#ifndef __TRACYEVENT_HPP__ #define __TRACYEVENT_HPP__ #include #include #include #include #include "TracyCharUtil.hpp" #include "TracyVector.hpp" #include "tracy_flat_hash_map.hpp" namespace tracy { #pragma pack( 1 ) struct StringRef { enum Type { Ptr, Idx }; StringRef() : str( 0 ), __data( 0 ) {} StringRef( Type t, uint64_t data ) : str( data ) , __data( 0 ) { isidx = t == Idx; active = 1; } uint64_t str; union { struct { uint8_t isidx : 1; uint8_t active : 1; }; uint8_t __data; }; }; struct StringIdx { StringIdx() : __data( 0 ) {} StringIdx( uint32_t _idx ) : __data( 0 ) { idx = _idx; active = 1; } union { struct { uint32_t idx : 31; uint32_t active : 1; }; uint32_t __data; }; }; struct SourceLocation { StringRef name; StringRef function; StringRef file; uint32_t line; uint32_t color; }; enum { SourceLocationSize = sizeof( SourceLocation ) }; struct ZoneEvent { int64_t Start() const { return int64_t( _start_srcloc ) >> 16; } void SetStart( int64_t start ) { assert( start < (int64_t)( 1ull << 47 ) ); _start_srcloc = ( _start_srcloc & 0xFFFF ) | ( uint64_t( start ) << 16 ); } int16_t SrcLoc() const { return int16_t( _start_srcloc & 0xFFFF ); } void SetSrcLoc( int16_t srcloc ) { _start_srcloc = ( _start_srcloc & 0xFFFFFFFFFFFF0000 ) | uint16_t( srcloc ); } uint64_t _start_srcloc; int64_t end; StringIdx text; uint32_t callstack; StringIdx name; int32_t child; }; enum { ZoneEventSize = sizeof( ZoneEvent ) }; static_assert( std::is_standard_layout::value, "ZoneEvent is not standard layout" ); struct LockEvent { enum class Type : uint8_t { Wait, Obtain, Release, WaitShared, ObtainShared, ReleaseShared }; int64_t Time() const { return int64_t( _time_srcloc ) >> 16; } void SetTime( int64_t time ) { assert( time < (int64_t)( 1ull << 47 ) ); _time_srcloc = ( _time_srcloc & 0xFFFF ) | ( uint64_t( time ) << 16 ); } int16_t SrcLoc() const { return int16_t( _time_srcloc & 0xFFFF ); } void SetSrcLoc( int16_t srcloc ) { _time_srcloc = ( _time_srcloc & 0xFFFFFFFFFFFF0000 ) | uint16_t( srcloc ); } uint64_t _time_srcloc; uint8_t thread; Type type; }; struct LockEventShared : public LockEvent { uint64_t waitShared; uint64_t sharedList; }; struct LockEventPtr { LockEvent* ptr; uint8_t lockingThread; uint8_t lockCount; uint64_t waitList; }; enum { LockEventSize = sizeof( LockEvent ) }; enum { LockEventSharedSize = sizeof( LockEventShared ) }; enum { LockEventPtrSize = sizeof( LockEventPtr ) }; enum { MaxLockThreads = sizeof( LockEventPtr::waitList ) * 8 }; static_assert( std::numeric_limits::max() >= MaxLockThreads, "Not enough space for lock count." ); struct GpuEvent { int64_t cpuStart; int64_t cpuEnd; int64_t gpuStart; int64_t gpuEnd; int16_t srcloc; uint32_t callstack; uint16_t thread; int32_t child; }; enum { GpuEventSize = sizeof( GpuEvent ) }; static_assert( std::is_standard_layout::value, "GpuEvent is not standard layout" ); struct MemEvent { int64_t TimeAlloc() const { return int64_t( _time_thread_alloc ) >> 16; } void SetTimeAlloc( int64_t time ) { assert( time < (int64_t)( 1ull << 47 ) ); _time_thread_alloc = ( _time_thread_alloc & 0xFFFF ) | ( uint64_t( time ) << 16 ); } int64_t TimeFree() const { return int64_t( _time_thread_free ) >> 16; } void SetTimeFree( int64_t time ) { assert( time < (int64_t)( 1ull << 47 ) ); _time_thread_free = ( _time_thread_free & 0xFFFF ) | ( uint64_t( time ) << 16 ); } uint16_t ThreadAlloc() const { return uint16_t( _time_thread_alloc ); } void SetThreadAlloc( uint16_t thread ) { _time_thread_alloc = ( _time_thread_alloc & 0xFFFFFFFFFFFF0000 ) | thread; } uint16_t ThreadFree() const { return uint16_t( _time_thread_free ); } void SetThreadFree( uint16_t thread ) { _time_thread_free = ( _time_thread_free & 0xFFFFFFFFFFFF0000 ) | thread; } uint64_t ptr; uint64_t size; uint32_t csAlloc; uint32_t csFree; uint64_t _time_thread_alloc; uint64_t _time_thread_free; }; enum { MemEventSize = sizeof( MemEvent ) }; static_assert( std::is_standard_layout::value, "MemEvent is not standard layout" ); struct CallstackFrame { StringIdx name; StringIdx file; uint32_t line; }; enum { CallstackFrameSize = sizeof( CallstackFrame ) }; struct CallstackFrameData { CallstackFrame* data; uint8_t size; }; enum { CallstackFrameDataSize = sizeof( CallstackFrameData ) }; // This union exploits the fact that the current implementations of x64 and arm64 do not provide // full 64 bit address space. The high bits must be bit-extended, so 0x80... is an invalid pointer. // This allows using the highest bit as a selector between a native pointer and a table index here. union CallstackFrameId { struct { uint64_t idx : 63; uint64_t sel : 1; }; uint64_t data; }; enum { CallstackFrameIdSize = sizeof( CallstackFrameId ) }; struct CallstackFrameTree { CallstackFrameId frame; uint64_t alloc; uint32_t count; flat_hash_map> children; flat_hash_set> callstacks; }; enum { CallstackFrameTreeSize = sizeof( CallstackFrameTree ) }; struct CrashEvent { uint64_t thread = 0; int64_t time = 0; uint64_t message = 0; uint32_t callstack = 0; }; enum { CrashEventSize = sizeof( CrashEvent ) }; struct ContextSwitchData { enum : int8_t { NoState = 100 }; enum : int8_t { Wakeup = -2 }; int64_t Start() const { return int64_t( _start_cpu ) >> 8; } void SetStart( int64_t start ) { assert( start < (int64_t)( 1ull << 47 ) ); _start_cpu = ( _start_cpu & 0xFF ) | ( uint64_t( start ) << 8 ); } int64_t End() const { return int64_t( _end_reason_state ) >> 16; } void SetEnd( int64_t end ) { assert( end < (int64_t)( 1ull << 47 ) ); _end_reason_state = ( _end_reason_state & 0xFFFF ) | ( uint64_t( end ) << 16 ); } uint8_t Cpu() const { return uint8_t( _start_cpu & 0xFF ); } void SetCpu( uint8_t cpu ) { _start_cpu = ( _start_cpu & 0xFFFFFFFFFFFFFF00 ) | uint8_t( cpu ); } int8_t Reason() const { return int8_t( (_end_reason_state >> 8) & 0xFF ); } void SetReason( int8_t reason ) { _end_reason_state = ( _end_reason_state & 0xFFFFFFFFFFFF00FF ) | ( uint64_t( reason ) << 8 ); } int8_t State() const { return int8_t( _end_reason_state & 0xFF ); } void SetState( int8_t state ) { _end_reason_state = ( _end_reason_state & 0xFFFFFFFFFFFFFF00 ) | uint8_t( state ); } uint64_t _start_cpu; uint64_t _end_reason_state; int64_t wakeup; }; enum { ContextSwitchDataSize = sizeof( ContextSwitchData ) }; // Thread can't be compressed here, because we want to ignore external threads and we can't // determine whether thread is local or external when context information arrives (thread data // might come after context switch data). struct ContextSwitchCpu { int64_t Start() const { return int64_t( _start_thread ) >> 16; } void SetStart( int64_t start ) { assert( start < (int64_t)( 1ull << 47 ) ); _start_thread = ( _start_thread & 0xFFFF ) | ( uint64_t( start ) << 16 ); } int64_t End() const { return _end; } void SetEnd( int64_t end ) { assert( end < (int64_t)( 1ull << 47 ) ); _end = end; } uint16_t Thread() const { return uint16_t( _start_thread ); } void SetThread( uint16_t thread ) { _start_thread = ( _start_thread & 0xFFFFFFFFFFFF0000 ) | thread; } uint64_t _start_thread; uint64_t _end; }; enum { ContextSwitchCpuSize = sizeof( ContextSwitchCpu ) }; struct MessageData { int64_t time; StringRef ref; uint16_t thread; uint32_t color; }; enum { MessageDataSize = sizeof( MessageData ) }; #pragma pack() struct ThreadData { uint64_t id; uint64_t count; Vector timeline; Vector stack; Vector messages; uint32_t nextZoneId; Vector zoneIdStack; }; struct GpuCtxData { int64_t timeDiff; uint64_t thread; uint64_t count; Vector timeline; Vector stack; uint8_t accuracyBits; float period; GpuEvent* query[64*1024]; }; struct LockMap { struct TimeRange { int64_t start = std::numeric_limits::max(); int64_t end = std::numeric_limits::min(); }; int16_t srcloc; Vector timeline; flat_hash_map> threadMap; std::vector threadList; LockType type; int64_t timeAnnounce; int64_t timeTerminate; bool valid; bool isContended; TimeRange range[64]; }; struct LockHighlight { int64_t id; int64_t begin; int64_t end; uint8_t thread; bool blocked; }; struct PlotItem { int64_t time; double val; }; enum class PlotType : uint8_t { User, Memory, SysTime }; struct PlotData { uint64_t name; double min; double max; Vector data; Vector postpone; uint64_t postponeTime; PlotType type; }; struct MemData { Vector data; Vector frees; flat_hash_map> active; uint64_t high = std::numeric_limits::min(); uint64_t low = std::numeric_limits::max(); uint64_t usage = 0; PlotData* plot = nullptr; }; struct FrameEvent { int64_t start; int64_t end; int32_t frameImage; }; enum { FrameEventSize = sizeof( FrameEvent ) }; struct FrameData { uint64_t name; Vector frames; uint8_t continuous; }; struct StringLocation { const char* ptr; uint32_t idx; }; struct SourceLocationHasher { size_t operator()( const SourceLocation* ptr ) const { return charutil::hash( (const char*)ptr, sizeof( SourceLocation ) ); } typedef tracy::power_of_two_hash_policy hash_policy; }; struct SourceLocationComparator { bool operator()( const SourceLocation* lhs, const SourceLocation* rhs ) const { return memcmp( lhs, rhs, sizeof( SourceLocation ) ) == 0; } }; struct FrameImage { const char* ptr; uint32_t csz; uint16_t w, h; uint32_t frameRef; uint8_t flip; }; enum { FrameImageSize = sizeof( FrameImage ) }; struct ContextSwitch { Vector v; int64_t runningTime = 0; }; struct CpuData { Vector cs; }; struct CpuThreadData { int64_t runningTime = 0; uint32_t runningRegions = 0; uint32_t migrations = 0; }; enum { CpuThreadDataSize = sizeof( CpuThreadData ) }; } #endif