#include #include "TracyColor.hpp" #include "TracyPrint.hpp" #include "TracyUtility.hpp" #include "TracyView.hpp" namespace tracy { uint32_t View::GetThreadColor( uint64_t thread, int depth ) { return tracy::GetThreadColor( thread, depth, m_vd.dynamicColors != 0 ); } uint32_t View::GetRawSrcLocColor( const SourceLocation& srcloc, int depth ) { auto namehash = srcloc.namehash; if( namehash == 0 && srcloc.function.active ) { const auto f = m_worker.GetString( srcloc.function ); namehash = charutil::hash( f ); if( namehash == 0 ) namehash++; srcloc.namehash = namehash; } if( namehash == 0 ) { return GetHsvColor( uint64_t( &srcloc ), depth ); } else { return GetHsvColor( namehash, depth ); } } uint32_t View::GetSrcLocColor( const SourceLocation& srcloc, int depth ) { const auto color = srcloc.color; if( color != 0 && !m_vd.forceColors ) return color | 0xFF000000; if( m_vd.dynamicColors == 0 ) return 0xFFCC5555; return GetRawSrcLocColor( srcloc, depth ); } uint32_t View::GetZoneColor( const ZoneEvent& ev, uint64_t thread, int depth ) { const auto sl = ev.SrcLoc(); const auto& srcloc = m_worker.GetSourceLocation( sl ); if( !m_vd.forceColors ) { if( m_worker.HasZoneExtra( ev ) ) { const auto custom_color = m_worker.GetZoneExtra( ev ).color.Val(); if( custom_color != 0 ) return custom_color | 0xFF000000; } const auto color = srcloc.color; if( color != 0 ) return color | 0xFF000000; } switch( m_vd.dynamicColors ) { case 0: return 0xFFCC5555; case 1: return GetHsvColor( thread, depth ); case 2: return GetRawSrcLocColor( srcloc, depth ); default: assert( false ); return 0; } } uint32_t View::GetZoneColor( const GpuEvent& ev ) { const auto& srcloc = m_worker.GetSourceLocation( ev.SrcLoc() ); const auto color = srcloc.color; return color != 0 ? ( color | 0xFF000000 ) : 0xFF222288; } View::ZoneColorData View::GetZoneColorData( const ZoneEvent& ev, uint64_t thread, int depth ) { ZoneColorData ret; const auto& srcloc = ev.SrcLoc(); if( m_zoneInfoWindow == &ev ) { ret.color = GetZoneColor( ev, thread, depth ); ret.accentColor = 0xFF44DD44; ret.thickness = 3.f; ret.highlight = true; } else if( m_zoneHighlight == &ev ) { ret.color = GetZoneColor( ev, thread, depth ); ret.accentColor = 0xFF4444FF; ret.thickness = 3.f; ret.highlight = true; } else if( m_zoneSrcLocHighlight == srcloc ) { ret.color = GetZoneColor( ev, thread, depth ); ret.accentColor = 0xFFEEEEEE; ret.thickness = 1.f; ret.highlight = true; } else if( m_findZone.show && !m_findZone.match.empty() && m_findZone.match[m_findZone.selMatch] == srcloc ) { uint32_t color = 0xFF229999; if( m_findZone.highlight.active ) { const auto zt = m_worker.GetZoneEnd( ev ) - ev.Start(); if( zt >= m_findZone.highlight.start && zt <= m_findZone.highlight.end ) { color = 0xFFFFCC66; } } ret.color = color; ret.accentColor = HighlightColor( color ); ret.thickness = 3.f; ret.highlight = true; } else { const auto color = GetZoneColor( ev, thread, depth ); ret.color = color; ret.accentColor = HighlightColor( color ); ret.thickness = 1.f; ret.highlight = false; } return ret; } View::ZoneColorData View::GetZoneColorData( const GpuEvent& ev ) { ZoneColorData ret; const auto color = GetZoneColor( ev ); ret.color = color; if( m_gpuInfoWindow == &ev ) { ret.accentColor = 0xFF44DD44; ret.thickness = 3.f; ret.highlight = true; } else if( m_gpuHighlight == &ev ) { ret.accentColor = 0xFF4444FF; ret.thickness = 3.f; ret.highlight = true; } else { ret.accentColor = HighlightColor( color ); ret.thickness = 1.f; ret.highlight = false; } return ret; } const ZoneEvent* View::FindZoneAtTime( uint64_t thread, int64_t time ) const { // TODO add thread rev-map ThreadData* td = nullptr; for( const auto& t : m_worker.GetThreadData() ) { if( t->id == thread ) { td = t; break; } } if( !td ) return nullptr; const Vector>* timeline = &td->timeline; if( timeline->empty() ) return nullptr; const ZoneEvent* ret = nullptr; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), time, [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( it->Start() > time || ( it->IsEndValid() && it->End() < time ) ) return ret; ret = it; if( !it->HasChildren() ) return ret; timeline = &m_worker.GetZoneChildren( it->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), time, [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( (*it)->Start() > time || ( (*it)->IsEndValid() && (*it)->End() < time ) ) return ret; ret = *it; if( !(*it)->HasChildren() ) return ret; timeline = &m_worker.GetZoneChildren( (*it)->Child() ); } } } const ZoneEvent* View::GetZoneChild( const ZoneEvent& zone, int64_t time ) const { if( !zone.HasChildren() ) return nullptr; auto& children = m_worker.GetZoneChildren( zone.Child() ); if( children.is_magic() ) { auto& vec = *((Vector*)&children); auto it = std::upper_bound( vec.begin(), vec.end(), time, [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec.begin() ) --it; if( it->Start() > time || ( it->IsEndValid() && it->End() < time ) ) return nullptr; return it; } else { auto it = std::upper_bound( children.begin(), children.end(), time, [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != children.begin() ) --it; if( (*it)->Start() > time || ( (*it)->IsEndValid() && (*it)->End() < time ) ) return nullptr; return *it; } } const ZoneEvent* View::GetZoneParent( const ZoneEvent& zone ) const { #ifndef TRACY_NO_STATISTICS if( m_worker.AreSourceLocationZonesReady() ) { auto& slz = m_worker.GetZonesForSourceLocation( zone.SrcLoc() ); if( !slz.zones.empty() && slz.zones.is_sorted() ) { auto it = std::lower_bound( slz.zones.begin(), slz.zones.end(), zone.Start(), [] ( const auto& lhs, const auto& rhs ) { return lhs.Zone()->Start() < rhs; } ); if( it != slz.zones.end() && it->Zone() == &zone ) { return GetZoneParent( zone, m_worker.DecompressThread( it->Thread() ) ); } } } #endif for( const auto& thread : m_worker.GetThreadData() ) { const ZoneEvent* parent = nullptr; const Vector>* timeline = &thread->timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( zone.IsEndValid() && it->Start() > zone.End() ) break; if( it == &zone ) return parent; if( !it->HasChildren() ) break; parent = it; timeline = &m_worker.GetZoneChildren( parent->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( zone.IsEndValid() && (*it)->Start() > zone.End() ) break; if( *it == &zone ) return parent; if( !(*it)->HasChildren() ) break; parent = *it; timeline = &m_worker.GetZoneChildren( parent->Child() ); } } } return nullptr; } const ZoneEvent* View::GetZoneParent( const ZoneEvent& zone, uint64_t tid ) const { const auto thread = m_worker.GetThreadData( tid ); const ZoneEvent* parent = nullptr; const Vector>* timeline = &thread->timeline; if( timeline->empty() ) return nullptr; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( zone.IsEndValid() && it->Start() > zone.End() ) break; if( it == &zone ) return parent; if( !it->HasChildren() ) break; parent = it; timeline = &m_worker.GetZoneChildren( parent->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( zone.IsEndValid() && (*it)->Start() > zone.End() ) break; if( *it == &zone ) return parent; if( !(*it)->HasChildren() ) break; parent = *it; timeline = &m_worker.GetZoneChildren( parent->Child() ); } } return nullptr; } bool View::IsZoneReentry( const ZoneEvent& zone ) const { #ifndef TRACY_NO_STATISTICS if( m_worker.AreSourceLocationZonesReady() ) { auto& slz = m_worker.GetZonesForSourceLocation( zone.SrcLoc() ); if( !slz.zones.empty() && slz.zones.is_sorted() ) { auto it = std::lower_bound( slz.zones.begin(), slz.zones.end(), zone.Start(), [] ( const auto& lhs, const auto& rhs ) { return lhs.Zone()->Start() < rhs; } ); if( it != slz.zones.end() && it->Zone() == &zone ) { return IsZoneReentry( zone, m_worker.DecompressThread( it->Thread() ) ); } } } #endif for( const auto& thread : m_worker.GetThreadData() ) { const ZoneEvent* parent = nullptr; const Vector>* timeline = &thread->timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( zone.IsEndValid() && it->Start() > zone.End() ) break; if( it == &zone ) return false; if( !it->HasChildren() ) break; parent = it; if (parent->SrcLoc() == zone.SrcLoc() ) return true; timeline = &m_worker.GetZoneChildren( parent->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( zone.IsEndValid() && (*it)->Start() > zone.End() ) break; if( *it == &zone ) return false; if( !(*it)->HasChildren() ) break; parent = *it; if (parent->SrcLoc() == zone.SrcLoc() ) return true; timeline = &m_worker.GetZoneChildren( parent->Child() ); } } } return false; } bool View::IsZoneReentry( const ZoneEvent& zone, uint64_t tid ) const { const auto thread = m_worker.GetThreadData( tid ); const ZoneEvent* parent = nullptr; const Vector>* timeline = &thread->timeline; if( timeline->empty() ) return false; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( zone.IsEndValid() && it->Start() > zone.End() ) break; if( it == &zone ) return false; if( !it->HasChildren() ) break; parent = it; if (parent->SrcLoc() == zone.SrcLoc() ) return true; timeline = &m_worker.GetZoneChildren( parent->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( zone.IsEndValid() && (*it)->Start() > zone.End() ) break; if( *it == &zone ) return false; if( !(*it)->HasChildren() ) break; parent = *it; if (parent->SrcLoc() == zone.SrcLoc() ) return true; timeline = &m_worker.GetZoneChildren( parent->Child() ); } } return false; } const GpuEvent* View::GetZoneParent( const GpuEvent& zone ) const { for( const auto& ctx : m_worker.GetGpuData() ) { for( const auto& td : ctx->threadData ) { const GpuEvent* parent = nullptr; const Vector>* timeline = &td.second.timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r.GpuStart(); } ); if( it != vec->begin() ) --it; if( zone.GpuEnd() >= 0 && it->GpuStart() > zone.GpuEnd() ) break; if( it == &zone ) return parent; if( it->Child() < 0 ) break; parent = it; timeline = &m_worker.GetGpuChildren( parent->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r->GpuStart(); } ); if( it != timeline->begin() ) --it; if( zone.GpuEnd() >= 0 && (*it)->GpuStart() > zone.GpuEnd() ) break; if( *it == &zone ) return parent; if( (*it)->Child() < 0 ) break; parent = *it; timeline = &m_worker.GetGpuChildren( parent->Child() ); } } } } return nullptr; } const ThreadData* View::GetZoneThreadData( const ZoneEvent& zone ) const { #ifndef TRACY_NO_STATISTICS if( m_worker.AreSourceLocationZonesReady() ) { auto& slz = m_worker.GetZonesForSourceLocation( zone.SrcLoc() ); if( !slz.zones.empty() && slz.zones.is_sorted() ) { auto it = std::lower_bound( slz.zones.begin(), slz.zones.end(), zone.Start(), [] ( const auto& lhs, const auto& rhs ) { return lhs.Zone()->Start() < rhs; } ); if( it != slz.zones.end() && it->Zone() == &zone ) { return m_worker.GetThreadData( m_worker.DecompressThread( it->Thread() ) ); } } } #endif for( const auto& thread : m_worker.GetThreadData() ) { const Vector>* timeline = &thread->timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( it != vec->begin() ) --it; if( zone.IsEndValid() && it->Start() > zone.End() ) break; if( it == &zone ) return thread; if( !it->HasChildren() ) break; timeline = &m_worker.GetZoneChildren( it->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.Start(), [] ( const auto& l, const auto& r ) { return l < r->Start(); } ); if( it != timeline->begin() ) --it; if( zone.IsEndValid() && (*it)->Start() > zone.End() ) break; if( *it == &zone ) return thread; if( !(*it)->HasChildren() ) break; timeline = &m_worker.GetZoneChildren( (*it)->Child() ); } } } return nullptr; } uint64_t View::GetZoneThread( const ZoneEvent& zone ) const { auto threadData = GetZoneThreadData( zone ); return threadData ? threadData->id : 0; } uint64_t View::GetZoneThread( const GpuEvent& zone ) const { if( zone.Thread() == 0 ) { for( const auto& ctx : m_worker.GetGpuData() ) { if ( ctx->threadData.size() != 1 ) continue; const Vector>* timeline = &ctx->threadData.begin()->second.timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r.GpuStart(); } ); if( it != vec->begin() ) --it; if( zone.GpuEnd() >= 0 && it->GpuStart() > zone.GpuEnd() ) break; if( it == &zone ) return ctx->thread; if( it->Child() < 0 ) break; timeline = &m_worker.GetGpuChildren( it->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r->GpuStart(); } ); if( it != timeline->begin() ) --it; if( zone.GpuEnd() >= 0 && (*it)->GpuStart() > zone.GpuEnd() ) break; if( *it == &zone ) return ctx->thread; if( (*it)->Child() < 0 ) break; timeline = &m_worker.GetGpuChildren( (*it)->Child() ); } } } return 0; } else { return m_worker.DecompressThread( zone.Thread() ); } } const GpuCtxData* View::GetZoneCtx( const GpuEvent& zone ) const { for( const auto& ctx : m_worker.GetGpuData() ) { for( const auto& td : ctx->threadData ) { const Vector>* timeline = &td.second.timeline; if( timeline->empty() ) continue; for(;;) { if( timeline->is_magic() ) { auto vec = (Vector*)timeline; auto it = std::upper_bound( vec->begin(), vec->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r.GpuStart(); } ); if( it != vec->begin() ) --it; if( zone.GpuEnd() >= 0 && it->GpuStart() > zone.GpuEnd() ) break; if( it == &zone ) return ctx; if( it->Child() < 0 ) break; timeline = &m_worker.GetGpuChildren( it->Child() ); } else { auto it = std::upper_bound( timeline->begin(), timeline->end(), zone.GpuStart(), [] ( const auto& l, const auto& r ) { return (uint64_t)l < (uint64_t)r->GpuStart(); } ); if( it != timeline->begin() ) --it; if( zone.GpuEnd() >= 0 && (*it)->GpuStart() > zone.GpuEnd() ) break; if( *it == &zone ) return ctx; if( (*it)->Child() < 0 ) break; timeline = &m_worker.GetGpuChildren( (*it)->Child() ); } } } } return nullptr; } int64_t View::GetZoneChildTime( const ZoneEvent& zone ) { int64_t time = 0; if( zone.HasChildren() ) { auto& children = m_worker.GetZoneChildren( zone.Child() ); if( children.is_magic() ) { auto& vec = *(Vector*)&children; for( auto& v : vec ) { const auto childSpan = std::max( int64_t( 0 ), v.End() - v.Start() ); time += childSpan; } } else { for( auto& v : children ) { const auto childSpan = std::max( int64_t( 0 ), v->End() - v->Start() ); time += childSpan; } } } return time; } int64_t View::GetZoneChildTime( const GpuEvent& zone ) { int64_t time = 0; if( zone.Child() >= 0 ) { auto& children = m_worker.GetGpuChildren( zone.Child() ); if( children.is_magic() ) { auto& vec = *(Vector*)&children; for( auto& v : vec ) { const auto childSpan = std::max( int64_t( 0 ), v.GpuEnd() - v.GpuStart() ); time += childSpan; } } else { for( auto& v : children ) { const auto childSpan = std::max( int64_t( 0 ), v->GpuEnd() - v->GpuStart() ); time += childSpan; } } } return time; } int64_t View::GetZoneChildTimeFast( const ZoneEvent& zone ) { int64_t time = 0; if( zone.HasChildren() ) { auto& children = m_worker.GetZoneChildren( zone.Child() ); if( children.is_magic() ) { auto& vec = *(Vector*)&children; for( auto& v : vec ) { assert( v.IsEndValid() ); time += v.End() - v.Start(); } } else { for( auto& v : children ) { assert( v->IsEndValid() ); time += v->End() - v->Start(); } } } return time; } int64_t View::GetZoneChildTimeFastClamped( const ZoneEvent& zone, int64_t t0, int64_t t1 ) { int64_t time = 0; if( zone.HasChildren() ) { auto& children = m_worker.GetZoneChildren( zone.Child() ); if( children.is_magic() ) { auto& vec = *(Vector*)&children; auto it = std::lower_bound( vec.begin(), vec.end(), t0, [] ( const auto& l, const auto& r ) { return (uint64_t)l.End() < (uint64_t)r; } ); if( it == vec.end() ) return 0; const auto zitend = std::lower_bound( it, vec.end(), t1, [] ( const auto& l, const auto& r ) { return l.Start() < r; } ); if( it == zitend ) return 0; while( it < zitend ) { const auto c0 = std::max( it->Start(), t0 ); const auto c1 = std::min( it->End(), t1 ); time += c1 - c0; ++it; } } else { auto it = std::lower_bound( children.begin(), children.end(), t0, [] ( const auto& l, const auto& r ) { return (uint64_t)l->End() < (uint64_t)r; } ); if( it == children.end() ) return 0; const auto zitend = std::lower_bound( it, children.end(), t1, [] ( const auto& l, const auto& r ) { return l->Start() < r; } ); if( it == zitend ) return 0; while( it < zitend ) { const auto c0 = std::max( (*it)->Start(), t0 ); const auto c1 = std::min( (*it)->End(), t1 ); time += c1 - c0; ++it; } } } return time; } int64_t View::GetZoneSelfTime( const ZoneEvent& zone ) { if( m_cache.zoneSelfTime.first == &zone ) return m_cache.zoneSelfTime.second; if( m_cache.zoneSelfTime2.first == &zone ) return m_cache.zoneSelfTime2.second; const auto ztime = m_worker.GetZoneEnd( zone ) - zone.Start(); const auto selftime = ztime - GetZoneChildTime( zone ); if( zone.IsEndValid() ) { m_cache.zoneSelfTime2 = m_cache.zoneSelfTime; m_cache.zoneSelfTime = std::make_pair( &zone, selftime ); } return selftime; } int64_t View::GetZoneSelfTime( const GpuEvent& zone ) { if( m_cache.gpuSelfTime.first == &zone ) return m_cache.gpuSelfTime.second; if( m_cache.gpuSelfTime2.first == &zone ) return m_cache.gpuSelfTime2.second; const auto ztime = m_worker.GetZoneEnd( zone ) - zone.GpuStart(); const auto selftime = ztime - GetZoneChildTime( zone ); if( zone.GpuEnd() >= 0 ) { m_cache.gpuSelfTime2 = m_cache.gpuSelfTime; m_cache.gpuSelfTime = std::make_pair( &zone, selftime ); } return selftime; } bool View::GetZoneRunningTime( const ContextSwitch* ctx, const ZoneEvent& ev, int64_t& time, uint64_t& cnt ) { auto it = std::lower_bound( ctx->v.begin(), ctx->v.end(), ev.Start(), [] ( const auto& l, const auto& r ) { return (uint64_t)l.End() < (uint64_t)r; } ); if( it == ctx->v.end() ) return false; const auto end = m_worker.GetZoneEnd( ev ); const auto eit = std::upper_bound( it, ctx->v.end(), end, [] ( const auto& l, const auto& r ) { return l < r.Start(); } ); if( eit == ctx->v.end() ) return false; cnt = std::distance( it, eit ); if( cnt == 0 ) return false; if( cnt == 1 ) { time = end - ev.Start(); } else { int64_t running = it->End() - ev.Start(); ++it; for( uint64_t i=0; iEnd() - it->Start(); ++it; } running += end - it->Start(); time = running; } return true; } const char* View::SourceSubstitution( const char* srcFile ) const { if( !m_sourceRegexValid || m_sourceSubstitutions.empty() ) return srcFile; static std::string res, tmp; res.assign( srcFile ); for( auto& v : m_sourceSubstitutions ) { tmp = std::regex_replace( res, v.regex, v.target ); std::swap( tmp, res ); } return res.c_str(); } int64_t View::AdjustGpuTime( int64_t time, int64_t begin, int drift ) { if( time < 0 ) return time; const auto t = time - begin; return time + t / 1000000000 * drift; } uint64_t View::GetFrameNumber( const FrameData& fd, int i, uint64_t offset ) const { if( fd.name == 0 ) { if( offset == 0 ) { return i; } else { return i + offset - 1; } } else { return i + 1; } } const char* View::GetFrameText( const FrameData& fd, int i, uint64_t ftime, uint64_t offset ) const { const auto fnum = GetFrameNumber( fd, i, offset ); static char buf[1024]; if( fd.name == 0 ) { if( i == 0 ) { sprintf( buf, "Tracy init (%s)", TimeToString( ftime ) ); } else if( offset == 0 ) { sprintf( buf, "Frame %s (%s)", RealToString( fnum ), TimeToString( ftime ) ); } else if( i == 1 ) { sprintf( buf, "Missed frames (%s)", TimeToString( ftime ) ); } else { sprintf( buf, "Frame %s (%s)", RealToString( fnum ), TimeToString( ftime ) ); } } else { sprintf( buf, "%s %s (%s)", GetFrameSetName( fd ), RealToString( fnum ), TimeToString( ftime ) ); } return buf; } const char* View::GetFrameSetName( const FrameData& fd ) const { return GetFrameSetName( fd, m_worker ); } const char* View::GetFrameSetName( const FrameData& fd, const Worker& worker ) { enum { Pool = 4 }; static char bufpool[Pool][64]; static int bufsel = 0; if( fd.name == 0 ) { return "Frames"; } else if( fd.name >> 63 != 0 ) { char* buf = bufpool[bufsel]; bufsel = ( bufsel + 1 ) % Pool; sprintf( buf, "[%" PRIu32 "] Vsync", uint32_t( fd.name ) ); return buf; } else { return worker.GetString( fd.name ); } } const char* View::GetThreadContextData( uint64_t thread, bool& _local, bool& _untracked, const char*& program ) { static char buf[256]; const auto local = m_worker.IsThreadLocal( thread ); auto txt = local ? m_worker.GetThreadName( thread ) : m_worker.GetExternalName( thread ).first; auto label = txt; bool untracked = false; if( !local ) { if( m_worker.GetPid() == 0 ) { untracked = strcmp( txt, m_worker.GetCaptureProgram().c_str() ) == 0; } else { const auto pid = m_worker.GetPidFromTid( thread ); untracked = pid == m_worker.GetPid(); if( untracked ) { label = txt = m_worker.GetExternalName( thread ).second; } else { const auto ttxt = m_worker.GetExternalName( thread ).second; if( strcmp( ttxt, "???" ) != 0 && strcmp( ttxt, txt ) != 0 ) { snprintf( buf, 256, "%s (%s)", txt, ttxt ); label = buf; } } } } _local = local; _untracked = untracked; program = txt; return label; } void View::Attention( bool& alreadyDone ) { if( !alreadyDone ) { alreadyDone = true; m_acb(); } } }