static void Test3(void)
{
RTTestSub(g_hTest, "Negative");
bool fSavedAssertQuiet = RTAssertSetQuiet(true);
bool fSavedAssertMayPanic = RTAssertSetMayPanic(false);
bool fSavedLckValEnabled = RTLockValidatorSetEnabled(false);
RTSEMRW hSemRW;
RTTEST_CHECK_RC_RETV(g_hTest, RTSemRWCreate(&hSemRW), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseRead(hSemRW), VERR_NOT_OWNER);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseWrite(hSemRW), VERR_NOT_OWNER);
RTTEST_CHECK_RC(g_hTest, RTSemRWRequestWrite(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseRead(hSemRW), VERR_NOT_OWNER);
RTTEST_CHECK_RC(g_hTest, RTSemRWRequestRead(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseWrite(hSemRW), VERR_WRONG_ORDER); /* cannot release the final write before the reads. */
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWDestroy(hSemRW), VINF_SUCCESS);
RTLockValidatorSetEnabled(fSavedLckValEnabled);
RTAssertSetMayPanic(fSavedAssertMayPanic);
RTAssertSetQuiet(fSavedAssertQuiet);
}
/**
* Do-once callback that initializes the read/write semaphore and registers
* the built-in interpreters.
*
* @returns IPRT status code.
* @param pvUser1 NULL.
* @param pvUser2 NULL.
*/
static DECLCALLBACK(int) rtDbgModInitOnce(void *pvUser1, void *pvUser2)
{
/*
* Create the semaphore and string cache.
*/
int rc = RTSemRWCreate(&g_hDbgModRWSem);
AssertRCReturn(rc, rc);
rc = RTStrCacheCreate(&g_hDbgModStrCache, "RTDBGMOD");
if (RT_SUCCESS(rc))
{
/*
* Register the interpreters.
*/
rc = rtDbgModDebugInterpreterRegister(&g_rtDbgModVtDbgNm);
if (RT_SUCCESS(rc))
{
/*
* Finally, register the IPRT cleanup callback.
*/
rc = RTTermRegisterCallback(rtDbgModTermCallback, NULL);
if (RT_SUCCESS(rc))
return VINF_SUCCESS;
/* bail out: use the termination callback. */
}
}
else
g_hDbgModStrCache = NIL_RTSTRCACHE;
rtDbgModTermCallback(RTTERMREASON_UNLOAD, 0, NULL);
return rc;
}
/**
* Initializes the address space parts of DBGF.
*
* @returns VBox status code.
* @param pUVM The user mode VM handle.
*/
int dbgfR3AsInit(PUVM pUVM)
{
/*
* Create the semaphore.
*/
int rc = RTSemRWCreate(&pUVM->dbgf.s.hAsDbLock);
AssertRCReturn(rc, rc);
/*
* Create the standard address spaces.
*/
RTDBGAS hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTGCPTR_MAX, "Global");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_GLOBAL)] = hDbgAs;
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_KERNEL)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTGCPHYS_MAX, "Physical");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_PHYS)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTRCPTR_MAX, "HyperRawMode");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC)] = hDbgAs;
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC_AND_GC_GLOBAL)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTR0PTR_MAX, "HyperRing0");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_R0)] = hDbgAs;
return VINF_SUCCESS;
}
static void Test2(void)
{
RTTestSub(g_hTest, "Timeout");
RTSEMRW hSemRW = NIL_RTSEMRW;
RTTEST_CHECK_RC_RETV(g_hTest, RTSemRWCreate(&hSemRW), VINF_SUCCESS);
/* Lock it for writing and let the thread do the remainder of the test. */
RTTEST_CHECK_RC_RETV(g_hTest, RTSemRWRequestWrite(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS);
RTTHREAD hThread;
RTTEST_CHECK_RC_RETV(g_hTest, RTThreadCreate(&hThread, Test2Thread, hSemRW, 0,
RTTHREADTYPE_DEFAULT, RTTHREADFLAGS_WAITABLE, "test2"),
VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTThreadWait(hThread, 15000, NULL), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS);
RTTEST_CHECK_RC(g_hTest, RTSemRWDestroy(hSemRW), VINF_SUCCESS);
}
/**
* Initializes the address space parts of DBGF.
*
* @returns VBox status code.
* @param pUVM The user mode VM handle.
*/
int dbgfR3AsInit(PUVM pUVM)
{
Assert(pUVM->pVM);
/*
* Create the semaphore.
*/
int rc = RTSemRWCreate(&pUVM->dbgf.s.hAsDbLock);
AssertRCReturn(rc, rc);
/*
* Create the debugging config instance and set it up, defaulting to
* deferred loading in order to keep things fast.
*/
rc = RTDbgCfgCreate(&pUVM->dbgf.s.hDbgCfg, NULL, true /*fNativePaths*/);
AssertRCReturn(rc, rc);
rc = RTDbgCfgChangeUInt(pUVM->dbgf.s.hDbgCfg, RTDBGCFGPROP_FLAGS, RTDBGCFGOP_PREPEND,
RTDBGCFG_FLAGS_DEFERRED);
AssertRCReturn(rc, rc);
static struct
{
RTDBGCFGPROP enmProp;
const char *pszEnvName;
const char *pszCfgName;
} const s_aProps[] =
{
{ RTDBGCFGPROP_FLAGS, "VBOXDBG_FLAGS", "Flags" },
{ RTDBGCFGPROP_PATH, "VBOXDBG_PATH", "Path" },
{ RTDBGCFGPROP_SUFFIXES, "VBOXDBG_SUFFIXES", "Suffixes" },
{ RTDBGCFGPROP_SRC_PATH, "VBOXDBG_SRC_PATH", "SrcPath" },
};
PCFGMNODE pCfgDbgf = CFGMR3GetChild(CFGMR3GetRootU(pUVM), "/DBGF");
for (unsigned i = 0; i < RT_ELEMENTS(s_aProps); i++)
{
char szEnvValue[8192];
rc = RTEnvGetEx(RTENV_DEFAULT, s_aProps[i].pszEnvName, szEnvValue, sizeof(szEnvValue), NULL);
if (RT_SUCCESS(rc))
{
rc = RTDbgCfgChangeString(pUVM->dbgf.s.hDbgCfg, s_aProps[i].enmProp, RTDBGCFGOP_PREPEND, szEnvValue);
if (RT_FAILURE(rc))
return VMR3SetError(pUVM, rc, RT_SRC_POS,
"DBGF Config Error: %s=%s -> %Rrc", s_aProps[i].pszEnvName, szEnvValue, rc);
}
else if (rc != VERR_ENV_VAR_NOT_FOUND)
return VMR3SetError(pUVM, rc, RT_SRC_POS,
"DBGF Config Error: Error querying env.var. %s: %Rrc", s_aProps[i].pszEnvName, rc);
char *pszCfgValue;
rc = CFGMR3QueryStringAllocDef(pCfgDbgf, s_aProps[i].pszCfgName, &pszCfgValue, NULL);
if (RT_FAILURE(rc))
return VMR3SetError(pUVM, rc, RT_SRC_POS,
"DBGF Config Error: Querying /DBGF/%s -> %Rrc", s_aProps[i].pszCfgName, rc);
if (pszCfgValue)
{
rc = RTDbgCfgChangeString(pUVM->dbgf.s.hDbgCfg, s_aProps[i].enmProp, RTDBGCFGOP_PREPEND, pszCfgValue);
if (RT_FAILURE(rc))
return VMR3SetError(pUVM, rc, RT_SRC_POS,
"DBGF Config Error: /DBGF/%s=%s -> %Rrc", s_aProps[i].pszCfgName, pszCfgValue, rc);
}
}
/*
* Prepend the NoArch and VBoxDbgSyms directories to the path.
*/
char szPath[RTPATH_MAX];
rc = RTPathAppPrivateNoArch(szPath, sizeof(szPath));
AssertRCReturn(rc, rc);
#ifdef RT_OS_DARWIN
rc = RTPathAppend(szPath, sizeof(szPath), "../Resources/VBoxDbgSyms/");
#else
rc = RTDbgCfgChangeString(pUVM->dbgf.s.hDbgCfg, RTDBGCFGPROP_PATH, RTDBGCFGOP_PREPEND, szPath);
AssertRCReturn(rc, rc);
rc = RTPathAppend(szPath, sizeof(szPath), "VBoxDbgSyms/");
#endif
AssertRCReturn(rc, rc);
rc = RTDbgCfgChangeString(pUVM->dbgf.s.hDbgCfg, RTDBGCFGPROP_PATH, RTDBGCFGOP_PREPEND, szPath);
AssertRCReturn(rc, rc);
/*
* Create the standard address spaces.
*/
RTDBGAS hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTGCPTR_MAX, "Global");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_GLOBAL)] = hDbgAs;
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_KERNEL)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTGCPHYS_MAX, "Physical");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_PHYS)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTRCPTR_MAX, "HyperRawMode");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC)] = hDbgAs;
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC_AND_GC_GLOBAL)] = hDbgAs;
rc = RTDbgAsCreate(&hDbgAs, 0, RTR0PTR_MAX, "HyperRing0");
AssertRCReturn(rc, rc);
rc = DBGFR3AsAdd(pUVM, hDbgAs, NIL_RTPROCESS);
AssertRCReturn(rc, rc);
RTDbgAsRetain(hDbgAs);
pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_R0)] = hDbgAs;
return VINF_SUCCESS;
}
static bool Test1(void)
{
RTTestSub(g_hTest, "Basics");
RTSEMRW hSemRW = NIL_RTSEMRW;
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWCreate(&hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, hSemRW != NIL_RTSEMRW, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestRead(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS, false);
for (unsigned cMs = 0; cMs < 50; cMs++)
{
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestRead(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestRead(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS, false);
}
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestWrite(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestWrite(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestRead(hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS, false);
for (unsigned cMs = 0; cMs < 50; cMs++)
{
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestWrite(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 1, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestWrite(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 2, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestRead(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 2, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 1, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWRequestWrite(hSemRW, cMs), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 3, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 1, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
/* midway */
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 2, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 1, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseRead(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 2, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 1, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == true, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWReleaseWrite(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriteRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWGetWriterReadRecursion(hSemRW) == 0, false);
RTTEST_CHECK_RET(g_hTest, RTSemRWIsWriteOwner(hSemRW) == false, false);
}
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWDestroy(hSemRW), VINF_SUCCESS, false);
RTTEST_CHECK_RC_RET(g_hTest, RTSemRWDestroy(NIL_RTSEMRW), VINF_SUCCESS, false);
return true;
}
static void Test4(unsigned cThreads, unsigned cSeconds, unsigned uWritePercent, bool fYield, bool fQuiet)
{
unsigned i;
uint64_t acIterations[32];
RTTHREAD aThreads[RT_ELEMENTS(acIterations)];
AssertRelease(cThreads <= RT_ELEMENTS(acIterations));
RTTestSubF(g_hTest, "Test4 - %u threads, %u sec, %u%% writes, %syielding",
cThreads, cSeconds, uWritePercent, fYield ? "" : "non-");
/*
* Init globals.
*/
g_fYield = fYield;
g_fQuiet = fQuiet;
g_fTerminate = false;
g_uWritePercent = uWritePercent;
g_cConcurrentWriters = 0;
g_cConcurrentReaders = 0;
RTTEST_CHECK_RC_RETV(g_hTest, RTSemRWCreate(&g_hSemRW), VINF_SUCCESS);
/*
* Create the threads and let them block on the semrw.
*/
RTTEST_CHECK_RC_RETV(g_hTest, RTSemRWRequestWrite(g_hSemRW, RT_INDEFINITE_WAIT), VINF_SUCCESS);
for (i = 0; i < cThreads; i++)
{
acIterations[i] = 0;
RTTEST_CHECK_RC_RETV(g_hTest, RTThreadCreateF(&aThreads[i], Test4Thread, &acIterations[i], 0,
RTTHREADTYPE_DEFAULT, RTTHREADFLAGS_WAITABLE,
"test-%u", i), VINF_SUCCESS);
}
/*
* Do the test run.
*/
uint32_t cErrorsBefore = RTTestErrorCount(g_hTest);
uint64_t u64StartTS = RTTimeNanoTS();
RTTEST_CHECK_RC(g_hTest, RTSemRWReleaseWrite(g_hSemRW), VINF_SUCCESS);
RTThreadSleep(cSeconds * 1000);
ASMAtomicWriteBool(&g_fTerminate, true);
uint64_t ElapsedNS = RTTimeNanoTS() - u64StartTS;
/*
* Clean up the threads and semaphore.
*/
for (i = 0; i < cThreads; i++)
RTTEST_CHECK_RC(g_hTest, RTThreadWait(aThreads[i], 5000, NULL), VINF_SUCCESS);
RTTEST_CHECK_MSG(g_hTest, g_cConcurrentWriters == 0, (g_hTest, "g_cConcurrentWriters=%u at end of test\n", g_cConcurrentWriters));
RTTEST_CHECK_MSG(g_hTest, g_cConcurrentReaders == 0, (g_hTest, "g_cConcurrentReaders=%u at end of test\n", g_cConcurrentReaders));
RTTEST_CHECK_RC(g_hTest, RTSemRWDestroy(g_hSemRW), VINF_SUCCESS);
g_hSemRW = NIL_RTSEMRW;
if (RTTestErrorCount(g_hTest) != cErrorsBefore)
RTThreadSleep(100);
/*
* Collect and display the results.
*/
uint64_t cItrTotal = acIterations[0];
for (i = 1; i < cThreads; i++)
cItrTotal += acIterations[i];
uint64_t cItrNormal = cItrTotal / cThreads;
uint64_t cItrMinOK = cItrNormal / 20; /* 5% */
uint64_t cItrMaxDeviation = 0;
for (i = 0; i < cThreads; i++)
{
uint64_t cItrDelta = RT_ABS((int64_t)(acIterations[i] - cItrNormal));
if (acIterations[i] < cItrMinOK)
RTTestFailed(g_hTest, "Thread %u did less than 5%% of the iterations - %llu (it) vs. %llu (5%%) - %llu%%\n",
i, acIterations[i], cItrMinOK, cItrDelta * 100 / cItrNormal);
else if (cItrDelta > cItrNormal / 2)
RTTestPrintf(g_hTest, RTTESTLVL_ALWAYS,
"Warning! Thread %u deviates by more than 50%% - %llu (it) vs. %llu (avg) - %llu%%\n",
i, acIterations[i], cItrNormal, cItrDelta * 100 / cItrNormal);
if (cItrDelta > cItrMaxDeviation)
cItrMaxDeviation = cItrDelta;
}
//RTTestPrintf(g_hTest, RTTESTLVL_ALWAYS,
// "Threads: %u Total: %llu Per Sec: %llu Avg: %llu ns Max dev: %llu%%\n",
// cThreads,
// cItrTotal,
// cItrTotal / cSeconds,
// ElapsedNS / cItrTotal,
// cItrMaxDeviation * 100 / cItrNormal
// );
//
RTTestValue(g_hTest, "Thruput", cItrTotal * UINT32_C(1000000000) / ElapsedNS, RTTESTUNIT_CALLS_PER_SEC);
RTTestValue(g_hTest, "Max diviation", cItrMaxDeviation * 100 / cItrNormal, RTTESTUNIT_PCT);
}
