//
-// Copyright © 2017 Arm Ltd. All rights reserved.
+// Copyright © 2017 Arm Ltd and Contributors. All rights reserved.
// SPDX-License-Identifier: MIT
//
#include "SendCounterPacket.hpp"
-#include "EncodeVersion.hpp"
-#include "ProfilingUtils.hpp"
+#include <common/include/EncodeVersion.hpp>
#include <armnn/Exceptions.hpp>
#include <armnn/Conversion.hpp>
#include <Processes.hpp>
+#include <armnn/utility/Assert.hpp>
+#include <armnn/utility/NumericCast.hpp>
+#include <common/include/Constants.hpp>
+#include <common/include/SwTrace.hpp>
#include <boost/format.hpp>
-#include <boost/numeric/conversion/cast.hpp>
-#include <boost/core/ignore_unused.hpp>
#include <cstring>
namespace profiling
{
-using boost::numeric_cast;
-
-const unsigned int SendCounterPacket::PIPE_MAGIC;
-
void SendCounterPacket::SendStreamMetaDataPacket()
{
- std::string info(GetSoftwareInfo());
- std::string hardwareVersion(GetHardwareVersion());
- std::string softwareVersion(GetSoftwareVersion());
- std::string processName = GetProcessName().substr(0, 60);
+ const std::string info(GetSoftwareInfo());
+ const std::string hardwareVersion(GetHardwareVersion());
+ const std::string softwareVersion(GetSoftwareVersion());
+ const std::string processName = GetProcessName().substr(0, 60);
- uint32_t infoSize = numeric_cast<uint32_t>(info.size()) > 0 ? numeric_cast<uint32_t>(info.size()) + 1 : 0;
- uint32_t hardwareVersionSize = numeric_cast<uint32_t>(hardwareVersion.size()) > 0 ?
- numeric_cast<uint32_t>(hardwareVersion.size()) + 1 : 0;
- uint32_t softwareVersionSize = numeric_cast<uint32_t>(softwareVersion.size()) > 0 ?
- numeric_cast<uint32_t>(softwareVersion.size()) + 1 : 0;
- uint32_t processNameSize = numeric_cast<uint32_t>(processName.size()) > 0 ?
- numeric_cast<uint32_t>(processName.size()) + 1 : 0;
+ const uint32_t infoSize = armnn::numeric_cast<uint32_t>(info.size()) + 1;
+ const uint32_t hardwareVersionSize = armnn::numeric_cast<uint32_t>(hardwareVersion.size()) + 1;
+ const uint32_t softwareVersionSize = armnn::numeric_cast<uint32_t>(softwareVersion.size()) + 1;
+ const uint32_t processNameSize = armnn::numeric_cast<uint32_t>(processName.size()) + 1;
- uint32_t sizeUint32 = numeric_cast<uint32_t>(sizeof(uint32_t));
+ const uint32_t sizeUint32 = sizeof(uint32_t);
- uint32_t headerSize = 2 * sizeUint32;
- uint32_t bodySize = 10 * sizeUint32;
- uint32_t packetVersionCountSize = sizeUint32;
+ const uint32_t headerSize = 2 * sizeUint32;
+ const uint32_t bodySize = 10 * sizeUint32;
+ const uint32_t packetVersionCountSize = sizeUint32;
// Supported Packets
- // Stream metadata packet (packet family=0; packet id=0)
- // Connection Acknowledged packet (packet family=0, packet id=1)
- // Counter Directory packet (packet family=0; packet id=2)
- // Request Counter Directory packet (packet family=0, packet id=3)
- // Periodic Counter Selection packet (packet family=0, packet id=4)
- // Periodic Counter Capture packet (packet family=1, packet class=0, type=0)
- uint32_t packetVersionEntries = 6;
-
- uint32_t payloadSize = numeric_cast<uint32_t>(infoSize + hardwareVersionSize + softwareVersionSize +
- processNameSize + packetVersionCountSize +
- (packetVersionEntries * 2 * sizeUint32));
-
- uint32_t totalSize = headerSize + bodySize + payloadSize;
+ // Packet Encoding version 1.0.0
+ // Control packet family
+ // Stream metadata packet (packet family=0; packet id=0)
+ // Connection Acknowledged packet ( packet family=0, packet id=1) Version 1.0.0
+ // Counter Directory packet (packet family=0; packet id=2) Version 1.0.0
+ // Request Counter Directory packet ( packet family=0, packet id=3) Version 1.0.0
+ // Periodic Counter Selection packet ( packet family=0, packet id=4) Version 1.0.0
+ // Per Job Counter Selection packet ( packet family=0, packet id=5) Version 1.0.0
+ // Activate Timeline Reporting (packet family = 0, packet id = 6) Version 1.0.0
+ // Deactivate Timeline Reporting (packet family = 0, packet id = 7) Version 1.0.0
+ // Counter Packet Family
+ // Periodic Counter Capture (packet_family = 3, packet_class = 0, packet_type = 0) Version 1.0.0
+ // Per-Job Counter Capture (packet_family = 3, packet_class = 1, packet_type = 0,1) Version 1.0.0
+ // Timeline Packet Family
+ // Timeline Message Directory (packet_family = 1, packet_class = 0, packet_type = 0) Version 1.0.0
+ // Timeline Message (packet_family = 1, packet_class = 0, packet_type = 1) Version 1.0.0
+ std::vector<std::pair<uint32_t, uint32_t>> packetVersions;
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 0), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 1), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 2), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 3), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 4), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 5), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 6), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(0, 7), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(3, 0, 0), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(3, 1, 0), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(3, 1, 1), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(1, 0, 0), arm::pipe::EncodeVersion(1, 0, 0)));
+ packetVersions.push_back(std::make_pair(ConstructHeader(1, 0, 1), arm::pipe::EncodeVersion(1, 0, 0)));
+ uint32_t numberOfVersions = armnn::numeric_cast<uint32_t>(packetVersions.size());
+ uint32_t packetVersionSize = armnn::numeric_cast<uint32_t>(numberOfVersions * 2 * sizeUint32);
+
+ const uint32_t payloadSize = armnn::numeric_cast<uint32_t>(infoSize + hardwareVersionSize +
+ softwareVersionSize + processNameSize +
+ packetVersionCountSize + packetVersionSize);
+
+ const uint32_t totalSize = headerSize + bodySize + payloadSize;
uint32_t offset = 0;
uint32_t reserved = 0;
// Packet body
offset += sizeUint32;
- WriteUint32(writeBuffer, offset, PIPE_MAGIC); // pipe_magic
+ WriteUint32(writeBuffer, offset, arm::pipe::PIPE_MAGIC); // pipe_magic
offset += sizeUint32;
- WriteUint32(writeBuffer, offset, EncodeVersion(1, 0, 0)); // stream_metadata_version
+ WriteUint32(writeBuffer, offset, arm::pipe::EncodeVersion(1, 0, 0)); // stream_metadata_version
offset += sizeUint32;
WriteUint32(writeBuffer, offset, MAX_METADATA_PACKET_LENGTH); // max_data_length
offset += sizeUint32;
int pid = armnnUtils::Processes::GetCurrentId();
- WriteUint32(writeBuffer, offset, numeric_cast<uint32_t>(pid)); // pid
+ WriteUint32(writeBuffer, offset, armnn::numeric_cast<uint32_t>(pid)); // pid
offset += sizeUint32;
uint32_t poolOffset = bodySize;
- WriteUint32(writeBuffer, offset, infoSize ? poolOffset : 0); // offset_info
+ WriteUint32(writeBuffer, offset, poolOffset); // offset_info
offset += sizeUint32;
poolOffset += infoSize;
- WriteUint32(writeBuffer, offset, hardwareVersionSize ? poolOffset : 0); // offset_hw_version
+ WriteUint32(writeBuffer, offset, poolOffset); // offset_hw_version
offset += sizeUint32;
poolOffset += hardwareVersionSize;
- WriteUint32(writeBuffer, offset, softwareVersionSize ? poolOffset : 0); // offset_sw_version
+ WriteUint32(writeBuffer, offset, poolOffset); // offset_sw_version
offset += sizeUint32;
poolOffset += softwareVersionSize;
- WriteUint32(writeBuffer, offset, processNameSize ? poolOffset : 0); // offset_process_name
+ WriteUint32(writeBuffer, offset, poolOffset); // offset_process_name
offset += sizeUint32;
poolOffset += processNameSize;
- WriteUint32(writeBuffer, offset, packetVersionEntries ? poolOffset : 0); // offset_packet_version_table
+ WriteUint32(writeBuffer, offset, poolOffset); // offset_packet_version_table
offset += sizeUint32;
WriteUint32(writeBuffer, offset, 0); // reserved
offset += sizeUint32;
offset += infoSize;
}
- if (hardwareVersionSize)
- {
- memcpy(&writeBuffer->GetWritableData()[offset], hardwareVersion.c_str(), hardwareVersionSize);
- offset += hardwareVersionSize;
- }
+ memcpy(&writeBuffer->GetWritableData()[offset], hardwareVersion.c_str(), hardwareVersionSize);
+ offset += hardwareVersionSize;
+ memcpy(&writeBuffer->GetWritableData()[offset], softwareVersion.c_str(), softwareVersionSize);
+ offset += softwareVersionSize;
+ memcpy(&writeBuffer->GetWritableData()[offset], processName.c_str(), processNameSize);
+ offset += processNameSize;
- if (softwareVersionSize)
- {
- memcpy(&writeBuffer->GetWritableData()[offset], softwareVersion.c_str(), softwareVersionSize);
- offset += softwareVersionSize;
- }
-
- if (processNameSize)
- {
- memcpy(&writeBuffer->GetWritableData()[offset], processName.c_str(), processNameSize);
- offset += processNameSize;
- }
-
- if (packetVersionEntries)
+ if (!packetVersions.empty())
{
// Packet Version Count
- WriteUint32(writeBuffer, offset, packetVersionEntries << 16);
+ WriteUint32(writeBuffer, offset, numberOfVersions << 16);
+ offset += sizeUint32;
// Packet Version Entries
- uint32_t packetFamily = 0;
- uint32_t packetId = 0;
-
- offset += sizeUint32;
- for (uint32_t i = 0; i < packetVersionEntries - 1; ++i)
+ for (std::pair<uint32_t, uint32_t>& packetVersion : packetVersions)
{
- WriteUint32(writeBuffer, offset, ((packetFamily & 0x3F) << 26) | ((packetId++ & 0x3FF) << 16));
+ WriteUint32(writeBuffer, offset, packetVersion.first);
offset += sizeUint32;
- WriteUint32(writeBuffer, offset, EncodeVersion(1, 0, 0));
+ WriteUint32(writeBuffer, offset, packetVersion.second);
offset += sizeUint32;
}
-
- packetFamily = 1;
- packetId = 0;
-
- WriteUint32(writeBuffer, offset, ((packetFamily & 0x3F) << 26) | ((packetId & 0x3FF) << 16));
- offset += sizeUint32;
- WriteUint32(writeBuffer, offset, EncodeVersion(1, 0, 0));
}
}
catch(...)
CancelOperationAndThrow<RuntimeException>(writeBuffer, "Error processing packet.");
}
- m_BufferManager.Commit(writeBuffer, totalSize);
+ m_BufferManager.Commit(writeBuffer, totalSize, false);
}
bool SendCounterPacket::CreateCategoryRecord(const CategoryPtr& category,
CategoryRecord& categoryRecord,
std::string& errorMessage)
{
- using namespace boost::numeric;
-
- BOOST_ASSERT(category);
+ ARMNN_ASSERT(category);
const std::string& categoryName = category->m_Name;
- const std::vector<uint16_t> categoryCounters = category->m_Counters;
- uint16_t deviceUid = category->m_DeviceUid;
- uint16_t counterSetUid = category->m_CounterSetUid;
+ ARMNN_ASSERT(!categoryName.empty());
+
+ // Remove any duplicate counters
+ std::vector<uint16_t> categoryCounters;
+ for (size_t counterIndex = 0; counterIndex < category->m_Counters.size(); ++counterIndex)
+ {
+ uint16_t counterUid = category->m_Counters.at(counterIndex);
+ auto it = counters.find(counterUid);
+ if (it == counters.end())
+ {
+ errorMessage = boost::str(boost::format("Counter (%1%) not found in category (%2%)")
+ % counterUid % category->m_Name );
+ return false;
+ }
+
+ const CounterPtr& counter = it->second;
- BOOST_ASSERT(!categoryName.empty());
+ if (counterUid == counter->m_MaxCounterUid)
+ {
+ categoryCounters.emplace_back(counterUid);
+ }
+ }
+ if (categoryCounters.empty())
+ {
+ errorMessage = boost::str(boost::format("No valid counters found in category (%1%)")% categoryName);
+ return false;
+ }
// Utils
- size_t uint32_t_size = sizeof(uint32_t);
+ const size_t uint32_t_size = sizeof(uint32_t);
- // Category record word 0:
- // 16:31 [16] device: the uid of a device element which identifies some hardware device that
- // the category belongs to
- // 0:15 [16] counter_set: the uid of a counter_set the category is associated with
- uint32_t categoryRecordWord0 = (static_cast<uint32_t>(deviceUid) << 16) |
- (static_cast<uint32_t>(counterSetUid));
+ // Convert the device name into a SWTrace namestring
+ std::vector<uint32_t> categoryNameBuffer;
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceNameCharPolicy>(categoryName, categoryNameBuffer))
+ {
+ errorMessage = boost::str(boost::format("Cannot convert the name of category (%1%) to an SWTrace namestring")
+ % categoryName);
+ return false;
+ }
// Category record word 1:
// 16:31 [16] event_count: number of events belonging to this category
// 0:15 [16] reserved: all zeros
- uint32_t categoryRecordWord1 = static_cast<uint32_t>(categoryCounters.size()) << 16;
+ const uint32_t categoryRecordWord1 = static_cast<uint32_t>(categoryCounters.size()) << 16;
// Category record word 2:
// 0:31 [32] event_pointer_table_offset: offset from the beginning of the category data pool to
// the event_pointer_table
- uint32_t categoryRecordWord2 = 0; // The offset is always zero here, as the event pointer table field is always
- // the first item in the pool
-
- // Convert the device name into a SWTrace namestring
- std::vector<uint32_t> categoryNameBuffer;
- if (!StringToSwTraceString<SwTraceNameCharPolicy>(categoryName, categoryNameBuffer))
- {
- errorMessage = boost::str(boost::format("Cannot convert the name of category \"%1%\" to an SWTrace namestring")
- % categoryName);
- return false;
- }
+ const uint32_t categoryRecordWord2 = static_cast<uint32_t>(3u * uint32_t_size);
// Process the event records
- size_t counterCount = categoryCounters.size();
+ const size_t counterCount = categoryCounters.size();
std::vector<EventRecord> eventRecords(counterCount);
std::vector<uint32_t> eventRecordOffsets(counterCount, 0);
size_t eventRecordsSize = 0;
- uint32_t eventRecordsOffset =
- numeric_cast<uint32_t>((eventRecords.size() + categoryNameBuffer.size()) * uint32_t_size);
+ uint32_t eventRecordsOffset = armnn::numeric_cast<uint32_t>(
+ (eventRecords.size() + categoryNameBuffer.size()) * uint32_t_size);
for (size_t counterIndex = 0, eventRecordIndex = 0, eventRecordOffsetIndex = 0;
counterIndex < counterCount;
counterIndex++, eventRecordIndex++, eventRecordOffsetIndex++)
{
uint16_t counterUid = categoryCounters.at(counterIndex);
auto it = counters.find(counterUid);
- BOOST_ASSERT(it != counters.end());
const CounterPtr& counter = it->second;
EventRecord& eventRecord = eventRecords.at(eventRecordIndex);
// Add the event record offset to the event pointer table offset field
eventRecordOffsets[eventRecordOffsetIndex] = eventRecordsOffset;
- eventRecordsOffset += numeric_cast<uint32_t>(eventRecord.size() * uint32_t_size);
+ eventRecordsOffset += armnn::numeric_cast<uint32_t>(eventRecord.size() * uint32_t_size);
}
// Category record word 3:
// 0:31 [32] name_offset (offset from the beginning of the category data pool to the name field)
- uint32_t categoryRecordWord3 = numeric_cast<uint32_t>(eventRecordOffsets.size() * uint32_t_size);
+ const uint32_t categoryRecordWord3 = armnn::numeric_cast<uint32_t>(
+ (3u + eventRecordOffsets.size()) * uint32_t_size);
// Calculate the size in words of the category record
- size_t categoryRecordSize = 4u + // The size of the fixed part (device + counter_set + event_count + reserved +
- // event_pointer_table_offset + name_offset)
- eventRecordOffsets.size() + // The size of the variable part (the event pointer table +
- categoryNameBuffer.size() + // and the category name including the null-terminator +
- eventRecordsSize; // the event records)
+ const size_t categoryRecordSize = 3u +// The size of the fixed part (device + counter_set + event_count +
+ // reserved + event_pointer_table_offset + name_offset)
+ eventRecordOffsets.size() + // The size of the variable part (
+ categoryNameBuffer.size() + // the event pointer table + the category name
+ eventRecordsSize; // including the null-terminator + the event records)
// Allocate the necessary space for the category record
categoryRecord.resize(categoryRecordSize);
ARMNN_NO_CONVERSION_WARN_BEGIN
// Create the category record
- categoryRecord[0] = categoryRecordWord0; // device + counter_set
- categoryRecord[1] = categoryRecordWord1; // event_count + reserved
- categoryRecord[2] = categoryRecordWord2; // event_pointer_table_offset
- categoryRecord[3] = categoryRecordWord3; // name_offset
- auto offset = categoryRecord.begin() + 4u;
+ categoryRecord[0] = categoryRecordWord1; // event_count + reserved
+ categoryRecord[1] = categoryRecordWord2; // event_pointer_table_offset
+ categoryRecord[2] = categoryRecordWord3; // name_offset
+ auto offset = categoryRecord.begin() + 3u;
std::copy(eventRecordOffsets.begin(), eventRecordOffsets.end(), offset); // event_pointer_table
offset += eventRecordOffsets.size();
std::copy(categoryNameBuffer.begin(), categoryNameBuffer.end(), offset); // name
DeviceRecord& deviceRecord,
std::string& errorMessage)
{
- BOOST_ASSERT(device);
+ ARMNN_ASSERT(device);
uint16_t deviceUid = device->m_Uid;
const std::string& deviceName = device->m_Name;
uint16_t deviceCores = device->m_Cores;
- BOOST_ASSERT(!deviceName.empty());
+ ARMNN_ASSERT(!deviceName.empty());
// Device record word 0:
// 16:31 [16] uid: the unique identifier for the device
// 0:15 [16] cores: the number of individual streams of counters for one or more cores of some device
- uint32_t deviceRecordWord0 = (static_cast<uint32_t>(deviceUid) << 16) |
+ const uint32_t deviceRecordWord0 = (static_cast<uint32_t>(deviceUid) << 16) |
(static_cast<uint32_t>(deviceCores));
// Device record word 1:
// 0:31 [32] name_offset: offset from the beginning of the device record pool to the name field
- uint32_t deviceRecordWord1 = 0; // The offset is always zero here, as the name field is always
- // the first (and only) item in the pool
+ const uint32_t deviceRecordWord1 = 8u; // The offset is always eight here, as the name field is always
+ // the first (and only) item in the pool and there are two device words
// Convert the device name into a SWTrace string
std::vector<uint32_t> deviceNameBuffer;
- if (!StringToSwTraceString<SwTraceCharPolicy>(deviceName, deviceNameBuffer))
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceCharPolicy>(deviceName, deviceNameBuffer))
{
- errorMessage = boost::str(boost::format("Cannot convert the name of device %1% (\"%2%\") to an SWTrace string")
+ errorMessage = boost::str(boost::format("Cannot convert the name of device %1% (%2%) to an SWTrace string")
% deviceUid
% deviceName);
return false;
}
// Calculate the size in words of the device record
- size_t deviceRecordSize = 2u + // The size of the fixed part (uid + cores + name_offset)
+ const size_t deviceRecordSize = 2u + // The size of the fixed part (uid + cores + name_offset)
deviceNameBuffer.size(); // The size of the variable part (the device name including
// the null-terminator)
CounterSetRecord& counterSetRecord,
std::string& errorMessage)
{
- BOOST_ASSERT(counterSet);
+ ARMNN_ASSERT(counterSet);
uint16_t counterSetUid = counterSet->m_Uid;
const std::string& counterSetName = counterSet->m_Name;
uint16_t counterSetCount = counterSet->m_Count;
- BOOST_ASSERT(!counterSetName.empty());
+ ARMNN_ASSERT(!counterSetName.empty());
// Counter set record word 0:
// 16:31 [16] uid: the unique identifier for the counter_set
// 0:15 [16] count: the number of counters which can be active in this set at any one time
- uint32_t counterSetRecordWord0 = (static_cast<uint32_t>(counterSetUid) << 16) |
- (static_cast<uint32_t>(counterSetCount));
+ const uint32_t counterSetRecordWord0 = (static_cast<uint32_t>(counterSetUid) << 16) |
+ (static_cast<uint32_t>(counterSetCount));
// Counter set record word 1:
// 0:31 [32] name_offset: offset from the beginning of the counter set pool to the name field
- uint32_t counterSetRecordWord1 = 0; // The offset is always zero here, as the name field is always
- // the first (and only) item in the pool
+ const uint32_t counterSetRecordWord1 = 8u; // The offset is always eight here, as the name field is always
+ // the first (and only) item in the pool after the two counter set words
// Convert the device name into a SWTrace namestring
std::vector<uint32_t> counterSetNameBuffer;
- if (!StringToSwTraceString<SwTraceNameCharPolicy>(counterSet->m_Name, counterSetNameBuffer))
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceNameCharPolicy>(counterSet->m_Name, counterSetNameBuffer))
{
- errorMessage = boost::str(boost::format("Cannot convert the name of counter set %1% (\"%2%\") to "
+ errorMessage = boost::str(boost::format("Cannot convert the name of counter set %1% (%2%) to "
"an SWTrace namestring")
% counterSetUid
% counterSetName);
}
// Calculate the size in words of the counter set record
- size_t counterSetRecordSize = 2u + // The size of the fixed part (uid + cores + name_offset)
- counterSetNameBuffer.size(); // The size of the variable part (the counter set name
- // including the null-terminator)
+ const size_t counterSetRecordSize = 2u + // The size of the fixed part (uid + cores + name_offset)
+ counterSetNameBuffer.size(); // The size of the variable part (the counter set
+ // name including the null-terminator)
// Allocate the space for the counter set record
counterSetRecord.resize(counterSetRecordSize);
EventRecord& eventRecord,
std::string& errorMessage)
{
- using namespace boost::numeric;
-
- BOOST_ASSERT(counter);
+ ARMNN_ASSERT(counter);
uint16_t counterUid = counter->m_Uid;
uint16_t maxCounterUid = counter->m_MaxCounterUid;
const std::string& counterDescription = counter->m_Description;
const std::string& counterUnits = counter->m_Units;
- BOOST_ASSERT(counterClass == 0 || counterClass == 1);
- BOOST_ASSERT(counterInterpolation == 0 || counterInterpolation == 1);
- BOOST_ASSERT(counterMultiplier);
+ ARMNN_ASSERT(counterClass == 0 || counterClass == 1);
+ ARMNN_ASSERT(counterInterpolation == 0 || counterInterpolation == 1);
+ ARMNN_ASSERT(counterMultiplier);
// Utils
- size_t uint32_t_size = sizeof(uint32_t);
+ const size_t uint32_t_size = sizeof(uint32_t);
+ // eventRecordBlockSize is the size of the fixed part
+ // (counter_uid + max_counter_uid + device +
+ // counter_set + class + interpolation +
+ // multiplier + name_offset + description_offset +
+ // units_offset)
+ const size_t eventRecordBlockSize = 8u;
// Event record word 0:
// 16:31 [16] max_counter_uid: if the device this event is associated with has more than one core and there
// If there is only a single core then this value will be the same as
// the counter_uid value
// 0:15 [16] count_uid: unique ID for the counter. Must be unique across all counters in all categories
- uint32_t eventRecordWord0 = (static_cast<uint32_t>(maxCounterUid) << 16) |
- (static_cast<uint32_t>(counterUid));
+ const uint32_t eventRecordWord0 = (static_cast<uint32_t>(maxCounterUid) << 16) |
+ (static_cast<uint32_t>(counterUid));
// Event record word 1:
// 16:31 [16] device: UID of the device this event is associated with. Set to zero if the event is NOT
// associated with a device
// 0:15 [16] counter_set: UID of the counter_set this event is associated with. Set to zero if the event
// is NOT associated with a counter_set
- uint32_t eventRecordWord1 = (static_cast<uint32_t>(deviceUid) << 16) |
- (static_cast<uint32_t>(counterSetUid));
+ const uint32_t eventRecordWord1 = (static_cast<uint32_t>(deviceUid) << 16) |
+ (static_cast<uint32_t>(counterSetUid));
// Event record word 2:
// 16:31 [16] class: type describing how to treat each data point in a stream of data points
// 0:15 [16] interpolation: type describing how to interpolate each data point in a stream of data points
- uint32_t eventRecordWord2 = (static_cast<uint32_t>(counterClass) << 16) |
- (static_cast<uint32_t>(counterInterpolation));
+ const uint32_t eventRecordWord2 = (static_cast<uint32_t>(counterClass) << 16) |
+ (static_cast<uint32_t>(counterInterpolation));
// Event record word 3-4:
// 0:63 [64] multiplier: internal data stream is represented as integer values, this allows scaling of
// those values as if they are fixed point numbers. Zero is not a valid value
uint32_t multiplier[2] = { 0u, 0u };
- BOOST_ASSERT(sizeof(counterMultiplier) == sizeof(multiplier));
+ ARMNN_ASSERT(sizeof(counterMultiplier) == sizeof(multiplier));
std::memcpy(multiplier, &counterMultiplier, sizeof(multiplier));
- uint32_t eventRecordWord3 = multiplier[0];
- uint32_t eventRecordWord4 = multiplier[1];
+ const uint32_t eventRecordWord3 = multiplier[0];
+ const uint32_t eventRecordWord4 = multiplier[1];
// Event record word 5:
// 0:31 [32] name_offset: offset from the beginning of the event record pool to the name field
- uint32_t eventRecordWord5 = 0; // The offset is always zero here, as the name field is always
- // the first item in the pool
+ const uint32_t eventRecordWord5 = static_cast<uint32_t>(eventRecordBlockSize * uint32_t_size);
// Convert the counter name into a SWTrace string
std::vector<uint32_t> counterNameBuffer;
- if (!StringToSwTraceString<SwTraceCharPolicy>(counterName, counterNameBuffer))
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceCharPolicy>(counterName, counterNameBuffer))
{
- errorMessage = boost::str(boost::format("Cannot convert the name of counter %1% (name: \"%2%\") "
+ errorMessage = boost::str(boost::format("Cannot convert the name of counter %1% (name: %2%) "
"to an SWTrace string")
% counterUid
% counterName);
// Event record word 6:
// 0:31 [32] description_offset: offset from the beginning of the event record pool to the description field
// The size of the name buffer in bytes
- uint32_t eventRecordWord6 = numeric_cast<uint32_t>(counterNameBuffer.size() * uint32_t_size);
+ uint32_t eventRecordWord6 =
+ static_cast<uint32_t>((counterNameBuffer.size() + eventRecordBlockSize) * uint32_t_size);
// Convert the counter description into a SWTrace string
std::vector<uint32_t> counterDescriptionBuffer;
- if (!StringToSwTraceString<SwTraceCharPolicy>(counterDescription, counterDescriptionBuffer))
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceCharPolicy>(counterDescription, counterDescriptionBuffer))
{
- errorMessage = boost::str(boost::format("Cannot convert the description of counter %1% (description: \"%2%\") "
+ errorMessage = boost::str(boost::format("Cannot convert the description of counter %1% (description: %2%) "
"to an SWTrace string")
% counterUid
% counterName);
// An offset value of zero indicates this field is not provided
bool includeUnits = !counterUnits.empty();
// The size of the description buffer in bytes
- uint32_t eventRecordWord7 = includeUnits ?
+ const uint32_t eventRecordWord7 = includeUnits ?
eventRecordWord6 +
- numeric_cast<uint32_t>(counterDescriptionBuffer.size() * uint32_t_size) :
+ armnn::numeric_cast<uint32_t>(counterDescriptionBuffer.size()
+ * uint32_t_size) :
0;
// Convert the counter units into a SWTrace namestring (optional)
if (includeUnits)
{
// Convert the counter units into a SWTrace namestring
- if (!StringToSwTraceString<SwTraceNameCharPolicy>(counterUnits, counterUnitsBuffer))
+ if (!arm::pipe::StringToSwTraceString<arm::pipe::SwTraceNameCharPolicy>(counterUnits, counterUnitsBuffer))
{
- errorMessage = boost::str(boost::format("Cannot convert the units of counter %1% (units: \"%2%\") "
+ errorMessage = boost::str(boost::format("Cannot convert the units of counter %1% (units: %2%) "
"to an SWTrace string")
% counterUid
% counterName);
}
// Calculate the size in words of the event record
- size_t eventRecordSize = 8u + // The size of the fixed part (counter_uid + max_counter_uid + device +
- // counter_set + class + interpolation +
- // multiplier + name_offset + description_offset +
- // units_offset)
- counterNameBuffer.size() + // The size of the variable part (the counter name,
- counterDescriptionBuffer.size() + // description and units including the null-terminator)
- counterUnitsBuffer.size();
+ const size_t eventRecordSize = eventRecordBlockSize +
+ counterNameBuffer.size() + // The size of the variable part (the counter name,
+ counterDescriptionBuffer.size() + // description and units
+ counterUnitsBuffer.size(); // including the null-terminator)
// Allocate the space for the event record
eventRecord.resize(eventRecordSize);
void SendCounterPacket::SendCounterDirectoryPacket(const ICounterDirectory& counterDirectory)
{
- using namespace boost::numeric;
-
// Get the amount of data that needs to be put into the packet
- uint16_t categoryCount = counterDirectory.GetCategoryCount();
- uint16_t deviceCount = counterDirectory.GetDeviceCount();
- uint16_t counterSetCount = counterDirectory.GetCounterSetCount();
+ const uint16_t categoryCount = counterDirectory.GetCategoryCount();
+ const uint16_t deviceCount = counterDirectory.GetDeviceCount();
+ const uint16_t counterSetCount = counterDirectory.GetCounterSetCount();
// Utils
- size_t uint32_t_size = sizeof(uint32_t);
- size_t packetHeaderSize = 2u;
- size_t bodyHeaderSize = 6u;
+ const size_t uint32_t_size = sizeof(uint32_t);
+ const size_t packetHeaderSize = 2u;
+ const size_t bodyHeaderSize = 6u;
+ const uint32_t bodyHeaderSizeBytes = bodyHeaderSize * uint32_t_size;
// Initialize the offset for the pointer tables
uint32_t pointerTableOffset = 0;
size_t deviceRecordsSize = 0;
size_t deviceIndex = 0;
size_t deviceRecordOffsetIndex = 0;
+
+ pointerTableOffset = armnn::numeric_cast<uint32_t>(deviceCount * uint32_t_size +
+ counterSetCount * uint32_t_size +
+ categoryCount * uint32_t_size);
for (auto it = devices.begin(); it != devices.end(); it++)
{
const DevicePtr& device = it->second;
// Add the device record offset to the device records pointer table offset field
deviceRecordOffsets[deviceRecordOffsetIndex] = pointerTableOffset;
- pointerTableOffset += numeric_cast<uint32_t>(deviceRecord.size() * uint32_t_size);
+ pointerTableOffset += armnn::numeric_cast<uint32_t>(deviceRecord.size() * uint32_t_size);
deviceIndex++;
deviceRecordOffsetIndex++;
size_t counterSetRecordsSize = 0;
size_t counterSetIndex = 0;
size_t counterSetRecordOffsetIndex = 0;
+
+ pointerTableOffset -= armnn::numeric_cast<uint32_t>(deviceCount * uint32_t_size);
for (auto it = counterSets.begin(); it != counterSets.end(); it++)
{
const CounterSetPtr& counterSet = it->second;
// Add the counter set record offset to the counter set records pointer table offset field
counterSetRecordOffsets[counterSetRecordOffsetIndex] = pointerTableOffset;
- pointerTableOffset += numeric_cast<uint32_t>(counterSetRecord.size() * uint32_t_size);
+ pointerTableOffset += armnn::numeric_cast<uint32_t>(counterSetRecord.size() * uint32_t_size);
counterSetIndex++;
counterSetRecordOffsetIndex++;
size_t categoryRecordsSize = 0;
size_t categoryIndex = 0;
size_t categoryRecordOffsetIndex = 0;
+
+ pointerTableOffset -= armnn::numeric_cast<uint32_t>(counterSetCount * uint32_t_size);
for (auto it = categories.begin(); it != categories.end(); it++)
{
const CategoryPtr& category = *it;
// Add the category record offset to the category records pointer table offset field
categoryRecordOffsets[categoryRecordOffsetIndex] = pointerTableOffset;
- pointerTableOffset += numeric_cast<uint32_t>(categoryRecord.size() * uint32_t_size);
+ pointerTableOffset += armnn::numeric_cast<uint32_t>(categoryRecord.size() * uint32_t_size);
categoryIndex++;
categoryRecordOffsetIndex++;
}
-
-
// Calculate the length in words of the counter directory packet's data (excludes the packet header size)
- size_t counterDirectoryPacketDataLength =
- bodyHeaderSize + // The size of the body header
- deviceRecordOffsets.size() + // The size of the device records pointer table
- counterSetRecordOffsets.size() + // The size of counter set pointer table
- categoryRecordOffsets.size() + // The size of category records pointer table
- deviceRecordsSize + // The total size of the device records
- counterSetRecordsSize + // The total size of the counter set records
- categoryRecordsSize; // The total size of the category records
+ const size_t counterDirectoryPacketDataLength =
+ bodyHeaderSize + // The size of the body header
+ deviceRecordOffsets.size() + // The size of the device records pointer table
+ counterSetRecordOffsets.size() + // The size of counter set pointer table
+ categoryRecordOffsets.size() + // The size of category records pointer table
+ deviceRecordsSize + // The total size of the device records
+ counterSetRecordsSize + // The total size of the counter set records
+ categoryRecordsSize; // The total size of the category records
// Calculate the size in words of the counter directory packet (the data length plus the packet header size)
- size_t counterDirectoryPacketSize = packetHeaderSize + // The size of the packet header
- counterDirectoryPacketDataLength; // The data length
-
+ const size_t counterDirectoryPacketSize = packetHeaderSize + // The size of the packet header
+ counterDirectoryPacketDataLength; // The data length
// Allocate the necessary space for the counter directory packet
std::vector<uint32_t> counterDirectoryPacket(counterDirectoryPacketSize, 0);
// Packet header word 1:
// 0:31 [32] data_length: length of data, in bytes
- uint32_t packetHeaderWord1 = numeric_cast<uint32_t>(counterDirectoryPacketDataLength * uint32_t_size);
+ uint32_t packetHeaderWord1 = armnn::numeric_cast<uint32_t>(
+ counterDirectoryPacketDataLength * uint32_t_size);
// Create the packet header
uint32_t packetHeader[2]
// Body header word 0:
// 16:31 [16] device_records_count: number of entries in the device_records_pointer_table
// 0:15 [16] reserved: all zeros
- uint32_t bodyHeaderWord0 = static_cast<uint32_t>(deviceCount) << 16;
+ const uint32_t bodyHeaderWord0 = static_cast<uint32_t>(deviceCount) << 16;
// Body header word 1:
// 0:31 [32] device_records_pointer_table_offset: offset to the device_records_pointer_table
- uint32_t bodyHeaderWord1 = 0; // The offset is always zero here, as the device record pointer table field is always
- // the first item in the pool
+ const uint32_t bodyHeaderWord1 = bodyHeaderSizeBytes; // The offset is always the bodyHeaderSize,
+ // as the device record pointer table field
+ // is always the first item in the pool
// Body header word 2:
// 16:31 [16] counter_set_count: number of entries in the counter_set_pointer_table
// 0:15 [16] reserved: all zeros
- uint32_t bodyHeaderWord2 = static_cast<uint32_t>(counterSetCount) << 16;
+ const uint32_t bodyHeaderWord2 = static_cast<uint32_t>(counterSetCount) << 16;
// Body header word 3:
// 0:31 [32] counter_set_pointer_table_offset: offset to the counter_set_pointer_table
- uint32_t bodyHeaderWord3 =
- numeric_cast<uint32_t>(deviceRecordOffsets.size() * uint32_t_size); // The size of the device records
- // pointer table
-
+ const uint32_t bodyHeaderWord3 = armnn::numeric_cast<uint32_t>(deviceRecordOffsets.size() *
+ uint32_t_size + // The size of the
+ bodyHeaderSizeBytes); // device records pointer table
// Body header word 4:
// 16:31 [16] categories_count: number of entries in the categories_pointer_table
// 0:15 [16] reserved: all zeros
- uint32_t bodyHeaderWord4 = static_cast<uint32_t>(categoryCount) << 16;
+ const uint32_t bodyHeaderWord4 = static_cast<uint32_t>(categoryCount) << 16;
// Body header word 3:
// 0:31 [32] categories_pointer_table_offset: offset to the categories_pointer_table
- uint32_t bodyHeaderWord5 =
- numeric_cast<uint32_t>(deviceRecordOffsets.size() * uint32_t_size + // The size of the device records
- counterSetRecordOffsets.size() * uint32_t_size); // pointer table, plus the size of
- // the counter set pointer table
+ const uint32_t bodyHeaderWord5 =
+ armnn::numeric_cast<uint32_t>(
+ deviceRecordOffsets.size() * uint32_t_size + // The size of the device records
+ counterSetRecordOffsets.size() * uint32_t_size // pointer table, plus the size of
+ + bodyHeaderSizeBytes); // the counter set pointer table
// Create the body header
- uint32_t bodyHeader[6]
+ const uint32_t bodyHeader[bodyHeaderSize]
{
bodyHeaderWord0, // device_records_count + reserved
bodyHeaderWord1, // device_records_pointer_table_offset
ARMNN_NO_CONVERSION_WARN_END
// Calculate the total size in bytes of the counter directory packet
- uint32_t totalSize = numeric_cast<uint32_t>(counterDirectoryPacketSize * uint32_t_size);
+ uint32_t totalSize = armnn::numeric_cast<uint32_t>(counterDirectoryPacketSize * uint32_t_size);
// Reserve space in the buffer for the packet
uint32_t reserved = 0;
for (uint32_t counterDirectoryPacketWord : counterDirectoryPacket)
{
WriteUint32(writeBuffer, offset, counterDirectoryPacketWord);
- offset += numeric_cast<uint32_t>(uint32_t_size);
+ offset += armnn::numeric_cast<uint32_t>(uint32_t_size);
}
m_BufferManager.Commit(writeBuffer, totalSize);
uint32_t packetClass = 0;
uint32_t packetType = 0;
uint32_t headerSize = 2 * uint32_t_size;
- uint32_t bodySize = uint64_t_size + numeric_cast<uint32_t>(values.size()) * (uint16_t_size + uint32_t_size);
+ uint32_t bodySize = uint64_t_size + armnn::numeric_cast<uint32_t>(values.size()) * (uint16_t_size + uint32_t_size);
uint32_t totalSize = headerSize + bodySize;
uint32_t offset = 0;
uint32_t reserved = 0;
offset += uint64_t_size;
for (const auto& pair: values)
{
- WriteUint16(writeBuffer, offset, pair.first);
+ WriteUint16(writeBuffer, offset, pair.counterId);
offset += uint16_t_size;
- WriteUint32(writeBuffer, offset, pair.second);
+ WriteUint32(writeBuffer, offset, pair.counterValue);
offset += uint32_t_size;
}
uint32_t packetFamily = 0;
uint32_t packetId = 4;
uint32_t headerSize = 2 * uint32_t_size;
- uint32_t bodySize = uint32_t_size + numeric_cast<uint32_t>(selectedCounterIds.size()) * uint16_t_size;
+ uint32_t bodySize = uint32_t_size + armnn::numeric_cast<uint32_t>(selectedCounterIds.size()) * uint16_t_size;
uint32_t totalSize = headerSize + bodySize;
uint32_t offset = 0;
uint32_t reserved = 0;
m_BufferManager.Commit(writeBuffer, totalSize);
}
-void SendCounterPacket::SetReadyToRead()
-{
- // We need to wait for the send thread to release its mutex
- {
- std::lock_guard<std::mutex> lck(m_WaitMutex);
- m_ReadyToRead = true;
- }
- // Signal the send thread that there's something to read in the buffer
- m_WaitCondition.notify_one();
-}
-
-void SendCounterPacket::Start(IProfilingConnection& profilingConnection)
-{
- // Check if the send thread is already running
- if (m_IsRunning.load())
- {
- // The send thread is already running
- return;
- }
-
- if (m_SendThread.joinable())
- {
- m_SendThread.join();
- }
-
- // Mark the send thread as running
- m_IsRunning.store(true);
-
- // Keep the send procedure going until the send thread is signalled to stop
- m_KeepRunning.store(true);
-
- // Make sure the send thread will not flush the buffer until signaled to do so
- // no need for a mutex as the send thread can not be running at this point
- m_ReadyToRead = false;
-
- m_PacketSent = false;
-
- // Start the send thread
- m_SendThread = std::thread(&SendCounterPacket::Send, this, std::ref(profilingConnection));
-}
-
-void SendCounterPacket::Stop(bool rethrowSendThreadExceptions)
-{
- // Signal the send thread to stop
- m_KeepRunning.store(false);
-
- // Check that the send thread is running
- if (m_SendThread.joinable())
- {
- // Kick the send thread out of the wait condition
- SetReadyToRead();
- // Wait for the send thread to complete operations
- m_SendThread.join();
- }
-
- // Check if the send thread exception has to be rethrown
- if (!rethrowSendThreadExceptions)
- {
- // No need to rethrow the send thread exception, return immediately
- return;
- }
-
- // Check if there's an exception to rethrow
- if (m_SendThreadException)
- {
- // Rethrow the send thread exception
- std::rethrow_exception(m_SendThreadException);
-
- // Nullify the exception as it has been rethrown
- m_SendThreadException = nullptr;
- }
-}
-
-void SendCounterPacket::Send(IProfilingConnection& profilingConnection)
-{
- // Run once and keep the sending procedure looping until the thread is signalled to stop
- do
- {
- // Check the current state of the profiling service
- ProfilingState currentState = m_StateMachine.GetCurrentState();
- switch (currentState)
- {
- case ProfilingState::Uninitialised:
- case ProfilingState::NotConnected:
-
- // The send thread cannot be running when the profiling service is uninitialized or not connected,
- // stop the thread immediately
- m_KeepRunning.store(false);
- m_IsRunning.store(false);
-
- // An exception should be thrown here, save it to be rethrown later from the main thread so that
- // it can be caught by the consumer
- m_SendThreadException =
- std::make_exception_ptr(RuntimeException("The send thread should not be running with the "
- "profiling service not yet initialized or connected"));
-
- return;
- case ProfilingState::WaitingForAck:
-
- // Send out a StreamMetadata packet and wait for the profiling connection to be acknowledged.
- // When a ConnectionAcknowledged packet is received, the profiling service state will be automatically
- // updated by the command handler
-
- // Prepare a StreamMetadata packet and write it to the Counter Stream buffer
- SendStreamMetaDataPacket();
-
- // Flush the buffer manually to send the packet
- FlushBuffer(profilingConnection);
-
- // Wait for a connection ack from the remote server. We should expect a response within timeout value.
- // If not, drop back to the start of the loop and detect somebody closing the thread. Then send the
- // StreamMetadata again.
-
- // Wait condition lock scope - Begin
- {
- std::unique_lock<std::mutex> lock(m_WaitMutex);
-
- bool timeout = m_WaitCondition.wait_for(lock,
- std::chrono::milliseconds(m_Timeout),
- [&]{ return m_ReadyToRead; });
- // If we get notified we need to flush the buffer again
- if(timeout)
- {
- // Otherwise if we just timed out don't flush the buffer
- continue;
- }
- //reset condition variable predicate for next use
- m_ReadyToRead = false;
- }
- // Wait condition lock scope - End
- break;
- case ProfilingState::Active:
- default:
- // Wait condition lock scope - Begin
- {
- std::unique_lock<std::mutex> lock(m_WaitMutex);
-
- // Normal working state for the send thread
- // Check if the send thread is required to enforce a timeout wait policy
- if (m_Timeout < 0)
- {
- // Wait indefinitely until notified that something to read has become available in the buffer
- m_WaitCondition.wait(lock, [&] { return m_ReadyToRead; });
- }
- else
- {
- // Wait until the thread is notified of something to read from the buffer,
- // or check anyway after the specified number of milliseconds
- m_WaitCondition.wait_for(lock, std::chrono::milliseconds(m_Timeout), [&] { return m_ReadyToRead; });
- }
-
- //reset condition variable predicate for next use
- m_ReadyToRead = false;
- }
- // Wait condition lock scope - End
- break;
- }
-
- // Send all the available packets in the buffer
- FlushBuffer(profilingConnection);
- } while (m_KeepRunning.load());
-
- // Ensure that all readable data got written to the profiling connection before the thread is stopped
- // (do not notify any watcher in this case, as this is just to wrap up things before shutting down the send thread)
- FlushBuffer(profilingConnection, false);
-
- // Mark the send thread as not running
- m_IsRunning.store(false);
-}
-
-void SendCounterPacket::FlushBuffer(IProfilingConnection& profilingConnection, bool notifyWatchers)
-{
- // Get the first available readable buffer
- IPacketBufferPtr packetBuffer = m_BufferManager.GetReadableBuffer();
-
- // Initialize the flag that indicates whether at least a packet has been sent
- bool packetsSent = false;
-
- while (packetBuffer != nullptr)
- {
- // Get the data to send from the buffer
- const unsigned char* readBuffer = packetBuffer->GetReadableData();
- unsigned int readBufferSize = packetBuffer->GetSize();
-
- if (readBuffer == nullptr || readBufferSize == 0)
- {
- // Nothing to send, get the next available readable buffer and continue
- m_BufferManager.MarkRead(packetBuffer);
- packetBuffer = m_BufferManager.GetReadableBuffer();
-
- continue;
- }
-
- // Check that the profiling connection is open, silently drop the data and continue if it's closed
- if (profilingConnection.IsOpen())
- {
- // Write a packet to the profiling connection. Silently ignore any write error and continue
- profilingConnection.WritePacket(readBuffer, boost::numeric_cast<uint32_t>(readBufferSize));
-
- // Set the flag that indicates whether at least a packet has been sent
- packetsSent = true;
- }
-
- // Mark the packet buffer as read
- m_BufferManager.MarkRead(packetBuffer);
-
- // Get the next available readable buffer
- packetBuffer = m_BufferManager.GetReadableBuffer();
- }
- // Check whether at least a packet has been sent
- if (packetsSent && notifyWatchers)
- {
- // Wait for the parent thread to release its mutex if necessary
- {
- std::lock_guard<std::mutex> lck(m_PacketSentWaitMutex);
- m_PacketSent = true;
- }
- // Notify to any watcher that something has been sent
- m_PacketSentWaitCondition.notify_one();
- }
-}
-
-bool SendCounterPacket::WaitForPacketSent(uint32_t timeout = 1000)
-{
- std::unique_lock<std::mutex> lock(m_PacketSentWaitMutex);
- // Blocks until notified that at least a packet has been sent or until timeout expires.
- bool timedOut = m_PacketSentWaitCondition.wait_for(lock,
- std::chrono::milliseconds(timeout),
- [&] { return m_PacketSent; });
-
- m_PacketSent = false;
-
- return timedOut;
-}
-
} // namespace profiling
} // namespace armnn