windows-nt/Source/XPSP1/NT/com/rpc/runtime/trans/common/complete.cxx
2020-09-26 16:20:57 +08:00

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/*++
Copyright (C) Microsoft Corporation, 1996 - 1999
Module Name:
Complete.cxx
Abstract:
The place that IO completes
Author:
Mario Goertzel [MarioGo]
Revision History:
MarioGo 3/19/1996 Bits 'n pieces
MarioGo 10/25/1996 Async RPC
--*/
#include <precomp.hxx>
#include <trans.hxx>
#include <cotrans.hxx>
HANDLE RpcCompletionPort = 0;
HANDLE InactiveRpcCompletionPort = 0;
HANDLE *RpcCompletionPorts;
long *CompletionPortHandleLoads;
BASE_ADDRESS *AddressList = 0;
HANDLE g_NotificationHandle = 0;
LONG g_ListeningForPNPNotifications = 0;
LONG g_NotifyRt = 0;
OVERLAPPED g_Overlapped;
CRITICAL_SECTION AddressListLock;
RPC_STATUS
RPC_ENTRY
COMMON_PostNonIoEvent(
RPC_TRANSPORT_EVENT Event,
DWORD Type,
PVOID Context
)
{
BOOL b;
int i = 5;
ASSERT(Event != TRANSPORT_POSTED_KEY);
do
{
// Kick a listening thread
b = PostQueuedCompletionStatus(RpcCompletionPort,
Type,
Event,
(LPOVERLAPPED)Context
);
if (b)
{
break;
}
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "PostQueuedCompleitonStatus failed %d\n",
GetLastError()));
Sleep(100);
i--;
}
while(i);
//
// If this has failed we are out of luck unless something else manages
// to wake up the listen thread.
//
// As of 4/19/96 PostQueuedCompletionStatus will only fail if the handle
// is invalid or the kernel is unable to allocate a small bit of non-paged
// pool. Either way we're toast...
//
ASSERT(b);
if (!b)
{
return(RPC_S_OUT_OF_RESOURCES);
}
return(RPC_S_OK);
}
RPC_STATUS
RPC_ENTRY
COMMON_PostRuntimeEvent(
IN DWORD Type,
IN PVOID Context
)
/*++
Routine Description:
Posts an event to the completion port. This will complete
with an event type of RuntimePosted, event status RPC_S_OK
and event context of Context.
Arguments:
Context - Context associated with the event
Return Value:
RPC_S_OK
RPC_S_OUT_OF_RESOURCES
RPC_S_OUT_OF_MEMORY
--*/
{
return(COMMON_PostNonIoEvent(RuntimePosted, Type, Context));
}
void
COMMON_AddressManager(
BASE_ADDRESS *pAddress
)
/*++
Routine Description:
When an address does not have an outstanding connect/accept/recv for some
reason it is added to the AddressList global list of address objects. Listen
threads will try to submit a listen on these as time passed. New addresses
are put onto this list when they are ready to start listening.
Arguments:
pAddress - An address without an outstanding listen.
Return Value:
None
--*/
{
EnterCriticalSection(&AddressListLock);
if (pAddress->InAddressList == NotInList)
{
#if DBG
// The address should not be in the list.
BASE_ADDRESS *pT = AddressList;
while(pT)
{
ASSERT(pT != pAddress);
pT = pT->pNext;
}
#endif
pAddress->pNext = AddressList;
AddressList = pAddress;
pAddress->InAddressList = InTheList;
}
LeaveCriticalSection(&AddressListLock);
}
void RPC_ENTRY
COMMON_ServerCompleteListen(
IN RPC_TRANSPORT_ADDRESS ThisAddress
)
/*++
Routine Description:
Called on an address once the runtime is really ready to start
processing connections on this address.
Arguments:
Address - A fully initalized address which the runtime is
ready to start receiving connection on.
Return Value:
None
--*/
{
BASE_ADDRESS *pList = (BASE_ADDRESS *) ThisAddress;
while(pList)
{
COMMON_AddressManager(pList);
pList = pList->pNextAddress;
}
COMMON_ListenForPNPNotifications();
// The TRANSPORT message indicates that a new
// address has been added to the AddressList.
COMMON_PostNonIoEvent(TRANSPORT, 0, 0);
return;
}
RPC_STATUS RPC_ENTRY
COMMON_PrepareNewHandle(HANDLE hAdd)
/*++
Routine Description:
Generic wrapper used to add a newly create IO handle to
to the IO completion port.
Arguments:
hAdd - The handle to be added to the port.
Return Value:
RPC_S_OK
RPC_S_OUT_OF_MEMORY
--*/
{
HANDLE h = CreateIoCompletionPort(hAdd,
RpcCompletionPort,
TRANSPORT_POSTED_KEY,
0);
if (h)
{
ASSERT(h == RpcCompletionPort);
return(RPC_S_OK);
}
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "CreateIoCompletionPort failed %d\n",
GetLastError()));
ASSERT(GetLastError() == ERROR_NO_SYSTEM_RESOURCES);
return(RPC_S_OUT_OF_MEMORY);
}
void
COMMON_RemoveAddress (
IN BASE_ADDRESS *Address
)
/*++
Function Name:COMMON_RemoveAddress
Parameters:
Description:
This function must be called only when AddressListLock is held
Remove address from the address manager list
Returns:
--*/
{
Address->InAddressList = Inactive;
//
// Close the sockets in the address
//
if (Address->type & DATAGRAM)
{
DG_DeactivateAddress((WS_DATAGRAM_ENDPOINT *) Address);
}
else
{
WS_DeactivateAddress((WS_ADDRESS *) Address);
}
}
VOID
RPC_ENTRY
COMMON_StartPnpNotifications (
)
{
ASSERT(RpcCompletionPort);
g_NotifyRt = TRUE;
COMMON_ListenForPNPNotifications();
}
VOID
RPC_ENTRY
COMMON_ListenForPNPNotifications (
)
/*++
Function Name:COMMON_ListenForPNPNotifications
Parameters:
Description:
Returns:
--*/
{
int retval;
HANDLE h;
if (hWinsock2 == 0)
{
//
// Winsock not loaded, don't need to do any PNP stuff
//
return;
}
if (InterlockedIncrement(&g_ListeningForPNPNotifications) != 1)
{
return;
}
// REVIEW: We may need to provide a mechanism to prevent spinning for lack of
// resources
if (g_NotificationHandle == 0)
{
retval = WSAProviderConfigChange(
&g_NotificationHandle,
0, 0);
if (retval != 0 || g_NotificationHandle == 0)
{
if (g_NotificationHandle)
CloseHandle(g_NotificationHandle);
goto Cleanup;
}
h = CreateIoCompletionPort(g_NotificationHandle,
RpcCompletionPort,
NewAddress,
0);
if (h == 0)
{
CloseHandle(g_NotificationHandle);
goto Cleanup;
}
else
{
ASSERT(h == RpcCompletionPort);
}
}
// if the previous request is still there, we don't want to submit another one
if (g_Overlapped.Internal != STATUS_PENDING)
{
g_Overlapped.hEvent = 0;
g_Overlapped.Offset = 0;
g_Overlapped.OffsetHigh = 0;
retval = WSAProviderConfigChange(
&g_NotificationHandle,
&g_Overlapped,
0);
if (retval != 0)
{
if (GetLastError() != WSA_IO_PENDING)
{
CloseHandle(g_NotificationHandle);
goto Cleanup;
}
}
}
if (!TransportProtocol::ResubmitQueriesIfNecessary())
{
CloseHandle(g_NotificationHandle);
goto Cleanup;
}
g_ListeningForPNPNotifications = 2;
return;
Cleanup:
g_ListeningForPNPNotifications = 0;
g_NotificationHandle = 0;
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "COMMON_ListenForPNPNotifications failed\n"));
}
RPC_STATUS
RPC_ENTRY
COMMON_ProcessCalls(
IN INT Timeout,
OUT RPC_TRANSPORT_EVENT *pEvent,
OUT RPC_STATUS *pEventStatus,
IN OUT PVOID *ppEventContext,
OUT UINT *pBufferLength,
OUT BUFFER *pBuffer,
OUT PVOID *ppSourceContext)
/*++
Routine Description:
This routine waits for any async IO to complete for all protocols
within a transport DLL. It maybe called by multiple threads at a
time. A minimum of one thread should always be calling this function
for each DLL.
Note: async clients with no outstanding IO may allow the
last thread to timeout and only call this function again
when a new call is started.
Note: During calls to this API in connection oriented servers
a callback to I_RpcTransServerNewConnection() may occur.
Arguments:
Timeout - -1 - infinite
other - number of milliseconds to wait for IO
pEvent - Set on return to the type of IO event which finished.
pEventStatus - The status of the IO event
ppEventContext - On IN, the handle that the thread should dequeue on.
On output the context of the event
pBufferLength - If the event is successful then the number of
bytes transferred.
pBuffer - If the even is successful then the buffer associated
with the IO.
ppSourceContext - For datagram recvs this is the address
of the sender.
For connection sends this is the SendContext associated
with the IO. For connection recvs it is NULL.
Return Value:
RPC_S_OK - IO completed, see pEventStatus.
RPC_P_TIMEOUT - only if Timeout != INFINITE and is exceeded.
--*/
{
BOOL b;
ULONG_PTR key;
DWORD bytes;
RPC_STATUS status;
LPOVERLAPPED lpOverlapped;
PBASE_OVERLAPPED pBaseOverlapped;
PREQUEST pRequest;
PCONNECTION pConnection;
PADDRESS pAddress;
INT LocalTimeout;
HANDLE hCompletionPortHandle = (HANDLE) *ppEventContext;
DWORD LastError;
ASSERT(RpcCompletionPort);
*pEvent = 0;
*pBuffer = 0;
for(;;)
{
//
// Do general house keeping work here. If it appears that more
// house keeping work will be required in the future make
// sure to reduce the LocalTimeout to something < INFINITE.
//
LocalTimeout = Timeout;
// House keeping - look for any non-listening addresses and see if we
// can make them listen now. Addresses start in this list and are added
// back into the list if they are unable to submit a listen for some reason.
if (AddressList)
{
EnterCriticalSection(&AddressListLock);
if (AddressList)
{
pAddress = (PADDRESS)AddressList;
AddressList = 0;
if (Timeout == INFINITE)
{
// We want to wake up again soon and recheck the AddressList.
LocalTimeout = 7*1000;
}
}
else
{
pAddress = 0;
}
LeaveCriticalSection(&AddressListLock);
while(pAddress)
{
PADDRESS pNext = (PADDRESS)pAddress->pNext;
pAddress->pNext = 0;
if (pAddress->InAddressList == InTheList)
{
pAddress->InAddressList = NotInList;
pAddress->SubmitListen(pAddress);
}
pAddress = pNext;
}
}
if (!g_ListeningForPNPNotifications)
{
COMMON_ListenForPNPNotifications();
}
//
// The good part! Wait for something to happen...
//
b = GetQueuedCompletionStatus(hCompletionPortHandle,
&bytes,
&key,
&lpOverlapped,
LocalTimeout
);
if (!b && !lpOverlapped)
{
// If lpOverlapped is NULL this mean no IO completed.
if ((status = GetLastError()) == STATUS_TIMEOUT)
{
if (Timeout == INFINITE)
{
continue;
}
return(RPC_P_TIMEOUT);
}
else
{
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "GetQueuedCompletionStatus failed %d\n",
status));
ASSERT(0);
Sleep(1); // Avoid burning all the CPU in case we are hosed.
continue;
}
}
//PrintToDebugger("A request arrived at the completion port\n");
if (key != TRANSPORT_POSTED_KEY)
{
if (b)
{
// Internal Non-IO posted event
// Key - The type of event
// lpOverlapped - The context associated with the event
ASSERT( key == RuntimePosted
|| key == TRANSPORT
|| key == NewAddress);
// RuntimePosted events allowed the RPC runtime to wake
// a listening thread with an atbitrary context.
if (key == RuntimePosted)
{
*pEvent = RuntimePosted;
*pEventStatus = RPC_S_OK;
*ppEventContext = lpOverlapped;
*pBufferLength = bytes;
return(RPC_S_OK);
}
//
// A protocol was just loaded or unloaded. Take care of it
//
if (key == NewAddress)
{
if (TransportProtocol::HandlePnPStateChange())
{
g_ListeningForPNPNotifications = 0;
*pEvent = NewAddress;
return(RPC_S_OK);
}
// REVIEW: Not processing notification handling failures
// may create problems where new protocols, or unloading of
// old ones are ignored. This is not very bad, so we keep
// it simple and ignore it.
g_ListeningForPNPNotifications = 0;
continue;
}
// TRANSPORT event is posted when a new address
// has been added to the AddressListen. Simply continue
// around the loop.
ASSERT(bytes == 0);
ASSERT(lpOverlapped == 0);
}
else
{
if (key == NewAddress)
{
g_ListeningForPNPNotifications = 0;
}
}
continue;
}
ASSERT(!b || lpOverlapped);
status = RPC_S_OK;
if (!b)
{
pBaseOverlapped = FindOverlapped(lpOverlapped);
pRequest = FindRequest(lpOverlapped);
LastError = GetLastError();
if (( pRequest->type & ADDRESS)
&& (LastError != ERROR_MORE_DATA))
{
VALIDATE(GetLastError())
{
ERROR_NETNAME_DELETED,
ERROR_BAD_NETPATH,
ERROR_NO_SYSTEM_RESOURCES,
ERROR_SEM_TIMEOUT,
ERROR_OPERATION_ABORTED,
ERROR_HOST_UNREACHABLE,
ERROR_NETWORK_UNREACHABLE,
ERROR_UNEXP_NET_ERR,
ERROR_NOT_ENOUGH_QUOTA,
ERROR_BROKEN_PIPE,
ERROR_CONNECTION_ABORTED
} END_VALIDATE;
COMMON_AddressManager((BASE_ADDRESS *)pRequest);
continue;
}
switch (LastError)
{
case ERROR_MORE_DATA:
{
// Normal parital read of a connection request
// or an oversized datagram. This is ok, falls
// into the normal path.
status = RPC_P_OVERSIZE_PACKET;
break;
}
case ERROR_INVALID_HANDLE:
// Named pipes allows a close to reach the server before
// the read. When this happens the server rejects the read
// with an invalid handle error.
ASSERT(pRequest->id == NMP);
ASSERT(pRequest->fAborted);
// Fall into normal close case.
case ERROR_NETNAME_DELETED:
case ERROR_BROKEN_PIPE:
case ERROR_PIPE_NOT_CONNECTED:
case ERROR_NO_DATA:
case ERROR_SEM_TIMEOUT:
case ERROR_GRACEFUL_DISCONNECT:
case WSAECONNRESET:
case WSAESHUTDOWN:
case WSAECONNABORTED:
case WSAEHOSTDOWN:
case ERROR_CONNECTION_ABORTED:
{
bytes = 0;
ASSERT((pRequest->type & PROTO_MASK) == CONNECTION);
// Will be handled as a close
break;
}
case ERROR_NO_SYSTEM_RESOURCES:
{
//
// This is just like the errors above except that both c/o and datagram requests
// can generate it.
//
if ((pRequest->type & PROTO_MASK) == CONNECTION)
{
bytes = 0;
// Will be handled as a close
}
else
{
bytes = 0;
status = ERROR_OPERATION_ABORTED;
}
break;
}
case ERROR_OPERATION_ABORTED:
{
//
// When a thread that issued an I/O dies the operation
// completes with this error.
// There are a couple cases here:
// 1) The IO is datagram in which case we can just
// reissue the I/O on this thread. In an idle
// server eventually all DG I/O will migrate to
// the single listening thread.
// 2) The IO is on a client connection and the
// the client thread has died. In this case
// we need to abort the connection and return
// to the runtime.
// 3) If this happens on an address we have a bug.
// 4) If this happens on a server connection we have a bug.
//
if (pRequest->type & DATAGRAM)
{
// We deal with this in the normal datagram path
ASSERT(bytes == 0);
status = ERROR_OPERATION_ABORTED;
break;
}
ASSERT((pRequest->type & PROTO_MASK) == CONNECTION);
// zero out the bytes just in case. Sometimes network operations
// return positive byte count on operation aborted
bytes = 0;
// We'll treat this as a connection close on the client.
// REVIEW: Maybe do something better.
break;
}
case ERROR_NETWORK_UNREACHABLE:
case ERROR_HOST_UNREACHABLE:
case ERROR_PORT_UNREACHABLE:
//
// errors coming from ICMP packets to our UDP endpoint.
// Winsock does not present this in a way our async architecture
// can use, so ignore them.
//
if ((pRequest->type & PROTO_MASK) == CONNECTION)
{
bytes = 0;
// Will be handled as a close
}
else
{
status = ERROR_OPERATION_ABORTED;
}
break;
default:
{
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "IO failed %lX %d\n",
pRequest,
GetLastError()));
ASSERT(0);
status = RPC_S_OUT_OF_RESOURCES;
// treat as a close
bytes = 0;
break;
}
}
}
// here we actually have a completed IO
pBaseOverlapped = FindOverlapped(lpOverlapped);
pRequest = FindRequest(lpOverlapped);
switch(pRequest->type & PROTO_MASK)
{
case CONNECTION:
//
// Connection IO completed.
//
I_RpcTransUnprotectThread(pBaseOverlapped->thread);
pConnection = (PCONNECTION)pRequest;
// A read or write either completed or failed
*ppEventContext = pConnection;
if (pBaseOverlapped == &pConnection->Read)
{
// Read completed
*ppSourceContext = UlongToPtr(bytes);
if (bytes == 0)
{
*pEvent = pConnection->type | RECEIVE;
pConnection->Abort();
*pEventStatus = RPC_P_CONNECTION_SHUTDOWN;
return(RPC_S_OK);
}
status = pConnection->ProcessRead(bytes,
pBuffer,
pBufferLength);
// N.B. Do not move the reading of the pConnection->type
// before ProcessRead. ProcessRead can change the type based
// on what it reads
*pEvent = pConnection->type | RECEIVE;
if (status != RPC_P_PARTIAL_RECEIVE)
{
ASSERT( status == RPC_P_RECEIVE_FAILED
|| status == RPC_S_OK
|| status == RPC_P_PACKET_CONSUMED);
*pEventStatus = status;
return(RPC_S_OK);
}
// Message is not complete, submit the next read and continue.
status = CO_SubmitRead(pConnection);
if (status != RPC_S_OK)
{
ASSERT(status == RPC_P_RECEIVE_FAILED);
*pEventStatus = status;
return(RPC_S_OK);
}
}
else
{
// Write completed
CO_SEND_CONTEXT *pSend = (CO_SEND_CONTEXT *)pBaseOverlapped;
ASSERT(pSend->Write.pAsyncObject == pConnection);
*pEvent = pConnection->type | SEND;
*ppSourceContext = pSend;
*pBuffer = pSend->pWriteBuffer;
if (bytes == 0)
{
pConnection->Abort();
*pEventStatus = RPC_P_SEND_FAILED;
*pBufferLength = 0;
}
else
{
status = RPC_S_OK;
*pEventStatus = status;
*pBufferLength = pSend->maxWriteBuffer;
// Netbios client-side writes are sizeof(DWORD) too big since
// they also include the sequence number.
ASSERT( bytes == pSend->maxWriteBuffer
|| ( (bytes == pSend->maxWriteBuffer + sizeof(DWORD))
&& ((pConnection->type & TYPE_MASK) == CLIENT) ) );
}
return(RPC_S_OK);
}
break;
case ADDRESS:
{
// ASSERT(bytes == 0);
pAddress = (PADDRESS)pRequest;
PCONNECTION pNewConnection = 0;
status = pAddress->NewConnection(pAddress, &pNewConnection);
if (RPC_S_OK == status)
{
// Opened a connection, now try to submit the first recv.
ASSERT(pNewConnection);
RPC_CONNECTION_TRANSPORT *pInfo;
pInfo = (RPC_CONNECTION_TRANSPORT *)TransportTable[pAddress->id].pInfo;
ASSERT(pInfo->Recv);
status = (pInfo->Recv)(pNewConnection);
if (RPC_S_OK != status)
{
ASSERT(status == RPC_P_RECEIVE_FAILED);
*pEvent = pNewConnection->type | RECEIVE;
*ppEventContext = pNewConnection;
*pEventStatus = status;
return(RPC_S_OK);
}
}
// Connection has been established or closed, either
// way we can continue around the loop.
}
break;
case DATAGRAM:
{
BASE_ASYNC_OBJECT *pBase = (BASE_ASYNC_OBJECT*)pRequest;
#ifdef NCADG_MQ_ON
if (pBase->id == MSMQ)
{
// MSMQ (Falcon) datagram path:
MQ_DATAGRAM *pDatagram = (MQ_DATAGRAM*)pRequest;
MQ_DATAGRAM_ENDPOINT *pEndpoint = (MQ_DATAGRAM_ENDPOINT*)pDatagram->pEndpoint;
if (status == RPC_P_OVERSIZE_PACKET)
{
// Data still pending, get it:
status = MQ_ResizePacket( pEndpoint,
(void**)&pDatagram->pAddress,
(unsigned int*)pBufferLength,
pBuffer );
}
if (status == RPC_S_OK)
{
MQ_FillInAddress(pDatagram->pAddress,pDatagram->Read.aMsgPropVar);
*pEvent = pDatagram->type;
*pEventStatus = status;
*ppEventContext = pEndpoint;
// WATCH OUT! MSMQ doesn't return the size in "bytes"
// from GetQueuedCompletionStatus() like everything
// else does! We need to extract the #bytes from the
// message structure.
//
// DON'T: *pBufferLength = bytes;
*pBufferLength = pDatagram->Read.aMsgPropVar[1].ulVal;
*pBuffer = (BUFFER)pDatagram->pPacket;
*ppSourceContext = pDatagram->pAddress;
pDatagram->pPacket = 0;
pDatagram->dwPacketSize = 0;
}
pDatagram->Busy = 0;
LONG c = InterlockedDecrement(&pEndpoint->cPendingIos);
ASSERT(c >= 0);
if (c == 0)
{
// No pending receives, time to post more. This doesn't
// get hit very often, normally additional recieves are
// after sending a packet. (see DG_SendPacket)
MQ_SubmitReceives(pEndpoint);
}
if (status == RPC_S_OK)
{
return RPC_S_OK;
}
}
else
#endif
{
// Normal datagram path:
WS_DATAGRAM *pDatagram = (WS_DATAGRAM *)pRequest;
WS_DATAGRAM_ENDPOINT *pEndpoint = (WS_DATAGRAM_ENDPOINT*)pDatagram->pEndpoint;
if (status == RPC_P_OVERSIZE_PACKET)
{
ASSERT(bytes == pDatagram->Packet.len);
}
if ( status == RPC_S_OK
|| status == RPC_P_OVERSIZE_PACKET)
{
// A receive completed
ASSERT(bytes);
*pEvent = pDatagram->type;
*pEventStatus = status;
*ppEventContext = pEndpoint;
*pBufferLength = bytes;
*pBuffer = (BUFFER)pDatagram->Packet.buf;
*ppSourceContext = pDatagram->AddressPair;
ASSERT( pDatagram->Packet.buf );
// Ready the datagram for another IO operation.
pDatagram->Packet.buf = 0;
status = RPC_S_OK;
}
#if DBG
if (status != RPC_S_OK &&
status != ERROR_OPERATION_ABORTED)
{
DbgPrint("RPC: I/O completed with 0x%x\n", status);
ASSERT( 0 );
}
#endif
// Do not touch the datagram after this!
pDatagram->Busy = 0;
LONG c = InterlockedDecrement(&pEndpoint->cPendingIos);
ASSERT(c >= 0);
if (c == 0)
{
// No pending receives, time to post more. This doesn't
// get hit very often, normally additional recieves are
// after sending a packet. (see DG_SendPacket)
DG_SubmitReceives(pEndpoint);
}
if (status == RPC_S_OK)
{
return RPC_S_OK;
}
}
}
// Operation aborted, continue around the loop.
break;
default:
TransDbgPrint((DPFLTR_RPCPROXY_ID,
DPFLTR_WARNING_LEVEL,
RPCTRANS "Invalid request type: 0x%x (%p)\n",
pRequest->type, pRequest));
ASSERT(0);
break;
}
// Loop
}
ASSERT(0);
return(RPC_S_INTERNAL_ERROR);
}