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ccbf6ad3c1dffaffd43890e62235b3a860bc9081
easy7zip/CPP/7zip/UI/GUI/BenchmarkDialog.cpp
Igor Pavlov ccbf6ad3c1 21.06
2021-11-28 19:08:41 -08:00

1926 lines
43 KiB
C++
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// BenchmarkDialog.cpp
#include "StdAfx.h"
#include "../../../../C/CpuArch.h"
#include "../../../Common/Defs.h"
#include "../../../Common/IntToString.h"
#include "../../../Common/MyException.h"
#include "../../../Common/StringConvert.h"
#include "../../../Common/StringToInt.h"
#include "../../../Windows/Synchronization.h"
#include "../../../Windows/System.h"
#include "../../../Windows/Thread.h"
#include "../../../Windows/SystemInfo.h"
#include "../../../Windows/Control/ComboBox.h"
#include "../../../Windows/Control/Edit.h"
#include "../../Common/MethodProps.h"
#include "../FileManager/DialogSize.h"
#include "../FileManager/HelpUtils.h"
#ifdef LANG
#include "../FileManager/LangUtils.h"
#endif
#include "../../MyVersion.h"
#include "../Common/Bench.h"
#include "BenchmarkDialogRes.h"
#include "BenchmarkDialog.h"
using namespace NWindows;
#define kHelpTopic "fm/benchmark.htm"
static const UINT_PTR kTimerID = 4;
static const UINT kTimerElapse = 1000; // 1000
// use PRINT_ITER_TIME to show time of each iteration in log box
// #define PRINT_ITER_TIME
static const unsigned kRatingVector_NumBundlesMax = 20;
enum MyBenchMessages
{
k_Message_Finished = WM_APP + 1
};
enum My_Message_WPARAM
{
k_Msg_WPARM_Thread_Finished = 0,
k_Msg_WPARM_Iter_Finished,
k_Msg_WPARM_Enc1_Finished
};
struct CBenchPassResult
{
CTotalBenchRes Enc;
CTotalBenchRes Dec;
#ifdef PRINT_ITER_TIME
DWORD Ticks;
#endif
// CBenchInfo EncInfo; // for debug
// CBenchPassResult() {};
};
struct CTotalBenchRes2: public CTotalBenchRes
{
UInt64 UnpackSize;
void Init()
{
CTotalBenchRes::Init();
UnpackSize = 0;
}
void SetFrom_BenchInfo(const CBenchInfo &info)
{
NumIterations2 = 1;
Generate_From_BenchInfo(info);
UnpackSize = info.Get_UnpackSize_Full();
}
void Update_With_Res2(const CTotalBenchRes2 &r)
{
Update_With_Res(r);
UnpackSize += r.UnpackSize;
}
};
struct CSyncData
{
UInt32 NumPasses_Finished;
// UInt64 NumEncProgress; // for debug
// UInt64 NumDecProgress; // for debug
// CBenchInfo EncInfo; // for debug
CTotalBenchRes2 Enc_BenchRes_1;
CTotalBenchRes2 Enc_BenchRes;
CTotalBenchRes2 Dec_BenchRes_1;
CTotalBenchRes2 Dec_BenchRes;
#ifdef PRINT_ITER_TIME
DWORD TotalTicks;
#endif
int RatingVector_DeletedIndex;
// UInt64 RatingVector_NumDeleted;
bool BenchWasFinished; // all passes were finished
bool NeedPrint_Freq;
bool NeedPrint_RatingVector;
bool NeedPrint_Enc_1;
bool NeedPrint_Enc;
bool NeedPrint_Dec_1;
bool NeedPrint_Dec;
bool NeedPrint_Tot; // intermediate Total was updated after current pass
void Init();
};
void CSyncData::Init()
{
NumPasses_Finished = 0;
// NumEncProgress = 0;
// NumDecProgress = 0;
Enc_BenchRes.Init();
Enc_BenchRes_1.Init();
Dec_BenchRes.Init();
Dec_BenchRes_1.Init();
#ifdef PRINT_ITER_TIME
TotalTicks = 0;
#endif
RatingVector_DeletedIndex = -1;
// RatingVector_NumDeleted = 0;
BenchWasFinished =
NeedPrint_Freq =
NeedPrint_RatingVector =
NeedPrint_Enc_1 =
NeedPrint_Enc =
NeedPrint_Dec_1 =
NeedPrint_Dec =
NeedPrint_Tot = false;
};
struct CBenchProgressSync
{
bool Exit; // GUI asks BenchThread to Exit, and BenchThread reads that variable
UInt32 NumThreads;
UInt64 DictSize;
UInt32 NumPasses_Limit;
int Level;
// must be written by benchmark thread, read by GUI thread */
CSyncData sd;
CRecordVector<CBenchPassResult> RatingVector;
NWindows::NSynchronization::CCriticalSection CS;
AString Text;
bool TextWasChanged;
/* BenchFinish_Task_HRESULT - for result from benchmark code
BenchFinish_Thread_HRESULT - for Exceptions and service errors
these arreos must be shown even if user escapes benchmark */
HRESULT BenchFinish_Task_HRESULT;
HRESULT BenchFinish_Thread_HRESULT;
UInt32 NumFreqThreadsPrev;
UString FreqString_Sync;
UString FreqString_GUI;
CBenchProgressSync()
{
NumPasses_Limit = 1;
}
void Init();
void SendExit()
{
NWindows::NSynchronization::CCriticalSectionLock lock(CS);
Exit = true;
}
};
void CBenchProgressSync::Init()
{
Exit = false;
BenchFinish_Task_HRESULT = S_OK;
BenchFinish_Thread_HRESULT = S_OK;
sd.Init();
RatingVector.Clear();
NumFreqThreadsPrev = 0;
FreqString_Sync.Empty();
FreqString_GUI.Empty();
Text.Empty();
TextWasChanged = true;
}
struct CMyFont
{
HFONT _font;
CMyFont(): _font(NULL) {}
~CMyFont()
{
if (_font)
DeleteObject(_font);
}
void Create(const LOGFONT *lplf)
{
_font = CreateFontIndirect(lplf);
}
};
class CBenchmarkDialog;
struct CThreadBenchmark
{
CBenchmarkDialog *BenchmarkDialog;
DECL_EXTERNAL_CODECS_LOC_VARS2;
// HRESULT Result;
HRESULT Process();
static THREAD_FUNC_DECL MyThreadFunction(void *param)
{
/* ((CThreadBenchmark *)param)->Result = */
((CThreadBenchmark *)param)->Process();
return 0;
}
};
class CBenchmarkDialog:
public NWindows::NControl::CModalDialog
{
NWindows::NControl::CComboBox m_Dictionary;
NWindows::NControl::CComboBox m_NumThreads;
NWindows::NControl::CComboBox m_NumPasses;
NWindows::NControl::CEdit _consoleEdit;
UINT_PTR _timer;
UInt32 _startTime;
UInt32 _finishTime;
bool _finishTime_WasSet;
bool WasStopped_in_GUI;
bool ExitWasAsked_in_GUI;
bool NeedRestart;
CMyFont _font;
UInt64 RamSize;
UInt64 RamSize_Limit;
bool RamSize_Defined;
UInt32 NumPasses_Finished_Prev;
UString ElapsedSec_Prev;
void InitSyncNew()
{
NumPasses_Finished_Prev = (UInt32)(Int32)-1;
ElapsedSec_Prev.Empty();
Sync.Init();
}
virtual bool OnInit();
virtual bool OnDestroy();
virtual bool OnSize(WPARAM /* wParam */, int xSize, int ySize);
virtual bool OnMessage(UINT message, WPARAM wParam, LPARAM lParam);
virtual bool OnCommand(int code, int itemID, LPARAM lParam);
virtual void OnHelp();
virtual void OnCancel();
virtual bool OnTimer(WPARAM timerID, LPARAM callback);
virtual bool OnButtonClicked(int buttonID, HWND buttonHWND);
void Disable_Stop_Button();
void OnStopButton();
void RestartBenchmark();
void StartBenchmark();
void UpdateGui();
void PrintTime();
void PrintRating(UInt64 rating, UINT controlID);
void PrintUsage(UInt64 usage, UINT controlID);
void PrintBenchRes(const CTotalBenchRes2 &info, const UINT ids[]);
UInt32 GetNumberOfThreads();
size_t OnChangeDictionary();
void SetItemText_Number(int itemID, UInt64 val, LPCTSTR post = NULL);
void Print_MemUsage(UString &s, UInt64 memUsage) const;
bool IsMemoryUsageOK(UInt64 memUsage) const
{ return memUsage + (1 << 20) <= RamSize_Limit; }
void MyKillTimer();
void SendExit_Status(const wchar_t *message)
{
SetItemText(IDT_BENCH_ERROR_MESSAGE, message);
Sync.SendExit();
}
public:
CBenchProgressSync Sync;
bool TotalMode;
CObjectVector<CProperty> Props;
CSysString Bench2Text;
NWindows::CThread _thread;
CThreadBenchmark _threadBenchmark;
CBenchmarkDialog():
_timer(0),
TotalMode(false),
WasStopped_in_GUI(false),
ExitWasAsked_in_GUI(false),
NeedRestart(false)
{}
~CBenchmarkDialog();
bool PostMsg_Finish(LPARAM param)
{
if ((HWND)*this)
return PostMsg(k_Message_Finished, param);
// the (HWND)*this is NULL only for some internal code failure
return true;
}
INT_PTR Create(HWND wndParent = 0)
{
BIG_DIALOG_SIZE(332, 228);
return CModalDialog::Create(TotalMode ? IDD_BENCH_TOTAL : SIZED_DIALOG(IDD_BENCH), wndParent);
}
void MessageBoxError(LPCWSTR message)
{
MessageBoxW(*this, message, L"7-Zip", MB_ICONERROR);
}
void MessageBoxError_Status(LPCWSTR message)
{
UString s ("ERROR: ");
s += message;
MessageBoxError(s);
SetItemText(IDT_BENCH_ERROR_MESSAGE, s);
}
};
UString HResultToMessage(HRESULT errorCode);
#ifdef LANG
static const UInt32 kLangIDs[] =
{
IDT_BENCH_DICTIONARY,
IDT_BENCH_MEMORY,
IDT_BENCH_NUM_THREADS,
IDT_BENCH_SPEED,
IDT_BENCH_RATING_LABEL,
IDT_BENCH_USAGE_LABEL,
IDT_BENCH_RPU_LABEL,
IDG_BENCH_COMPRESSING,
IDG_BENCH_DECOMPRESSING,
IDG_BENCH_TOTAL_RATING,
IDT_BENCH_CURRENT,
IDT_BENCH_RESULTING,
IDT_BENCH_ELAPSED,
IDT_BENCH_PASSES,
IDB_STOP,
IDB_RESTART
};
static const UInt32 kLangIDs_Colon[] =
{
IDT_BENCH_SIZE
};
#endif
static LPCTSTR const kProcessingString = TEXT("...");
static LPCTSTR const kGB = TEXT(" GB");
static LPCTSTR const kMB = TEXT(" MB");
static LPCTSTR const kKB = TEXT(" KB");
// static LPCTSTR const kMIPS = TEXT(" MIPS");
static LPCTSTR const kKBs = TEXT(" KB/s");
static const unsigned kMinDicLogSize = 18;
static const UInt32 kMinDicSize = (UInt32)1 << kMinDicLogSize;
static const size_t kMaxDicSize = (size_t)1 << (22 + sizeof(size_t) / 4 * 5);
// static const size_t kMaxDicSize = (size_t)1 << 16;
/*
#ifdef MY_CPU_64BIT
(UInt32)(Int32)-1; // we can use it, if we want 4 GB buffer
// (UInt32)15 << 28;
#else
(UInt32)1 << 27;
#endif
*/
static int ComboBox_Add_UInt32(NWindows::NControl::CComboBox &cb, UInt32 v)
{
TCHAR s[16];
ConvertUInt32ToString(v, s);
int index = (int)cb.AddString(s);
cb.SetItemData(index, v);
return index;
}
bool CBenchmarkDialog::OnInit()
{
#ifdef LANG
LangSetWindowText(*this, IDD_BENCH);
LangSetDlgItems(*this, kLangIDs, ARRAY_SIZE(kLangIDs));
// LangSetDlgItems_Colon(*this, kLangIDs_Colon, ARRAY_SIZE(kLangIDs_Colon));
LangSetDlgItemText(*this, IDT_BENCH_CURRENT2, IDT_BENCH_CURRENT);
LangSetDlgItemText(*this, IDT_BENCH_RESULTING2, IDT_BENCH_RESULTING);
#endif
InitSyncNew();
if (TotalMode)
{
_consoleEdit.Attach(GetItem(IDE_BENCH2_EDIT));
LOGFONT f;
memset(&f, 0, sizeof(f));
f.lfHeight = 14;
f.lfWidth = 0;
f.lfWeight = FW_DONTCARE;
f.lfCharSet = DEFAULT_CHARSET;
f.lfOutPrecision = OUT_DEFAULT_PRECIS;
f.lfClipPrecision = CLIP_DEFAULT_PRECIS;
f.lfQuality = DEFAULT_QUALITY;
f.lfPitchAndFamily = FIXED_PITCH;
// MyStringCopy(f.lfFaceName, TEXT(""));
// f.lfFaceName[0] = 0;
_font.Create(&f);
if (_font._font)
_consoleEdit.SendMsg(WM_SETFONT, (WPARAM)_font._font, TRUE);
}
UInt32 numCPUs = 1;
{
AString s ("/ ");
NSystem::CProcessAffinity threadsInfo;
threadsInfo.InitST();
#ifndef _7ZIP_ST
if (threadsInfo.Get() && threadsInfo.processAffinityMask != 0)
numCPUs = threadsInfo.GetNumProcessThreads();
else
numCPUs = NSystem::GetNumberOfProcessors();
#endif
s.Add_UInt32(numCPUs);
s += GetProcessThreadsInfo(threadsInfo);
SetItemTextA(IDT_BENCH_HARDWARE_THREADS, s);
{
AString s2;
GetSysInfo(s, s2);
SetItemTextA(IDT_BENCH_SYS1, s);
if (s != s2 && !s2.IsEmpty())
SetItemTextA(IDT_BENCH_SYS2, s2);
}
{
GetCpuName_MultiLine(s);
SetItemTextA(IDT_BENCH_CPU, s);
}
{
GetOsInfoText(s);
s += " : ";
AddCpuFeatures(s);
SetItemTextA(IDT_BENCH_CPU_FEATURE, s);
}
s = "7-Zip " MY_VERSION_CPU;
SetItemTextA(IDT_BENCH_VER, s);
}
// ----- Num Threads ----------
if (numCPUs < 1)
numCPUs = 1;
numCPUs = MyMin(numCPUs, (UInt32)(1 << 6)); // it's WIN32 limit
UInt32 numThreads = Sync.NumThreads;
if (numThreads == (UInt32)(Int32)-1)
numThreads = numCPUs;
if (numThreads > 1)
numThreads &= ~1;
const UInt32 kNumThreadsMax = (1 << 12);
if (numThreads > kNumThreadsMax)
numThreads = kNumThreadsMax;
m_NumThreads.Attach(GetItem(IDC_BENCH_NUM_THREADS));
const UInt32 numTheads_Combo = numCPUs * 2;
UInt32 v = 1;
int cur = 0;
for (; v <= numTheads_Combo;)
{
int index = ComboBox_Add_UInt32(m_NumThreads, v);
const UInt32 vNext = v + (v < 2 ? 1 : 2);
if (v <= numThreads)
if (numThreads < vNext || vNext > numTheads_Combo)
{
if (v != numThreads)
index = ComboBox_Add_UInt32(m_NumThreads, numThreads);
cur = index;
}
v = vNext;
}
m_NumThreads.SetCurSel(cur);
Sync.NumThreads = GetNumberOfThreads();
// ----- Dictionary ----------
m_Dictionary.Attach(GetItem(IDC_BENCH_DICTIONARY));
RamSize = (UInt64)(sizeof(size_t)) << 29;
RamSize_Defined = NSystem::GetRamSize(RamSize);
#ifdef UNDER_CE
const UInt32 kNormalizedCeSize = (16 << 20);
if (RamSize > kNormalizedCeSize && RamSize < (33 << 20))
RamSize = kNormalizedCeSize;
#endif
RamSize_Limit = RamSize / 16 * 15;
if (Sync.DictSize == (UInt64)(Int64)-1)
{
unsigned dicSizeLog = 25;
#ifdef UNDER_CE
dicSizeLog = 20;
#endif
if (RamSize_Defined)
for (; dicSizeLog > kBenchMinDicLogSize; dicSizeLog--)
if (IsMemoryUsageOK(GetBenchMemoryUsage(
Sync.NumThreads, Sync.Level, (UInt64)1 << dicSizeLog, TotalMode)))
break;
Sync.DictSize = (UInt64)1 << dicSizeLog;
}
if (Sync.DictSize < kMinDicSize) Sync.DictSize = kMinDicSize;
if (Sync.DictSize > kMaxDicSize) Sync.DictSize = kMaxDicSize;
cur = 0;
for (unsigned i = (kMinDicLogSize - 1) * 2; i <= (32 - 1) * 2; i++)
{
const size_t dict = (size_t)(2 + (i & 1)) << (i / 2);
// if (i == (32 - 1) * 2) dict = kMaxDicSize;
TCHAR s[32];
const TCHAR *post;
UInt32 d;
if (dict >= ((UInt32)1 << 31)) { d = (UInt32)(dict >> 30); post = kGB; }
else if (dict >= ((UInt32)1 << 21)) { d = (UInt32)(dict >> 20); post = kMB; }
else { d = (UInt32)(dict >> 10); post = kKB; }
ConvertUInt32ToString(d, s);
lstrcat(s, post);
const int index = (int)m_Dictionary.AddString(s);
m_Dictionary.SetItemData(index, dict);
if (dict <= Sync.DictSize)
cur = index;
if (dict >= kMaxDicSize)
break;
}
m_Dictionary.SetCurSel(cur);
// ----- Num Passes ----------
m_NumPasses.Attach(GetItem(IDC_BENCH_NUM_PASSES));
cur = 0;
v = 1;
for (;;)
{
int index = ComboBox_Add_UInt32(m_NumPasses, v);
const bool isLast = (v >= 10000000);
UInt32 vNext = v * 10;
if (v < 2) vNext = 2;
else if (v < 5) vNext = 5;
else if (v < 10) vNext = 10;
if (v <= Sync.NumPasses_Limit)
if (isLast || Sync.NumPasses_Limit < vNext)
{
if (v != Sync.NumPasses_Limit)
index = ComboBox_Add_UInt32(m_NumPasses, Sync.NumPasses_Limit);
cur = index;
}
v = vNext;
if (isLast)
break;
}
m_NumPasses.SetCurSel(cur);
if (TotalMode)
NormalizeSize(true);
else
NormalizePosition();
RestartBenchmark();
return CModalDialog::OnInit();
}
bool CBenchmarkDialog::OnSize(WPARAM /* wParam */, int xSize, int ySize)
{
int mx, my;
GetMargins(8, mx, my);
if (!TotalMode)
{
RECT rect;
GetClientRectOfItem(IDT_BENCH_LOG, rect);
int x = xSize - rect.left - mx;
int y = ySize - rect.top - my;
if (x < 0) x = 0;
if (y < 0) y = 0;
MoveItem(IDT_BENCH_LOG, rect.left, rect.top, x, y, true);
return false;
}
int bx1, bx2, by;
GetItemSizes(IDCANCEL, bx1, by);
GetItemSizes(IDHELP, bx2, by);
{
int y = ySize - my - by;
int x = xSize - mx - bx1;
InvalidateRect(NULL);
MoveItem(IDCANCEL, x, y, bx1, by);
MoveItem(IDHELP, x - mx - bx2, y, bx2, by);
}
if (_consoleEdit)
{
int yPos = ySize - my - by;
RECT rect;
GetClientRectOfItem(IDE_BENCH2_EDIT, rect);
int y = rect.top;
int ySize2 = yPos - my - y;
const int kMinYSize = 20;
int xx = xSize - mx * 2;
if (ySize2 < kMinYSize)
{
ySize2 = kMinYSize;
}
_consoleEdit.Move(mx, y, xx, ySize2);
}
return false;
}
UInt32 CBenchmarkDialog::GetNumberOfThreads()
{
return (UInt32)m_NumThreads.GetItemData_of_CurSel();
}
#define UINT_TO_STR_3(s, val) { \
s[0] = (wchar_t)('0' + (val) / 100); \
s[1] = (wchar_t)('0' + (val) % 100 / 10); \
s[2] = (wchar_t)('0' + (val) % 10); \
s[3] = 0; }
static void NumberToDot3(UInt64 val, WCHAR *s)
{
ConvertUInt64ToString(val / 1000, s);
const UInt32 rem = (UInt32)(val % 1000);
s += MyStringLen(s);
*s++ = '.';
UINT_TO_STR_3(s, rem);
}
void CBenchmarkDialog::SetItemText_Number(int itemID, UInt64 val, LPCTSTR post)
{
TCHAR s[64];
ConvertUInt64ToString(val, s);
if (post)
lstrcat(s, post);
SetItemText(itemID, s);
}
static void AddSize_MB(UString &s, UInt64 size)
{
s.Add_UInt64((size + (1 << 20) - 1) >> 20);
s += kMB;
}
void CBenchmarkDialog::Print_MemUsage(UString &s, UInt64 memUsage) const
{
AddSize_MB(s, memUsage);
if (RamSize_Defined)
{
s += " / ";
AddSize_MB(s, RamSize);
}
}
size_t CBenchmarkDialog::OnChangeDictionary()
{
const size_t dict = (size_t)m_Dictionary.GetItemData_of_CurSel();
const UInt64 memUsage = GetBenchMemoryUsage(GetNumberOfThreads(),
Sync.Level,
dict,
false); // totalBench mode
UString s;
Print_MemUsage(s, memUsage);
#ifdef _7ZIP_LARGE_PAGES
{
AString s2;
Add_LargePages_String(s2);
if (!s2.IsEmpty())
{
s.Add_Space();
s += s2;
}
}
#endif
SetItemText(IDT_BENCH_MEMORY_VAL, s);
return dict;
}
static const UInt32 g_IDs[] =
{
IDT_BENCH_COMPRESS_SIZE1,
IDT_BENCH_COMPRESS_SIZE2,
IDT_BENCH_COMPRESS_USAGE1,
IDT_BENCH_COMPRESS_USAGE2,
IDT_BENCH_COMPRESS_SPEED1,
IDT_BENCH_COMPRESS_SPEED2,
IDT_BENCH_COMPRESS_RATING1,
IDT_BENCH_COMPRESS_RATING2,
IDT_BENCH_COMPRESS_RPU1,
IDT_BENCH_COMPRESS_RPU2,
IDT_BENCH_DECOMPR_SIZE1,
IDT_BENCH_DECOMPR_SIZE2,
IDT_BENCH_DECOMPR_SPEED1,
IDT_BENCH_DECOMPR_SPEED2,
IDT_BENCH_DECOMPR_RATING1,
IDT_BENCH_DECOMPR_RATING2,
IDT_BENCH_DECOMPR_USAGE1,
IDT_BENCH_DECOMPR_USAGE2,
IDT_BENCH_DECOMPR_RPU1,
IDT_BENCH_DECOMPR_RPU2,
IDT_BENCH_TOTAL_USAGE_VAL,
IDT_BENCH_TOTAL_RATING_VAL,
IDT_BENCH_TOTAL_RPU_VAL
};
static const unsigned k_Ids_Enc_1[] = {
IDT_BENCH_COMPRESS_USAGE1,
IDT_BENCH_COMPRESS_SPEED1,
IDT_BENCH_COMPRESS_RPU1,
IDT_BENCH_COMPRESS_RATING1,
IDT_BENCH_COMPRESS_SIZE1 };
static const unsigned k_Ids_Enc[] = {
IDT_BENCH_COMPRESS_USAGE2,
IDT_BENCH_COMPRESS_SPEED2,
IDT_BENCH_COMPRESS_RPU2,
IDT_BENCH_COMPRESS_RATING2,
IDT_BENCH_COMPRESS_SIZE2 };
static const unsigned k_Ids_Dec_1[] = {
IDT_BENCH_DECOMPR_USAGE1,
IDT_BENCH_DECOMPR_SPEED1,
IDT_BENCH_DECOMPR_RPU1,
IDT_BENCH_DECOMPR_RATING1,
IDT_BENCH_DECOMPR_SIZE1 };
static const unsigned k_Ids_Dec[] = {
IDT_BENCH_DECOMPR_USAGE2,
IDT_BENCH_DECOMPR_SPEED2,
IDT_BENCH_DECOMPR_RPU2,
IDT_BENCH_DECOMPR_RATING2,
IDT_BENCH_DECOMPR_SIZE2 };
static const unsigned k_Ids_Tot[] = {
IDT_BENCH_TOTAL_USAGE_VAL,
0,
IDT_BENCH_TOTAL_RPU_VAL,
IDT_BENCH_TOTAL_RATING_VAL,
0 };
void CBenchmarkDialog::MyKillTimer()
{
if (_timer != 0)
{
KillTimer(kTimerID);
_timer = 0;
}
}
bool CBenchmarkDialog::OnDestroy()
{
/* actually timer was removed before.
also the timer must be removed by Windows, when window will be removed. */
MyKillTimer(); // it's optional code
return false; // we return (false) to perform default dialog operation
}
void SetErrorMessage_MemUsage(UString &s, UInt64 reqSize, UInt64 ramSize, UInt64 ramLimit, const UString &usageString);
void CBenchmarkDialog::StartBenchmark()
{
NeedRestart = false;
WasStopped_in_GUI = false;
SetItemText_Empty(IDT_BENCH_ERROR_MESSAGE);
MyKillTimer(); // optional code. timer was killed before
const size_t dict = OnChangeDictionary();
const UInt32 numThreads = GetNumberOfThreads();
const UInt32 numPasses = (UInt32)m_NumPasses.GetItemData_of_CurSel();
for (unsigned i = 0; i < ARRAY_SIZE(g_IDs); i++)
SetItemText(g_IDs[i], kProcessingString);
SetItemText_Empty(IDT_BENCH_LOG);
SetItemText_Empty(IDT_BENCH_ELAPSED_VAL);
SetItemText_Empty(IDT_BENCH_ERROR_MESSAGE);
const UInt64 memUsage = GetBenchMemoryUsage(numThreads, Sync.Level, dict,
false); // totalBench
if (!IsMemoryUsageOK(memUsage))
{
UString s2 = LangString(IDT_BENCH_MEMORY);
if (s2.IsEmpty())
GetItemText(IDT_BENCH_MEMORY, s2);
UString s;
SetErrorMessage_MemUsage(s, memUsage, RamSize, RamSize_Limit, s2);
MessageBoxError_Status(s);
return;
}
EnableItem(IDB_STOP, true);
_startTime = GetTickCount();
_finishTime = _startTime;
_finishTime_WasSet = false;
{
NWindows::NSynchronization::CCriticalSectionLock lock(Sync.CS);
InitSyncNew();
Sync.DictSize = dict;
Sync.NumThreads = numThreads;
Sync.NumPasses_Limit = numPasses;
}
PrintTime();
_timer = SetTimer(kTimerID, kTimerElapse);
if (_thread.Create(CThreadBenchmark::MyThreadFunction, &_threadBenchmark) != 0)
{
MyKillTimer();
MessageBoxError_Status(L"Can't create thread");
};
return;
}
void CBenchmarkDialog::RestartBenchmark()
{
if (ExitWasAsked_in_GUI)
return;
if (_thread.IsCreated())
{
NeedRestart = true;
SendExit_Status(L"Stop for restart ...");
}
else
StartBenchmark();
}
void CBenchmarkDialog::Disable_Stop_Button()
{
// if we disable focused button, then focus will be lost
if (GetFocus() == GetItem(IDB_STOP))
{
// SendMsg_NextDlgCtl_Prev();
SendMsg_NextDlgCtl_CtlId(IDB_RESTART);
}
EnableItem(IDB_STOP, false);
}
void CBenchmarkDialog::OnStopButton()
{
if (ExitWasAsked_in_GUI)
return;
Disable_Stop_Button();
WasStopped_in_GUI = true;
if (_thread.IsCreated())
{
SendExit_Status(L"Stop ...");
}
}
void CBenchmarkDialog::OnCancel()
{
ExitWasAsked_in_GUI = true;
/*
SendMsg_NextDlgCtl_Prev();
EnableItem(IDCANCEL, false);
*/
if (_thread.IsCreated())
SendExit_Status(L"Cancel ...");
else
CModalDialog::OnCancel();
}
void CBenchmarkDialog::OnHelp()
{
ShowHelpWindow(kHelpTopic);
}
// void GetTimeString(UInt64 timeValue, wchar_t *s);
void CBenchmarkDialog::PrintTime()
{
const UInt32 curTime =
_finishTime_WasSet ?
_finishTime :
::GetTickCount();
const UInt32 elapsedTime = (curTime - _startTime);
WCHAR s[64];
// GetTimeString(elapsedTime / 1000, s);
ConvertUInt32ToString(elapsedTime / 1000, s);
if (_finishTime_WasSet)
{
WCHAR *p = s + MyStringLen(s);
*p++ = '.';
UINT_TO_STR_3(p, elapsedTime % 1000);
}
// NumberToDot3((UInt64)elapsedTime, s);
wcscat(s, L" s");
// if (WasStopped_in_GUI) wcscat(s, L" X"); // for debug
if (s == ElapsedSec_Prev)
return;
ElapsedSec_Prev = s;
// static cnt = 0; cnt++; wcscat(s, L" ");
// UString s2; s2.Add_UInt32(cnt); wcscat(s, s2.Ptr());
SetItemText(IDT_BENCH_ELAPSED_VAL, s);
}
static UInt64 GetMips(UInt64 ips)
{
return (ips + 500000) / 1000000;
}
static UInt64 GetUsagePercents(UInt64 usage)
{
return Benchmark_GetUsage_Percents(usage);
}
static UInt32 GetRating(const CTotalBenchRes &info)
{
UInt64 numIter = info.NumIterations2;
if (numIter == 0)
numIter = 1000000;
const UInt64 rating64 = GetMips(info.Rating / numIter);
// return rating64;
UInt32 rating32 = (UInt32)rating64;
if (rating32 != rating64)
rating32 = (UInt32)(Int32)-1;
return rating32;
};
static void AddUsageString(UString &s, const CTotalBenchRes &info)
{
UInt64 numIter = info.NumIterations2;
if (numIter == 0)
numIter = 1000000;
UInt64 usage = GetUsagePercents(info.Usage / numIter);
wchar_t w[64];
ConvertUInt64ToString(usage, w);
unsigned len = MyStringLen(w);
while (len < 5)
{
s.Add_Space();
len++;
}
s += w;
s += "%";
}
static void Add_Dot3String(UString &s, UInt64 val)
{
WCHAR temp[32];
NumberToDot3(val, temp);
s += temp;
}
static void AddRatingString(UString &s, const CTotalBenchRes &info)
{
// AddUsageString(s, info);
// s += " ";
// s.Add_UInt32(GetRating(info));
Add_Dot3String(s, GetRating(info));
};
static void AddRatingsLine(UString &s, const CTotalBenchRes &enc, const CTotalBenchRes &dec
#ifdef PRINT_ITER_TIME
, DWORD ticks
#endif
)
{
// AddUsageString(s, enc); s += " ";
AddRatingString(s, enc);
s += " ";
AddRatingString(s, dec);
CTotalBenchRes tot_BenchRes;
tot_BenchRes.SetSum(enc, dec);
s += " ";
AddRatingString(s, tot_BenchRes);
s += " "; AddUsageString(s, tot_BenchRes);
#ifdef PRINT_ITER_TIME
s += " ";
{
Add_Dot3String(s, ticks;
s += " s";
// s.Add_UInt32(ticks); s += " ms";
}
#endif
}
void CBenchmarkDialog::PrintRating(UInt64 rating, UINT controlID)
{
// SetItemText_Number(controlID, GetMips(rating), kMIPS);
WCHAR s[64];
NumberToDot3(GetMips(rating), s);
MyStringCat(s, L" GIPS");
SetItemText(controlID, s);
}
void CBenchmarkDialog::PrintUsage(UInt64 usage, UINT controlID)
{
SetItemText_Number(controlID, GetUsagePercents(usage), TEXT("%"));
}
// void SetItemText_Number
void CBenchmarkDialog::PrintBenchRes(
const CTotalBenchRes2 &info,
const UINT ids[])
{
if (info.NumIterations2 == 0)
return;
if (ids[1] != 0)
SetItemText_Number(ids[1], (info.Speed >> 10) / info.NumIterations2, kKBs);
PrintRating(info.Rating / info.NumIterations2, ids[3]);
PrintRating(info.RPU / info.NumIterations2, ids[2]);
PrintUsage(info.Usage / info.NumIterations2, ids[0]);
if (ids[4] != 0)
{
UInt64 val = info.UnpackSize;
LPCTSTR kPostfix;
if (val >= ((UInt64)1 << 40))
{
kPostfix = kGB;
val >>= 30;
}
else
{
kPostfix = kMB;
val >>= 20;
}
SetItemText_Number(ids[4], val, kPostfix);
}
}
// static UInt32 k_Message_Finished_cnt = 0;
// static UInt32 k_OnTimer_cnt = 0;
bool CBenchmarkDialog::OnMessage(UINT message, WPARAM wParam, LPARAM lParam)
{
if (message != k_Message_Finished)
return CModalDialog::OnMessage(message, wParam, lParam);
{
if (wParam == k_Msg_WPARM_Thread_Finished)
{
_finishTime = GetTickCount();
_finishTime_WasSet = true;
MyKillTimer();
if (_thread.Wait_Close() != 0)
{
MessageBoxError_Status(L"Thread Wait Error");
}
if (!WasStopped_in_GUI)
{
WasStopped_in_GUI = true;
Disable_Stop_Button();
}
HRESULT res = Sync.BenchFinish_Thread_HRESULT;
if (res != S_OK)
// if (!ExitWasAsked_in_GUI || res != E_ABORT)
MessageBoxError_Status(HResultToMessage(res));
if (ExitWasAsked_in_GUI)
{
// SetItemText(IDT_BENCH_ERROR_MESSAGE, "before CModalDialog::OnCancel()");
// Sleep (2000);
// MessageBoxError(L"test");
CModalDialog::OnCancel();
return true;
}
SetItemText_Empty(IDT_BENCH_ERROR_MESSAGE);
res = Sync.BenchFinish_Task_HRESULT;
if (res != S_OK)
{
if (!WasStopped_in_GUI || res != E_ABORT)
{
UString m;
if (res == S_FALSE)
m = "Decoding error";
else if (res == CLASS_E_CLASSNOTAVAILABLE)
m = "Can't find 7z.dll";
else
m = HResultToMessage(res);
MessageBoxError_Status(m);
}
}
if (NeedRestart)
{
StartBenchmark();
return true;
}
}
// k_Message_Finished_cnt++;
UpdateGui();
return true;
}
}
bool CBenchmarkDialog::OnTimer(WPARAM timerID, LPARAM /* callback */)
{
// k_OnTimer_cnt++;
if (timerID == kTimerID)
UpdateGui();
return true;
}
void CBenchmarkDialog::UpdateGui()
{
PrintTime();
if (TotalMode)
{
bool wasChanged = false;
{
NWindows::NSynchronization::CCriticalSectionLock lock(Sync.CS);
if (Sync.TextWasChanged)
{
wasChanged = true;
Bench2Text += Sync.Text;
Sync.Text.Empty();
Sync.TextWasChanged = false;
}
}
if (wasChanged)
_consoleEdit.SetText(Bench2Text);
return;
}
CSyncData sd;
CRecordVector<CBenchPassResult> RatingVector;
{
NWindows::NSynchronization::CCriticalSectionLock lock(Sync.CS);
sd = Sync.sd;
if (sd.NeedPrint_RatingVector)
RatingVector = Sync.RatingVector;
if (sd.NeedPrint_Freq)
{
Sync.FreqString_GUI = Sync.FreqString_Sync;
sd.NeedPrint_RatingVector = true;
}
Sync.sd.NeedPrint_RatingVector = false;
Sync.sd.NeedPrint_Enc_1 = false;
Sync.sd.NeedPrint_Enc = false;
Sync.sd.NeedPrint_Dec_1 = false;
Sync.sd.NeedPrint_Dec = false;
Sync.sd.NeedPrint_Tot = false;
Sync.sd.NeedPrint_Freq = false;
}
if (sd.NumPasses_Finished != NumPasses_Finished_Prev)
{
SetItemText_Number(IDT_BENCH_PASSES_VAL, sd.NumPasses_Finished, TEXT(" /"));
NumPasses_Finished_Prev = sd.NumPasses_Finished;
}
if (sd.NeedPrint_Enc_1) PrintBenchRes(sd.Enc_BenchRes_1, k_Ids_Enc_1);
if (sd.NeedPrint_Enc) PrintBenchRes(sd.Enc_BenchRes, k_Ids_Enc);
if (sd.NeedPrint_Dec_1) PrintBenchRes(sd.Dec_BenchRes_1, k_Ids_Dec_1);
if (sd.NeedPrint_Dec) PrintBenchRes(sd.Dec_BenchRes, k_Ids_Dec);
if (sd.BenchWasFinished && sd.NeedPrint_Tot)
{
CTotalBenchRes2 tot_BenchRes = sd.Enc_BenchRes;
tot_BenchRes.Update_With_Res2(sd.Dec_BenchRes);
PrintBenchRes(tot_BenchRes, k_Ids_Tot);
}
if (sd.NeedPrint_RatingVector)
// for (unsigned k = 0; k < 1; k++)
{
UString s;
s += Sync.FreqString_GUI;
if (!RatingVector.IsEmpty())
{
if (!s.IsEmpty())
s.Add_LF();
s += "Compr Decompr Total CPU"
#ifdef PRINT_ITER_TIME
" Time"
#endif
;
s.Add_LF();
}
// s += "GIPS GIPS GIPS % s"; s.Add_LF();
for (unsigned i = 0; i < RatingVector.Size(); i++)
{
if (i != 0)
s.Add_LF();
if ((int)i == sd.RatingVector_DeletedIndex)
{
s += "...";
s.Add_LF();
}
const CBenchPassResult &pair = RatingVector[i];
/*
s += "g:"; s.Add_UInt32((UInt32)pair.EncInfo.GlobalTime);
s += " u:"; s.Add_UInt32((UInt32)pair.EncInfo.UserTime);
s += " ";
*/
AddRatingsLine(s, pair.Enc, pair.Dec
#ifdef PRINT_ITER_TIME
, pair.Ticks
#endif
);
/*
{
UInt64 v = i + 1;
if (sd.RatingVector_DeletedIndex >= 0 && i >= (unsigned)sd.RatingVector_DeletedIndex)
v += sd.RatingVector_NumDeleted;
char temp[64];
ConvertUInt64ToString(v, temp);
s += " : ";
s += temp;
}
*/
}
if (sd.BenchWasFinished)
{
s.Add_LF();
s += "-------------";
s.Add_LF();
{
// average time is not correct because of freq detection in first iteration
AddRatingsLine(s, sd.Enc_BenchRes, sd.Dec_BenchRes
#ifdef PRINT_ITER_TIME
, (DWORD)(sd.TotalTicks / (sd.NumPasses_Finished ? sd.NumPasses_Finished : 1))
#endif
);
}
}
// s.Add_LF(); s += "OnTimer: "; s.Add_UInt32(k_OnTimer_cnt);
// s.Add_LF(); s += "finished Message: "; s.Add_UInt32(k_Message_Finished_cnt);
// static cnt = 0; cnt++; s.Add_LF(); s += "Print: "; s.Add_UInt32(cnt);
// s.Add_LF(); s += "NumEncProgress: "; s.Add_UInt32((UInt32)sd.NumEncProgress);
// s.Add_LF(); s += "NumDecProgress: "; s.Add_UInt32((UInt32)sd.NumDecProgress);
SetItemText(IDT_BENCH_LOG, s);
}
}
bool CBenchmarkDialog::OnCommand(int code, int itemID, LPARAM lParam)
{
if (code == CBN_SELCHANGE &&
(itemID == IDC_BENCH_DICTIONARY ||
itemID == IDC_BENCH_NUM_PASSES ||
itemID == IDC_BENCH_NUM_THREADS))
{
RestartBenchmark();
return true;
}
return CModalDialog::OnCommand(code, itemID, lParam);
}
bool CBenchmarkDialog::OnButtonClicked(int buttonID, HWND buttonHWND)
{
switch (buttonID)
{
case IDB_RESTART:
RestartBenchmark();
return true;
case IDB_STOP:
OnStopButton();
return true;
}
return CModalDialog::OnButtonClicked(buttonID, buttonHWND);
}
// ---------- Benchmark Thread ----------
struct CBenchCallback: public IBenchCallback
{
UInt64 dictionarySize;
CBenchProgressSync *Sync;
CBenchmarkDialog *BenchmarkDialog;
HRESULT SetEncodeResult(const CBenchInfo &info, bool final);
HRESULT SetDecodeResult(const CBenchInfo &info, bool final);
};
HRESULT CBenchCallback::SetEncodeResult(const CBenchInfo &info, bool final)
{
bool needPost = false;
{
NSynchronization::CCriticalSectionLock lock(Sync->CS);
if (Sync->Exit)
return E_ABORT;
CSyncData &sd = Sync->sd;
// sd.NumEncProgress++;
CTotalBenchRes2 &br = sd.Enc_BenchRes_1;
{
UInt64 dictSize = Sync->DictSize;
if (final)
{
// sd.EncInfo = info;
}
else
{
/* if (!final), then CBenchInfo::NumIterations means totalNumber of threads.
so we can reduce the dictionary */
if (dictSize > info.UnpackSize)
dictSize = info.UnpackSize;
}
br.Rating = info.GetRating_LzmaEnc(dictSize);
}
br.SetFrom_BenchInfo(info);
sd.NeedPrint_Enc_1 = true;
if (final)
{
sd.Enc_BenchRes.Update_With_Res2(br);
sd.NeedPrint_Enc = true;
needPost = true;
}
}
if (needPost)
BenchmarkDialog->PostMsg(k_Message_Finished, k_Msg_WPARM_Enc1_Finished);
return S_OK;
}
HRESULT CBenchCallback::SetDecodeResult(const CBenchInfo &info, bool final)
{
NSynchronization::CCriticalSectionLock lock(Sync->CS);
if (Sync->Exit)
return E_ABORT;
CSyncData &sd = Sync->sd;
// sd.NumDecProgress++;
CTotalBenchRes2 &br = sd.Dec_BenchRes_1;
br.Rating = info.GetRating_LzmaDec();
br.SetFrom_BenchInfo(info);
sd.NeedPrint_Dec_1 = true;
if (final)
sd.Dec_BenchRes.Update_With_Res2(br);
return S_OK;
}
struct CBenchCallback2: public IBenchPrintCallback
{
CBenchProgressSync *Sync;
bool TotalMode;
void Print(const char *s);
void NewLine();
HRESULT CheckBreak();
};
void CBenchCallback2::Print(const char *s)
{
if (TotalMode)
{
NSynchronization::CCriticalSectionLock lock(Sync->CS);
Sync->Text += s;
Sync->TextWasChanged = true;
}
}
void CBenchCallback2::NewLine()
{
Print("\xD\n");
}
HRESULT CBenchCallback2::CheckBreak()
{
if (Sync->Exit)
return E_ABORT;
return S_OK;
}
struct CFreqCallback: public IBenchFreqCallback
{
CBenchmarkDialog *BenchmarkDialog;
virtual HRESULT AddCpuFreq(unsigned numThreads, UInt64 freq, UInt64 usage);
virtual HRESULT FreqsFinished(unsigned numThreads);
};
HRESULT CFreqCallback::AddCpuFreq(unsigned numThreads, UInt64 freq, UInt64 usage)
{
HRESULT res;
{
CBenchProgressSync &sync = BenchmarkDialog->Sync;
NSynchronization::CCriticalSectionLock lock(sync.CS);
UString &s = sync.FreqString_Sync;
if (sync.NumFreqThreadsPrev != numThreads)
{
sync.NumFreqThreadsPrev = numThreads;
if (!s.IsEmpty())
s.Add_LF();
s.Add_UInt32(numThreads);
s += "T Frequency (MHz):";
s.Add_LF();
}
s += " ";
if (numThreads != 1)
{
s.Add_UInt64(GetUsagePercents(usage));
s += '%';
s.Add_Space();
}
s.Add_UInt64(GetMips(freq));
// BenchmarkDialog->Sync.sd.NeedPrint_Freq = true;
res = sync.Exit ? E_ABORT : S_OK;
}
// BenchmarkDialog->PostMsg(k_Message_Finished, k_Msg_WPARM_Enc1_Finished);
return res;
}
HRESULT CFreqCallback::FreqsFinished(unsigned /* numThreads */)
{
HRESULT res;
{
CBenchProgressSync &sync = BenchmarkDialog->Sync;
NSynchronization::CCriticalSectionLock lock(sync.CS);
sync.sd.NeedPrint_Freq = true;
BenchmarkDialog->PostMsg(k_Message_Finished, k_Msg_WPARM_Enc1_Finished);
res = sync.Exit ? E_ABORT : S_OK;
}
BenchmarkDialog->PostMsg(k_Message_Finished, k_Msg_WPARM_Enc1_Finished);
return res;
}
// define USE_DUMMY only for debug
// #define USE_DUMMY
#ifdef USE_DUMMY
static unsigned dummy = 1;
static unsigned Dummy(unsigned limit)
{
unsigned sum = 0;
for (unsigned k = 0; k < limit; k++)
{
sum += dummy;
if (sum == 0)
break;
}
return sum;
}
#endif
HRESULT CThreadBenchmark::Process()
{
/* the first benchmark pass can be slow,
if we run benchmark while the window is being created,
and (no freq detecion loop) && (dictionary is small) (-mtic is small) */
// Sleep(300); // for debug
#ifdef USE_DUMMY
Dummy(1000 * 1000 * 1000); // for debug
#endif
CBenchProgressSync &sync = BenchmarkDialog->Sync;
HRESULT finishHRESULT = S_OK;
try
{
for (UInt32 passIndex = 0;; passIndex++)
{
// throw 1; // to debug
// throw CSystemException(E_INVALIDARG); // to debug
UInt64 dictionarySize;
UInt32 numThreads;
{
NSynchronization::CCriticalSectionLock lock(sync.CS);
if (sync.Exit)
break;
dictionarySize = sync.DictSize;
numThreads = sync.NumThreads;
}
#ifdef PRINT_ITER_TIME
const DWORD startTick = GetTickCount();
#endif
CBenchCallback callback;
callback.dictionarySize = dictionarySize;
callback.Sync = &sync;
callback.BenchmarkDialog = BenchmarkDialog;
CBenchCallback2 callback2;
callback2.TotalMode = BenchmarkDialog->TotalMode;
callback2.Sync = &sync;
CFreqCallback freqCallback;
freqCallback.BenchmarkDialog = BenchmarkDialog;
HRESULT result;
try
{
CObjectVector<CProperty> props;
props = BenchmarkDialog->Props;
if (BenchmarkDialog->TotalMode)
{
props = BenchmarkDialog->Props;
}
else
{
{
CProperty prop;
prop.Name = "mt";
prop.Value.Add_UInt32(numThreads);
props.Add(prop);
}
{
CProperty prop;
prop.Name = 'd';
prop.Name.Add_UInt32((UInt32)(dictionarySize >> 10));
prop.Name += 'k';
props.Add(prop);
}
}
result = Bench(EXTERNAL_CODECS_LOC_VARS
BenchmarkDialog->TotalMode ? &callback2 : NULL,
BenchmarkDialog->TotalMode ? NULL : &callback,
props, 1, false,
(!BenchmarkDialog->TotalMode) && passIndex == 0 ? &freqCallback: NULL);
// result = S_FALSE; // for debug;
// throw 1;
}
catch(...)
{
result = E_FAIL;
}
#ifdef PRINT_ITER_TIME
const DWORD numTicks = GetTickCount() - startTick;
#endif
bool finished = true;
NSynchronization::CCriticalSectionLock lock(sync.CS);
if (result != S_OK)
{
sync.BenchFinish_Task_HRESULT = result;
break;
}
{
CSyncData &sd = sync.sd;
sd.NumPasses_Finished++;
#ifdef PRINT_ITER_TIME
sd.TotalTicks += numTicks;
#endif
if (BenchmarkDialog->TotalMode)
break;
{
CTotalBenchRes tot_BenchRes = sd.Enc_BenchRes_1;
tot_BenchRes.Update_With_Res(sd.Dec_BenchRes_1);
sd.NeedPrint_RatingVector = true;
{
CBenchPassResult pair;
// pair.EncInfo = sd.EncInfo; // for debug
pair.Enc = sd.Enc_BenchRes_1;
pair.Dec = sd.Dec_BenchRes_1;
#ifdef PRINT_ITER_TIME
pair.Ticks = numTicks;
#endif
sync.RatingVector.Add(pair);
// pair.Dec_Defined = true;
}
}
sd.NeedPrint_Dec = true;
sd.NeedPrint_Tot = true;
if (sync.RatingVector.Size() > kRatingVector_NumBundlesMax)
{
// sd.RatingVector_NumDeleted++;
sd.RatingVector_DeletedIndex = (int)(kRatingVector_NumBundlesMax / 4);
sync.RatingVector.Delete((unsigned)(sd.RatingVector_DeletedIndex));
}
if (sync.sd.NumPasses_Finished < sync.NumPasses_Limit)
finished = false;
else
{
sync.sd.BenchWasFinished = true;
// BenchmarkDialog->_finishTime = GetTickCount();
// return 0;
}
}
if (BenchmarkDialog->TotalMode)
break;
/*
if (newTick - prevTick < 1000)
numSameTick++;
if (numSameTick > 5 || finished)
{
prevTick = newTick;
numSameTick = 0;
*/
// for (unsigned i = 0; i < 1; i++)
{
// we suppose that PostMsg messages will be processed in order.
if (!BenchmarkDialog->PostMsg_Finish(k_Msg_WPARM_Iter_Finished))
{
finished = true;
finishHRESULT = E_FAIL;
// throw 1234567;
}
}
if (finished)
break;
}
// return S_OK;
}
catch(CSystemException &e)
{
finishHRESULT = e.ErrorCode;
// BenchmarkDialog->MessageBoxError(HResultToMessage(e.ErrorCode));
// return E_FAIL;
}
catch(...)
{
finishHRESULT = E_FAIL;
// BenchmarkDialog->MessageBoxError(HResultToMessage(E_FAIL));
// return E_FAIL;
}
if (finishHRESULT != S_OK)
{
NSynchronization::CCriticalSectionLock lock(sync.CS);
sync.BenchFinish_Thread_HRESULT = finishHRESULT;
}
if (!BenchmarkDialog->PostMsg_Finish(k_Msg_WPARM_Thread_Finished))
{
// sync.BenchFinish_Thread_HRESULT = E_FAIL;
}
return 0;
}
static void ParseNumberString(const UString &s, NCOM::CPropVariant &prop)
{
const wchar_t *end;
UInt64 result = ConvertStringToUInt64(s, &end);
if (*end != 0 || s.IsEmpty())
prop = s;
else if (result <= (UInt32)0xFFFFFFFF)
prop = (UInt32)result;
else
prop = result;
}
HRESULT Benchmark(
DECL_EXTERNAL_CODECS_LOC_VARS
const CObjectVector<CProperty> &props, UInt32 numIterations, HWND hwndParent)
{
CBenchmarkDialog bd;
bd.TotalMode = false;
bd.Props = props;
if (numIterations == 0)
numIterations = 1;
bd.Sync.NumPasses_Limit = numIterations;
bd.Sync.DictSize = (UInt64)(Int64)-1;
bd.Sync.NumThreads = (UInt32)(Int32)-1;
bd.Sync.Level = -1;
COneMethodInfo method;
UInt32 numCPUs = 1;
#ifndef _7ZIP_ST
numCPUs = NSystem::GetNumberOfProcessors();
#endif
UInt32 numThreads = numCPUs;
FOR_VECTOR (i, props)
{
const CProperty &prop = props[i];
UString name = prop.Name;
name.MakeLower_Ascii();
if (name.IsEqualTo_Ascii_NoCase("m") && prop.Value == L"*")
{
bd.TotalMode = true;
continue;
}
NCOM::CPropVariant propVariant;
if (!prop.Value.IsEmpty())
ParseNumberString(prop.Value, propVariant);
if (name.IsPrefixedBy(L"mt"))
{
#ifndef _7ZIP_ST
RINOK(ParseMtProp(name.Ptr(2), propVariant, numCPUs, numThreads));
if (numThreads != numCPUs)
bd.Sync.NumThreads = numThreads;
#endif
continue;
}
/*
if (name.IsEqualTo("time"))
{
// UInt32 testTime = 4;
// RINOK(ParsePropToUInt32(L"", propVariant, testTime));
continue;
}
RINOK(method.ParseMethodFromPROPVARIANT(name, propVariant));
*/
// here we need to parse DictSize property, and ignore unknown properties
method.ParseMethodFromPROPVARIANT(name, propVariant);
}
if (bd.TotalMode)
{
// bd.Bench2Text.Empty();
bd.Bench2Text = "7-Zip " MY_VERSION_CPU;
bd.Bench2Text += (char)0xD;
bd.Bench2Text.Add_LF();
}
{
UInt64 dict;
if (method.Get_DicSize(dict))
bd.Sync.DictSize = dict;
}
bd.Sync.Level = method.GetLevel();
// Dummy(1000 * 1000 * 1);
{
CThreadBenchmark &benchmarker = bd._threadBenchmark;
#ifdef EXTERNAL_CODECS
benchmarker.__externalCodecs = __externalCodecs;
#endif
benchmarker.BenchmarkDialog = &bd;
}
bd.Create(hwndParent);
return S_OK;
}
CBenchmarkDialog::~CBenchmarkDialog()
{
if (_thread.IsCreated())
{
/* the following code will be not executed in normal code flow.
it can be called, if there is some internal failure in dialog code. */
Attach(NULL);
MessageBoxError(L"The flaw in benchmark thread code");
Sync.SendExit();
_thread.Wait_Close();
}
}
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