string getDeviceInfo() {
const CPUInfo cinfo = DeviceManager::getInstance().getCPUInfo();
ostringstream info;
info << "ArrayFire v" << AF_VERSION << " (CPU, " << get_system()
<< ", build " << AF_REVISION << ")" << endl;
string model = cinfo.model();
size_t memMB = getDeviceMemorySize(getActiveDeviceId()) / 1048576;
info << string("[0] ") << cinfo.vendor() << ": " << ltrim(model);
if (memMB)
info << ", " << memMB << " MB, ";
else
info << ", Unknown MB, ";
info << "Max threads(" << cinfo.threads() << ") ";
#ifndef NDEBUG
info << AF_COMPILER_STR;
#endif
info << endl;
return info.str();
}
void devprop(char* d_name, char* d_platform, char* d_toolkit, char* d_compute) {
const CPUInfo cinfo = DeviceManager::getInstance().getCPUInfo();
snprintf(d_name, 64, "%s", cinfo.vendor().c_str());
snprintf(d_platform, 10, "CPU");
// report the compiler for toolkit
snprintf(d_toolkit, 64, "%s", AF_COMPILER_STR);
snprintf(d_compute, 10, "%s", "0.0");
}
CString GetCPUName()
{
CString Response;
CPUInfo cpu;
if (cpu.DoesCPUSupportCPUID())
{
Response = cpu.GetExtendedProcessorName();
}
if(Response.GetLength() == 0) {
Response = "Not Detected";
}
Response.TrimLeft();
Response.TrimRight();
return "\nProcessor:\n" + Response + "\n";
}
void DumpSystemToLog() {
CPUInfo cpu;
WCHAR wszTime[9], wszDate[9];
_wstrtime_s(wszTime, 9);
_wstrdate_s(wszDate, 9);
LOG_INFO(" -- System To Log --");
#if defined(DEBUG) || defined(_DEBUG)
LOG_INFO("RUNNING -DEBUG- BUILD AT: " << wszDate << " -- " << wszTime );
#else
LOG_INFO("RUNNING -RELEASE- BUILD AT: " << wszDate << " -- " << wszTime );
#endif
LOG_INFO("");
LOG_INFO(DXUTGetWindowTitle());
LOG_INFO("Processor Speed: " << cpu.GetProcessorClockFrequency() << "MHz");
LOG_INFO("Processors: " << cpu.GetLogicalProcessorsPerPhysical());
LOG_INFO("Processor: " << cpu.GetExtendedProcessorName());
LOG_INFO(DXUTGetFrameStats(false));
LOG_INFO(DXUTGetDeviceStats());
LOG_INFO("");
dprintf("Processor Speed: %dMHz\n", cpu.GetProcessorClockFrequency());
dprintf("Processors: %d\n", cpu.GetLogicalProcessorsPerPhysical());
dprintf("Processor: %s\n", cpu.GetExtendedProcessorName());
char pszDest[256];
WCharStringToCharString(DXUTGetFrameStats(false), pszDest, 255);
dprintf("STATS:\n%s\n", pszDest);
WCharStringToCharString(DXUTGetDeviceStats(), pszDest, 255);
dprintf("%s\n", pszDest);
dprintf("\n\n");
}
static void get_cpu_cores( char* dest )
{
sprintf( dest, "%d\n", cpu_info.GetLogicalProcessorsPerPhysical() );
}
static void get_cpu_freq( char* dest )
{
sprintf( dest, "%dMHz\n", cpu_info.GetProcessorClockFrequency() );
}
static void get_cpu_name( char* dest )
{
sprintf( dest, "%s (stepping %s)\n", cpu_info.GetVendorString(), cpu_info.GetSteppingCode() );
}
DWORD WINAPI GetProcessorInformation (LPVOID lpParameter)
{
PPROCESSORINFO pProcessorInfo = (PPROCESSORINFO) lpParameter;
CPUInfo * CPU = new CPUInfo ();
if (!CPU->DoesCPUSupportCPUID ())
{
delete CPU;
return 0;
}
//the processor serial number.
if (CPU->DoesCPUSupportFeature (SERIALNUMBER_FEATURE))
{
sprintf_s(pProcessorInfo->szSerialNumber, CPU->GetProcessorSerialNumber());
}
// Add the hardware specification node.
// State the APIC ID if one is present.
if (CPU->DoesCPUSupportFeature (APIC_FEATURE))
{
pProcessorInfo->bAPICPresent = true;
// Attempt to display the ID of the APIC.
pProcessorInfo->APICID = CPU->GetProcessorAPICID ();
}
// State if the processor supports the Advanced Configuration and Power Interface [ACPI].
if (CPU->DoesCPUSupportFeature (ACPI_FEATURE))
{
pProcessorInfo->bACPICapable = true;
}
// State if the processor supports a thermal monitor.
if (CPU->DoesCPUSupportFeature (THERMALMONITOR_FEATURE))
{
pProcessorInfo->bOnChipThermalMonitor = true;
}
if (CPU->DoesCPUSupportFeature (L1CACHE_FEATURE))
{
pProcessorInfo->bL1Cache = true;
pProcessorInfo->L1CacheSize = CPU->GetProcessorCacheXSize (L1CACHE_FEATURE);
}
// State the size of the L2 cache if present.
if (CPU->DoesCPUSupportFeature (L2CACHE_FEATURE))
{
pProcessorInfo->bL2Cache = true;
pProcessorInfo->L2CacheSize = CPU->GetProcessorCacheXSize (L2CACHE_FEATURE);
}
// State the size of the L3 cache if present.
if (CPU->DoesCPUSupportFeature (L3CACHE_FEATURE))
{
pProcessorInfo->bL3Cache = true;
pProcessorInfo->L3CacheSize = CPU->GetProcessorCacheXSize (L3CACHE_FEATURE);
}
// State if a temperature sensing diode is present.
if (CPU->DoesCPUSupportFeature (TEMPSENSEDIODE_FEATURE))
{
pProcessorInfo->bTemperatureSensingDiode = true;
}
// State if a frequency ID control is present.
if (CPU->DoesCPUSupportFeature (FREQUENCYID_FEATURE))
{
pProcessorInfo->bFrequencyIDControl = true;
}
// State if a voltage ID control is present.
if (CPU->DoesCPUSupportFeature (VOLTAGEID_FREQUENCY))
{
pProcessorInfo->bVoltageIDControl = true;
}
//Supported Features
// State if CMOV instructions are present.
if (CPU->DoesCPUSupportFeature (CMOV_FEATURE))
{
pProcessorInfo->bCMOVInstructions = true;
}
// State if MTRR instructions are present.
if (CPU->DoesCPUSupportFeature (MTRR_FEATURE))
{
pProcessorInfo->bMTRRInstructions = true;
}
// State if MMX instructions are present.
if (CPU->DoesCPUSupportFeature (MMX_FEATURE))
{
pProcessorInfo->bMMXInstructions = true;
}
// State if MMX+ instructions are present.
if (CPU->DoesCPUSupportFeature (MMX_PLUS_FEATURE))
{
pProcessorInfo->bMMXPlusInstructions = true;
}
// State if SSE instructions are present.
if (CPU->DoesCPUSupportFeature (SSE_FEATURE))
{
pProcessorInfo->bSSEInstructions = true;
}
// State if SSE FP instructions are present.
if (CPU->DoesCPUSupportFeature (SSE_FP_FEATURE))
{
pProcessorInfo->bSSEFPInstructions = true;
}
// State if SSE MMX instructions are present.
if (CPU->DoesCPUSupportFeature (SSE_MMX_FEATURE))
{
pProcessorInfo->bMMXInstructions = true;
}
// State if SSE2 instructions are present.
if (CPU->DoesCPUSupportFeature (SSE2_FEATURE))
{
pProcessorInfo->bSSE2Instructions = true;
}
// State if 3DNow! instructions are present.
if (CPU->DoesCPUSupportFeature (AMD_3DNOW_FEATURE))
{
pProcessorInfo->bAMD3DNowInstructions = true;
}
// State if 3DNow!+ instructions are present.
if (CPU->DoesCPUSupportFeature (AMD_3DNOW_PLUS_FEATURE))
{
pProcessorInfo->bAMD3DNowPlusInstructions = true;
}
// State if Hyperthreading instructions are present.
if (CPU->DoesCPUSupportFeature (HYPERTHREAD_FEATURE))
{
pProcessorInfo->bHyperthreadingInstructions = true;
pProcessorInfo->LogicalProcessorsPerPhysical = CPU->GetLogicalProcessorsPerPhysical ();
}
// State if the processor is MP capable.
if (CPU->DoesCPUSupportFeature (MP_CAPABLE))
{
pProcessorInfo->bMultiprocessorCapable = true;
}
// State if IA64 instructions are present.
if (CPU->DoesCPUSupportFeature (IA64_FEATURE))
{
pProcessorInfo->bIA64Instructions = true;
}
delete CPU;
return 0;
}
void printCPUInfo(int processor, const CPUInfo& info) {
printf("Processor %d:\n", processor);
if (!info.supportsCPUID) {
printf(" No CPUID Support\n");
printf("\n");
return;
}
printf(" Vendor: %s\n", info.getVendorName());
printf(" Name: %s\n", info.getProcessorName().c_str());
printf(" Type: %s\n", info.getProcessorTypeName());
printf(" Brand: %s\n", info.getProcessorBrandName().c_str());
printf(" Classical Name: %s\n", info.getClassicalProcessorName());
printf("\n");
printf(" Family: %d\n", info.identity.family);
printf(" Model: %d\n", info.identity.model);
printf(" Stepping: %d\n", info.identity.stepping);
printf("\n");
printf(" Frequency: %d MHz\n", info.frequency);
printf("\n");
printf(" Features:\n");
bool featureflag = false;
#define F(flag, desc) \
if (info.features.flag) { \
featureflag = true; \
printf(" %8s: %s\n", #flag, desc); \
}
F(fpu, "Floating Point Unit");
F(vme, "Virtual-8086 Mode Enhancement");
F(de, "Debugging Extensions");
F(pse, "Page Size Extensions");
F(tsc, "Time Stamp Counter");
F(msr, "RDMSR and WRMSR Support");
F(pae, "Physical Address Extensions");
F(mce, "Machine Check Exception");
F(cx8, "CMPXCHG8B Instruction");
F(apic, "APIC on Chip");
F(sep, "SYSENTER and SYSEXIT");
F(mtrr, "Memory Type Range Registers");
F(pge, "PTE Global Bit");
F(mca, "Machine Check Architecture");
F(cmov, "Conditional Move/Compare Instructions");
F(pat, "Page Attribute Table");
F(pse36, "Page Size Extension");
F(serial, "Serial Number Available");
F(clfsh, "CLFLUSH Instruction");
F(ds, "Debug Store");
F(acpi, "Thermal Monitor and Clock Control");
F(mmx, "MMX Technology");
F(fxsr, "FXSAVE/FXRSTOR Instructions");
F(sse, "SSE Extensions");
F(ssefp, "SSE Floating Point");
F(sse2, "SSE2 Extensions");
F(ss, "Self Snoop");
F(htt, "Hyper-Threading Technology");
F(thermal, "Thermal Monitor");
F(ia64, "IA64 Instructions");
F(pbe, "Pending Break Enable");
F(sse3, "SSE3 Extensions");
F(monitor, "MONITOR/MWAIT");
F(ds_cpl, "CPL Qualified Debug Store");
F(est, "Enhanced Intel SpeedStep Technology");
F(tm2, "Thermal Monitor 2");
F(cnxt_id, "L1 Context ID");
F(_3dnow, "3DNow! Instructions");
F(_3dnowPlus, "3DNow! Instructions Extensions");
F(ssemmx, "SSE MMX");
F(mmxPlus, "MMX+");
F(supportsMP, "Supports Multiprocessing");
#undef F
if (!featureflag) {
printf(" None\n");
}
printf("\n");
if (info.features.serial) {
printf(" Serial Number: %s\n", info.features.serialNumber);
}
if (info.features.htt) {
printf(" Logical Processors per Physical: %d\n",
info.features.logicalProcessorsPerPhysical);
}
if (info.features.clfsh) {
printf(" CLFLUSH Cache Line Size: %d bytes\n",
info.features.CLFLUSHCacheLineSize);
}
if (info.features.apic) {
printf(" APIC ID: %d\n", info.features.APIC_ID);
}
printf("\n");
printf(" Cache:\n");
if (info.cache.L1CacheSize != -1) {
printf(" L1 Size: %d kB\n", info.cache.L1CacheSize);
}
if (info.cache.L2CacheSize != -1) {
printf(" L2 Size: %d kB\n", info.cache.L2CacheSize);
}
if (info.cache.L3CacheSize != -1) {
printf(" L3 Size: %d kB\n", info.cache.L3CacheSize);
}
printf("\n");
printf(" Enhanced Power Management:\n");
bool pmflag = false;
#define PM(flag, desc) \
if (info.powerManagement.flag) { \
pmflag = true; \
printf(" %8s: %s\n", #flag, desc); \
}
PM(ts, "Temperature Sensor");
PM(fid, "Frequency ID");
PM(vid, "Voltage ID");
PM(ttp, "Thermal Trip");
PM(tm, "Thermal Monitoring");
PM(stc, "Software Thermal Control");
#undef PM
if (!pmflag) {
printf(" None\n");
}
printf("\n\n");
}
CString CTranCmn::fnAPP_GetAtmSysInfo(int nSystmInfo)
{
CString cstrGetSytemInfo("");
//cpu정보
if(nSystmInfo == 1) //클럭수 얻기
{
CPUInfo * CPU = new CPUInfo ();
TCHAR szCPU[60] = {0};
memcpy(szCPU, CPU->GetExtendedProcessorName (),
strlen(CPU->GetExtendedProcessorName ()));
delete CPU;
cstrGetSytemInfo.Format("%s",szCPU);
}
else //memory 크기
if(nSystmInfo == 2)
{
MEMORYSTATUS ms;
TCHAR szMemSize[20] = {0};
ms.dwLength = sizeof(MEMORYSTATUS);
::GlobalMemoryStatus(&ms);
DWORD dwPhysicalMemory;
dwPhysicalMemory=ms.dwTotalPhys;
wsprintf(szMemSize, "%012d", (int)(dwPhysicalMemory / (1024)));
cstrGetSytemInfo.Format("%s",szMemSize);
}
else //cpu and memory 사용율
if(nSystmInfo == 3)
{
TCHAR szCpuUsage[16] = {0};
TCHAR szMemUsage[16] = {0};
UINT nCpuUsage = 0;
UINT nMemUsage = 0;
resMonitor.Initialize();
resMonitor.GetResourceInfo(nCpuUsage, nMemUsage); //한 번만 했을 경우는 cpu가 99% 이므로
Sleep(100);
resMonitor.GetResourceInfo(nCpuUsage, nMemUsage); //두번째 값을 취한다.
if(nCpuUsage < 1)
nCpuUsage = 1;
wsprintf(szCpuUsage, " %d%%", nCpuUsage);
wsprintf(szMemUsage, " %d%%", nMemUsage);
cstrGetSytemInfo.Format("CPU%s - MEM%s Rate", szCpuUsage, szMemUsage);
MsgDump(TRACE_CODE_MODE, "Log", __FILE__, __LINE__, "fnAPP_GetAtmSysInfo (%s)", cstrGetSytemInfo);
}
else
if(nSystmInfo == 4)
{
TCHAR szCpuUsage[16] = {0};
TCHAR szMemUsage[16] = {0};
UINT nCpuUsage = 0;
UINT nMemUsage = 0;
resMonitor.Initialize();
resMonitor.GetResourceInfo(nCpuUsage, nMemUsage); //한 번만 했을 경우는 cpu가 99% 이므로
Sleep(100);
resMonitor.GetResourceInfo(nCpuUsage, nMemUsage); //두번째 값을 취한다.
if(nCpuUsage < 1)
nCpuUsage = 1;
wsprintf(szCpuUsage, " %d%%", nCpuUsage);
wsprintf(szMemUsage, " %d%%", nMemUsage);
cstrGetSytemInfo.Format("CPU%s - MEM%s Rate", szCpuUsage, szMemUsage);
MsgDump(TRACE_CODE_MODE, "Log", __FILE__, __LINE__, "fnAPP_GetAtmSysInfo (%s)", cstrGetSytemInfo);
}
else //os 정보
if(nSystmInfo == 5)
{
TCHAR szOS[64] = {0};
OSVERSIONINFO osvi;
osvi.dwOSVersionInfoSize = sizeof (OSVERSIONINFO);
::GetVersionEx(&osvi);
switch(osvi.dwPlatformId){
case VER_PLATFORM_WIN32s:
strcpy(szOS, "Windows 3.1 ");
cstrGetSytemInfo.Format("%s",szOS);
break;
case VER_PLATFORM_WIN32_WINDOWS:
if(osvi.dwMinorVersion == 0)
{
strcpy(szOS, "Windows 95 ");
cstrGetSytemInfo.Format("%s",szOS);
}else if(osvi.dwMinorVersion == 10)
{
strcpy(szOS, "Windows 98 ");
cstrGetSytemInfo.Format("%s",szOS);
}else if(osvi.dwMinorVersion == 90)
{
strcpy(szOS, "Windows me ");
cstrGetSytemInfo.Format("%s",szOS);
}else
{
strcpy(szOS, "Unknown System ");
cstrGetSytemInfo.Format("%s",szOS);
}
break;
case VER_PLATFORM_WIN32_NT:
switch(osvi.dwMajorVersion){
case 3:
strcpy(szOS, "Windows NT 3.51 ");
cstrGetSytemInfo.Format("%s",szOS);
break;
case 4:
strcpy(szOS, "Windows NT 4.0 ");
cstrGetSytemInfo.Format("%s",szOS);
break;
case 5:
switch(osvi.dwMinorVersion ){
case 0:
strcpy(szOS, "Windows 2000 ");
cstrGetSytemInfo.Format("%s",szOS);
break;
case 1:
strcpy(szOS, "Windows xp ");
cstrGetSytemInfo.Format("%s",szOS);
break;
default:
strcpy(szOS, "Unknown System ");
cstrGetSytemInfo.Format("%s",szOS);
break;
}
break;
default:
strcpy(szOS, "Unknown System ");
cstrGetSytemInfo.Format("%s",szOS);
break;
}
break;
default:
strcpy(szOS, "Unknown System ");
cstrGetSytemInfo.Format("%s",szOS);
break;
}
}
else
if(nSystmInfo == 6)
{
BOOL bResult;
//GetDiskFreeSpaceEx는 98이상의 디스크 정보를 가지고 오기 위한 함수
P_GDFSE pGetDiskFreeSpaceEx = NULL;
//pGetDiskFreeSpaceEx의 매개변수
unsigned __int64 i64FreeBytesToCaller,
i64TotalBytes,
i64FreeBytes;
//kernel32.dll에서 어떤 파일 시스템인가를 확인한다.
//여기서 True or FALSe를 반환한다.
pGetDiskFreeSpaceEx = (P_GDFSE)GetProcAddress (GetModuleHandle ("kernel32.dll"), "GetDiskFreeSpaceExA");
TCHAR szHDD[40] = {0};
TCHAR szHDD1[40] = {0};
//95이상의 파일 시스템 일경우
if (pGetDiskFreeSpaceEx) {
//HDD 디스크 사이즈 "C:\"
bResult = pGetDiskFreeSpaceEx ("C:\\",
(PULARGE_INTEGER)&i64FreeBytesToCaller,
(PULARGE_INTEGER)&i64TotalBytes,
(PULARGE_INTEGER)&i64FreeBytes);
if (bResult) {
//HDD 디스크 사이즈 "C:\"
wsprintf(szHDD, TEXT("%010d"), i64TotalBytes/(1024));
wsprintf(szHDD1, TEXT("%010d"), i64FreeBytes/(1024));
cstrGetSytemInfo.Format("%s%s",szHDD,szHDD1);
}
}
}
else
if(nSystmInfo == 7)
{
BOOL bResult;
//GetDiskFreeSpaceEx는 98이상의 디스크 정보를 가지고 오기 위한 함수
P_GDFSE pGetDiskFreeSpaceEx = NULL;
//pGetDiskFreeSpaceEx의 매개변수
unsigned __int64 i64FreeBytesToCaller,
i64TotalBytes,
i64FreeBytes;
//kernel32.dll에서 어떤 파일 시스템인가를 확인한다.
//여기서 True or FALSe를 반환한다.
pGetDiskFreeSpaceEx = (P_GDFSE)GetProcAddress (GetModuleHandle ("kernel32.dll"), "GetDiskFreeSpaceExA");
TCHAR szHDD[40] = {0};
TCHAR szHDD1[40] = {0};
//95이상의 파일 시스템 일경우
if (pGetDiskFreeSpaceEx) {
//HDD 디스크 사이즈 "C:\"
bResult = pGetDiskFreeSpaceEx ("D:\\",
(PULARGE_INTEGER)&i64FreeBytesToCaller,
(PULARGE_INTEGER)&i64TotalBytes,
(PULARGE_INTEGER)&i64FreeBytes);
if (bResult) {
//HDD 디스크 사이즈 "C:\"
wsprintf(szHDD, TEXT("%010d"), i64TotalBytes/(1024));
wsprintf(szHDD1, TEXT("%010d"), i64FreeBytes/(1024));
cstrGetSytemInfo.Format("%s%s",szHDD,szHDD1);
}
}
}
else //FLOPPY 정보//CD-ROM 정보
if(nSystmInfo == 8)
{
char strtmp[3];
CString strDrive;
int realDrive = 0;
memset(strtmp, 0x30, sizeof(strtmp));
for (int nDrive = 0 ; nDrive < 26 ; nDrive++) {
if (::GetLogicalDrives() & (1 << nDrive)) {
UINT nType;
strDrive.Format("%c:\\", nDrive + 'A');
nType = ::GetDriveType(strDrive);
if(nType == DRIVE_REMOVABLE)
{
//플로피 디스크 있음
strtmp[0] = 0x31;
}else if(nType == DRIVE_CDROM)
{
//CD-ROM 있음
strtmp[1] = 0x31;
}
}
}
strtmp[2] = 0x00;
cstrGetSytemInfo.Format("%s",strtmp);
}
else//IE 버전정보 얻어오기
if(nSystmInfo == 9)
{
HKEY hTemp = NULL;
DWORD dwType;
DWORD dwBytes = 16;
long lRet = 0;
unsigned char szIEBuf[16];
memset(szIEBuf, 0x00, sizeof(szIEBuf));
TCHAR szSubKey[] = _T("Software\\Microsoft\\Internet Explorer");
RegOpenKeyEx(HKEY_LOCAL_MACHINE, szSubKey, 0, KEY_READ, &hTemp);
if(hTemp != NULL)
{
lRet = RegQueryValueEx(hTemp, _T("Version"), 0, &dwType, szIEBuf, &dwBytes);
RegCloseKey(hTemp);
}
if(lRet == ERROR_SUCCESS)
cstrGetSytemInfo.Format("IE%s",szIEBuf);
else
cstrGetSytemInfo.Format("%s","UNKNOWN");
}
return cstrGetSytemInfo;
}