI metrics if enabled
if(get_settings(m_dev_id).xgmi)
{
// Filter scalar values - returns 0 if unsupported (max value)
metrics.xgmi_link_width =
filter_max_uint_value(_gpu_metrics.xgmi_link_width);
metrics.xgmi_link_speed =
filter_max_uint_value(_gpu_metrics.xgmi_link_speed);
// Vector values filtered by fill_gpu_metrics
fill_gpu_metrics(metrics.xgmi_read_data_acc,
_gpu_metrics.xgmi_read_data_acc, UINT64_MAX);
fill_gpu_metrics(metrics.xgmi_write_data_acc,
_gpu_metrics.xgmi_write_data_acc, UINT64_MAX);
if(metrics.xgmi_link_width != 0 || metrics.xgmi_link_speed != 0 ||
!metrics.xgmi_read_data_acc.empty() ||
!metrics.xgmi_write_data_acc.empty())
{
has_data = true;
}
}
// Process PCIe metrics if enabled
if(get_settings(m_dev_id).pcie)
{
// Filter scalar values - returns 0 if unsupported (max value)
metrics.pcie_link_width =
filter_max_uint_value(_gpu_metrics.pcie_link_width);
metrics.pcie_link_speed =
filter_max_uint_value(_gpu_metrics.pcie_link_speed);
metrics.pcie_bandwidth_acc =
filter_max_uint_value(_gpu_metrics.pcie_bandwidth_acc);
metrics.pcie_bandwidth_inst =
filter_max_uint_value(_gpu_metrics.pcie_bandwidth_inst);
if(metrics.pcie_link_width != 0 || metrics.pcie_link_speed != 0 ||
metrics.pcie_bandwidth_acc != 0 || metrics.pcie_bandwidth_inst != 0)
{
has_data = true;
}
}
}
// Store samples if basic metrics are enabled OR if there's advanced metric data
if(_basic_metrics_enabled || has_data)
{
trace_cache::get_buffer_storage().store(trace_cache::amd_smi_sample{
serialize_settings(m_dev_id), _device_id, _timestamp,
m_busy_perc.gfx_activity, m_busy_perc.umc_activity,
m_busy_perc.mm_activity, m_power.current_socket_power, m_temp,
m_mem_usage, serialize_gpu_metrics(m_dev_id, metrics, capabilities) });
if(has_data) m_gpu_metrics.push_back(metrics);
}
}
#undef ROCPROFSYS_AMDSMI_GET
}
void
data::print(std::ostream& _os) const
{
std::stringstream _ss{};
#if ROCPROFSYS_USE_ROCM > 0
_ss << "device: " << m_dev_id << ", gpu busy: = " << m_busy_perc.gfx_activity
<< "%, mm busy: = " << m_busy_perc.mm_activity
<< "%, umc busy: = " << m_busy_perc.umc_activity << "%, temp = " << m_temp
<< ", current power = " << m_power.current_socket_power
<< ", memory usage = " << m_mem_usage;
#endif
_os << _ss.str();
}
namespace
{
std::vector<unique_ptr_t<bundle_t>*> _bundle_data{};
}
void
config()
{
_bundle_data.resize(data::device_count, nullptr);
for(size_t i = 0; i < data::device_count; ++i)
{
if(data::device_list.count(i) > 0)
{
_bundle_data.at(i) = &sampler_instances::get()->at(i);
if(!*_bundle_data.at(i))
*_bundle_data.at(i) = unique_ptr_t<bundle_t>{ new bundle_t{} };
}
}
data::get_initial().resize(data::device_count);
for(auto itr : data::device_list)
data::get_initial().at(itr).sample(itr);
metadata_initialize_category();
for(const auto& _dev_id : data::device_list)
{
metadata_initialize_smi_tracks(_dev_id);
metadata_initialize_smi_pmc(_dev_id);
}
}
void
sample()
{
auto_lock_t _lk{ type_mutex<category::amd_smi>() };
// TODO: Reorganize amd_smi::data and sampling mechanism not to store same data in
// bundle_data and in trace_cache
for(auto itr : data::device_list)
{
if(amd_smi::get_state() != State::Active) continue;
ROCPROFSYS_DEBUG_F("Polling amd-smi for device %u...\n", itr);
auto& _data = *_bundle_data.at(itr);
if(!_data) continue;
_data->emplace_back(data{ itr });
ROCPROFSYS_DEBUG_F(" %s\n", TIMEMORY_JOIN("", _data->back()).c_str());
}
}
void
set_state(State _v)
{
amd_smi::get_state().store(_v);
}
std::vector<data>&
data::get_initial()
{
static std::vector<data> _v{};
return _v;
}
bool
data::setup()
{
perfetto_counter_track<data>::init();
amd_smi::set_state(State::PreInit);
return true;
}
bool
data::shutdown()
{
amd_smi::set_state(State::Finalized);
return true;
}
#define GPU_METRIC(COMPONENT, ...) \
if constexpr(tim::trait::is_available<COMPONENT>::value) \
{ \
auto* _val = _v.get<COMPONENT>(); \
if(_val) \
{ \
_val->set_value(itr.__VA_ARGS__); \
_val->set_accum(itr.__VA_ARGS__); \
} \
}
void
data::post_process(uint32_t _dev_id)
{
using component::sampling_gpu_busy_gfx;
using component::sampling_gpu_busy_mm;
using component::sampling_gpu_busy_umc;
using component::sampling_gpu_jpeg;
using component::sampling_gpu_memory;
using component::sampling_gpu_power;
using component::sampling_gpu_temp;
using component::sampling_gpu_vcn;
if(device_count < _dev_id) return;
auto& _amd_smi_v = sampler_instances::get()->at(_dev_id);
auto _amd_smi = (_amd_smi_v) ? *_amd_smi_v : std::deque<amd_smi::data>{};
const auto& _thread_info = thread_info::get(0, InternalTID);
ROCPROFSYS_VERBOSE(1, "Post-processing %zu amd-smi samples from device %u\n",
_amd_smi.size(), _dev_id);
ROCPROFSYS_CI_THROW(!_thread_info, "Missing thread info for thread 0");
if(!_thread_info) return;
auto _settings = get_settings(_dev_id);
auto use_perfetto = get_use_perfetto();
for(auto& itr : _amd_smi)
{
using counter_track = perfetto_counter_track<data>;
if(itr.m_dev_id != _dev_id) continue;
uint64_t _ts = itr.m_ts;
if(!_thread_info->is_valid_time(_ts)) continue;
double _gfxbusy = itr.m_busy_perc.gfx_activity;
double _umcbusy = itr.m_busy_perc.umc_activity;
double _mmbusy = itr.m_busy_perc.mm_activity;
double _temp = itr.m_temp;
double _power = itr.m_power.current_socket_power;
double _usage = itr.m_mem_usage / static_cast<double>(units::megabyte);
auto setup_perfetto_counter_tracks = [&]() {
if(counter_track::exists(_dev_id)) return;
auto addendum = [&](const char* _v) {
return JOIN(" ", "GPU", _v, JOIN("", '[', _dev_id, ']'), "(S)");
};
auto addendum_blk = [&](std::size_t _i, const char* _metric,
std::size_t xcp_idx = SIZE_MAX) {
if(xcp_idx != SIZE_MAX)
{
return JOIN(
" ", "GPU", JOIN("", '[', _dev_id, ']'), _metric,
JOIN("", "XCP_", xcp_idx, ": [", (_i < 10 ? "0" : ""), _i, ']'),
"(S)");
}
else
{
return JOIN(" ", "GPU", JOIN("", '[', _dev_id, ']'), _metric,
JOIN("", "[", (_i < 10 ? "0" : ""), _i, ']'), "(S)");
}
};
if(_settings.busy)
{
counter_track::emplace(_dev_id, addendum("GFX Busy"), "%");
counter_track::emplace(_dev_id, addendum("UMC Busy"), "%");
counter_track::emplace(_dev_id, addendum("MM Busy"), "%");
}
if(_settings.temp)
{
counter_track::emplace(_dev_id, addendum("Temperature"), "deg C");
}
if(_settings.power)
{
counter_track::emplace(_dev_id, addendum("Current Power"), "watts");
}
if(_settings.mem_usage)
{
counter_track::emplace(_dev_id, addendum("Memory Usage"), "megabytes");
}
if(_settings.vcn_activity)
{
if(itr.m_gpu_metrics.empty())
{
ROCPROFSYS_VERBOSE(
1, "No VCN activity data collected from device %u\n", _dev_id);
}
else if(gpu::vcn_is_device_level_only(_dev_id))
{
// For VCN activity supported: use vcn_activity vector
for(std::size_t i = 0;
i < std::size(itr.m_gpu_metrics[0].vcn_activity); ++i)
counter_track::emplace(_dev_id, addendum_blk(i, "VCN Activity"),
"%");
}
else
{
// For VCN activity NOT supported: use vcn_busy vector with per-XCP
// organization
for(size_t xcp = 0; xcp < itr.m_gpu_metrics[0].vcn_busy.size(); ++xcp)
{
// Loop through each XCP's VCN busy values
for(size_t i = 0; i < itr.m_gpu_metrics[0].vcn_busy[xcp].size();
++i)
{
counter_track::emplace(
_dev_id, addendum_blk(i, "VCN Activity", xcp), "%");
}
}
}
}
if(_settings.jpeg_activity)
{
if(itr.m_gpu_metrics.empty())
{
ROCPROFSYS_VERBOSE(
1, "No JPEG activity data collected from device %u\n", _dev_id);
}
else if(gpu::jpeg_is_device_level_only(_dev_id))
{
// For JPEG activity supported: use jpeg_activity vector
for(std::size_t i = 0;
i < std::size(itr.m_gpu_metrics[0].jpeg_activity); ++i)
counter_track::emplace(_dev_id, addendum_blk(i, "JPEG Activity"),
"%");
}
else
{
// For JPEG activity NOT supported: use jpeg_busy vector with per-XCP
// organization
for(size_t xcp = 0; xcp < itr.m_gpu_metrics[0].jpeg_busy.size();
++xcp)
{
// Loop through each XCP's JPEG busy values
for(size_t i = 0; i < itr.m_gpu_metrics[0].jpeg_busy[xcp].size();
++i)
{
counter_track::emplace(
_dev_id, addendum_blk(i, "JPEG Activity", xcp), "%");
}
}
}
}
if(_settings.xgmi)
{
if(itr.m_gpu_metrics.empty())
{
ROCPROFSYS_VERBOSE(
1, "No XGMI activity data collected from device %u\n", _dev_id);
}
else
{
counter_track::emplace(_dev_id, addendum("XGMI Link Width"), "bits");
counter_track::emplace(_dev_id, addendum("XGMI Link Speed"), "GT/s");
for(std::size_t i = 0;
i < std::size(itr.m_gpu_metrics[0].xgmi_read_data_acc); ++i)
counter_track::emplace(_dev_id, addendum_blk(i, "XGMI Read Data"),
"KB");
for(std::size_t i = 0;
i < std::size(itr.m_gpu_metrics[0].xgmi_write_data_acc); ++i)
counter_track::emplace(_dev_id,
addendum_blk(i, "XGMI Write Data"), "KB");
}
}
if(_settings.pcie)
{
if(itr.m_gpu_metrics.empty())
{
ROCPROFSYS_VERBOSE(
1, "No PCIe activity data collected from device %u\n", _dev_id);
}
else
{
counter_track::emplace(_dev_id, addendum("PCIe Link Width"), "");
counter_track::emplace(_dev_id, addendum("PCIe Link Speed"), "GT/s");
counter_track::emplace(_dev_id, addendum("PCIe Bandwidth Acc"), "MB");
counter_track::emplace(_dev_id, addendum("PCIe Bandwidth Inst"),
"MB/s");
}
}
};
auto write_perfetto_metrics = [&]() {
size_t track_index = 0;
if(_settings.busy)
{
TRACE_COUNTER("device_busy_gfx",
counter_track::at(_dev_id, track_index++), _ts, _gfxbusy);
TRACE_COUNTER("device_busy_umc",
counter_track::at(_dev_id, track_index++), _ts, _umcbusy);
TRACE_COUNTER("device_busy_mm", counter_track::at(_dev_id, track_index++),
_ts, _mmbusy);
}
if(_settings.temp)
{
TRACE_COUNTER("device_temp", counter_track::at(_dev_id, track_index++),
_ts, _temp);
}
if(_settings.power)
{
TRACE_COUNTER("device_power", counter_track::at(_dev_id, track_index++),
_ts, _power);
}
if(_settings.mem_usage)
{
TRACE_COUNTER("device_memory_usage",
counter_track::at(_dev_id, track_index++), _ts, _usage);
}
if(_settings.vcn_activity && !itr.m_gpu_metrics.empty())
{
if(gpu::vcn_is_device_level_only(_dev_id))
{
// Device-level VCN activity
for(const auto& vcn_val : itr.m_gpu_metrics[0].vcn_activity)
{
TRACE_COUNTER("device_vcn_activity",
counter_track::at(_dev_id, track_index++), _ts,
vcn_val);
}
}
else
{
// XCP-level VCN busy (per-XCP organization)
for(const auto& xcp_data : itr.m_gpu_metrics[0].vcn_busy)
{
for(const auto& vcn_val : xcp_data)
{
TRACE_COUNTER("device_vcn_activity",
counter_track::at(_dev_id, track_index++), _ts,
vcn_val);
}
}
}
}
if(_settings.jpeg_activity && !itr.m_gpu_metrics.empty())
{
if(gpu::jpeg_is_device_level_only(_dev_id))
{
// Device-level JPEG activity
for(const auto& jpeg_val : itr.m_gpu_metrics[0].jpeg_activity)
{
TRACE_COUNTER("device_jpeg_activity",
counter_track::at(_dev_id, track_index++), _ts,
jpeg_val);
}
}
else
{
// XCP-level JPEG busy (per-XCP organization)
for(const auto& xcp_data : itr.m_gpu_metrics[0].jpeg_busy)
{
for(const auto& jpeg_val : xcp_data)
{
TRACE_COUNTER("device_jpeg_activity",
counter_track::at(_dev_id, track_index++), _ts,
jpeg_val);
}
}
}
}
if(_settings.xgmi && !itr.m_gpu_metrics.empty())
{
TRACE_COUNTER("device_xgmi_link_width",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].xgmi_link_width);
TRACE_COUNTER("device_xgmi_link_speed",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].xgmi_link_speed);
for(const auto& read_val : itr.m_gpu_metrics[0].xgmi_read_data_acc)
{
TRACE_COUNTER("device_xgmi_read_data",
counter_track::at(_dev_id, track_index++), _ts,
read_val);
}
for(const auto& write_val : itr.m_gpu_metrics[0].xgmi_write_data_acc)
{
TRACE_COUNTER("device_xgmi_write_data",
counter_track::at(_dev_id, track_index++), _ts,
write_val);
}
}
if(_settings.pcie && !itr.m_gpu_metrics.empty())
{
TRACE_COUNTER("device_pcie_link_width",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].pcie_link_width);
TRACE_COUNTER("device_pcie_link_speed",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].pcie_link_speed);
TRACE_COUNTER("device_pcie_bandwidth_acc",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].pcie_bandwidth_acc);
TRACE_COUNTER("device_pcie_bandwidth_inst",
counter_track::at(_dev_id, track_index++), _ts,
itr.m_gpu_metrics[0].pcie_bandwidth_inst);
}
};
if(use_perfetto)
{
setup_perfetto_counter_tracks();
write_perfetto_metrics();
}
}
}
//--------------------------------------------------------------------------------------//
void
setup()
{
auto_lock_t _lk{ type_mutex<category::amd_smi>() };
if(is_initialized() || !get_use_amd_smi()) return;
ROCPROFSYS_SCOPED_SAMPLING_ON_CHILD_THREADS(false);
if(!gpu::initialize_amdsmi())
{
ROCPROFSYS_WARNING_F(0,
"AMD SMI is not available. Disabling AMD SMI sampling...");
return;
}
amdsmi_version_t _version = get_version();
ROCPROFSYS_VERBOSE_F(0, "AMD SMI version: %u.%u.%u - str: %s.\n", _version.major,
_version.minor, _version.release, _version.build);
data::device_count = gpu::device_count();
auto _devices_v = get_sampling_gpus();
for(auto& itr : _devices_v)
itr = tolower(itr);
if(_devices_v == "off")
_devices_v = "none";
else if(_devices_v == "on")
_devices_v = "all";
bool _all_devices = _devices_v.find("all") != std::string::npos || _devices_v.empty();
bool _no_devices = _devices_v.find("none") != std::string::npos;
std::set<uint32_t> _devices = {};
auto _emplace = [&_devices](auto idx) {
if(idx < data::device_count) _devices.emplace(idx);
};
if(_all_devices)
{
for(uint32_t i = 0; i < data::device_count; ++i)
_emplace(i);
}
else if(!_no_devices)
{
auto _enabled = tim::delimit(_devices_v, ",; \t");
for(auto&& itr : _enabled)
{
if(itr.find_first_not_of("0123456789-") != std::string::npos)
{
ROCPROFSYS_THROW("Invalid GPU specification: '%s'. Only numerical values "
"(e.g., 0) or ranges (e.g., 0-7) are permitted.",
itr.c_str());
}
if(itr.find('-') != std::string::npos)
{
auto _v = tim::delimit(itr, "-");
ROCPROFSYS_CONDITIONAL_THROW(_v.size() != 2,
"Invalid GPU range specification: '%s'. "
"Required format N-M, e.g. 0-4",
itr.c_str());
for(auto i = std::stoul(_v.at(0)); i < std::stoul(_v.at(1)); ++i)
_emplace(i);
}
else
{
_emplace(std::stoul(itr));
}
}
}
data::device_list = _devices;
auto _metrics = get_setting_value<std::string>("ROCPROFSYS_AMD_SMI_METRICS");
try
{
for(auto itr : _devices)
{
// Enable selected metrics only
if((_metrics && !_metrics->empty()) && (*_metrics != "all"))
{
using key_pair_t = std::pair<std::string_view, bool&>;
const auto supported = std::unordered_map<std::string_view, bool&>{
key_pair_t{ "busy", get_settings(itr).busy },
key_pair_t{ "temp", get_settings(itr).temp },
key_pair_t{ "power", get_settings(itr).power },
key_pair_t{ "mem_usage", get_settings(itr).mem_usage },
key_pair_t{ "vcn_activity", get_settings(itr).vcn_activity },
key_pair_t{ "jpeg_activity", get_settings(itr).jpeg_activity },
key_pair_t{ "xgmi", get_settings(itr).xgmi },
key_pair_t{ "pcie", get_settings(itr).pcie },
};
// Initialize all metrics to false
for(auto& it : supported)
it.second = false;
// Parse list of metrics enabled by the user
if(*_metrics != "none")
{
for(const auto& metric : tim::delimit(*_metrics, ",;:\t\n "))
{
auto iitr = supported.find(metric);
if(iitr == supported.end())
ROCPROFSYS_FAIL_F("unsupported amd-smi metric: %s\n",
metric.c_str());
ROCPROFSYS_VERBOSE_F(
1, "Enabling amd-smi metric '%s' on device [%u]\n",
metric.c_str(), itr);
iitr->second = true;
}
}
}
}
is_initialized() = true;
data::setup();
} catch(std::runtime_error& _e)
{
ROCPROFSYS_VERBOSE(0, "Exception thrown when initializing amd-smi: %s\n",
_e.what());
data::device_list = {};
}
}
void
shutdown()
{
auto_lock_t _lk{ type_mutex<category::amd_smi>() };
if(!is_initialized()) return;
ROCPROFSYS_VERBOSE_F(1, "Shutting down amd-smi...\n");
try
{
if(data::shutdown())
{
ROCPROFSYS_AMD_SMI_CALL(amdsmi_shut_down());
}
} catch(std::runtime_error& _e)
{
ROCPROFSYS_VERBOSE(0, "Exception thrown when shutting down amd-smi: %s\n",
_e.what());
}
is_initialized() = false;
}
void
post_process()
{
for(auto itr : data::device_list)
{
ROCPROFSYS_VERBOSE(2, "Post-processing amd-smi data for device: %d", itr);
data::post_process(itr);
}
}
uint32_t
device_count()
{
return gpu::device_count();
}
} // namespace amd_smi
} // namespace rocprofsys
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_busy_gfx>),
true, double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_busy_umc>),
true, double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_busy_mm>),
true, double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_temp>), true,
double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_power>), true,
double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_memory>), true,
double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_vcn>), true,
double)
ROCPROFSYS_INSTANTIATE_EXTERN_COMPONENT(
TIMEMORY_ESC(data_tracker<double, rocprofsys::component::backtrace_gpu_jpeg>), true,
double)