Add MMP files to build libOpenVG_sw.lib which uses LINKAS to redirect to libOpenVG.dll (and
the same for libEGL_sw.lib and libOpenVGU_sw.lib).
Only the libEGL_sw.lib redirection isn't activated - this can't happen until there is a merged
libEGL.dll which supports the OpenWF synchronisation and also implements the graphical support functions.
The overall aim is to eliminate the *_sw.dll implementations, at least as a compile-time way of choosing
a software-only implementation.The correct way to choose is to put the right set of libraries into a ROM
with suitable renaming, and in the emulator to use the "switching DLL" technique to pick the right set.
As the Symbian Foundation doesn't have any alternative implementations, we don't need the switching DLLs
and we can build directly to the correct name.
// Copyright (c) 2006-2009 Nokia Corporation and/or its subsidiary(-ies).
// All rights reserved.
// This component and the accompanying materials are made available
// under the terms of "Eclipse Public License v1.0"
// which accompanies this distribution, and is available
// at the URL "http://www.eclipse.org/legal/epl-v10.html".
//
// Initial Contributors:
// Nokia Corporation - initial contribution.
//
// Contributors:
//
// Description:
//
/**
@file
@test
@internalComponent - Internal Symbian test code
*/
#include <e32std.h>
#include "tcompositionbackend.h"
#include <graphics/suerror.h>
const TInt KNotificationsAtTime = 10; //how many notifications could be processed at a time, varies from 1...
CTContentUpdateReceiver::CTContentUpdateReceiver(TInt aScreen) :
iScreen(aScreen), iVisible(ETrue)
{
RThread thread;
iReceiverThreadId = thread.Id();
}
CTContentUpdateReceiver::~CTContentUpdateReceiver()
{
if(iPeriodic)
iPeriodic->Cancel();
delete iPeriodic;
iLock.Close();
iPriorityLock.Close();
}
void CTContentUpdateReceiver::ConstructL()
{
TCallBack callback(CallBack);
callback.iPtr = this;
User::LeaveIfError(iLock.CreateLocal());
User::LeaveIfError(iPriorityLock.CreateLocal(0));
iPeriodic= CPeriodic::NewL(CPeriodic::EPriorityStandard);
iPeriodic->Start(TTimeIntervalMicroSeconds32(0),TTimeIntervalMicroSeconds32(KCompositionInterval), callback);
}
CTContentUpdateReceiver* CTContentUpdateReceiver::NewL(TInt aScreen)
{
CTContentUpdateReceiver* receiver = new (ELeave) CTContentUpdateReceiver(aScreen);
CleanupStack::PushL(receiver);
receiver->ConstructL();
CleanupStack::Pop();
return receiver;
}
TInt CTContentUpdateReceiver::Extension_(TUint aExtensionId, TAny*& aRetIface, TAny* a1)
{
switch (aExtensionId)
{
case MCompositionSurfaceUpdate::ETypeId:
aRetIface= static_cast<MCompositionSurfaceUpdate*>(this);
return KErrNone;
default: ;
}
return CExtensionContainer::Extension_(aExtensionId,aRetIface,a1);
}
TInt CTContentUpdateReceiver::CallBack(TAny *aAny)
{
return (static_cast <CTContentUpdateReceiver*> (aAny))->CheckNewNotifications();
}
void CTContentUpdateReceiver::Stop()
{
iLock.Wait();
iStop = ETrue;
iLock.Signal();
}
EXPORT_C void CTContentUpdateReceiver::SetVisible(TBool aVisible)
{
iLock.Wait();
iVisible = aVisible;
iLock.Signal();
}
TInt CTContentUpdateReceiver::CheckNewNotifications()
{
iLock.Wait();
if(iStop && (iNumberElements <= 0))
{
iLock.Signal();
CActiveScheduler::Stop();
return 0;//the return value is irrelevant for CPeriodic function
}
if(iSetInternalPriority)
{
TRAPD(res, DoSetInternalPriorityL());
iLock.Signal();
__ASSERT_ALWAYS(res ==KErrNone, User::Panic(_L("CheckNewNotifications"), KErrGeneral));
return 0;//the return value is irrelevant for CPeriodic function
}
TInt index = 0;
RThread thread;
TInt res = thread.Open(iThreadId);
__ASSERT_ALWAYS(res ==KErrNone, User::Panic(_L("CheckNewNotifications"), KErrGeneral));
//we will check only one limited amount of requests at the time
for(TInt iteration = 0; (iNumberElements > index) && (iteration < KNotificationsAtTime); iteration++)
{
if(iArray[index].iType == EReqDisplayed)
{
*(iArray[index].iTimeStamp) = User::FastCounter();
if(iCompositionOrder)
{
iCompositionOrder->SetOrder(EOrderComposition);
}
}
else if(iArray[index].iType == EReqDisplayedXTimes)
{
iArray[index].iDisplayedXTimes--;
if(iArray[index].iDisplayedXTimes > 0)
{
index++;
continue;
}
}
TRequestStatus* status = iArray[index].iStatus;
res = iVisible ? KErrNone : KErrNotVisible;
Remove(index);
thread.RequestComplete(status, res);
}
thread.Close();
iLock.Signal();
return 0;//the return value is irrelevant for CPeriodic function
}
void CTContentUpdateReceiver::DoSetInternalPriorityL()
{
RThread thread;
User::LeaveIfError(thread.Open(iReceiverThreadId));
thread.SetPriority(iInternalPriority);
thread.Close();
TInt compositionInterval = KCompositionInterval;
CPeriodic::TPriority priority = CPeriodic::EPriorityStandard;
if(iInternalPriority < EPriorityNormal)
{
priority = CPeriodic::EPriorityIdle;
compositionInterval = KCompositionIntervalLong;
}
else if (iInternalPriority > EPriorityNormal)
{
priority = CPeriodic::EPriorityHigh;
compositionInterval = KCompositionIntervalShort;
}
TCallBack callback(CallBack);
callback.iPtr = this;
iPeriodic->Cancel();
delete iPeriodic;
iPeriodic= CPeriodic::NewL(priority);
iPeriodic->Start(TTimeIntervalMicroSeconds32(compositionInterval),TTimeIntervalMicroSeconds32(compositionInterval), callback);
iSetInternalPriority = EFalse;
iPriorityLock.Signal();
}
EXPORT_C TInt CTContentUpdateReceiver::SetInternalPriority(TThreadPriority aInternalPriority)
{
iLock.Wait();
iInternalPriority = aInternalPriority;
iSetInternalPriority = ETrue;
iLock.Signal();
//wait for the priority changes takes place
iPriorityLock.Wait();
return KErrNone;
}
void CTContentUpdateReceiver::ContentUpdated(const TSurfaceId& aId,
TInt aBuffer,
const TRegion* aRegion,
TRequestStatus* aStatusAvailable,
TRequestStatus* aStatusDisplayed, TUint32* aTimeStamp,
TRequestStatus* aStatusDisplayedXTimes, TInt* aDisplayedXTimes)
{
(TAny)&aId;
(TAny)aBuffer;
(TAny)aRegion;
iLock.Wait();
if(iStop)
{
if(aStatusAvailable)
{
User::RequestComplete(aStatusAvailable, KErrDied);
}
if(aStatusDisplayed)
{
User::RequestComplete(aStatusDisplayed, KErrDied);
}
if(aStatusDisplayedXTimes)
{
User::RequestComplete(aStatusDisplayedXTimes, KErrDied);
}
iLock.Signal();
return;
}
RThread thread;
iThreadId = thread.Id();
if(aStatusAvailable)
{
Add(aStatusAvailable, EReqAvailable);
}
if(aStatusDisplayed)
{
Add(aStatusDisplayed, EReqDisplayed, 0, aTimeStamp);
}
if(aStatusDisplayedXTimes)
{
Add(aStatusDisplayedXTimes, EReqDisplayedXTimes, *aDisplayedXTimes);
}
iLock.Signal();
}
/**
Add notification to the list. The function is called from the SUS thread.
The client of this API must use a lock mechanizm to preserve data integrity.
*/
TInt CTContentUpdateReceiver::Add(TRequestStatus *aStatus, RequestType aType,
TInt aDisplayedXTimes, TUint32* aTimeStamp)
{
TInt index = iNumberElements;
TInt max = sizeof(iArray) / sizeof(iArray[0]) - 1;
if(index >= max)
return KErrOverflow;
iArray[index].iStatus = aStatus;
iArray[index].iType = aType;
iArray[index].iDisplayedXTimes = aDisplayedXTimes;
iArray[index].iTimeStamp = aTimeStamp;
iNumberElements++;
return KErrNone;
}
/**
Remove notification from the list.
The function is called from the backend thread.
The client of this API must use a lock mechanizm to preserve data integrity.
*/
void CTContentUpdateReceiver::Remove(TInt aIndex)
{
TInt max = sizeof(iArray) / sizeof(iArray[0]) - 1;
if((aIndex < 0) || (aIndex >= max))
return;
iNumberElements--;
if(aIndex < iNumberElements)
{
Mem::Move(&iArray[aIndex], &iArray[aIndex + 1], (iNumberElements - aIndex) * sizeof(RequestObject));
iArray[iNumberElements].iType= EReqEmpty;
}
else
{
iArray[aIndex].iType = EReqEmpty;
}
}
TInt CTContentUpdateReceiver::ThreadFunction(TAny* aAny)
{
// get clean-up stack
CTrapCleanup* cleanup=CTrapCleanup::New();
RThread thread;
_LIT(KTestReceiver, "TestReceiver");
__ASSERT_ALWAYS(cleanup!=NULL, thread.Panic( KTestReceiver, KErrNoMemory));
// create an active scheduler and server
CActiveScheduler *pA = new CActiveScheduler;
__ASSERT_ALWAYS(pA != NULL, thread.Panic( KTestReceiver, KErrNoMemory));
//Install the active scheduler
CActiveScheduler::Install(pA);
CTContentUpdateReceiver *pCB = NULL;
TInt screen = * (static_cast <TInt*> (aAny));
TRAPD(err, pCB = CTContentUpdateReceiver::NewL(screen));
__ASSERT_ALWAYS(err == KErrNone, thread.Panic( KTestReceiver, err));
*(static_cast <CTContentUpdateReceiver**> (aAny)) = pCB;
// Let everyone know that we are ready to
// deal with requests.
RThread::Rendezvous(KErrNone);
// And start fielding requests from client(s).
CActiveScheduler::Start();
// Tidy up...
delete pCB;
delete pA;
delete cleanup;
return KErrNone;
}
_LIT(KMaskBackend, "CompositionBackend_%d");
const TUint KDefaultHeapSize=0x10000;
EXPORT_C TInt StartTestUpdateReceiver(CTContentUpdateReceiver*& aReceiver, TInt aScreen)
{
RThread compositionThread;
TInt res = KErrGeneral;
TBuf<64> contentUpdateReceiverThreadName;
TBuf<64> contentUpdateReceiverThreadMask;
// Guarantee uniqueness of thread name by using timestamp
TTime tm;
TBuf<32> timeStamp;
tm.UniversalTime();
TRAP(res, tm.FormatL(timeStamp, _L("_%H%T%S%C")));
if(res != KErrNone)
{
return res;
}
contentUpdateReceiverThreadName.Format(KMaskBackend, aScreen);
contentUpdateReceiverThreadName.Append(timeStamp);
contentUpdateReceiverThreadMask = contentUpdateReceiverThreadName;
contentUpdateReceiverThreadMask.Insert(0, _L("*"));
TFindThread findThread(contentUpdateReceiverThreadMask);
TFullName name;
// Need to check that the thread exists.
if (findThread.Next(name)!=KErrNone)
{
aReceiver = reinterpret_cast <CTContentUpdateReceiver*> (aScreen);
// Create the thread for the server.
res = compositionThread.Create(contentUpdateReceiverThreadName,
CTContentUpdateReceiver::ThreadFunction,
KDefaultStackSize,
KDefaultHeapSize,
KDefaultHeapSize,
(TAny*) &aReceiver
);
// The thread has been created OK so get it started - however
// we need to make sure that it has started before we continue.
if (res==KErrNone)
{
TRequestStatus rendezvousStatus;
compositionThread.SetPriority(EPriorityNormal);
compositionThread.Rendezvous(rendezvousStatus);
compositionThread.Resume();
User::WaitForRequest(rendezvousStatus);
res = rendezvousStatus.Int();
}
}
compositionThread.Close();
return res;
}
EXPORT_C void CloseTestUpdateReceiver(CTContentUpdateReceiver* aReceiver)
{
if(!aReceiver)
return;
TBuf<64> contentUpdateReceiverThreadName;
contentUpdateReceiverThreadName.Format(KMaskBackend, aReceiver->Screen());
TBuf<64> contentUpdateReceiverThreadMask;
contentUpdateReceiverThreadMask = contentUpdateReceiverThreadName;
contentUpdateReceiverThreadMask.Insert(0, _L("*"));
contentUpdateReceiverThreadMask.Append('*');
TFindThread findThread(contentUpdateReceiverThreadMask);
TFullName name;
RThread thread;
if((findThread.Next(name)!=KErrNone) ||
(thread.Open(findThread) != KErrNone))
{
thread.Close();
return;
}
TRequestStatus status;
thread.Logon(status);
if(aReceiver)
aReceiver->Stop();
User::WaitForRequest(status);
thread.Close();
}