/**
* Try adjust the time using adjtime or similar.
*
* @returns true on success, false on failure.
*
* @param pDrift The time adjustment.
*/
static void vgsvcTimeSyncSet(PCRTTIMESPEC pDrift)
{
/*
* Query the current time, adjust it by adding the drift and set it.
*/
RTTIMESPEC NewGuestTime;
int rc = RTTimeSet(RTTimeSpecAdd(RTTimeNow(&NewGuestTime), pDrift));
if (RT_SUCCESS(rc))
{
/* Succeeded - reset the error count and log the change. */
g_cTimeSyncErrors = 0;
if (g_cVerbosity >= 1)
{
char sz[64];
RTTIME Time;
VGSvcVerbose(1, "time set to %s\n", RTTimeToString(RTTimeExplode(&Time, &NewGuestTime), sz, sizeof(sz)));
#ifdef DEBUG
RTTIMESPEC Tmp;
if (g_cVerbosity >= 3)
VGSvcVerbose(3, " now %s\n", RTTimeToString(RTTimeExplode(&Time, RTTimeNow(&Tmp)), sz, sizeof(sz)));
#endif
}
}
else if (g_cTimeSyncErrors++ < 10)
VGSvcError("vgsvcTimeSyncSet: RTTimeSet(%RDtimespec) failed: %Rrc\n", &NewGuestTime, rc);
}
static RTEXITCODE rtZipUnzipCmdListCallback(PRTZIPUNZIPCMDOPS pOpts, RTVFSOBJ hVfsObj,
const char *pszName, RTEXITCODE rcExit, PRTFOFF pcBytes)
{
RT_NOREF_PV(pOpts);
/*
* Query all the information.
*/
RTFSOBJINFO UnixInfo;
int rc = RTVfsObjQueryInfo(hVfsObj, &UnixInfo, RTFSOBJATTRADD_UNIX);
if (RT_FAILURE(rc))
return RTMsgErrorExit(RTEXITCODE_FAILURE, "RTVfsObjQueryInfo returned %Rrc on '%s'", rc, pszName);
RTTIME time;
if (!RTTimeExplode(&time, &UnixInfo.ModificationTime))
return RTMsgErrorExit(RTEXITCODE_FAILURE, "Cannot explode time on '%s'", pszName);
RTPrintf("%9RU64 %04d-%02d-%02d %02d:%02d %s\n",
UnixInfo.cbObject,
time.i32Year, time.u8Month, time.u8MonthDay,
time.u8Hour, time.u8Minute,
pszName);
*pcBytes = UnixInfo.cbObject;
return rcExit;
}
/**
* Explodes a time spec to the localized timezone.
*
* @returns pTime.
* @param pTime Where to store the exploded time.
* @param pTimeSpec The time spec to exploded. (UTC)
*/
RTDECL(PRTTIME) RTTimeLocalExplode(PRTTIME pTime, PCRTTIMESPEC pTimeSpec)
{
RTTIMESPEC LocalTime = *pTimeSpec;
RTTimeSpecAddNano(&LocalTime, rtTimeLocalUTCOffset(&LocalTime, true /* current time, skip fallback */));
pTime = RTTimeExplode(pTime, &LocalTime);
if (pTime)
pTime->fFlags = (pTime->fFlags & ~RTTIME_FLAGS_TYPE_MASK) | RTTIME_FLAGS_TYPE_LOCAL;
return pTime;
}
RTDECL(PRTTIME) RTTimeLocalExplode(PRTTIME pTime, PCRTTIMESPEC pTimeSpec)
{
pTime = RTTimeExplode(pTime, pTimeSpec);
if (pTime)
{
pTime->fFlags = (pTime->fFlags & ~RTTIME_FLAGS_TYPE_MASK) | RTTIME_FLAGS_TYPE_LOCAL;
pTime->offZone = RTTimeLocalDeltaNano() / (UINT64_C(1000000000)*3600); /** @todo this is obviously wrong. Need RTTimeLocalDeltaNanoFor(pTimeSpec); */
}
return pTime;
}
RTDECL(PRTTIME) RTTimeLocalExplode(PRTTIME pTime, PCRTTIMESPEC pTimeSpec)
{
/*
* FileTimeToLocalFileTime does not do the right thing, so we'll have
* to convert to system time and SystemTimeToTzSpecificLocalTime instead.
*/
RTTIMESPEC LocalTime;
SYSTEMTIME SystemTimeIn;
FILETIME FileTime;
if (FileTimeToSystemTime(RTTimeSpecGetNtFileTime(pTimeSpec, &FileTime), &SystemTimeIn))
{
SYSTEMTIME SystemTimeOut;
if (SystemTimeToTzSpecificLocalTime(NULL /* use current TZI */,
&SystemTimeIn,
&SystemTimeOut))
{
if (SystemTimeToFileTime(&SystemTimeOut, &FileTime))
{
RTTimeSpecSetNtFileTime(&LocalTime, &FileTime);
pTime = RTTimeExplode(pTime, &LocalTime);
if (pTime)
pTime->fFlags = (pTime->fFlags & ~RTTIME_FLAGS_TYPE_MASK) | RTTIME_FLAGS_TYPE_LOCAL;
return pTime;
}
}
}
/*
* The fallback is to use the current offset.
* (A better fallback would be to use the offset of the same time of the year.)
*/
LocalTime = *pTimeSpec;
RTTimeSpecAddNano(&LocalTime, RTTimeLocalDeltaNano());
pTime = RTTimeExplode(pTime, &LocalTime);
if (pTime)
pTime->fFlags = (pTime->fFlags & ~RTTIME_FLAGS_TYPE_MASK) | RTTIME_FLAGS_TYPE_LOCAL;
return pTime;
}
static char* rtS3DateHeader()
{
/* Date header entry */
RTTIMESPEC TimeSpec;
RTTIME Time;
RTTimeExplode(&Time, RTTimeNow(&TimeSpec));
static const char s_apszDayNms[7][4] = { "Mon", "Tue", "Wed", "Thu", "Fri", "Sat", "Sun" };
static const char s_apszMonthNms[1+12][4] =
{ "???", "Jan", "Feb", "Mar", "Apr", "May", "Jun", "Jul", "Aug", "Sep", "Oct", "Nov", "Dec" };
char *pszDate;
RTStrAPrintf(&pszDate, "Date: %s, %02u %s %04d %02u:%02u:%02u UTC",
s_apszDayNms[Time.u8WeekDay],
Time.u8MonthDay,
s_apszMonthNms[Time.u8Month],
Time.i32Year,
Time.u8Hour,
Time.u8Minute,
Time.u8Second);
return pszDate;
}
/**
* Converts a time spec to a ISO date string.
*
* @returns psz on success.
* @returns NULL on buffer underflow.
* @param pTime The time spec.
* @param psz Where to store the string.
* @param cb The size of the buffer.
*/
RTDECL(char *) RTTimeSpecToString(PCRTTIMESPEC pTime, char *psz, size_t cb)
{
RTTIME Time;
return RTTimeToString(RTTimeExplode(&Time, pTime), psz, cb);
}
/**
* @interface_method_impl{VBOXSERVICE,pfnWorker}
*/
DECLCALLBACK(int) vgsvcTimeSyncWorker(bool volatile *pfShutdown)
{
RTTIME Time;
char sz[64];
int rc = VINF_SUCCESS;
/*
* Tell the control thread that it can continue spawning services.
*/
RTThreadUserSignal(RTThreadSelf());
/*
* The Work Loop.
*/
for (;;)
{
/*
* Try get a reliable time reading.
*/
int cTries = 3;
do
{
/* query it. */
RTTIMESPEC GuestNow0, GuestNow, HostNow;
RTTimeNow(&GuestNow0);
int rc2 = VbglR3GetHostTime(&HostNow);
if (RT_FAILURE(rc2))
{
if (g_cTimeSyncErrors++ < 10)
VGSvcError("vgsvcTimeSyncWorker: VbglR3GetHostTime failed; rc2=%Rrc\n", rc2);
break;
}
RTTimeNow(&GuestNow);
/* calc latency and check if it's ok. */
RTTIMESPEC GuestElapsed = GuestNow;
RTTimeSpecSub(&GuestElapsed, &GuestNow0);
if ((uint32_t)RTTimeSpecGetMilli(&GuestElapsed) < g_TimeSyncMaxLatency)
{
/*
* Set the time once after we were restored.
* (Of course only if the drift is bigger than MinAdjust)
*/
uint32_t TimeSyncSetThreshold = g_TimeSyncSetThreshold;
if (g_fTimeSyncSetOnRestore)
{
uint64_t idNewSession = g_idTimeSyncSession;
VbglR3GetSessionId(&idNewSession);
if (idNewSession != g_idTimeSyncSession)
{
VGSvcVerbose(3, "vgsvcTimeSyncWorker: The VM session ID changed, forcing resync.\n");
TimeSyncSetThreshold = 0;
g_idTimeSyncSession = idNewSession;
}
}
/*
* Calculate the adjustment threshold and the current drift.
*/
uint32_t MinAdjust = RTTimeSpecGetMilli(&GuestElapsed) * g_TimeSyncLatencyFactor;
if (MinAdjust < g_TimeSyncMinAdjust)
MinAdjust = g_TimeSyncMinAdjust;
RTTIMESPEC Drift = HostNow;
RTTimeSpecSub(&Drift, &GuestNow);
if (RTTimeSpecGetMilli(&Drift) < 0)
MinAdjust += g_TimeSyncMinAdjust; /* extra buffer against moving time backwards. */
RTTIMESPEC AbsDrift = Drift;
RTTimeSpecAbsolute(&AbsDrift);
if (g_cVerbosity >= 3)
{
VGSvcVerbose(3, "vgsvcTimeSyncWorker: Host: %s (MinAdjust: %RU32 ms)\n",
RTTimeToString(RTTimeExplode(&Time, &HostNow), sz, sizeof(sz)), MinAdjust);
VGSvcVerbose(3, "vgsvcTimeSyncWorker: Guest: - %s => %RDtimespec drift\n",
RTTimeToString(RTTimeExplode(&Time, &GuestNow), sz, sizeof(sz)), &Drift);
}
uint32_t AbsDriftMilli = RTTimeSpecGetMilli(&AbsDrift);
if (AbsDriftMilli > MinAdjust)
{
/*
* Ok, the drift is above the threshold.
*
* Try a gradual adjustment first, if that fails or the drift is
* too big, fall back on just setting the time.
*/
if ( AbsDriftMilli > TimeSyncSetThreshold
|| g_fTimeSyncSetNext
|| !vgsvcTimeSyncAdjust(&Drift))
{
vgsvcTimeSyncCancelAdjust();
vgsvcTimeSyncSet(&Drift);
}
}
else
vgsvcTimeSyncCancelAdjust();
break;
}
VGSvcVerbose(3, "vgsvcTimeSyncWorker: %RDtimespec: latency too high (%RDtimespec) sleeping 1s\n", GuestElapsed);
RTThreadSleep(1000);
} while (--cTries > 0);
/* Clear the set-next/set-start flag. */
g_fTimeSyncSetNext = false;
/*
* Block for a while.
*
* The event semaphore takes care of ignoring interruptions and it
* allows us to implement service wakeup later.
*/
if (*pfShutdown)
break;
int rc2 = RTSemEventMultiWait(g_TimeSyncEvent, g_TimeSyncInterval);
if (*pfShutdown)
break;
if (rc2 != VERR_TIMEOUT && RT_FAILURE(rc2))
{
VGSvcError("vgsvcTimeSyncWorker: RTSemEventMultiWait failed; rc2=%Rrc\n", rc2);
rc = rc2;
break;
}
}
vgsvcTimeSyncCancelAdjust();
RTSemEventMultiDestroy(g_TimeSyncEvent);
g_TimeSyncEvent = NIL_RTSEMEVENTMULTI;
return rc;
}
/**
* Creates the default logger instance for a VBox process.
*
* @returns Pointer to the logger instance.
*/
RTDECL(PRTLOGGER) RTLogDefaultInit(void)
{
/*
* Initialize the default logger instance.
* Take care to do this once and not recursively.
*/
static volatile uint32_t fInitializing = 0;
PRTLOGGER pLogger;
int rc;
if (g_pLogger || !ASMAtomicCmpXchgU32(&fInitializing, 1, 0))
return g_pLogger;
#ifdef IN_RING3
/*
* Assert the group definitions.
*/
#define ASSERT_LOG_GROUP(grp) ASSERT_LOG_GROUP2(LOG_GROUP_##grp, #grp)
#define ASSERT_LOG_GROUP2(def, str) \
do { if (strcmp(g_apszGroups[def], str)) {printf("%s='%s' expects '%s'\n", #def, g_apszGroups[def], str); RTAssertDoPanic(); } } while (0)
ASSERT_LOG_GROUP(DEFAULT);
ASSERT_LOG_GROUP(AUDIO_MIXER);
ASSERT_LOG_GROUP(AUDIO_MIXER_BUFFER);
ASSERT_LOG_GROUP(CFGM);
ASSERT_LOG_GROUP(CPUM);
ASSERT_LOG_GROUP(CSAM);
ASSERT_LOG_GROUP(DBGC);
ASSERT_LOG_GROUP(DBGF);
ASSERT_LOG_GROUP(DBGF_INFO);
ASSERT_LOG_GROUP(DEV);
ASSERT_LOG_GROUP(DEV_AC97);
ASSERT_LOG_GROUP(DEV_ACPI);
ASSERT_LOG_GROUP(DEV_APIC);
ASSERT_LOG_GROUP(DEV_FDC);
ASSERT_LOG_GROUP(DEV_HDA);
ASSERT_LOG_GROUP(DEV_HDA_CODEC);
ASSERT_LOG_GROUP(DEV_HPET);
ASSERT_LOG_GROUP(DEV_IDE);
ASSERT_LOG_GROUP(DEV_KBD);
ASSERT_LOG_GROUP(DEV_LPC);
ASSERT_LOG_GROUP(DEV_NE2000);
ASSERT_LOG_GROUP(DEV_PC);
ASSERT_LOG_GROUP(DEV_PC_ARCH);
ASSERT_LOG_GROUP(DEV_PC_BIOS);
ASSERT_LOG_GROUP(DEV_PCI);
ASSERT_LOG_GROUP(DEV_PCNET);
ASSERT_LOG_GROUP(DEV_PIC);
ASSERT_LOG_GROUP(DEV_PIT);
ASSERT_LOG_GROUP(DEV_RTC);
ASSERT_LOG_GROUP(DEV_SB16);
ASSERT_LOG_GROUP(DEV_SERIAL);
ASSERT_LOG_GROUP(DEV_SMC);
ASSERT_LOG_GROUP(DEV_VGA);
ASSERT_LOG_GROUP(DEV_VMM);
ASSERT_LOG_GROUP(DEV_VMM_STDERR);
ASSERT_LOG_GROUP(DIS);
ASSERT_LOG_GROUP(DRV);
ASSERT_LOG_GROUP(DRV_ACPI);
ASSERT_LOG_GROUP(DRV_AUDIO);
ASSERT_LOG_GROUP(DRV_BLOCK);
ASSERT_LOG_GROUP(DRV_FLOPPY);
ASSERT_LOG_GROUP(DRV_HOST_AUDIO);
ASSERT_LOG_GROUP(DRV_HOST_DVD);
ASSERT_LOG_GROUP(DRV_HOST_FLOPPY);
ASSERT_LOG_GROUP(DRV_ISO);
ASSERT_LOG_GROUP(DRV_KBD_QUEUE);
ASSERT_LOG_GROUP(DRV_MOUSE_QUEUE);
ASSERT_LOG_GROUP(DRV_NAT);
ASSERT_LOG_GROUP(DRV_RAW_IMAGE);
ASSERT_LOG_GROUP(DRV_TUN);
ASSERT_LOG_GROUP(DRV_USBPROXY);
ASSERT_LOG_GROUP(DRV_VBOXHDD);
ASSERT_LOG_GROUP(DRV_VRDE_AUDIO);
ASSERT_LOG_GROUP(DRV_VSWITCH);
ASSERT_LOG_GROUP(DRV_VUSB);
ASSERT_LOG_GROUP(EM);
ASSERT_LOG_GROUP(GUI);
ASSERT_LOG_GROUP(HGCM);
ASSERT_LOG_GROUP(HM);
ASSERT_LOG_GROUP(IOM);
ASSERT_LOG_GROUP(LWIP);
ASSERT_LOG_GROUP(MAIN);
ASSERT_LOG_GROUP(MM);
ASSERT_LOG_GROUP(MM_HEAP);
ASSERT_LOG_GROUP(MM_HYPER);
ASSERT_LOG_GROUP(MM_HYPER_HEAP);
ASSERT_LOG_GROUP(MM_PHYS);
ASSERT_LOG_GROUP(MM_POOL);
ASSERT_LOG_GROUP(NAT_SERVICE);
ASSERT_LOG_GROUP(NET_SERVICE);
ASSERT_LOG_GROUP(PATM);
ASSERT_LOG_GROUP(PDM);
ASSERT_LOG_GROUP(PDM_DEVICE);
ASSERT_LOG_GROUP(PDM_DRIVER);
ASSERT_LOG_GROUP(PDM_LDR);
ASSERT_LOG_GROUP(PDM_QUEUE);
ASSERT_LOG_GROUP(PGM);
ASSERT_LOG_GROUP(PGM_POOL);
ASSERT_LOG_GROUP(REM);
ASSERT_LOG_GROUP(REM_DISAS);
ASSERT_LOG_GROUP(REM_HANDLER);
ASSERT_LOG_GROUP(REM_IOPORT);
ASSERT_LOG_GROUP(REM_MMIO);
ASSERT_LOG_GROUP(REM_PRINTF);
ASSERT_LOG_GROUP(REM_RUN);
ASSERT_LOG_GROUP(SELM);
ASSERT_LOG_GROUP(SSM);
ASSERT_LOG_GROUP(STAM);
ASSERT_LOG_GROUP(SUP);
ASSERT_LOG_GROUP(TM);
ASSERT_LOG_GROUP(TRPM);
ASSERT_LOG_GROUP(VM);
ASSERT_LOG_GROUP(VMM);
ASSERT_LOG_GROUP(VRDP);
#undef ASSERT_LOG_GROUP
#undef ASSERT_LOG_GROUP2
#endif /* IN_RING3 */
/*
* Create the default logging instance.
*/
#ifdef IN_RING3
# ifndef IN_GUEST
char szExecName[RTPATH_MAX];
if (!RTProcGetExecutablePath(szExecName, sizeof(szExecName)))
strcpy(szExecName, "VBox");
RTTIMESPEC TimeSpec;
RTTIME Time;
RTTimeExplode(&Time, RTTimeNow(&TimeSpec));
rc = RTLogCreate(&pLogger, 0, NULL, "VBOX_LOG", RT_ELEMENTS(g_apszGroups), &g_apszGroups[0], RTLOGDEST_FILE,
"./%04d-%02d-%02d-%02d-%02d-%02d.%03d-%s-%d.log",
Time.i32Year, Time.u8Month, Time.u8MonthDay, Time.u8Hour, Time.u8Minute, Time.u8Second, Time.u32Nanosecond / 10000000,
RTPathFilename(szExecName), RTProcSelf());
if (RT_SUCCESS(rc))
{
/*
* Write a log header.
*/
char szBuf[RTPATH_MAX];
RTTimeSpecToString(&TimeSpec, szBuf, sizeof(szBuf));
RTLogLoggerEx(pLogger, 0, ~0U, "Log created: %s\n", szBuf);
RTLogLoggerEx(pLogger, 0, ~0U, "Executable: %s\n", szExecName);
/* executable and arguments - tricky and all platform specific. */
# if defined(RT_OS_WINDOWS)
RTLogLoggerEx(pLogger, 0, ~0U, "Commandline: %ls\n", GetCommandLineW());
# elif defined(RT_OS_SOLARIS)
psinfo_t psi;
char szArgFileBuf[80];
RTStrPrintf(szArgFileBuf, sizeof(szArgFileBuf), "/proc/%ld/psinfo", (long)getpid());
FILE* pFile = fopen(szArgFileBuf, "rb");
if (pFile)
{
if (fread(&psi, sizeof(psi), 1, pFile) == 1)
{
# if 0 /* 100% safe:*/
RTLogLoggerEx(pLogger, 0, ~0U, "Args: %s\n", psi.pr_psargs);
# else /* probably safe: */
const char * const *argv = (const char * const *)psi.pr_argv;
for (int iArg = 0; iArg < psi.pr_argc; iArg++)
RTLogLoggerEx(pLogger, 0, ~0U, "Arg[%d]: %s\n", iArg, argv[iArg]);
# endif
}
fclose(pFile);
}
# elif defined(RT_OS_LINUX)
FILE *pFile = fopen("/proc/self/cmdline", "r");
if (pFile)
{
/* braindead */
unsigned iArg = 0;
int ch;
bool fNew = true;
while (!feof(pFile) && (ch = fgetc(pFile)) != EOF)
{
if (fNew)
{
RTLogLoggerEx(pLogger, 0, ~0U, "Arg[%u]: ", iArg++);
fNew = false;
}
if (ch)
RTLogLoggerEx(pLogger, 0, ~0U, "%c", ch);
else
{
RTLogLoggerEx(pLogger, 0, ~0U, "\n");
fNew = true;
}
}
if (!fNew)
RTLogLoggerEx(pLogger, 0, ~0U, "\n");
fclose(pFile);
}
# elif defined(RT_OS_HAIKU)
team_info info;
if (get_team_info(0, &info) == B_OK)
{
/* there is an info.argc, but no way to know arg boundaries */
RTLogLoggerEx(pLogger, 0, ~0U, "Commandline: %.64s\n", info.args);
}
# elif defined(RT_OS_FREEBSD)
/* Retrieve the required length first */
int aiName[4];
aiName[0] = CTL_KERN;
aiName[1] = KERN_PROC;
aiName[2] = KERN_PROC_ARGS; /* Introduced in FreeBSD 4.0 */
aiName[3] = getpid();
size_t cchArgs = 0;
int rcBSD = sysctl(aiName, RT_ELEMENTS(aiName), NULL, &cchArgs, NULL, 0);
if (cchArgs > 0)
{
char *pszArgFileBuf = (char *)RTMemAllocZ(cchArgs + 1 /* Safety */);
if (pszArgFileBuf)
{
/* Retrieve the argument list */
rcBSD = sysctl(aiName, RT_ELEMENTS(aiName), pszArgFileBuf, &cchArgs, NULL, 0);
if (!rcBSD)
{
unsigned iArg = 0;
size_t off = 0;
while (off < cchArgs)
{
size_t cchArg = strlen(&pszArgFileBuf[off]);
RTLogLoggerEx(pLogger, 0, ~0U, "Arg[%u]: %s\n", iArg, &pszArgFileBuf[off]);
/* advance */
off += cchArg + 1;
iArg++;
}
}
RTMemFree(pszArgFileBuf);
}
}
# elif defined(RT_OS_OS2) || defined(RT_OS_DARWIN)
/* commandline? */
# else
# error needs porting.
# endif
}
# else /* IN_GUEST */
/* The user destination is backdoor logging. */
rc = RTLogCreate(&pLogger, 0, NULL, "VBOX_LOG", RT_ELEMENTS(g_apszGroups), &g_apszGroups[0], RTLOGDEST_USER, "VBox.log");
# endif /* IN_GUEST */
#else /* IN_RING0 */
/* Some platforms has trouble allocating memory with interrupts and/or
preemption disabled. Check and fail before we panic. */
# if defined(RT_OS_DARWIN)
if ( !ASMIntAreEnabled()
|| !RTThreadPreemptIsEnabled(NIL_RTTHREAD))
return NULL;
# endif
# ifndef IN_GUEST
rc = RTLogCreate(&pLogger, 0, NULL, "VBOX_LOG", RT_ELEMENTS(g_apszGroups), &g_apszGroups[0], RTLOGDEST_FILE, "VBox-ring0.log");
# else /* IN_GUEST */
rc = RTLogCreate(&pLogger, 0, NULL, "VBOX_LOG", RT_ELEMENTS(g_apszGroups), &g_apszGroups[0], RTLOGDEST_USER, "VBox-ring0.log");
# endif /* IN_GUEST */
if (RT_SUCCESS(rc))
{
/*
* This is where you set your ring-0 logging preferences.
*
* On platforms which don't differ between debugger and kernel
* log printing, STDOUT is gonna be a stub and the DEBUGGER
* destination is the one doing all the work. On platforms
* that do differ (like Darwin), STDOUT is the kernel log.
*/
# if defined(DEBUG_bird)
/*RTLogGroupSettings(pLogger, "all=~0 -default.l6.l5.l4.l3");*/
RTLogFlags(pLogger, "enabled unbuffered pid tid");
# ifndef IN_GUEST
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER | RTLOGDEST_STDOUT;
# endif
# endif
# if defined(DEBUG_sandervl) && !defined(IN_GUEST)
RTLogGroupSettings(pLogger, "+all");
RTLogFlags(pLogger, "enabled unbuffered");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER;
# endif
# if defined(DEBUG_ramshankar) /* Guest ring-0 as well */
RTLogGroupSettings(pLogger, "+all.e.l.f");
RTLogFlags(pLogger, "enabled unbuffered");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER;
# endif
# if defined(DEBUG_aleksey) /* Guest ring-0 as well */
//RTLogGroupSettings(pLogger, "net_flt_drv.e.l.f.l3.l4.l5 +net_adp_drv.e.l.f.l3.l4.l5");
RTLogGroupSettings(pLogger, "net_flt_drv.e.l.f.l3.l4.l5.l6");
RTLogFlags(pLogger, "enabled unbuffered");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER | RTLOGDEST_STDOUT;
# endif
# if defined(DEBUG_andy) /* Guest ring-0 as well */
RTLogGroupSettings(pLogger, "+all.e.l.f");
RTLogFlags(pLogger, "enabled unbuffered pid tid");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER | RTLOGDEST_STDOUT;
# endif
# if defined(DEBUG_misha) /* Guest ring-0 as well */
RTLogFlags(pLogger, "enabled unbuffered");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER;
# endif
# if defined(DEBUG_michael) && defined(IN_GUEST)
RTLogGroupSettings(pLogger, "+vga.e.l.f");
RTLogFlags(pLogger, "enabled unbuffered");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER | RTLOGDEST_STDOUT;
# endif
# if 0 /* vboxdrv logging - ATTENTION: this is what we're referring to guys! Change to '# if 1'. */
RTLogGroupSettings(pLogger, "all=~0 -default.l6.l5.l4.l3");
RTLogFlags(pLogger, "enabled unbuffered tid");
pLogger->fDestFlags |= RTLOGDEST_DEBUGGER | RTLOGDEST_STDOUT;
# endif
}
#endif /* IN_RING0 */
return g_pLogger = RT_SUCCESS(rc) ? pLogger : NULL;
}
int main()
{
RTTIMESPEC Now;
RTTIMESPEC Ts1;
RTTIMESPEC Ts2;
RTTIME T1;
RTTIME T2;
#ifdef RTTIME_INCL_TIMEVAL
struct timeval Tv1;
struct timeval Tv2;
struct timespec Tsp1;
struct timespec Tsp2;
#endif
RTTEST hTest;
int rc = RTTestInitAndCreate("tstRTTimeSpec", &hTest);
if (rc)
return rc;
/*
* Simple test with current time.
*/
RTTestSub(hTest, "Current time (UTC)");
CHECK_NZ(RTTimeNow(&Now));
CHECK_NZ(RTTimeExplode(&T1, &Now));
RTTestIPrintf(RTTESTLVL_ALWAYS, " %RI64 ns - %s\n", RTTimeSpecGetNano(&Now), ToString(&T1));
CHECK_NZ(RTTimeImplode(&Ts1, &T1));
if (!RTTimeSpecIsEqual(&Ts1, &Now))
RTTestIFailed("%RI64 != %RI64\n", RTTimeSpecGetNano(&Ts1), RTTimeSpecGetNano(&Now));
/*
* Simple test with current local time.
*/
RTTestSub(hTest, "Current time (local)");
CHECK_NZ(RTTimeLocalNow(&Now));
CHECK_NZ(RTTimeExplode(&T1, &Now));
RTTestIPrintf(RTTESTLVL_ALWAYS, " %RI64 ns - %s\n", RTTimeSpecGetNano(&Now), ToString(&T1));
CHECK_NZ(RTTimeImplode(&Ts1, &T1));
if (!RTTimeSpecIsEqual(&Ts1, &Now))
RTTestIFailed("%RI64 != %RI64\n", RTTimeSpecGetNano(&Ts1), RTTimeSpecGetNano(&Now));
/*
* Some simple tests with fixed dates (just checking for smoke).
*/
RTTestSub(hTest, "Smoke");
TEST_NS(INT64_C(0));
CHECK_TIME(&T1, 1970,01,01, 00,00,00, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
TEST_NS(INT64_C(86400000000000));
CHECK_TIME(&T1, 1970,01,02, 00,00,00, 0, 2, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
TEST_NS(INT64_C(1));
CHECK_TIME(&T1, 1970,01,01, 00,00,00, 1, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
TEST_NS(INT64_C(-1));
CHECK_TIME(&T1, 1969,12,31, 23,59,59,999999999, 365, 2, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
/*
* Test the limits.
*/
RTTestSub(hTest, "Extremes");
TEST_NS(INT64_MAX);
TEST_NS(INT64_MIN);
TEST_SEC(1095379198);
CHECK_TIME(&T1, 2004, 9,16, 23,59,58, 0, 260, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
TEST_SEC(1095379199);
CHECK_TIME(&T1, 2004, 9,16, 23,59,59, 0, 260, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
TEST_SEC(1095379200);
CHECK_TIME(&T1, 2004, 9,17, 00,00,00, 0, 261, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
TEST_SEC(1095379201);
CHECK_TIME(&T1, 2004, 9,17, 00,00,01, 0, 261, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
/*
* Test normalization (UTC).
*/
RTTestSub(hTest, "Normalization (UTC)");
/* simple */
CHECK_NZ(RTTimeNow(&Now));
CHECK_NZ(RTTimeExplode(&T1, &Now));
T2 = T1;
CHECK_NZ(RTTimeNormalize(&T1));
if (memcmp(&T1, &T2, sizeof(T1)))
RTTestIFailed("simple normalization failed\n");
CHECK_NZ(RTTimeImplode(&Ts1, &T1));
CHECK_NZ(RTTimeSpecIsEqual(&Ts1, &Now));
/* a few partial dates. */
memset(&T1, 0, sizeof(T1));
SET_TIME( &T1, 1970,01,01, 00,00,00, 0, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1970,01,01, 00,00,00, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1970,00,00, 00,00,00, 1, 1, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1970,01,01, 00,00,00, 1, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 2007,12,06, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2007,12,06, 02,15,23, 1, 340, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1968,01,30, 00,19,24, 5, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1968,01,30, 00,19,24, 5, 30, 1, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
SET_TIME( &T1, 1969,01,31, 00, 9, 2, 7, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,01,31, 00, 9, 2, 7, 31, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,03,31, 00, 9, 2, 7, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,03,31, 00, 9, 2, 7, 90, 0, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,12,31, 00,00,00, 9, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,31, 00,00,00, 9, 365, 2, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,12,30, 00,00,00, 30, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,30, 00,00,00, 30, 364, 1, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,00,00, 00,00,00, 30, 363, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,29, 00,00,00, 30, 363, 0, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,00,00, 00,00,00, 30, 362, 6, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,28, 00,00,00, 30, 362, 6, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,12,27, 00,00,00, 30, 0, 5, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,27, 00,00,00, 30, 361, 5, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,00,00, 00,00,00, 30, 360, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,26, 00,00,00, 30, 360, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,12,25, 00,00,00, 12, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,25, 00,00,00, 12, 359, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 1969,12,24, 00,00,00, 16, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1969,12,24, 00,00,00, 16, 358, 2, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
/* outside the year table range */
SET_TIME( &T1, 1200,01,30, 00,00,00, 2, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1200,01,30, 00,00,00, 2, 30, 6, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
SET_TIME( &T1, 2555,11,29, 00,00,00, 2, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2555,11,29, 00,00,00, 2, 333, 5, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 2555,00,00, 00,00,00, 3, 333, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2555,11,29, 00,00,00, 3, 333, 5, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
/* time overflow */
SET_TIME( &T1, 1969,12,30, 255,255,255, UINT32_MAX, 364, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 1970,01, 9, 19,19,19,294967295, 9, 4, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
/* date overflow */
SET_TIME( &T1, 2007,11,36, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2007,12,06, 02,15,23, 1, 340, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 2007,10,67, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2007,12,06, 02,15,23, 1, 340, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 2007,10,98, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2008,01,06, 02,15,23, 1, 6, 6, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
SET_TIME( &T1, 2006,24,06, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2007,12,06, 02,15,23, 1, 340, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
SET_TIME( &T1, 2003,60,37, 02,15,23, 1, 0, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2008,01,06, 02,15,23, 1, 6, 6, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
SET_TIME( &T1, 2003,00,00, 02,15,23, 1,1801, 0, 0, 0);
CHECK_NZ(RTTimeNormalize(&T1));
CHECK_TIME(&T1, 2007,12,06, 02,15,23, 1, 340, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
/*
* Conversions.
*/
#define CHECK_NSEC(Ts1, T2) \
do { \
RTTIMESPEC TsTmp; \
RTTESTI_CHECK_MSG( RTTimeSpecGetNano(&(Ts1)) == RTTimeSpecGetNano(RTTimeImplode(&TsTmp, &(T2))), \
("line %d: %RI64, %RI64\n", __LINE__, \
RTTimeSpecGetNano(&(Ts1)), RTTimeSpecGetNano(RTTimeImplode(&TsTmp, &(T2)))) ); \
} while (0)
RTTestSub(hTest, "Conversions, positive");
SET_TIME(&T1, 1980,01,01, 00,00,00, 0, 1, 1, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
RTTESTI_CHECK(RTTimeSpecSetDosSeconds(&Ts2, 0) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetDosSeconds(&Ts2) == 0);
CHECK_NSEC(Ts2, T1);
SET_TIME(&T1, 1980,01,01, 00,00,00, 0, 1, 1, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_LEAP_YEAR);
RTTESTI_CHECK(RTTimeSpecSetNtTime(&Ts2, INT64_C(119600064000000000)) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetNtTime(&Ts2) == INT64_C(119600064000000000));
CHECK_NSEC(Ts2, T1);
SET_TIME(&T1, 1970,01,01, 00,00,01, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
RTTESTI_CHECK(RTTimeSpecSetSeconds(&Ts2, 1) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetSeconds(&Ts2) == 1);
CHECK_NSEC(Ts2, T1);
SET_TIME(&T1, 1970,01,01, 00,00,01, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
RTTESTI_CHECK(RTTimeSpecSetMilli(&Ts2, 1000) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetMilli(&Ts2) == 1000);
CHECK_NSEC(Ts2, T1);
SET_TIME(&T1, 1970,01,01, 00,00,01, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
RTTESTI_CHECK(RTTimeSpecSetMicro(&Ts2, 1000000) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetMicro(&Ts2) == 1000000);
CHECK_NSEC(Ts2, T1);
SET_TIME(&T1, 1970,01,01, 00,00,01, 0, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
RTTESTI_CHECK(RTTimeSpecSetNano(&Ts2, 1000000000) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetNano(&Ts2) == 1000000000);
CHECK_NSEC(Ts2, T1);
#ifdef RTTIME_INCL_TIMEVAL
SET_TIME(&T1, 1970,01,01, 00,00,01, 5000, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
Tv1.tv_sec = 1;
Tv1.tv_usec = 5;
RTTESTI_CHECK(RTTimeSpecSetTimeval(&Ts2, &Tv1) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetMicro(&Ts2) == 1000005);
CHECK_NSEC(Ts2, T1);
RTTESTI_CHECK(RTTimeSpecGetTimeval(&Ts2, &Tv2) == &Tv2);
RTTESTI_CHECK(Tv1.tv_sec == Tv2.tv_sec); RTTESTI_CHECK(Tv1.tv_usec == Tv2.tv_usec);
#endif
#ifdef RTTIME_INCL_TIMESPEC
SET_TIME(&T1, 1970,01,01, 00,00,01, 5, 1, 3, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
Tsp1.tv_sec = 1;
Tsp1.tv_nsec = 5;
RTTESTI_CHECK(RTTimeSpecSetTimespec(&Ts2, &Tsp1) == &Ts2);
RTTESTI_CHECK(RTTimeSpecGetNano(&Ts2) == 1000000005);
CHECK_NSEC(Ts2, T1);
RTTESTI_CHECK(RTTimeSpecGetTimespec(&Ts2, &Tsp2) == &Tsp2);
RTTESTI_CHECK(Tsp1.tv_sec == Tsp2.tv_sec); RTTESTI_CHECK(Tsp1.tv_nsec == Tsp2.tv_nsec);
#endif
RTTestSub(hTest, "Conversions, negative");
#ifdef RTTIME_INCL_TIMEVAL
SET_TIME(&T1, 1969,12,31, 23,59,58,999995000, 365, 2, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
Tv1.tv_sec = -2;
Tv1.tv_usec = 999995;
RTTESTI_CHECK(RTTimeSpecSetTimeval(&Ts2, &Tv1) == &Ts2);
RTTESTI_CHECK_MSG(RTTimeSpecGetMicro(&Ts2) == -1000005, ("%RI64\n", RTTimeSpecGetMicro(&Ts2)));
CHECK_NSEC(Ts2, T1);
RTTESTI_CHECK(RTTimeSpecGetTimeval(&Ts2, &Tv2) == &Tv2);
RTTESTI_CHECK(Tv1.tv_sec == Tv2.tv_sec); RTTESTI_CHECK(Tv1.tv_usec == Tv2.tv_usec);
#endif
#ifdef RTTIME_INCL_TIMESPEC
SET_TIME(&T1, 1969,12,31, 23,59,58,999999995, 365, 2, 0, RTTIME_FLAGS_TYPE_UTC | RTTIME_FLAGS_COMMON_YEAR);
Tsp1.tv_sec = -2;
Tsp1.tv_nsec = 999999995;
RTTESTI_CHECK(RTTimeSpecSetTimespec(&Ts2, &Tsp1) == &Ts2);
RTTESTI_CHECK_MSG(RTTimeSpecGetNano(&Ts2) == -1000000005, ("%RI64\n", RTTimeSpecGetMicro(&Ts2)));
CHECK_NSEC(Ts2, T1);
RTTESTI_CHECK(RTTimeSpecGetTimespec(&Ts2, &Tsp2) == &Tsp2);
RTTESTI_CHECK(Tsp1.tv_sec == Tsp2.tv_sec); RTTESTI_CHECK(Tsp1.tv_nsec == Tsp2.tv_nsec);
#endif
/*
* Summary
*/
return RTTestSummaryAndDestroy(hTest);
}
