OPENVPN_EXPORT int
openvpn_plugin_func_v1(openvpn_plugin_handle_t handle, const int type, const char *argv[], const char *envp[])
{
struct plugin_context *context = (struct plugin_context *) handle;
if (type == OPENVPN_PLUGIN_UP) {
PrintTime();
printf("PLUGIN: Starting firewall\n");
if (context->pktFilter.StartFirewall())
return OPENVPN_PLUGIN_FUNC_SUCCESS;
else {
PrintTime();
printf("PLUGIN: Start failed!\n");
return OPENVPN_PLUGIN_FUNC_ERROR;
}
}
if (type == OPENVPN_PLUGIN_DOWN) {
PrintTime();
printf("PLUGIN: Stopping firewall\n");
if (context->pktFilter.StopFirewall())
return OPENVPN_PLUGIN_FUNC_SUCCESS;
else {
PrintTime();
printf("PLUGIN: Can't stop firewall!\n");
return OPENVPN_PLUGIN_FUNC_ERROR;
}
}
PrintTime();
printf("PLUGIN: Unknown handler!\n");
return OPENVPN_PLUGIN_FUNC_SUCCESS;
}
bool RsaDevice_GenEntropyRequest(RsaDevice d,
BIGNUM* commit_x, BIGNUM* commit_y)
{
if(d->x || d->y) return false;
PrintTime("Getting x, y, r_p, r_q");
CHECK_CALL(d->x = RsaParams_RandomLargeValue(d->params));
CHECK_CALL(d->y = RsaParams_RandomLargeValue(d->params));
CHECK_CALL(d->rand_p = IntegerGroup_RandomExponent(RsaParams_GetGroup(d->params)));
CHECK_CALL(d->rand_q = IntegerGroup_RandomExponent(RsaParams_GetGroup(d->params)));
PrintTime("...done");
bool retval = (d->x && d->y && d->rand_p && d->rand_q);
PrintTime("Generating C(x), C(y)");
BIGNUM* cx = IntegerGroup_Commit(RsaParams_GetGroup(d->params), d->x, d->rand_p);
BIGNUM* cy = IntegerGroup_Commit(RsaParams_GetGroup(d->params), d->y, d->rand_q);
PrintTime("...done");
CHECK_CALL(cx);
CHECK_CALL(cy);
CHECK_CALL(BN_copy(commit_x, cx));
CHECK_CALL(BN_copy(commit_y, cy));
BN_clear_free(cx);
BN_clear_free(cy);
return retval;
}
VOID SyscallExit(THREADID threadIndex, CONTEXT *ctxt, SYSCALL_STANDARD std, VOID *v) {
if(thread_to_syscall[threadIndex].ip == 0)
return;
if(thread_to_syscall[threadIndex].num == SYS_mmap) {
void *ret = (void *)(PIN_GetSyscallReturn(ctxt, std));
assert(ret != NULL);
if(ret != MAP_FAILED) {
ADDRINT *args = &thread_to_syscall[threadIndex].args[0];
void *given_addr = (void *)(*args++);
size_t length = (size_t)(*args++);
int prot = (int)(*args++);
int flags = (int)(*args++);
int fd = (int)(*args++);
off_t offset = (off_t)(*args++);
PrintTime(NULL);
output_dummy_stacktrace();
mprintf("mtrace_mmap(%p, %lu, %d, %d, %d, %lu) = %p\n", given_addr, length, prot, flags, fd, offset, ret);
void *addr_start = ret;
void *addr_end = (void *)((UINT8 *) addr_start + length - 1);
(void) given_addr;
(void) offset;
if(flags & MAP_FIXED) {
MemregionTracker::remove_overlaps(addr_start, addr_end);
}
if((flags & MAP_SHARED) &&
(prot & PROT_WRITE) &&
!(flags & MAP_ANON) &&
!(flags & MAP_ANONYMOUS)
&& (fd > 0))
{
MemregionTracker::insert(addr_start, addr_end);
}
}
}
if(thread_to_syscall[threadIndex].num == SYS_munmap) {
int ret = static_cast<int>(PIN_GetSyscallReturn(ctxt, std));
if(ret != -1) {
ADDRINT *args = &thread_to_syscall[threadIndex].args[0];
void *addr_start = (void *)(*args++);
size_t length = (size_t)(*args++);
PrintTime(NULL);
output_dummy_stacktrace();
mprintf("mtrace_munmap(%p, %lu) = %d\n", addr_start, length, ret);
void *addr_end = (void *)((UINT8 *) addr_start + length - 1);
MemregionTracker::remove_overlapping_regions(addr_start, addr_end);
}
}
}
void CTick::Display()
{
PrintTime(_L("Start time"),iStartTime);
TInt i;
for (i=0; i<4; i++)
{
TBuf<16> name;
name.Format(_L("Beat %d"),i);
PrintTime(name,iTimes[i]);
}
}
static
void BKZStatus(double tt, double enum_time, unsigned long NumIterations,
unsigned long NumTrivial, unsigned long NumNonTrivial,
unsigned long NumNoOps, long m,
const mat_ZZ& B)
{
cerr << "---- BKZ_XD status ----\n";
cerr << "elapsed time: ";
PrintTime(cerr, tt-StartTime);
cerr << ", enum time: ";
PrintTime(cerr, enum_time);
cerr << ", iter: " << NumIterations << "\n";
cerr << "triv: " << NumTrivial;
cerr << ", nontriv: " << NumNonTrivial;
cerr << ", no ops: " << NumNoOps;
cerr << ", rank: " << m;
cerr << ", swaps: " << NumSwaps << "\n";
ZZ t1;
long i;
double prodlen = 0;
for (i = 1; i <= m; i++) {
InnerProduct(t1, B(i), B(i));
if (!IsZero(t1))
prodlen += log(t1);
}
cerr << "log of prod of lengths: " << prodlen/(2.0*log(2.0)) << "\n";
if (LLLDumpFile) {
cerr << "dumping to " << LLLDumpFile << "...";
ofstream f;
OpenWrite(f, LLLDumpFile);
f << "[";
for (i = 1; i <= m; i++) {
f << B(i) << "\n";
}
f << "]\n";
f.close();
cerr << "\n";
}
LastTime = tt;
}
void TestStringArraySort(std::ofstream& out, unsigned int const size, bool const isRandom = true)
{
CTimsortParamsDefault defaultParameters;
if(isRandom)
{
clock_t timeBeginTimsort, timeEndTimsort, timeBeginStdsort, timeEndStdsort = 0;
out << "Random string array of " << size << " elements" << std::endl;
std::vector<std::string> inputVector;
GenerateRandomStringArray(inputVector, size);
std::vector<std::string> cloneVector = inputVector;
timeBeginTimsort = clock();
Timsort<std::vector<std::string>::iterator, bool (*)(std::string const&, std::string const&)>(inputVector.begin(),
inputVector.end(),
StringCompare, &defaultParameters);
timeEndTimsort = clock();
timeBeginStdsort = clock();
std::sort(cloneVector.begin(), cloneVector.end(), StringCompare);
timeEndStdsort = clock();
PrintTime(timeBeginTimsort, timeEndTimsort, out, "Timsort");
PrintTime(timeBeginStdsort, timeEndStdsort, out, "std::sort");
out << std::endl << std::endl;
}
else
{
clock_t timeBeginTimsort, timeEndTimsort, timeBeginStdsort, timeEndStdsort = 0;
out << "Partially sorted string array of " << size << " elements" << std::endl;
std::vector<std::string> inputVector;
GeneratePartiallySortedStringArray(inputVector, size);
std::vector<std::string> cloneVector = inputVector;
timeBeginTimsort = clock();
Timsort<std::vector<std::string>::iterator, bool (*)(std::string const&, std::string const&)>(inputVector.begin(),
inputVector.end(),
StringCompare, &defaultParameters);
timeEndTimsort = clock();
timeBeginStdsort = clock();
std::sort(cloneVector.begin(), cloneVector.end(), StringCompare);
timeEndStdsort = clock();
PrintTime(timeBeginTimsort, timeEndTimsort, out, "Timsort");
PrintTime(timeBeginStdsort, timeEndStdsort, out, "std::sort");
out << std::endl << std::endl;
}
}
void TestIntArraySort(std::ofstream& out, unsigned int const size, bool const isRandom = true)
{
CTimsortParamsDefault defaultParameters;
if(isRandom)
{
clock_t timeBeginTimsort, timeEndTimsort, timeBeginStdsort, timeEndStdsort = 0;
out << "Random array of " << size << " elements" << std::endl;
std::vector<int> inputVector;
GenerateRandomIntArray(inputVector, size);
std::vector<int> cloneVector = inputVector;
timeBeginTimsort = clock();
Timsort<std::vector<int>::iterator, std::less<int> >(inputVector.begin(), inputVector.end(), std::less<int>(), &defaultParameters);
timeEndTimsort = clock();
timeBeginStdsort = clock();
std::sort(cloneVector.begin(), cloneVector.end(), std::less<int>());
timeEndStdsort = clock();
PrintTime(timeBeginTimsort, timeEndTimsort, out, "Timsort");
PrintTime(timeBeginStdsort, timeEndStdsort, out, "std::sort");
out << std::endl << std::endl;
}
else
{
clock_t timeBeginTimsort, timeEndTimsort, timeBeginStdsort, timeEndStdsort = 0;
out << "Array of " << size << " partially sorted arrays" << std::endl;
std::vector<std::vector<int> > arrayVector;
GenerateArraysSequence(arrayVector, size);
for(std::vector<std::vector<int> >::iterator start = arrayVector.begin(); start != arrayVector.end(); ++start)
{
out << "Partially sorted array number " << (start - arrayVector.begin()) + 1 << " of "
<< start->size() << " elements" << std::endl;
std::vector<int> cloneVector = *start;
timeBeginTimsort = clock();
Timsort<std::vector<int>::iterator, std::less<int> >(start->begin(), start->end(), std::less<int>(), &defaultParameters);
timeEndTimsort = clock();
timeBeginStdsort = clock();
std::sort(cloneVector.begin(), cloneVector.end(), std::less<int>());
timeEndStdsort = clock();
PrintTime(timeBeginTimsort, timeEndTimsort, out, "Timsort");
PrintTime(timeBeginStdsort, timeEndStdsort, out, "std::sort");
out << std::endl << std::endl;
}
}
}
int LoadPropFuncByConfigfile(const gboolean first_load)
{
#ifdef _UI_DEBUG
PrintTime();
#endif
if(g_config_file_data != NULL){
DealSpecialWidget(g_config_file_data->special_list);
}
#ifdef _UI_DEBUG
PrintTime();
#endif
LoadFunctions(first_load);
return 0;
}
/********************************************************************************************
* *
* main *
* *
*********************************************************************************************/
int main(void)
{
char input1[10],input2[10];
int i=0, j=0, flag=0;
time_t t0,t;
t0=time(NULL); // tic
printf("input1 >>\n");
scanf("%s",input1);
while(1){
if(input1[i]=='\0'){
break;}
i++;
}
printf("input2 >>\n");
scanf("%s",input2);
while(1){
if(input2[j]=='\0'){
break;}
j++;
}
isSubstring(input1, input2, i,j);
t=time(NULL)-t0; // toc
PrintTime(t);
return(0);
}
void SysLog::PrintMsg(Color color, char pfx, const char* source, const char* fmt, va_list ap)
{
if( !m_initialized )
return;
MutexLock l( mMutex );
PrintTime();
SetColor( color );
Print( " %c ", pfx );
std::string pad = "";
if(strlen(source) < CONSOLE_LOG_PADDING)
pad = std::string(CONSOLE_LOG_PADDING-strlen(source), ' ');
if( source && *source )
{
SetColor( COLOR_WHITE );
Print( "%s%s: ", pad.c_str(), source );
SetColor( color );
}
PrintVa( fmt, ap );
Print( "\n" );
SetColor( COLOR_DEFAULT );
}
void HTML_Log::PrintMsg( Color color, char pfx, const char* source, const char* fmt, va_list ap )
{
if( !m_initialized )
return;
MutexLock l( mMutex );
PrintTime();
SetColor( color );
Print( " %c ", pfx );
if( source && *source )
{
SetColor( COLOR_WHITE );
Print( "%s: ", source );
SetColor( color );
}
PrintVa( fmt, ap );
Print( "\n" );
SetColor( COLOR_DEFAULT );
}
VOID EmitWrite(THREADID threadid, UINT32 size) {
assert(size <= 100);
char bytes[101];
struct timeval tv;
VOID *ea = WriteEa[threadid];
if(MemregionTracker::address_mapped(ea)) {
gettimeofday(&tv, NULL);
PIN_SafeCopy(&bytes[0], static_cast<char *>(ea), size);
bytes[size] = '\0';
m_dump_bytes(bytes, size);
if(mwrite_tracker[threadid].next_location == ea &&
time_diff(tv, mwrite_tracker[threadid].last_time) < coalesce_microsecs) {
mwrite_tracker[threadid].size += size;
} else {
flush_mwrite(threadid);
PrintTime(&tv);
output_stacktrace();
if(print_chars) {
char tmp[100];
printable_string(bytes, tmp, 100);
mprintf("mwrite(%p, \"%s\"..., ", ea, tmp);
} else {
mprintf("mwrite(%p, \"\"..., ", ea);
}
mwrite_tracker[threadid].size = size;
}
mwrite_tracker[threadid].next_location = (UINT8 *)ea + size;
mwrite_tracker[threadid].last_time = tv;
}
}
void Console::CheckEndGroup()
{
for(int g = groups.GetCount(); --g >= 0;) {
String gname = groups.GetKey(g);
Group& group = groups[g];
if(!IsNull(gname) && group.finished) {
int p = processes.GetCount();
while(--p >= 0 && !(!!processes[p].process && processes[p].group == gname))
;
if(p < 0) {
if(group.count > 0) {
int duration = msecs(group.start_time);
String msg = NFormat("%s: %d file(s) built in %s, %d msecs / file, duration = %d msecs",
gname, group.count, PrintTime(group.msecs), group.msecs / group.count, duration);
if(processes.GetCount() > 1) {
int k = 100 * processes.GetCount() / (processes.GetCount() - 1);
msg << NFormat(", parallelization %d%%", minmax(k - group.msecs * k / max(group.raw_msecs, 1), 0, 100));
}
msg << '\n';
spooled_output.Cat(msg);
if(console_lock < 0) {
Append(spooled_output);
spooled_output = Null;
}
}
groups.Remove(g);
}
}
}
}
static void RecordSystemInformation(HANDLE LogFile)
{
FILETIME CurrentTime;
GetSystemTimeAsFileTime(&CurrentTime);
char TimeBuffer[100];
PrintTime(TimeBuffer, CurrentTime);
hprintf(LogFile, "Error occurred at %s.\r\n", TimeBuffer);
char ModuleName[MAX_PATH];
if (GetModuleFileName(0, ModuleName, sizeof(ModuleName)) <= 0) {
lstrcpy(ModuleName, "Unknown");
}
char UserName[200];
DWORD UserNameSize = sizeof(UserName);
if (!GetUserName(UserName, &UserNameSize)) {
lstrcpy(UserName, "Unknown");
}
hprintf(LogFile, "%s, run by %s.\r\n", ModuleName, UserName);
SYSTEM_INFO SystemInfo;
GetSystemInfo(&SystemInfo);
hprintf(LogFile, "%d processor(s), type %d.\r\n",
SystemInfo.dwNumberOfProcessors, SystemInfo.dwProcessorType);
MEMORYSTATUS MemInfo;
MemInfo.dwLength = sizeof(MemInfo);
GlobalMemoryStatus(&MemInfo);
// Print out the amount of physical memory, rounded up.
hprintf(LogFile, "%d MBytes physical memory.\r\n", (MemInfo.dwTotalPhys +
ONEM - 1) / ONEM);
}
int main()
{
int i,n,len,j;
char s1[9],s2[9];
freopen("poj3683.txt","r",stdin);
freopen("poj3683ans.txt","w",stdout);
while (scanf("%d",&n)!=EOF)
{
InitEdge();
for (i=1;i<=n;i++)
{
scanf("%s%s%d",s1,s2,&len);
wed[i].start=TimeStrToInt(s1);
wed[i].end=TimeStrToInt(s2);
wed[i].len=len;
}
for (i=1;i<=n;i++)
for (j=1;j<=n;j++)
{
if (i==j) continue;
if (Conflict(wed[i].start,wed[i].len,wed[j].start,wed[j].len)) AddEdge(i,j+n);
if (Conflict(wed[i].start,wed[i].len,wed[j].end-wed[j].len,wed[j].len)) AddEdge(i,j);
if (Conflict(wed[i].end-wed[i].len,wed[i].len,wed[j].start,wed[j].len)) AddEdge(i+n,j+n);
if (Conflict(wed[i].end-wed[i].len,wed[i].len,wed[j].end-wed[j].len,wed[j].len)) AddEdge(i+n,j);
}
if (TwoSAT(n))
{
printf("YES\n");
for (i=1;i<=n;i++) if (ans[i])
{
PrintTime(wed[i].start);
printf(" ");
PrintTime(wed[i].start+wed[i].len);
printf("\n");
}
else
{
PrintTime(wed[i].end-wed[i].len);
printf(" ");
PrintTime(wed[i].end);
printf("\n");
}
}
else printf("NO\n");
}
return 0;
}
void DumpNTCounters(HANDLE InfoFile, PerfThread& Thread, DWORD dwPid, DWORD dwThreads)
{
fputc(L'\n',InfoFile);
Lock l(&Thread);
ProcessPerfData* pdata = Thread.GetProcessData(dwPid, dwThreads);
if (!pdata)
return;
const PerfLib* pf = Thread.GetPerfLib();
for (size_t i=0; i<ARRAYSIZE(Counters); i++)
{
if (!pf->dwCounterTitles[i]) // counter is absent
continue;
wchar_t buf[28];
lstrcpyn(buf,GetMsg(Counters[i].idName),ARRAYSIZE(buf)-2);
lstrcat(buf,L":");
fprintf(InfoFile, L"%-24s ", buf);
switch (pf->CounterTypes[i])
{
case PERF_COUNTER_RAWCOUNT:
{
// Display as is. No Display Suffix.
fprintf(InfoFile, L"%10I64u\n", pdata->qwResults[i]);
}
break;
case PERF_COUNTER_LARGE_RAWCOUNT: // same, large int
{
fprintf(InfoFile, L"%10.0f\n", (FLOAT)pdata->qwResults[i]);
}
break;
case PERF_100NSEC_TIMER:
{
// 64-bit Timer in 100 nsec units. Display delta divided by
// delta time. Display suffix: "%"
//fprintf(InfoFile, L"%10.0f%%\n", (FLOAT)pdata->qwResults[i]);
fprintf(InfoFile, L"%s %7.0f%%\n", PrintTime((ULONGLONG)pdata->qwCounters[i]), (FLOAT)pdata->qwResults[i]);
}
break;
case PERF_COUNTER_COUNTER:
{
// 32-bit Counter. Divide delta by delta time. Display suffix: "/sec"
fprintf(InfoFile, L"%10I64u %5I64u%s\n", pdata->qwCounters[i], pdata->qwResults[i], GetMsg(MperSec));
}
break;
case PERF_COUNTER_BULK_COUNT: //PERF_COUNTER_BULK_COUNT
{
// 64-bit Counter. Divide delta by delta time. Display Suffix: "/sec"
fprintf(InfoFile, L"%10.0f %5.0f%s\n", (FLOAT)pdata->qwCounters[i], (FLOAT)pdata->qwResults[i], GetMsg(MperSec));
}
break;
default:
fputc(L'\n',InfoFile);
}
}
}
void LogLineBox::setTimeMode(RDAirPlayConf::TimeMode mode)
{
if(mode==line_time_mode) {
return;
}
line_time_mode=mode;
PrintTime();
}
void SolverMUX::PrintTimers() const
{
logout << "Solver EACH:";
for (size_t ind = 0; ind < m_solvers.Size(); ind++) {
logout << " " << m_solvers[ind]->Name() << ": ";
PrintTime(m_elapsed[ind]);
}
logout << endl;
}
THREAD(TimeSyncThread, arg)
{
puts("\ntime started\n");
RegisterDevice();
puts("shit registered\n");
for (;;) {
RetrieveTime();
PrintTime();
NutSleep(10000);
}
}
void AltJacobi::operator () (unsigned p,QType result[ /* (p-2)*p */ ]) const
{
Printf(Con,"Jacobi #; #;\n",prime,p);
SecTimer timer;
Table table(prime,gen,p);
Printf(Con,"time = #;\n",PrintTime(timer.get()));
for(unsigned k=1; k<p-1 ;k++,result+=p) table(k,result);
}
//========================================================================//
void DebugLevelLog::PrintString(const DEBUG_LEVEL_ENUM debug_level, const MESSAGE_TYPES_ENUM msg_type, const char* format_str, ...)
{
//printf("void DebugLevelLog::PrintString(format_str = <%s>) \n", format_str);
if ( print_time ) PrintTime(debug_level);
if(create_log_flag) {
FILE * log = NULL;
char * type_str = (char *) calloc(11, sizeof(char));
switch(msg_type) {
case WARN :
strcpy(type_str, "WARNING : ");
break;
case ERROR :
strcpy(type_str, "ERROR : ");
break;
case FATAL :
strcpy(type_str, "FATAL : ");
break;
case INFO :
break;
}
switch(debug_level) {
case LOGFILE :
log = OpenLog();
if (log != NULL) {
fprintf(log, type_str);
va_list param;
va_start(param, format_str);
vfprintf(log, format_str, param);
va_end(param);
fclose(log);
}
break;
case STDOUT :
printf(type_str);
va_list param;
va_start(param, format_str);
vprintf(format_str, param);
va_end(param);
break;
}
free(type_str);
}
//puts("DebugLevelLog :: PrinString ----- end");
}
/*
* Make this public if we need it.
*/
static nsresult NS_TimelineMarkV(const char *text, va_list args)
{
PRTime elapsed,tmp;
PR_CallOnce(&initonce, TimelineInit);
TimelineThreadData *thread = GetThisThreadData();
tmp = Now();
LL_SUB(elapsed, tmp, thread->initTime);
PrintTime(elapsed, text, args);
return NS_OK;
}
X509* RsaDevice_RunProtocol(RsaDevice d, bool ca_sign,
const char* ea_hostname, int ea_port,
const char* ca_hostname, int ca_port)
{
PrintTime("Connecting to EA");
CHECK_CALL(MakeSSLRequest(ea_hostname, ea_port, &RunEaSession, (void*)d));
PrintTime("Closed connection to EA");
struct ca_request_data rr;
rr.client_type = RSA_CLIENT;
rr.cert = X509_new();
CHECK_CALL(rr.cert);
PrintTime("Generating CA request");
CHECK_CALL(RsaDevice_GenCaCertRequest(d, &(rr.cert)));
PrintTime("Done generating CA request");
if(ca_sign) {
PrintTime("Beginning CA session");
CHECK_CALL(MakeSSLRequest(ca_hostname, ca_port, &RequestCaSignatureClient, (void*)&rr));
}
return rr.cert;
}
int main()
{
Time T, Td;
unsigned int Unit;
while(scanf("%2d%2d%2d%2d", &T.HH, &T.MM, &T.SS, &T.CC)>0)
{
Unit = TimeToUnit(&T);
UnitToTime(&Td, Unit);
PrintTime(&Td);
}
return 0;
}
static void PrintSources (const cc65_sourceinfo* S)
/* Output a list of sources */
{
unsigned I;
const cc65_sourcedata* D;
/* Segments */
for (I = 0, D = S->data; I < S->count; ++I, ++D) {
PrintId (D->source_id, 8);
Print ("%-30s", D->source_name);
PrintNumber (D->source_size, 7, 9);
PrintTime (D->source_mtime, 0);
NewLine ();
}
}
// Print information about a code module (DLL or EXE) such as its size,
// location, time stamp, etc.
static void ShowModuleInfo(HANDLE LogFile, HINSTANCE ModuleHandle)
{
char ModName[MAX_PATH];
#ifdef _MSC_VER
__try {
#endif
if (GetModuleFileName(ModuleHandle, ModName, sizeof(ModName)) > 0) {
// If GetModuleFileName returns greater than zero then this must
// be a valid code module address. Therefore we can try to walk
// our way through its structures to find the link time stamp.
IMAGE_DOS_HEADER *DosHeader = (IMAGE_DOS_HEADER*)ModuleHandle;
if (IMAGE_DOS_SIGNATURE != DosHeader->e_magic) {
return;
}
IMAGE_NT_HEADERS *NTHeader = (IMAGE_NT_HEADERS*)((char *)DosHeader + DosHeader->e_lfanew);
if (IMAGE_NT_SIGNATURE != NTHeader->Signature) {
return;
}
// Open the code module file so that we can get its file date
// and size.
HANDLE ModuleFile = CreateFile(ModName, GENERIC_READ,
FILE_SHARE_READ, 0, OPEN_EXISTING,
FILE_ATTRIBUTE_NORMAL, 0);
char TimeBuffer[100] = "";
DWORD FileSize = 0;
if (ModuleFile != INVALID_HANDLE_VALUE) {
FileSize = GetFileSize(ModuleFile, 0);
FILETIME LastWriteTime;
if (GetFileTime(ModuleFile, 0, 0, &LastWriteTime)) {
wsprintf(TimeBuffer, " - file date is ");
PrintTime(TimeBuffer + lstrlen(TimeBuffer), LastWriteTime);
}
CloseHandle(ModuleFile);
}
hprintf(LogFile, "%s, loaded at 0x%08x - %d bytes - %08x%s\r\n",
ModName, ModuleHandle, FileSize,
NTHeader->FileHeader.TimeDateStamp, TimeBuffer);
}
#ifdef _MSC_VER
}
// Handle any exceptions by continuing from this point.
__except(EXCEPTION_EXECUTE_HANDLER)
{
}
#endif
}
static void LLLStatus(long max_k, double t, long m, const mat_ZZ& B)
{
cerr << "---- LLL_XD status ----\n";
cerr << "elapsed time: ";
PrintTime(cerr, t-StartTime);
cerr << ", stage: " << max_k;
cerr << ", rank: " << m;
cerr << ", swaps: " << NumSwaps << "\n";
ZZ t1;
long i;
double prodlen = 0;
for (i = 1; i <= m; i++) {
InnerProduct(t1, B(i), B(i));
if (!IsZero(t1))
prodlen += log(t1);
}
cerr << "log of prod of lengths: " << prodlen/(2.0*log(2.0)) << "\n";
if (LLLDumpFile) {
cerr << "dumping to " << LLLDumpFile << "...";
ofstream f;
OpenWrite(f, LLLDumpFile);
f << "[";
for (i = 1; i <= m; i++) {
f << B(i) << "\n";
}
f << "]\n";
f.close();
cerr << "\n";
}
LastTime = t;
}
void InfoIdleScreen::Render(LCD& lcd, byte cols, byte rows) const {
lcd.setCursor(0, 0);
if (m_sequence->IsRunning()) {
int _chars = 0;
_chars += lcd.print(F("Shot "));
_chars += lcd.print(m_sequence->GetShotsFired());
_chars += lcd.print(F("/"));
_chars += lcd.print(m_sequence->GetShotsTotal());
Pad(lcd, cols, _chars);
_chars = 0;
lcd.setCursor(0, 1);
_chars += lcd.print(F("Rem. "));
long _secondsRemaining = m_sequence->GetSecondsRemaining();
_chars += PrintTime(_secondsRemaining, lcd);
Pad(lcd, cols, _chars);
} else {
Pad(lcd, cols, lcd.print(F("Idle")));
lcd.setCursor(0, 1);
Pad(lcd, cols, 0);
}
}
VOID SyscallEntry(THREADID threadIndex, CONTEXT *ctxt, SYSCALL_STANDARD std, VOID *v)
{
flush_mwrite(threadIndex);
ADDRINT num = PIN_GetSyscallNumber(ctxt, std);
if(num == SYS_execve) {
PrintTime(NULL);
output_dummy_stacktrace();
mprintf("mtrace_execve(%ld, %u, %u, %u, %u) = 0\n", syscall(SYS_gettid), PIN_GetTid(), getpid(), threadIndex, PIN_ThreadId());
m_dump_bytes(NULL, 0);
return;
}
if (num != SYS_mmap && num != SYS_munmap) {
thread_to_syscall[threadIndex].ip = 0;
return;
}
thread_to_syscall[threadIndex].num = num;
thread_to_syscall[threadIndex].ip = PIN_GetContextReg(ctxt, REG_INST_PTR);
if(num == SYS_mmap) {
for(int i = 0; i < 6; i++) {
#if defined(TARGET_LINUX) && defined(TARGET_IA32)
thread_to_syscall[threadIndex].args[i] =
(reinterpret_cast<ADDRINT *>(PIN_GetSyscallArgument(ctxt, std, 0)))[i];
#else
thread_to_syscall[threadIndex].args[i] = PIN_GetSyscallArgument(ctxt, std, i);
#endif
}
} else {
for(int i = 0; i < 2; i++) {
thread_to_syscall[threadIndex].args[i] = PIN_GetSyscallArgument(ctxt, std, i);
}
}
}
void test4()
{
PlatformRandom random;
SecTimer timer;
for(ulen cnt=1;;cnt++)
{
Printf(Con,"cnt = #;\r",cnt);
Int P=RandomInt(32,random);
if( P<0 ) P=-P;
if( P.isEven() ) P=P+1;
if( Math::NoPrimeTest<Int>::RandomTest(P,30,random) )
{
Printf(Con,"\ntime = #;\nP = #;\nbits = #;\n",PrintTime(timer.get()),P,P.bitsOf().total());
return;
}
}
}