/**
* Attach command.
*
* This is called to let the device attach to a driver for a
* specified LUN.
*
* This is like plugging in the mouse after turning on the
* system.
*
* @returns VBox status code.
* @param pThis The PS/2 auxiliary device instance data.
* @param pDevIns The device instance.
* @param iLUN The logical unit which is being detached.
* @param fFlags Flags, combination of the PDMDEVATT_FLAGS_* \#defines.
*/
int PS2MAttach(PPS2M pThis, PPDMDEVINS pDevIns, unsigned iLUN, uint32_t fFlags)
{
int rc;
/* The LUN must be 1, i.e. mouse. */
Assert(iLUN == 1);
AssertMsgReturn(fFlags & PDM_TACH_FLAGS_NOT_HOT_PLUG,
("PS/2 mouse does not support hotplugging\n"),
VERR_INVALID_PARAMETER);
LogFlowFunc(("iLUN=%d\n", iLUN));
rc = PDMDevHlpDriverAttach(pDevIns, iLUN, &pThis->Mouse.IBase, &pThis->Mouse.pDrvBase, "Mouse Port");
if (RT_SUCCESS(rc))
{
pThis->Mouse.pDrv = PDMIBASE_QUERY_INTERFACE(pThis->Mouse.pDrvBase, PDMIMOUSECONNECTOR);
if (!pThis->Mouse.pDrv)
{
AssertLogRelMsgFailed(("LUN #1 doesn't have a mouse interface! rc=%Rrc\n", rc));
rc = VERR_PDM_MISSING_INTERFACE;
}
}
else if (rc == VERR_PDM_NO_ATTACHED_DRIVER)
{
Log(("%s/%d: warning: no driver attached to LUN #1!\n", pDevIns->pReg->szName, pDevIns->iInstance));
rc = VINF_SUCCESS;
}
else
AssertLogRelMsgFailed(("Failed to attach LUN #1! rc=%Rrc\n", rc));
return rc;
}
/**
* Copy the device and free resources associated with the backend.
*/
static DECLCALLBACK(void) usbProxyWinClose(PUSBPROXYDEV pProxyDev)
{
/* Here we just close the device and free up p->priv
* there is no need to do anything like cancel outstanding requests
* that will have been done already
*/
PPRIV_USBW32 pPriv = USBPROXYDEV_2_DATA(pProxyDev, PPRIV_USBW32);
Assert(pPriv);
if (!pPriv)
return;
Log(("usbProxyWinClose: %p\n", pPriv->hDev));
if (pPriv->hDev != INVALID_HANDLE_VALUE)
{
Assert(pPriv->fClaimed);
USBSUP_RELEASEDEV in;
DWORD cbReturned = 0;
in.bInterfaceNumber = pPriv->bInterfaceNumber;
if (!DeviceIoControl(pPriv->hDev, SUPUSB_IOCTL_USB_RELEASE_DEVICE, &in, sizeof(in), NULL, 0, &cbReturned, NULL))
{
Log(("usbproxy: usbProxyWinClose: DeviceIoControl %#x failed with %#x!!\n", pPriv->hDev, GetLastError()));
}
if (!CloseHandle(pPriv->hDev))
AssertLogRelMsgFailed(("usbproxy: usbProxyWinClose: CloseHandle %#x failed with %#x!!\n", pPriv->hDev, GetLastError()));
pPriv->hDev = INVALID_HANDLE_VALUE;
}
CloseHandle(pPriv->hEventWakeup);
RTCritSectDelete(&pPriv->CritSect);
RTMemFree(pPriv->paQueuedUrbs);
RTMemFree(pPriv->paHandles);
}
/**
* A variant of Utf8Str::copyFrom that does not throw any exceptions but returns
* E_OUTOFMEMORY instead.
*
* @param a_pbstr The source string.
* @returns S_OK or E_OUTOFMEMORY.
*/
HRESULT Utf8Str::copyFromEx(CBSTR a_pbstr)
{
if (a_pbstr && *a_pbstr)
{
int vrc = RTUtf16ToUtf8Ex((PCRTUTF16)a_pbstr,
RTSTR_MAX, // size_t cwcString: translate entire string
&m_psz, // char **ppsz: output buffer
0, // size_t cch: if 0, func allocates buffer in *ppsz
&m_cch); // size_t *pcch: receives the size of the output string, excluding the terminator.
if (RT_SUCCESS(vrc))
m_cbAllocated = m_cch + 1;
else
{
if ( vrc != VERR_NO_STR_MEMORY
&& vrc != VERR_NO_MEMORY)
{
/* ASSUME: input is valid Utf-16. Fake out of memory error. */
AssertLogRelMsgFailed(("%Rrc %.*Rhxs\n", vrc, RTUtf16Len((PCRTUTF16)a_pbstr) * sizeof(RTUTF16), a_pbstr));
}
m_cch = 0;
m_cbAllocated = 0;
m_psz = NULL;
return E_OUTOFMEMORY;
}
}
else
{
m_cch = 0;
m_cbAllocated = 0;
m_psz = NULL;
}
return S_OK;
}
/**
* Signal a fatal wait error.
*
* @returns Fatal error code to be propagated up the call stack.
* @param pUVCpu The user mode per CPU structure of the calling
* EMT.
* @param pszFmt The error format with a single %Rrc in it.
* @param rcFmt The status code to format.
*/
static int vmR3FatalWaitError(PUVMCPU pUVCpu, const char *pszFmt, int rcFmt)
{
/** @todo This is wrong ... raise a fatal error / guru meditation
* instead. */
AssertLogRelMsgFailed((pszFmt, rcFmt));
ASMAtomicUoWriteBool(&pUVCpu->pUVM->vm.s.fTerminateEMT, true);
if (pUVCpu->pVM)
VM_FF_SET(pUVCpu->pVM, VM_FF_CHECK_VM_STATE);
return VERR_VM_FATAL_WAIT_ERROR;
}
DECLHIDDEN(int) supR3HardenedErrorV(int rc, bool fFatal, const char *pszFormat, va_list va)
{
if (fFatal)
supR3HardenedFatalV(pszFormat, va);
va_list vaCopy;
va_copy(vaCopy, va);
AssertLogRelMsgFailed(("%N", pszFormat, &vaCopy)); /** @todo figure out why this ain't working, or at seems to be that way... */
va_end(vaCopy);
RTLogRelPrintfV(pszFormat, va);
return rc;
}
static void vboxguestwinTestAtomicTestAndClearBitsU32(uint32_t u32Mask, uint32_t u32Bits,
uint32_t u32Exp)
{
ULONG u32Bits2 = u32Bits;
uint32_t u32Result = vboxugestwinAtomicBitsTestAndClear(&u32Bits2, u32Mask);
if ( u32Result != u32Exp
|| (u32Bits2 & u32Mask)
|| (u32Bits2 & u32Result)
|| ((u32Bits2 | u32Result) != u32Bits)
)
AssertLogRelMsgFailed(("%s: TEST FAILED: u32Mask=0x%x, u32Bits (before)=0x%x, u32Bits (after)=0x%x, u32Result=0x%x, u32Exp=ox%x\n",
__PRETTY_FUNCTION__, u32Mask, u32Bits, u32Bits2,
u32Result));
}
void Bstr::copyFromN(const char *a_pszSrc, size_t a_cchMax)
{
/*
* Initialie m_bstr first in case of throws further down in the code, then
* check for empty input (m_bstr == NULL means empty, there are no NULL
* strings).
*/
m_bstr = NULL;
if (!a_cchMax || !a_pszSrc || !*a_pszSrc)
return;
/*
* Calculate the length and allocate a BSTR string buffer of the right
* size, i.e. optimize heap usage.
*/
size_t cwc;
int vrc = ::RTStrCalcUtf16LenEx(a_pszSrc, a_cchMax, &cwc);
if (RT_SUCCESS(vrc))
{
m_bstr = ::SysAllocStringByteLen(NULL, (unsigned)(cwc * sizeof(OLECHAR)));
if (RT_LIKELY(m_bstr))
{
PRTUTF16 pwsz = (PRTUTF16)m_bstr;
vrc = ::RTStrToUtf16Ex(a_pszSrc, a_cchMax, &pwsz, cwc + 1, NULL);
if (RT_SUCCESS(vrc))
return;
/* This should not happen! */
AssertRC(vrc);
cleanup();
}
}
else /* ASSUME: input is valid Utf-8. Fake out of memory error. */
AssertLogRelMsgFailed(("%Rrc %.*Rhxs\n", vrc, RTStrNLen(a_pszSrc, a_cchMax), a_pszSrc));
throw std::bad_alloc();
}
/**
* Relocates the RC address space.
*
* @param pUVM The user mode VM handle.
* @param offDelta The relocation delta.
*/
void dbgfR3AsRelocate(PUVM pUVM, RTGCUINTPTR offDelta)
{
/*
* We will relocate the raw-mode context modules by offDelta if they have
* been injected into the the DBGF_AS_RC map.
*/
if ( pUVM->dbgf.s.afAsAliasPopuplated[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC)]
&& offDelta != 0)
{
RTDBGAS hAs = pUVM->dbgf.s.ahAsAliases[DBGF_AS_ALIAS_2_INDEX(DBGF_AS_RC)];
/* Take a snapshot of the modules as we might have overlapping
addresses between the previous and new mapping. */
RTDbgAsLockExcl(hAs);
uint32_t cModules = RTDbgAsModuleCount(hAs);
if (cModules > 0 && cModules < _4K)
{
struct DBGFASRELOCENTRY
{
RTDBGMOD hDbgMod;
RTRCPTR uOldAddr;
} *paEntries = (struct DBGFASRELOCENTRY *)RTMemTmpAllocZ(sizeof(paEntries[0]) * cModules);
if (paEntries)
{
/* Snapshot. */
for (uint32_t i = 0; i < cModules; i++)
{
paEntries[i].hDbgMod = RTDbgAsModuleByIndex(hAs, i);
AssertLogRelMsg(paEntries[i].hDbgMod != NIL_RTDBGMOD, ("iModule=%#x\n", i));
RTDBGASMAPINFO aMappings[1] = { { 0, 0 } };
uint32_t cMappings = 1;
int rc = RTDbgAsModuleQueryMapByIndex(hAs, i, &aMappings[0], &cMappings, 0 /*fFlags*/);
if (RT_SUCCESS(rc) && cMappings == 1 && aMappings[0].iSeg == NIL_RTDBGSEGIDX)
paEntries[i].uOldAddr = (RTRCPTR)aMappings[0].Address;
else
AssertLogRelMsgFailed(("iModule=%#x rc=%Rrc cMappings=%#x.\n", i, rc, cMappings));
}
/* Unlink them. */
for (uint32_t i = 0; i < cModules; i++)
{
int rc = RTDbgAsModuleUnlink(hAs, paEntries[i].hDbgMod);
AssertLogRelMsg(RT_SUCCESS(rc), ("iModule=%#x rc=%Rrc hDbgMod=%p\n", i, rc, paEntries[i].hDbgMod));
}
/* Link them at the new locations. */
for (uint32_t i = 0; i < cModules; i++)
{
RTRCPTR uNewAddr = paEntries[i].uOldAddr + offDelta;
int rc = RTDbgAsModuleLink(hAs, paEntries[i].hDbgMod, uNewAddr,
RTDBGASLINK_FLAGS_REPLACE);
AssertLogRelMsg(RT_SUCCESS(rc),
("iModule=%#x rc=%Rrc hDbgMod=%p %RRv -> %RRv\n", i, rc, paEntries[i].hDbgMod,
paEntries[i].uOldAddr, uNewAddr));
RTDbgModRelease(paEntries[i].hDbgMod);
}
RTMemTmpFree(paEntries);
}
else
AssertLogRelMsgFailed(("No memory for %#x modules.\n", cModules));
}
else
AssertLogRelMsgFailed(("cModules=%#x\n", cModules));
RTDbgAsUnlockExcl(hAs);
}
}
/**
* The emulation thread main function, with Virtual CPU ID for debugging.
*
* @returns Thread exit code.
* @param ThreadSelf The handle to the executing thread.
* @param pUVCpu Pointer to the user mode per-VCpu structure.
* @param idCpu The virtual CPU ID, for backtrace purposes.
*/
int vmR3EmulationThreadWithId(RTTHREAD ThreadSelf, PUVMCPU pUVCpu, VMCPUID idCpu)
{
PUVM pUVM = pUVCpu->pUVM;
int rc;
AssertReleaseMsg(VALID_PTR(pUVM) && pUVM->u32Magic == UVM_MAGIC,
("Invalid arguments to the emulation thread!\n"));
rc = RTTlsSet(pUVM->vm.s.idxTLS, pUVCpu);
AssertReleaseMsgRCReturn(rc, ("RTTlsSet %x failed with %Rrc\n", pUVM->vm.s.idxTLS, rc), rc);
if ( pUVM->pVmm2UserMethods
&& pUVM->pVmm2UserMethods->pfnNotifyEmtInit)
pUVM->pVmm2UserMethods->pfnNotifyEmtInit(pUVM->pVmm2UserMethods, pUVM, pUVCpu);
/*
* The request loop.
*/
rc = VINF_SUCCESS;
Log(("vmR3EmulationThread: Emulation thread starting the days work... Thread=%#x pUVM=%p\n", ThreadSelf, pUVM));
VMSTATE enmBefore = VMSTATE_CREATED; /* (only used for logging atm.) */
for (;;)
{
/*
* During early init there is no pVM, so make a special path
* for that to keep things clearly separate.
*/
if (!pUVM->pVM)
{
/*
* Check for termination first.
*/
if (pUVM->vm.s.fTerminateEMT)
{
rc = VINF_EM_TERMINATE;
break;
}
/*
* Only the first VCPU may initialize the VM during early init
* and must therefore service all VMCPUID_ANY requests.
* See also VMR3Create
*/
if ( (pUVM->vm.s.pNormalReqs || pUVM->vm.s.pPriorityReqs)
&& pUVCpu->idCpu == 0)
{
/*
* Service execute in any EMT request.
*/
rc = VMR3ReqProcessU(pUVM, VMCPUID_ANY, false /*fPriorityOnly*/);
Log(("vmR3EmulationThread: Req rc=%Rrc, VM state %s -> %s\n", rc, VMR3GetStateName(enmBefore), pUVM->pVM ? VMR3GetStateName(pUVM->pVM->enmVMState) : "CREATING"));
}
else if (pUVCpu->vm.s.pNormalReqs || pUVCpu->vm.s.pPriorityReqs)
{
/*
* Service execute in specific EMT request.
*/
rc = VMR3ReqProcessU(pUVM, pUVCpu->idCpu, false /*fPriorityOnly*/);
Log(("vmR3EmulationThread: Req (cpu=%u) rc=%Rrc, VM state %s -> %s\n", pUVCpu->idCpu, rc, VMR3GetStateName(enmBefore), pUVM->pVM ? VMR3GetStateName(pUVM->pVM->enmVMState) : "CREATING"));
}
else
{
/*
* Nothing important is pending, so wait for something.
*/
rc = VMR3WaitU(pUVCpu);
if (RT_FAILURE(rc))
{
AssertLogRelMsgFailed(("VMR3WaitU failed with %Rrc\n", rc));
break;
}
}
}
else
{
/*
* Pending requests which needs servicing?
*
* We check for state changes in addition to status codes when
* servicing requests. (Look after the ifs.)
*/
PVM pVM = pUVM->pVM;
enmBefore = pVM->enmVMState;
if (pUVM->vm.s.fTerminateEMT)
{
rc = VINF_EM_TERMINATE;
break;
}
if (VM_FF_ISPENDING(pVM, VM_FF_EMT_RENDEZVOUS))
{
rc = VMMR3EmtRendezvousFF(pVM, &pVM->aCpus[idCpu]);
Log(("vmR3EmulationThread: Rendezvous rc=%Rrc, VM state %s -> %s\n", rc, VMR3GetStateName(enmBefore), VMR3GetStateName(pVM->enmVMState)));
}
else if (pUVM->vm.s.pNormalReqs || pUVM->vm.s.pPriorityReqs)
{
/*
* Service execute in any EMT request.
*/
rc = VMR3ReqProcessU(pUVM, VMCPUID_ANY, false /*fPriorityOnly*/);
Log(("vmR3EmulationThread: Req rc=%Rrc, VM state %s -> %s\n", rc, VMR3GetStateName(enmBefore), VMR3GetStateName(pVM->enmVMState)));
}
else if (pUVCpu->vm.s.pNormalReqs || pUVCpu->vm.s.pPriorityReqs)
{
/*
* Service execute in specific EMT request.
*/
rc = VMR3ReqProcessU(pUVM, pUVCpu->idCpu, false /*fPriorityOnly*/);
Log(("vmR3EmulationThread: Req (cpu=%u) rc=%Rrc, VM state %s -> %s\n", pUVCpu->idCpu, rc, VMR3GetStateName(enmBefore), VMR3GetStateName(pVM->enmVMState)));
}
else if (VM_FF_ISSET(pVM, VM_FF_DBGF))
{
/*
* Service the debugger request.
*/
rc = DBGFR3VMMForcedAction(pVM);
Log(("vmR3EmulationThread: Dbg rc=%Rrc, VM state %s -> %s\n", rc, VMR3GetStateName(enmBefore), VMR3GetStateName(pVM->enmVMState)));
}
else if (VM_FF_TESTANDCLEAR(pVM, VM_FF_RESET))
{
/*
* Service a delayed reset request.
*/
rc = VMR3Reset(pVM);
VM_FF_CLEAR(pVM, VM_FF_RESET);
Log(("vmR3EmulationThread: Reset rc=%Rrc, VM state %s -> %s\n", rc, VMR3GetStateName(enmBefore), VMR3GetStateName(pVM->enmVMState)));
}
else
{
/*
* Nothing important is pending, so wait for something.
*/
rc = VMR3WaitU(pUVCpu);
if (RT_FAILURE(rc))
{
AssertLogRelMsgFailed(("VMR3WaitU failed with %Rrc\n", rc));
break;
}
}
/*
* Check for termination requests, these have extremely high priority.
*/
if ( rc == VINF_EM_TERMINATE
|| pUVM->vm.s.fTerminateEMT)
break;
}
/*
* Some requests (both VMR3Req* and the DBGF) can potentially resume
* or start the VM, in that case we'll get a change in VM status
* indicating that we're now running.
*/
if ( RT_SUCCESS(rc)
&& pUVM->pVM)
{
PVM pVM = pUVM->pVM;
PVMCPU pVCpu = &pVM->aCpus[idCpu];
if ( pVM->enmVMState == VMSTATE_RUNNING
&& VMCPUSTATE_IS_STARTED(VMCPU_GET_STATE(pVCpu)))
{
rc = EMR3ExecuteVM(pVM, pVCpu);
Log(("vmR3EmulationThread: EMR3ExecuteVM() -> rc=%Rrc, enmVMState=%d\n", rc, pVM->enmVMState));
if (EMGetState(pVCpu) == EMSTATE_GURU_MEDITATION)
vmR3SetGuruMeditation(pVM);
}
}
} /* forever */
/*
* Cleanup and exit.
*/
Log(("vmR3EmulationThread: Terminating emulation thread! Thread=%#x pUVM=%p rc=%Rrc enmBefore=%d enmVMState=%d\n",
ThreadSelf, pUVM, rc, enmBefore, pUVM->pVM ? pUVM->pVM->enmVMState : VMSTATE_TERMINATED));
if ( idCpu == 0
&& pUVM->pVM)
{
PVM pVM = pUVM->pVM;
vmR3SetTerminated(pVM);
pUVM->pVM = NULL;
/** @todo SMP: This isn't 100% safe. We should wait for the other
* threads to finish before destroy the VM. */
int rc2 = SUPR3CallVMMR0Ex(pVM->pVMR0, 0 /*idCpu*/, VMMR0_DO_GVMM_DESTROY_VM, 0, NULL);
AssertLogRelRC(rc2);
}
if ( pUVM->pVmm2UserMethods
&& pUVM->pVmm2UserMethods->pfnNotifyEmtTerm)
pUVM->pVmm2UserMethods->pfnNotifyEmtTerm(pUVM->pVmm2UserMethods, pUVM, pUVCpu);
pUVCpu->vm.s.NativeThreadEMT = NIL_RTNATIVETHREAD;
Log(("vmR3EmulationThread: EMT is terminated.\n"));
return rc;
}
/**
* Receive and process a byte sent by the keyboard controller.
*
* @param pThis The PS/2 auxiliary device instance data.
* @param cmd The command (or data) byte.
*/
int PS2MByteToAux(PPS2M pThis, uint8_t cmd)
{
uint8_t u8Val;
bool fHandled = true;
LogFlowFunc(("cmd=0x%02X, active cmd=0x%02X\n", cmd, pThis->u8CurrCmd));
//LogRel(("aux: cmd=0x%02X, active cmd=0x%02X\n", cmd, pThis->u8CurrCmd));
if (pThis->enmMode == AUX_MODE_RESET)
/* In reset mode, do not respond at all. */
return VINF_SUCCESS;
/* If there's anything left in the command response queue, trash it. */
ps2kClearQueue((GeneriQ *)&pThis->cmdQ);
if (pThis->enmMode == AUX_MODE_WRAP)
{
/* In wrap mode, bounce most data right back.*/
if (cmd == ACMD_RESET || cmd == ACMD_RESET_WRAP)
; /* Handle as regular commands. */
else
{
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, cmd);
return VINF_SUCCESS;
}
}
#ifndef IN_RING3
/* Reset, Enable, and Set Default commands must be run in R3. */
if (cmd == ACMD_RESET || cmd == ACMD_ENABLE || cmd == ACMD_SET_DEFAULT)
return VINF_IOM_R3_IOPORT_WRITE;
#endif
switch (cmd)
{
case ACMD_SET_SCALE_11:
pThis->u8State &= ~AUX_STATE_SCALING;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_SET_SCALE_21:
pThis->u8State |= AUX_STATE_SCALING;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_REQ_STATUS:
/* Report current status, sample rate, and resolution. */
u8Val = (pThis->u8State & AUX_STATE_EXTERNAL) | (pThis->fCurrB & PS2M_STD_BTN_MASK);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, u8Val);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, pThis->u8Resolution);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, pThis->u8SampleRate);
pThis->u8CurrCmd = 0;
break;
case ACMD_SET_STREAM:
pThis->u8State &= ~AUX_STATE_REMOTE;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_READ_REMOTE:
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
ps2mReportAccumulatedEvents(pThis, (GeneriQ *)&pThis->cmdQ, false);
pThis->u8CurrCmd = 0;
break;
case ACMD_RESET_WRAP:
pThis->enmMode = AUX_MODE_STD;
/* NB: Stream mode reporting remains disabled! */
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_SET_WRAP:
pThis->enmMode = AUX_MODE_WRAP;
pThis->u8State &= ~AUX_STATE_ENABLED;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_SET_REMOTE:
pThis->u8State |= AUX_STATE_REMOTE;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_READ_ID:
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, pThis->enmProtocol);
pThis->u8CurrCmd = 0;
break;
case ACMD_ENABLE:
pThis->u8State |= AUX_STATE_ENABLED;
#ifdef IN_RING3
ps2mSetDriverState(pThis, true);
#else
AssertLogRelMsgFailed(("Invalid ACMD_ENABLE outside R3!\n"));
#endif
ps2kClearQueue((GeneriQ *)&pThis->evtQ);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_DISABLE:
pThis->u8State &= ~AUX_STATE_ENABLED;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_SET_DEFAULT:
ps2mSetDefaults(pThis);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
break;
case ACMD_RESEND:
pThis->u8CurrCmd = 0;
break;
case ACMD_RESET:
ps2mSetDefaults(pThis);
/// @todo reset more?
pThis->u8CurrCmd = cmd;
pThis->enmMode = AUX_MODE_RESET;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
if (pThis->fDelayReset)
/* Slightly delay reset completion; it might take hundreds of ms. */
TMTimerSetMillies(pThis->CTX_SUFF(pDelayTimer), 1);
else
#ifdef IN_RING3
ps2mReset(pThis);
#else
AssertLogRelMsgFailed(("Invalid ACMD_RESET outside R3!\n"));
#endif
break;
/* The following commands need a parameter. */
case ACMD_SET_RES:
case ACMD_SET_SAMP_RATE:
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = cmd;
break;
default:
/* Sending a command instead of a parameter starts the new command. */
switch (pThis->u8CurrCmd)
{
case ACMD_SET_RES:
if (cmd < 4) /* Valid resolutions are 0-3. */
{
pThis->u8Resolution = cmd;
pThis->u8State &= ~AUX_STATE_RES_ERR;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
}
else
{
/* Bad resolution. Reply with Resend or Error. */
if (pThis->u8State & AUX_STATE_RES_ERR)
{
pThis->u8State &= ~AUX_STATE_RES_ERR;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ERROR);
pThis->u8CurrCmd = 0;
}
else
{
pThis->u8State |= AUX_STATE_RES_ERR;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_RESEND);
/* NB: Current command remains unchanged. */
}
}
break;
case ACMD_SET_SAMP_RATE:
if (ps2mIsRateSupported(cmd))
{
pThis->u8State &= ~AUX_STATE_RATE_ERR;
ps2mSetRate(pThis, cmd);
ps2mRateProtocolKnock(pThis, cmd);
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ACK);
pThis->u8CurrCmd = 0;
}
else
{
/* Bad rate. Reply with Resend or Error. */
if (pThis->u8State & AUX_STATE_RATE_ERR)
{
pThis->u8State &= ~AUX_STATE_RATE_ERR;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_ERROR);
pThis->u8CurrCmd = 0;
}
else
{
pThis->u8State |= AUX_STATE_RATE_ERR;
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_RESEND);
/* NB: Current command remains unchanged. */
}
}
break;
default:
fHandled = false;
}
/* Fall through only to handle unrecognized commands. */
if (fHandled)
break;
case ACMD_INVALID_1:
case ACMD_INVALID_2:
case ACMD_INVALID_3:
case ACMD_INVALID_4:
case ACMD_INVALID_5:
case ACMD_INVALID_6:
case ACMD_INVALID_7:
case ACMD_INVALID_8:
case ACMD_INVALID_9:
case ACMD_INVALID_10:
Log(("Unsupported command 0x%02X!\n", cmd));
ps2kInsertQueue((GeneriQ *)&pThis->cmdQ, ARSP_RESEND);
pThis->u8CurrCmd = 0;
break;
}
LogFlowFunc(("Active cmd now 0x%02X; updating interrupts\n", pThis->u8CurrCmd));
// KBCUpdateInterrupts(pThis->pParent);
return VINF_SUCCESS;
}
/*static*/
DECLCALLBACK(int) VirtualBox::ClientWatcher::worker(RTTHREAD hThreadSelf, void *pvUser)
{
LogFlowFuncEnter();
NOREF(hThreadSelf);
VirtualBox::ClientWatcher *that = (VirtualBox::ClientWatcher *)pvUser;
Assert(that);
typedef std::vector<ComObjPtr<Machine> > MachineVector;
typedef std::vector<ComObjPtr<SessionMachine> > SessionMachineVector;
SessionMachineVector machines;
MachineVector spawnedMachines;
size_t cnt = 0;
size_t cntSpawned = 0;
VirtualBoxBase::initializeComForThread();
#if defined(RT_OS_WINDOWS)
int vrc;
/* Initialize all the subworker data. */
that->maSubworkers[0].hThread = hThreadSelf;
for (uint32_t iSubworker = 1; iSubworker < RT_ELEMENTS(that->maSubworkers); iSubworker++)
that->maSubworkers[iSubworker].hThread = NIL_RTTHREAD;
for (uint32_t iSubworker = 0; iSubworker < RT_ELEMENTS(that->maSubworkers); iSubworker++)
{
that->maSubworkers[iSubworker].pSelf = that;
that->maSubworkers[iSubworker].iSubworker = iSubworker;
}
do
{
/* VirtualBox has been early uninitialized, terminate. */
AutoCaller autoCaller(that->mVirtualBox);
if (!autoCaller.isOk())
break;
bool fPidRace = false; /* We poll if the PID of a spawning session hasn't been established yet. */
bool fRecentDeath = false; /* We slowly poll if a session has recently been closed to do reaping. */
for (;;)
{
/* release the caller to let uninit() ever proceed */
autoCaller.release();
/* Kick of the waiting. */
uint32_t const cSubworkers = (that->mcWaitHandles + CW_MAX_HANDLES_PER_THREAD - 1) / CW_MAX_HANDLES_PER_THREAD;
uint32_t const cMsWait = fPidRace ? 500 : fRecentDeath ? 5000 : INFINITE;
LogFlowFunc(("UPDATE: Waiting. %u handles, %u subworkers, %u ms wait\n", that->mcWaitHandles, cSubworkers, cMsWait));
that->mcMsWait = cMsWait;
ASMAtomicWriteU32(&that->mcActiveSubworkers, cSubworkers);
RTThreadUserReset(hThreadSelf);
for (uint32_t iSubworker = 1; iSubworker < cSubworkers; iSubworker++)
{
if (that->maSubworkers[iSubworker].hThread != NIL_RTTHREAD)
{
vrc = RTThreadUserSignal(that->maSubworkers[iSubworker].hThread);
AssertLogRelMsg(RT_SUCCESS(vrc), ("RTThreadUserSignal -> %Rrc\n", vrc));
}
else
{
vrc = RTThreadCreateF(&that->maSubworkers[iSubworker].hThread,
VirtualBox::ClientWatcher::subworkerThread, &that->maSubworkers[iSubworker],
_128K, RTTHREADTYPE_DEFAULT, RTTHREADFLAGS_WAITABLE, "Watcher%u", iSubworker);
AssertLogRelMsgStmt(RT_SUCCESS(vrc), ("%Rrc iSubworker=%u\n", vrc, iSubworker),
that->maSubworkers[iSubworker].hThread = NIL_RTTHREAD);
}
if (RT_FAILURE(vrc))
that->subworkerWait(&that->maSubworkers[iSubworker], 1);
}
/* Wait ourselves. */
that->subworkerWait(&that->maSubworkers[0], cMsWait);
/* Make sure all waiters are done waiting. */
BOOL fRc = SetEvent(that->mUpdateReq);
Assert(fRc); NOREF(fRc);
vrc = RTThreadUserWait(hThreadSelf, RT_INDEFINITE_WAIT);
AssertLogRelMsg(RT_SUCCESS(vrc), ("RTThreadUserWait -> %Rrc\n", vrc));
Assert(that->mcActiveSubworkers == 0);
/* Consume pending update request before proceeding with processing the wait results. */
fRc = ResetEvent(that->mUpdateReq);
Assert(fRc);
bool update = ASMAtomicXchgBool(&that->mfUpdateReq, false);
if (update)
LogFlowFunc(("UPDATE: Update request pending\n"));
update |= fPidRace;
/* Process the wait results. */
autoCaller.add();
if (!autoCaller.isOk())
break;
fRecentDeath = false;
for (uint32_t iSubworker = 0; iSubworker < cSubworkers; iSubworker++)
{
DWORD dwWait = that->maSubworkers[iSubworker].dwWait;
LogFlowFunc(("UPDATE: subworker #%u: dwWait=%#x\n", iSubworker, dwWait));
if ( (dwWait > WAIT_OBJECT_0 && dwWait < WAIT_OBJECT_0 + CW_MAX_HANDLES_PER_THREAD)
|| (dwWait > WAIT_ABANDONED_0 && dwWait < WAIT_ABANDONED_0 + CW_MAX_HANDLES_PER_THREAD) )
{
uint32_t idxHandle = iSubworker * CW_MAX_HANDLES_PER_THREAD;
if (dwWait > WAIT_OBJECT_0 && dwWait < WAIT_OBJECT_0 + CW_MAX_HANDLES_PER_THREAD)
idxHandle += dwWait - WAIT_OBJECT_0;
else
idxHandle += dwWait - WAIT_ABANDONED_0;
uint32_t const idxMachine = idxHandle - (iSubworker + 1);
if (idxMachine < cnt)
{
/* Machine mutex is released or abandond due to client process termination. */
LogFlowFunc(("UPDATE: Calling i_checkForDeath on idxMachine=%u (idxHandle=%u) dwWait=%#x\n",
idxMachine, idxHandle, dwWait));
fRecentDeath |= (machines[idxMachine])->i_checkForDeath();
}
else if (idxMachine < cnt + cntSpawned)
{
/* Spawned VM process has terminated normally. */
Assert(dwWait < WAIT_ABANDONED_0);
LogFlowFunc(("UPDATE: Calling i_checkForSpawnFailure on idxMachine=%u/%u idxHandle=%u dwWait=%#x\n",
idxMachine, idxMachine - cnt, idxHandle, dwWait));
fRecentDeath |= (spawnedMachines[idxMachine - cnt])->i_checkForSpawnFailure();
}
else
AssertFailed();
update = true;
}
else
Assert(dwWait == WAIT_OBJECT_0 || dwWait == WAIT_TIMEOUT);
}
if (update)
{
LogFlowFunc(("UPDATE: Update pending (cnt=%u cntSpawned=%u)...\n", cnt, cntSpawned));
/* close old process handles */
that->winResetHandleArray((uint32_t)cntSpawned);
// get reference to the machines list in VirtualBox
VirtualBox::MachinesOList &allMachines = that->mVirtualBox->i_getMachinesList();
// lock the machines list for reading
AutoReadLock thatLock(allMachines.getLockHandle() COMMA_LOCKVAL_SRC_POS);
/* obtain a new set of opened machines */
cnt = 0;
machines.clear();
uint32_t idxHandle = 0;
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end();
++it)
{
AssertMsgBreak(idxHandle < CW_MAX_CLIENTS, ("CW_MAX_CLIENTS reached"));
ComObjPtr<SessionMachine> sm;
if ((*it)->i_isSessionOpenOrClosing(sm))
{
AutoCaller smCaller(sm);
if (smCaller.isOk())
{
AutoReadLock smLock(sm COMMA_LOCKVAL_SRC_POS);
Machine::ClientToken *ct = sm->i_getClientToken();
if (ct)
{
HANDLE ipcSem = ct->getToken();
machines.push_back(sm);
if (!(idxHandle % CW_MAX_HANDLES_PER_THREAD))
idxHandle++;
that->mahWaitHandles[idxHandle++] = ipcSem;
++cnt;
}
}
}
}
LogFlowFunc(("UPDATE: direct session count = %d\n", cnt));
/* obtain a new set of spawned machines */
fPidRace = false;
cntSpawned = 0;
spawnedMachines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end();
++it)
{
AssertMsgBreak(idxHandle < CW_MAX_CLIENTS, ("CW_MAX_CLIENTS reached"));
if ((*it)->i_isSessionSpawning())
{
ULONG pid;
HRESULT hrc = (*it)->COMGETTER(SessionPID)(&pid);
if (SUCCEEDED(hrc))
{
if (pid != NIL_RTPROCESS)
{
HANDLE hProc = OpenProcess(SYNCHRONIZE, FALSE, pid);
AssertMsg(hProc != NULL, ("OpenProcess (pid=%d) failed with %d\n", pid, GetLastError()));
if (hProc != NULL)
{
spawnedMachines.push_back(*it);
if (!(idxHandle % CW_MAX_HANDLES_PER_THREAD))
idxHandle++;
that->mahWaitHandles[idxHandle++] = hProc;
++cntSpawned;
}
}
else
fPidRace = true;
}
}
}
LogFlowFunc(("UPDATE: spawned session count = %d\n", cntSpawned));
/* Update mcWaitHandles and make sure there is at least one handle to wait on. */
that->mcWaitHandles = RT_MAX(idxHandle, 1);
// machines lock unwinds here
}
else
LogFlowFunc(("UPDATE: No update pending.\n"));
/* reap child processes */
that->reapProcesses();
} /* for ever (well, till autoCaller fails). */
} while (0);
/* Terminate subworker threads. */
ASMAtomicWriteBool(&that->mfTerminate, true);
for (uint32_t iSubworker = 1; iSubworker < RT_ELEMENTS(that->maSubworkers); iSubworker++)
if (that->maSubworkers[iSubworker].hThread != NIL_RTTHREAD)
RTThreadUserSignal(that->maSubworkers[iSubworker].hThread);
for (uint32_t iSubworker = 1; iSubworker < RT_ELEMENTS(that->maSubworkers); iSubworker++)
if (that->maSubworkers[iSubworker].hThread != NIL_RTTHREAD)
{
vrc = RTThreadWait(that->maSubworkers[iSubworker].hThread, RT_MS_1MIN, NULL /*prc*/);
if (RT_SUCCESS(vrc))
that->maSubworkers[iSubworker].hThread = NIL_RTTHREAD;
else
AssertLogRelMsgFailed(("RTThreadWait -> %Rrc\n", vrc));
}
/* close old process handles */
that->winResetHandleArray((uint32_t)cntSpawned);
/* release sets of machines if any */
machines.clear();
spawnedMachines.clear();
::CoUninitialize();
#elif defined(RT_OS_OS2)
/* according to PMREF, 64 is the maximum for the muxwait list */
SEMRECORD handles[64];
HMUX muxSem = NULLHANDLE;
do
{
AutoCaller autoCaller(that->mVirtualBox);
/* VirtualBox has been early uninitialized, terminate */
if (!autoCaller.isOk())
break;
for (;;)
{
/* release the caller to let uninit() ever proceed */
autoCaller.release();
int vrc = RTSemEventWait(that->mUpdateReq, 500);
/* Restore the caller before using VirtualBox. If it fails, this
* means VirtualBox is being uninitialized and we must terminate. */
autoCaller.add();
if (!autoCaller.isOk())
break;
bool update = false;
bool updateSpawned = false;
if (RT_SUCCESS(vrc))
{
/* update event is signaled */
update = true;
updateSpawned = true;
}
else
{
AssertMsg(vrc == VERR_TIMEOUT || vrc == VERR_INTERRUPTED,
("RTSemEventWait returned %Rrc\n", vrc));
/* are there any mutexes? */
if (cnt > 0)
{
/* figure out what's going on with machines */
unsigned long semId = 0;
APIRET arc = ::DosWaitMuxWaitSem(muxSem,
SEM_IMMEDIATE_RETURN, &semId);
if (arc == NO_ERROR)
{
/* machine mutex is normally released */
Assert(semId >= 0 && semId < cnt);
if (semId >= 0 && semId < cnt)
{
#if 0//def DEBUG
{
AutoReadLock machineLock(machines[semId] COMMA_LOCKVAL_SRC_POS);
LogFlowFunc(("released mutex: machine='%ls'\n",
machines[semId]->name().raw()));
}
#endif
machines[semId]->i_checkForDeath();
}
update = true;
}
else if (arc == ERROR_SEM_OWNER_DIED)
{
/* machine mutex is abandoned due to client process
* termination; find which mutex is in the Owner Died
* state */
for (size_t i = 0; i < cnt; ++i)
{
PID pid; TID tid;
unsigned long reqCnt;
arc = DosQueryMutexSem((HMTX)handles[i].hsemCur, &pid, &tid, &reqCnt);
if (arc == ERROR_SEM_OWNER_DIED)
{
/* close the dead mutex as asked by PMREF */
::DosCloseMutexSem((HMTX)handles[i].hsemCur);
Assert(i >= 0 && i < cnt);
if (i >= 0 && i < cnt)
{
#if 0//def DEBUG
{
AutoReadLock machineLock(machines[semId] COMMA_LOCKVAL_SRC_POS);
LogFlowFunc(("mutex owner dead: machine='%ls'\n",
machines[i]->name().raw()));
}
#endif
machines[i]->i_checkForDeath();
}
}
}
update = true;
}
else
AssertMsg(arc == ERROR_INTERRUPT || arc == ERROR_TIMEOUT,
("DosWaitMuxWaitSem returned %d\n", arc));
}
/* are there any spawning sessions? */
if (cntSpawned > 0)
{
for (size_t i = 0; i < cntSpawned; ++i)
updateSpawned |= (spawnedMachines[i])->
i_checkForSpawnFailure();
}
}
if (update || updateSpawned)
{
// get reference to the machines list in VirtualBox
VirtualBox::MachinesOList &allMachines = that->mVirtualBox->i_getMachinesList();
// lock the machines list for reading
AutoReadLock thatLock(allMachines.getLockHandle() COMMA_LOCKVAL_SRC_POS);
if (update)
{
/* close the old muxsem */
if (muxSem != NULLHANDLE)
::DosCloseMuxWaitSem(muxSem);
/* obtain a new set of opened machines */
cnt = 0;
machines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end(); ++it)
{
/// @todo handle situations with more than 64 objects
AssertMsg(cnt <= 64 /* according to PMREF */,
("maximum of 64 mutex semaphores reached (%d)",
cnt));
ComObjPtr<SessionMachine> sm;
if ((*it)->i_isSessionOpenOrClosing(sm))
{
AutoCaller smCaller(sm);
if (smCaller.isOk())
{
AutoReadLock smLock(sm COMMA_LOCKVAL_SRC_POS);
ClientToken *ct = sm->i_getClientToken();
if (ct)
{
HMTX ipcSem = ct->getToken();
machines.push_back(sm);
handles[cnt].hsemCur = (HSEM)ipcSem;
handles[cnt].ulUser = cnt;
++cnt;
}
}
}
}
LogFlowFunc(("UPDATE: direct session count = %d\n", cnt));
if (cnt > 0)
{
/* create a new muxsem */
APIRET arc = ::DosCreateMuxWaitSem(NULL, &muxSem, cnt,
handles,
DCMW_WAIT_ANY);
AssertMsg(arc == NO_ERROR,
("DosCreateMuxWaitSem returned %d\n", arc));
NOREF(arc);
}
}
if (updateSpawned)
{
/* obtain a new set of spawned machines */
spawnedMachines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end(); ++it)
{
if ((*it)->i_isSessionSpawning())
spawnedMachines.push_back(*it);
}
cntSpawned = spawnedMachines.size();
LogFlowFunc(("UPDATE: spawned session count = %d\n", cntSpawned));
}
}
/* reap child processes */
that->reapProcesses();
} /* for ever (well, till autoCaller fails). */
} while (0);
/* close the muxsem */
if (muxSem != NULLHANDLE)
::DosCloseMuxWaitSem(muxSem);
/* release sets of machines if any */
machines.clear();
spawnedMachines.clear();
#elif defined(VBOX_WITH_SYS_V_IPC_SESSION_WATCHER)
bool update = false;
bool updateSpawned = false;
do
{
AutoCaller autoCaller(that->mVirtualBox);
if (!autoCaller.isOk())
break;
do
{
/* release the caller to let uninit() ever proceed */
autoCaller.release();
/* determine wait timeout adaptively: after updating information
* relevant to the client watcher, check a few times more
* frequently. This ensures good reaction time when the signalling
* has to be done a bit before the actual change for technical
* reasons, and saves CPU cycles when no activities are expected. */
RTMSINTERVAL cMillies;
{
uint8_t uOld, uNew;
do
{
uOld = ASMAtomicUoReadU8(&that->mUpdateAdaptCtr);
uNew = uOld ? uOld - 1 : uOld;
} while (!ASMAtomicCmpXchgU8(&that->mUpdateAdaptCtr, uNew, uOld));
Assert(uOld <= RT_ELEMENTS(s_aUpdateTimeoutSteps) - 1);
cMillies = s_aUpdateTimeoutSteps[uOld];
}
int rc = RTSemEventWait(that->mUpdateReq, cMillies);
/*
* Restore the caller before using VirtualBox. If it fails, this
* means VirtualBox is being uninitialized and we must terminate.
*/
autoCaller.add();
if (!autoCaller.isOk())
break;
if (RT_SUCCESS(rc) || update || updateSpawned)
{
/* RT_SUCCESS(rc) means an update event is signaled */
// get reference to the machines list in VirtualBox
VirtualBox::MachinesOList &allMachines = that->mVirtualBox->i_getMachinesList();
// lock the machines list for reading
AutoReadLock thatLock(allMachines.getLockHandle() COMMA_LOCKVAL_SRC_POS);
if (RT_SUCCESS(rc) || update)
{
/* obtain a new set of opened machines */
machines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end();
++it)
{
ComObjPtr<SessionMachine> sm;
if ((*it)->i_isSessionOpenOrClosing(sm))
machines.push_back(sm);
}
cnt = machines.size();
LogFlowFunc(("UPDATE: direct session count = %d\n", cnt));
}
if (RT_SUCCESS(rc) || updateSpawned)
{
/* obtain a new set of spawned machines */
spawnedMachines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end();
++it)
{
if ((*it)->i_isSessionSpawning())
spawnedMachines.push_back(*it);
}
cntSpawned = spawnedMachines.size();
LogFlowFunc(("UPDATE: spawned session count = %d\n", cntSpawned));
}
// machines lock unwinds here
}
update = false;
for (size_t i = 0; i < cnt; ++i)
update |= (machines[i])->i_checkForDeath();
updateSpawned = false;
for (size_t i = 0; i < cntSpawned; ++i)
updateSpawned |= (spawnedMachines[i])->i_checkForSpawnFailure();
/* reap child processes */
that->reapProcesses();
}
while (true);
}
while (0);
/* release sets of machines if any */
machines.clear();
spawnedMachines.clear();
#elif defined(VBOX_WITH_GENERIC_SESSION_WATCHER)
bool updateSpawned = false;
do
{
AutoCaller autoCaller(that->mVirtualBox);
if (!autoCaller.isOk())
break;
do
{
/* release the caller to let uninit() ever proceed */
autoCaller.release();
/* determine wait timeout adaptively: after updating information
* relevant to the client watcher, check a few times more
* frequently. This ensures good reaction time when the signalling
* has to be done a bit before the actual change for technical
* reasons, and saves CPU cycles when no activities are expected. */
RTMSINTERVAL cMillies;
{
uint8_t uOld, uNew;
do
{
uOld = ASMAtomicUoReadU8(&that->mUpdateAdaptCtr);
uNew = uOld ? (uint8_t)(uOld - 1) : uOld;
} while (!ASMAtomicCmpXchgU8(&that->mUpdateAdaptCtr, uNew, uOld));
Assert(uOld <= RT_ELEMENTS(s_aUpdateTimeoutSteps) - 1);
cMillies = s_aUpdateTimeoutSteps[uOld];
}
int rc = RTSemEventWait(that->mUpdateReq, cMillies);
/*
* Restore the caller before using VirtualBox. If it fails, this
* means VirtualBox is being uninitialized and we must terminate.
*/
autoCaller.add();
if (!autoCaller.isOk())
break;
/** @todo this quite big effort for catching machines in spawning
* state which can't be caught by the token mechanism (as the token
* can't be in the other process yet) could be eliminated if the
* reaping is made smarter, having cross-reference information
* from the pid to the corresponding machine object. Both cases do
* more or less the same thing anyway. */
if (RT_SUCCESS(rc) || updateSpawned)
{
/* RT_SUCCESS(rc) means an update event is signaled */
// get reference to the machines list in VirtualBox
VirtualBox::MachinesOList &allMachines = that->mVirtualBox->i_getMachinesList();
// lock the machines list for reading
AutoReadLock thatLock(allMachines.getLockHandle() COMMA_LOCKVAL_SRC_POS);
if (RT_SUCCESS(rc) || updateSpawned)
{
/* obtain a new set of spawned machines */
spawnedMachines.clear();
for (MachinesOList::iterator it = allMachines.begin();
it != allMachines.end();
++it)
{
if ((*it)->i_isSessionSpawning())
spawnedMachines.push_back(*it);
}
cntSpawned = spawnedMachines.size();
LogFlowFunc(("UPDATE: spawned session count = %d\n", cntSpawned));
}
NOREF(cnt);
// machines lock unwinds here
}
updateSpawned = false;
for (size_t i = 0; i < cntSpawned; ++i)
updateSpawned |= (spawnedMachines[i])->i_checkForSpawnFailure();
/* reap child processes */
that->reapProcesses();
}
while (true);
}
while (0);
/* release sets of machines if any */
machines.clear();
spawnedMachines.clear();
#else
# error "Port me!"
#endif
VirtualBoxBase::uninitializeComForThread();
LogFlowFuncLeave();
return 0;
}
/**
* Construct the DMI table.
*
* @returns VBox status code.
* @param pDevIns The device instance.
* @param pTable Where to create the DMI table.
* @param cbMax The maximum size of the DMI table.
* @param pUuid Pointer to the UUID to use if the DmiUuid
* configuration string isn't present.
* @param pCfg The handle to our config node.
* @param cCpus Number of VCPUs.
* @param pcbDmiTables Size of DMI data in bytes.
* @param pcNumDmiTables Number of DMI tables.
*/
int FwCommonPlantDMITable(PPDMDEVINS pDevIns, uint8_t *pTable, unsigned cbMax, PCRTUUID pUuid, PCFGMNODE pCfg, uint16_t cCpus, uint16_t *pcbDmiTables, uint16_t *pcNumDmiTables)
{
/*
* CFGM Hint!
*
* The macros below makes it a bit hard to figure out the config options
* available here. To get a quick hint, take a look a the CFGM
* validation in the calling code (DevEFI.cpp and DevPcBios.cpp).
*
* 32-bit signed integer CFGM options are read by DMI_READ_CFG_S32, the 2nd
* parameter is the CFGM value name.
*
* Strings are read by DMI_READ_CFG_STR and DMI_READ_CFG_STR_DEF, the 2nd parameter is
* the CFGM value name.
*/
#define DMI_CHECK_SIZE(cbWant) \
{ \
size_t cbNeed = (size_t)(pszStr + cbWant - (char *)pTable) + 5; /* +1 for strtab terminator +4 for end-of-table entry */ \
if (cbNeed > cbMax) \
{ \
if (fHideErrors) \
{ \
LogRel(("One of the DMI strings is too long -- using default DMI data!\n")); \
continue; \
} \
return PDMDevHlpVMSetError(pDevIns, VERR_TOO_MUCH_DATA, RT_SRC_POS, \
N_("One of the DMI strings is too long. Check all bios/Dmi* configuration entries. At least %zu bytes are needed but there is no space for more than %d bytes"), cbNeed, cbMax); \
} \
}
#define DMI_READ_CFG_STR_DEF(variable, name, default_value) \
{ \
if (fForceDefault) \
pszTmp = default_value; \
else \
{ \
rc = CFGMR3QueryStringDef(pCfg, name, szBuf, sizeof(szBuf), default_value); \
if (RT_FAILURE(rc)) \
{ \
if (fHideErrors) \
{ \
LogRel(("Configuration error: Querying \"" name "\" as a string failed -- using default DMI data!\n")); \
continue; \
} \
return PDMDevHlpVMSetError(pDevIns, rc, RT_SRC_POS, \
N_("Configuration error: Querying \"" name "\" as a string failed")); \
} \
else if (!strcmp(szBuf, "<EMPTY>")) \
pszTmp = ""; \
else \
pszTmp = szBuf; \
} \
if (!pszTmp[0]) \
variable = 0; /* empty string */ \
else \
{ \
variable = iStrNr++; \
size_t cStr = strlen(pszTmp) + 1; \
DMI_CHECK_SIZE(cStr); \
memcpy(pszStr, pszTmp, cStr); \
pszStr += cStr ; \
} \
}
#define DMI_READ_CFG_STR(variable, name) \
DMI_READ_CFG_STR_DEF(variable, # name, g_pszDef ## name)
#define DMI_READ_CFG_S32(variable, name) \
{ \
if (fForceDefault) \
variable = g_iDef ## name; \
else \
{ \
rc = CFGMR3QueryS32Def(pCfg, # name, & variable, g_iDef ## name); \
if (RT_FAILURE(rc)) \
{ \
if (fHideErrors) \
{ \
LogRel(("Configuration error: Querying \"" # name "\" as an int failed -- using default DMI data!\n")); \
continue; \
} \
return PDMDevHlpVMSetError(pDevIns, rc, RT_SRC_POS, \
N_("Configuration error: Querying \"" # name "\" as an int failed")); \
} \
} \
}
#define DMI_START_STRUCT(tbl) \
pszStr = (char *)(tbl + 1); \
iStrNr = 1;
#define DMI_TERM_STRUCT \
{ \
*pszStr++ = '\0'; /* terminate set of text strings */ \
if (iStrNr == 1) \
*pszStr++ = '\0'; /* terminate a structure without strings */ \
}
bool fForceDefault = false;
#ifdef VBOX_BIOS_DMI_FALLBACK
/*
* There will be two passes. If an error occurs during the first pass, a
* message will be written to the release log and we fall back to default
* DMI data and start a second pass.
*/
bool fHideErrors = true;
#else
/*
* There will be one pass, every error is fatal and will prevent the VM
* from starting.
*/
bool fHideErrors = false;
#endif
uint8_t fDmiUseHostInfo;
int rc = CFGMR3QueryU8Def(pCfg, "DmiUseHostInfo", &fDmiUseHostInfo, 0);
if (RT_FAILURE (rc))
return PDMDEV_SET_ERROR(pDevIns, rc,
N_("Configuration error: Failed to read \"DmiUseHostInfo\""));
/* Sync up with host default DMI values */
if (fDmiUseHostInfo)
fwCommonUseHostDMIStrings();
uint8_t fDmiExposeMemoryTable;
rc = CFGMR3QueryU8Def(pCfg, "DmiExposeMemoryTable", &fDmiExposeMemoryTable, 0);
if (RT_FAILURE (rc))
return PDMDEV_SET_ERROR(pDevIns, rc,
N_("Configuration error: Failed to read \"DmiExposeMemoryTable\""));
uint8_t fDmiExposeProcessorInf;
rc = CFGMR3QueryU8Def(pCfg, "DmiExposeProcInf", &fDmiExposeProcessorInf, 0);
if (RT_FAILURE (rc))
return PDMDEV_SET_ERROR(pDevIns, rc,
N_("Configuration error: Failed to read \"DmiExposeProcInf\""));
for (;; fForceDefault = true, fHideErrors = false)
{
int iStrNr;
char szBuf[256];
char *pszStr = (char *)pTable;
char szDmiSystemUuid[64];
char *pszDmiSystemUuid;
const char *pszTmp;
if (fForceDefault)
pszDmiSystemUuid = NULL;
else
{
rc = CFGMR3QueryString(pCfg, "DmiSystemUuid", szDmiSystemUuid, sizeof(szDmiSystemUuid));
if (rc == VERR_CFGM_VALUE_NOT_FOUND)
pszDmiSystemUuid = NULL;
else if (RT_FAILURE(rc))
{
if (fHideErrors)
{
LogRel(("Configuration error: Querying \"DmiSystemUuid\" as a string failed, using default DMI data\n"));
continue;
}
return PDMDevHlpVMSetError(pDevIns, rc, RT_SRC_POS,
N_("Configuration error: Querying \"DmiSystemUuid\" as a string failed"));
}
else
pszDmiSystemUuid = szDmiSystemUuid;
}
/*********************************
* DMI BIOS information (Type 0) *
*********************************/
PDMIBIOSINF pBIOSInf = (PDMIBIOSINF)pszStr;
DMI_CHECK_SIZE(sizeof(*pBIOSInf));
pszStr = (char *)&pBIOSInf->u8ReleaseMajor;
pBIOSInf->header.u8Length = RT_OFFSETOF(DMIBIOSINF, u8ReleaseMajor);
/* don't set these fields by default for legacy compatibility */
int iDmiBIOSReleaseMajor, iDmiBIOSReleaseMinor;
DMI_READ_CFG_S32(iDmiBIOSReleaseMajor, DmiBIOSReleaseMajor);
DMI_READ_CFG_S32(iDmiBIOSReleaseMinor, DmiBIOSReleaseMinor);
if (iDmiBIOSReleaseMajor != 0 || iDmiBIOSReleaseMinor != 0)
{
pszStr = (char *)&pBIOSInf->u8FirmwareMajor;
pBIOSInf->header.u8Length = RT_OFFSETOF(DMIBIOSINF, u8FirmwareMajor);
pBIOSInf->u8ReleaseMajor = iDmiBIOSReleaseMajor;
pBIOSInf->u8ReleaseMinor = iDmiBIOSReleaseMinor;
int iDmiBIOSFirmwareMajor, iDmiBIOSFirmwareMinor;
DMI_READ_CFG_S32(iDmiBIOSFirmwareMajor, DmiBIOSFirmwareMajor);
DMI_READ_CFG_S32(iDmiBIOSFirmwareMinor, DmiBIOSFirmwareMinor);
if (iDmiBIOSFirmwareMajor != 0 || iDmiBIOSFirmwareMinor != 0)
{
pszStr = (char *)(pBIOSInf + 1);
pBIOSInf->header.u8Length = sizeof(DMIBIOSINF);
pBIOSInf->u8FirmwareMajor = iDmiBIOSFirmwareMajor;
pBIOSInf->u8FirmwareMinor = iDmiBIOSFirmwareMinor;
}
}
iStrNr = 1;
pBIOSInf->header.u8Type = 0; /* BIOS Information */
pBIOSInf->header.u16Handle = 0x0000;
DMI_READ_CFG_STR(pBIOSInf->u8Vendor, DmiBIOSVendor);
DMI_READ_CFG_STR(pBIOSInf->u8Version, DmiBIOSVersion);
pBIOSInf->u16Start = 0xE000;
DMI_READ_CFG_STR(pBIOSInf->u8Release, DmiBIOSReleaseDate);
pBIOSInf->u8ROMSize = 1; /* 128K */
pBIOSInf->u64Characteristics = RT_BIT(4) /* ISA is supported */
| RT_BIT(7) /* PCI is supported */
| RT_BIT(15) /* Boot from CD is supported */
| RT_BIT(16) /* Selectable Boot is supported */
| RT_BIT(27) /* Int 9h, 8042 Keyboard services supported */
| RT_BIT(30) /* Int 10h, CGA/Mono Video Services supported */
/* any more?? */
;
pBIOSInf->u8CharacteristicsByte1 = RT_BIT(0) /* ACPI is supported */
/* any more?? */
;
pBIOSInf->u8CharacteristicsByte2 = 0
/* any more?? */
;
DMI_TERM_STRUCT;
/***********************************
* DMI system information (Type 1) *
***********************************/
PDMISYSTEMINF pSystemInf = (PDMISYSTEMINF)pszStr;
DMI_CHECK_SIZE(sizeof(*pSystemInf));
DMI_START_STRUCT(pSystemInf);
pSystemInf->header.u8Type = 1; /* System Information */
pSystemInf->header.u8Length = sizeof(*pSystemInf);
pSystemInf->header.u16Handle = 0x0001;
DMI_READ_CFG_STR(pSystemInf->u8Manufacturer, DmiSystemVendor);
DMI_READ_CFG_STR(pSystemInf->u8ProductName, DmiSystemProduct);
DMI_READ_CFG_STR(pSystemInf->u8Version, DmiSystemVersion);
DMI_READ_CFG_STR(pSystemInf->u8SerialNumber, DmiSystemSerial);
RTUUID uuid;
if (pszDmiSystemUuid)
{
rc = RTUuidFromStr(&uuid, pszDmiSystemUuid);
if (RT_FAILURE(rc))
{
if (fHideErrors)
{
LogRel(("Configuration error: Invalid UUID for DMI tables specified, using default DMI data\n"));
continue;
}
return PDMDevHlpVMSetError(pDevIns, rc, RT_SRC_POS,
N_("Configuration error: Invalid UUID for DMI tables specified"));
}
uuid.Gen.u32TimeLow = RT_H2BE_U32(uuid.Gen.u32TimeLow);
uuid.Gen.u16TimeMid = RT_H2BE_U16(uuid.Gen.u16TimeMid);
uuid.Gen.u16TimeHiAndVersion = RT_H2BE_U16(uuid.Gen.u16TimeHiAndVersion);
pUuid = &uuid;
}
memcpy(pSystemInf->au8Uuid, pUuid, sizeof(RTUUID));
pSystemInf->u8WakeupType = 6; /* Power Switch */
DMI_READ_CFG_STR(pSystemInf->u8SKUNumber, DmiSystemSKU);
DMI_READ_CFG_STR(pSystemInf->u8Family, DmiSystemFamily);
DMI_TERM_STRUCT;
/**********************************
* DMI board information (Type 2) *
**********************************/
PDMIBOARDINF pBoardInf = (PDMIBOARDINF)pszStr;
DMI_CHECK_SIZE(sizeof(*pBoardInf));
DMI_START_STRUCT(pBoardInf);
int iDmiBoardBoardType;
pBoardInf->header.u8Type = 2; /* Board Information */
pBoardInf->header.u8Length = sizeof(*pBoardInf);
pBoardInf->header.u16Handle = 0x0008;
DMI_READ_CFG_STR(pBoardInf->u8Manufacturer, DmiBoardVendor);
DMI_READ_CFG_STR(pBoardInf->u8Product, DmiBoardProduct);
DMI_READ_CFG_STR(pBoardInf->u8Version, DmiBoardVersion);
DMI_READ_CFG_STR(pBoardInf->u8SerialNumber, DmiBoardSerial);
DMI_READ_CFG_STR(pBoardInf->u8AssetTag, DmiBoardAssetTag);
pBoardInf->u8FeatureFlags = RT_BIT(0) /* hosting board, e.g. motherboard */
;
DMI_READ_CFG_STR(pBoardInf->u8LocationInChass, DmiBoardLocInChass);
pBoardInf->u16ChassisHandle = 0x0003; /* see type 3 */
DMI_READ_CFG_S32(iDmiBoardBoardType, DmiBoardBoardType);
pBoardInf->u8BoardType = iDmiBoardBoardType;
pBoardInf->u8cObjectHandles = 0;
DMI_TERM_STRUCT;
/********************************************
* DMI System Enclosure or Chassis (Type 3) *
********************************************/
PDMICHASSIS pChassis = (PDMICHASSIS)pszStr;
DMI_CHECK_SIZE(sizeof(*pChassis));
pszStr = (char*)&pChassis->u32OEMdefined;
iStrNr = 1;
#ifdef VBOX_WITH_DMI_CHASSIS
pChassis->header.u8Type = 3; /* System Enclosure or Chassis */
#else
pChassis->header.u8Type = 0x7e; /* inactive */
#endif
pChassis->header.u8Length = RT_OFFSETOF(DMICHASSIS, u32OEMdefined);
pChassis->header.u16Handle = 0x0003;
DMI_READ_CFG_STR(pChassis->u8Manufacturer, DmiChassisVendor);
int iDmiChassisType;
DMI_READ_CFG_S32(iDmiChassisType, DmiChassisType);
pChassis->u8Type = iDmiChassisType;
DMI_READ_CFG_STR(pChassis->u8Version, DmiChassisVersion);
DMI_READ_CFG_STR(pChassis->u8SerialNumber, DmiChassisSerial);
DMI_READ_CFG_STR(pChassis->u8AssetTag, DmiChassisAssetTag);
pChassis->u8BootupState = 0x03; /* safe */
pChassis->u8PowerSupplyState = 0x03; /* safe */
pChassis->u8ThermalState = 0x03; /* safe */
pChassis->u8SecurityStatus = 0x03; /* none XXX */
# if 0
/* v2.3+, currently not supported */
pChassis->u32OEMdefined = 0;
pChassis->u8Height = 0; /* unspecified */
pChassis->u8NumPowerChords = 0; /* unspecified */
pChassis->u8ContElems = 0; /* no contained elements */
pChassis->u8ContElemRecLen = 0; /* no contained elements */
# endif
DMI_TERM_STRUCT;
/**************************************
* DMI Processor Information (Type 4) *
**************************************/
/*
* This is just a dummy processor. Should we expose the real guest CPU features
* here? Accessing this information at this point is difficult.
*/
char szSocket[32];
PDMIPROCESSORINF pProcessorInf = (PDMIPROCESSORINF)pszStr;
DMI_CHECK_SIZE(sizeof(*pProcessorInf));
DMI_START_STRUCT(pProcessorInf);
if (fDmiExposeProcessorInf)
pProcessorInf->header.u8Type = 4; /* Processor Information */
else
pProcessorInf->header.u8Type = 126; /* inactive structure */
pProcessorInf->header.u8Length = sizeof(*pProcessorInf);
pProcessorInf->header.u16Handle = 0x0007;
RTStrPrintf(szSocket, sizeof(szSocket), "Socket #%u", 0);
pProcessorInf->u8SocketDesignation = iStrNr++;
{
size_t cStr = strlen(szSocket) + 1;
DMI_CHECK_SIZE(cStr);
memcpy(pszStr, szSocket, cStr);
pszStr += cStr;
}
pProcessorInf->u8ProcessorType = 0x03; /* Central Processor */
pProcessorInf->u8ProcessorFamily = 0xB1; /* Pentium III with Intel SpeedStep(TM) */
DMI_READ_CFG_STR(pProcessorInf->u8ProcessorManufacturer, DmiProcManufacturer);
pProcessorInf->u64ProcessorID = UINT64_C(0x0FEBFBFF00010676);
/* Ext Family ID = 0
* Ext Model ID = 2
* Processor Type = 0
* Family ID = 6
* Model = 7
* Stepping = 6
* Features: FPU, VME, DE, PSE, TSC, MSR, PAE, MCE, CX8,
* APIC, SEP, MTRR, PGE, MCA, CMOV, PAT, PSE-36,
* CFLSH, DS, ACPI, MMX, FXSR, SSE, SSE2, SS */
DMI_READ_CFG_STR(pProcessorInf->u8ProcessorVersion, DmiProcVersion);
pProcessorInf->u8Voltage = 0x02; /* 3.3V */
pProcessorInf->u16ExternalClock = 0x00; /* unknown */
pProcessorInf->u16MaxSpeed = 3000; /* 3GHz */
pProcessorInf->u16CurrentSpeed = 3000; /* 3GHz */
pProcessorInf->u8Status = RT_BIT(6) /* CPU socket populated */
| RT_BIT(0) /* CPU enabled */
;
pProcessorInf->u8ProcessorUpgrade = 0x04; /* ZIF Socket */
pProcessorInf->u16L1CacheHandle = 0xFFFF; /* not specified */
pProcessorInf->u16L2CacheHandle = 0xFFFF; /* not specified */
pProcessorInf->u16L3CacheHandle = 0xFFFF; /* not specified */
pProcessorInf->u8SerialNumber = 0; /* not specified */
pProcessorInf->u8AssetTag = 0; /* not specified */
pProcessorInf->u8PartNumber = 0; /* not specified */
pProcessorInf->u8CoreCount = cCpus; /* */
pProcessorInf->u8CoreEnabled = cCpus;
pProcessorInf->u8ThreadCount = 1;
pProcessorInf->u16ProcessorCharacteristics
= RT_BIT(2); /* 64-bit capable */
pProcessorInf->u16ProcessorFamily2 = 0;
DMI_TERM_STRUCT;
/***************************************
* DMI Physical Memory Array (Type 16) *
***************************************/
uint64_t const cbRamSize = MMR3PhysGetRamSize(PDMDevHlpGetVM(pDevIns));
PDMIRAMARRAY pMemArray = (PDMIRAMARRAY)pszStr;
DMI_CHECK_SIZE(sizeof(*pMemArray));
DMI_START_STRUCT(pMemArray);
if (fDmiExposeMemoryTable)
pMemArray->header.u8Type = 16; /* Physical Memory Array */
else
pMemArray->header.u8Type = 126; /* inactive structure */
pMemArray->header.u8Length = sizeof(*pMemArray);
pMemArray->header.u16Handle = 0x0005;
pMemArray->u8Location = 0x03; /* Motherboard */
pMemArray->u8Use = 0x03; /* System memory */
pMemArray->u8MemErrorCorrection = 0x01; /* Other */
if (cbRamSize / _1K > INT32_MAX)
{
/** @todo 2TB-1K limit. In such cases we probably need to provide multiple type-16 descriptors.
* Or use 0x8000'0000 = 'capacity unknown'? */
AssertLogRelMsgFailed(("DMI: RAM size %#RX64 does not fit into type-16 descriptor, clipping to %#RX64\n",
cbRamSize, (uint64_t)INT32_MAX * _1K));
pMemArray->u32MaxCapacity = INT32_MAX;
}
else
pMemArray->u32MaxCapacity = (int32_t)(cbRamSize / _1K); /* RAM size in K */
pMemArray->u16MemErrorHandle = 0xfffe; /* No error info structure */
pMemArray->u16NumberOfMemDevices = 1;
DMI_TERM_STRUCT;
/***************************************
* DMI Memory Device (Type 17) *
***************************************/
PDMIMEMORYDEV pMemDev = (PDMIMEMORYDEV)pszStr;
DMI_CHECK_SIZE(sizeof(*pMemDev));
DMI_START_STRUCT(pMemDev);
if (fDmiExposeMemoryTable)
pMemDev->header.u8Type = 17; /* Memory Device */
else
pMemDev->header.u8Type = 126; /* inactive structure */
pMemDev->header.u8Length = sizeof(*pMemDev);
pMemDev->header.u16Handle = 0x0006;
pMemDev->u16PhysMemArrayHandle = 0x0005; /* handle of array we belong to */
pMemDev->u16MemErrHandle = 0xfffe; /* system doesn't provide this information */
pMemDev->u16TotalWidth = 0xffff; /* Unknown */
pMemDev->u16DataWidth = 0xffff; /* Unknown */
int16_t u16RamSizeM;
if (cbRamSize / _1M > INT16_MAX)
{
/** @todo 32G-1M limit. Provide multiple type-17 descriptors.
* The highest bit of u16Size must be 0 to specify 'GB' units / 1 would be 'KB' */
AssertLogRelMsgFailed(("DMI: RAM size %#RX64 too big for one type-17 descriptor, clipping to %#RX64\n",
cbRamSize, (uint64_t)INT16_MAX * _1M));
u16RamSizeM = INT16_MAX;
}
else
u16RamSizeM = (uint16_t)(cbRamSize / _1M);
if (u16RamSizeM == 0)
u16RamSizeM = 0x400; /* 1G */
pMemDev->u16Size = u16RamSizeM; /* RAM size */
pMemDev->u8FormFactor = 0x09; /* DIMM */
pMemDev->u8DeviceSet = 0x00; /* Not part of a device set */
DMI_READ_CFG_STR_DEF(pMemDev->u8DeviceLocator, " ", "DIMM 0");
DMI_READ_CFG_STR_DEF(pMemDev->u8BankLocator, " ", "Bank 0");
pMemDev->u8MemoryType = 0x03; /* DRAM */
pMemDev->u16TypeDetail = 0; /* Nothing special */
pMemDev->u16Speed = 1600; /* Unknown, shall be speed in MHz */
DMI_READ_CFG_STR(pMemDev->u8Manufacturer, DmiSystemVendor);
DMI_READ_CFG_STR_DEF(pMemDev->u8SerialNumber, " ", "00000000");
DMI_READ_CFG_STR_DEF(pMemDev->u8AssetTag, " ", "00000000");
DMI_READ_CFG_STR_DEF(pMemDev->u8PartNumber, " ", "00000000");
pMemDev->u8Attributes = 0; /* Unknown */
DMI_TERM_STRUCT;
/*****************************
* DMI OEM strings (Type 11) *
*****************************/
PDMIOEMSTRINGS pOEMStrings = (PDMIOEMSTRINGS)pszStr;
DMI_CHECK_SIZE(sizeof(*pOEMStrings));
DMI_START_STRUCT(pOEMStrings);
#ifdef VBOX_WITH_DMI_OEMSTRINGS
pOEMStrings->header.u8Type = 0xb; /* OEM Strings */
#else
pOEMStrings->header.u8Type = 126; /* inactive structure */
#endif
pOEMStrings->header.u8Length = sizeof(*pOEMStrings);
pOEMStrings->header.u16Handle = 0x0002;
pOEMStrings->u8Count = 2;
char szTmp[64];
RTStrPrintf(szTmp, sizeof(szTmp), "vboxVer_%u.%u.%u",
RTBldCfgVersionMajor(), RTBldCfgVersionMinor(), RTBldCfgVersionBuild());
DMI_READ_CFG_STR_DEF(pOEMStrings->u8VBoxVersion, "DmiOEMVBoxVer", szTmp);
RTStrPrintf(szTmp, sizeof(szTmp), "vboxRev_%u", RTBldCfgRevision());
DMI_READ_CFG_STR_DEF(pOEMStrings->u8VBoxRevision, "DmiOEMVBoxRev", szTmp);
DMI_TERM_STRUCT;
/*************************************
* DMI OEM specific table (Type 128) *
************************************/
PDMIOEMSPECIFIC pOEMSpecific = (PDMIOEMSPECIFIC)pszStr;
DMI_CHECK_SIZE(sizeof(*pOEMSpecific));
DMI_START_STRUCT(pOEMSpecific);
pOEMSpecific->header.u8Type = 0x80; /* OEM specific */
pOEMSpecific->header.u8Length = sizeof(*pOEMSpecific);
pOEMSpecific->header.u16Handle = 0x0008; /* Just next free handle */
pOEMSpecific->u32CpuFreqKHz = RT_H2LE_U32((uint32_t)((uint64_t)TMCpuTicksPerSecond(PDMDevHlpGetVM(pDevIns)) / 1000));
DMI_TERM_STRUCT;
/* End-of-table marker - includes padding to account for fixed table size. */
PDMIHDR pEndOfTable = (PDMIHDR)pszStr;
pszStr = (char *)(pEndOfTable + 1);
pEndOfTable->u8Type = 0x7f;
pEndOfTable->u8Length = sizeof(*pEndOfTable);
pEndOfTable->u16Handle = 0xFEFF;
*pcbDmiTables = ((uintptr_t)pszStr - (uintptr_t)pTable) + 2;
/* We currently plant 10 DMI tables. Update this if tables number changed. */
*pcNumDmiTables = 10;
/* If more fields are added here, fix the size check in DMI_READ_CFG_STR */
/* Success! */
break;
}
#undef DMI_READ_CFG_STR
#undef DMI_READ_CFG_S32
#undef DMI_CHECK_SIZE
return VINF_SUCCESS;
}