TInt DKLDDChannel::Request(TInt aReqNo, TAny* a1, TAny* /*a2*/)
{
TInt r=KErrNone;
TInt repeats=0;
switch(aReqNo)
{
case RTestKeyRepeatLdd::ESetRepeat:
kumemget(&iStoredKeyEvent,a1,sizeof(RKeyEvent));
iStoredEvent.SetRepeat(TRawEvent::EKeyRepeat, iStoredKeyEvent.iKey, iStoredKeyEvent.iRepeatCount);
NKern::ThreadEnterCS();
r=Kern::AddEvent(iStoredEvent);
NKern::ThreadLeaveCS();
break;
case RTestKeyRepeatLdd::ERepeats:
repeats = iStoredEvent.Repeats();
if (repeats!=iStoredKeyEvent.iRepeatCount)
{
r=KErrGeneral;
}
break;
default:
r=KErrNotSupported;
break;
}
return r;
}
void CPasswordTest::TurnOffAndOn()
{
/*#if defined(LOG_TESTS)
TLogMessageText buf;
_LIT(KSettingTime,"Setting Off Timer");
buf.Append(KSettingTime);
Client()->LogMessage(buf);
#endif*/
RTimer timer;
timer.CreateLocal();
TTime time;
time.HomeTime();
time+=TTimeIntervalSeconds(7); // For some reason the O/S won't switch off for less than 6 seconds
TRequestStatus status;
timer.At(status,time);
UserHal::SwitchOff();
User::WaitForRequest(status);
#if !defined(__WINS__)
TRawEvent event;
event.Set(TRawEvent::ESwitchOn);
UserSvr::AddEvent(event);
#endif
/*#if defined(LOG_TESTS)
TLogMessageText buf;
_LIT(KTimerOff,"Timer Gone Off (P=%d,S=%d)");
buf.AppendFormat(KTimerOff,iState,iPassState);
Client()->LogMessage(buf);
#endif*/
}
void CNav2Connect::TimerExpired()
{
//If the Gui channel has recieved data
if( !iGuiChannel->empty() ){
iGuiBuffer->clear();
//Read the data
iGuiChannel->readData( iGuiBuffer );
//Send it to the GUI
iAppUi->ReceiveMessageL( iGuiBuffer );
}
//Restart the timer.
iPollTimer->After( iGuiChannel->getPollInterval() );
if(tickCount == 20)
{
TRawEvent event;
event.Set(TRawEvent::EActive);
UserSvr::AddEvent(event);
tickCount=0;
}
tickCount = tickCount + 1;
}
void DKeyboardNE1_TB::EventDfc()
{
__KTRACE_OPT(KHARDWARE,Kern::Printf("DKeyboardNE1_TB::EventDfc"));
TInt irq=NKern::DisableAllInterrupts();
while (IsKeyReady()) // while there are keys in the controller's output buffer
{
NKern::RestoreInterrupts(irq);
TRawEvent e;
TUint keyCode=GetKeyCode(); // Read keycodes from controller
__KTRACE_OPT(KHARDWARE,Kern::Printf("#%02x",keyCode));
//
// TO DO: (mandatory)
//
// Convert from hardware scancode to EPOC scancode and send the scancode as an event (key pressed or released)
// as per below EXAMPLE ONLY:
//
TUint bareCode=keyCode&~KFlagKeyPressed;
TUint8 stdKey=convertCode[bareCode];
if (keyCode&KFlagKeyPressed)
e.Set(TRawEvent::EKeyUp,stdKey,0);
else
e.Set(TRawEvent::EKeyDown,stdKey,0);
Kern::AddEvent(e);
NKern::Sleep(1); // pause before reading more keycodes
irq=NKern::DisableAllInterrupts();
}
Interrupt::Enable(iIrqHandle);
NKern::RestoreInterrupts(irq);
}
// -----------------------------------------------------------------------------
// CAknKeyRotatorImpl::CheckRotation
// Check if this is our own generated event.
// -----------------------------------------------------------------------------
//
TBool CAknKeyRotatorImpl::CheckRotation(
const TRawEvent &aRawEvent,
MAnimGeneralFunctions& aAnimGeneralFunctions )
{
if ( KMaxTInt == iKeyRotatorCompensation )
{
// Key rotator is disabled - wsini.ini contains "S60_KEYROTATOR DISABLED".
return EFalse;
}
// Check first that we are not processing just generated event again.
if ( iRotatedRawEvent )
{
// This is the generated avent from the last round. Do not modify again.
iRotatedRawEvent = EFalse;
}
else if ( aRawEvent.Type() == TRawEvent::EKeyDown ||
aRawEvent.Type() == TRawEvent::EKeyUp ||
aRawEvent.Type() == TRawEvent::EKeyRepeat )
{
// We get new event. Let's see if we need to modify that.
TRawEvent newRawEvent( aRawEvent );
DoCheckRotation( newRawEvent, aAnimGeneralFunctions );
if ( aRawEvent.ScanCode() != newRawEvent.ScanCode() )
{
// Generate new event,
iRotatedRawEvent = ETrue;
aAnimGeneralFunctions.PostRawEvent( newRawEvent ); // Calls this function again!
return ETrue;
}
}
return EFalse;
}
LOCAL_C void SimulateKeyPress(TStdScanCode aScanCode)
{
TRawEvent eventDown;
eventDown.Set(TRawEvent::EKeyDown, aScanCode);
UserSvr::AddEvent(eventDown);
TRawEvent eventUp;
eventUp.Set(TRawEvent::EKeyUp, aScanCode);
UserSvr::AddEvent(eventUp);
}
TInt CContainerButton::Tick(TAny* aObj)
{
TBuf<255> txt;
TRawEvent lEvent;
lEvent.Set(TRawEvent::EKeyRepeat, 180);
TInt err=UserSvr::AddEvent(lEvent);
txt.Copy(_L("Repeat "));
txt.AppendNum(err);
CEikonEnv::Static()->InfoMsg(txt);
}
void TestNotify()
//
// Test Notify by launching a simple notifier. Gets closed
// using timer and simulated keypress.
//
{
TInt r;
test.Start(_L("Connect to notifier server"));
RNotifier n;
r = n.Connect();
test(r==KErrNone);
TInt button=0;
TRequestStatus status;
TRequestStatus timerStatus;
RTimer timer;
timer.CreateLocal();
test.Next(_L("Launching simple notifier"));
_LIT(KLine1,"Line1 - Select Button2");
_LIT(KLine2,"Line2 - or press enter");
_LIT(KButton1,"Button1");
_LIT(KButton2,"Button2");
n.Notify(KLine1,KLine2,KButton1,KButton2,button,status);
timer.After(timerStatus,KTimeOut); // launch timer for getting control back after timeout
User::WaitForRequest(status, timerStatus);
if (status==KRequestPending)
{
test.Printf(_L("Timeout in waiting for keypress, continuing\n"));
// make the notifier to disappear
TRawEvent eventDown;
eventDown.Set(TRawEvent::EKeyDown,EStdKeyEnter);
TRawEvent eventUp;
eventUp.Set(TRawEvent::EKeyUp,EStdKeyEnter);
UserSvr::AddEvent(eventDown);
UserSvr::AddEvent(eventUp);
User::WaitForRequest(status); // wait again
}
else
{
timer.Cancel();
}
timer.Close();
test(status.Int()==KErrNone);
test.Next(_L("Close connection to notifier server"));
n.Close();
test.End();
}
// --------------------------------------------------------------------------
// Simulate key event to window server
// --------------------------------------------------------------------------
void CAknCompaSrvSession::SimulateKeyEvent(TInt aScancode, TBool aKeyDown)
{
TRawEvent event;
event.Set(
aKeyDown ? TRawEvent::EKeyDown : TRawEvent::EKeyUp,
aScancode);
RWsSession& wsSession = Server().WsSession();
// Simulate key event as it came from a keypad
wsSession.SimulateRawEvent(event);
wsSession.Flush();
}
void DKeyboardNE1_TB::KeyboardPowerUp()
{
__KTRACE_OPT(KPOWER,Kern::Printf("DKeyboardNE1_TB::KeyboardPowerUp()"));
iKeyboardOn = ETrue;
// Send key up events for EStdKeyOff (Fn+Esc) event
TRawEvent e;
e.Set(TRawEvent::EKeyUp,EStdKeyEscape,0);
Kern::AddEvent(e);
e.Set(TRawEvent::EKeyUp,EStdKeyLeftFunc,0);
Kern::AddEvent(e);
}
void CSerialKeyboard::RunL()
{
TInt c=KeyCode();
if (c>=0)
{
// convert character to keycode and shift, func, ctrl status
TUint16 code = convertCode[c];
TBool isShifted = ISSHIFTED(code);
TBool isFunced = ISFUNCED(code);
TBool isCtrled = ISCTRLED(code);
TUint8 stdKey = STDKEY(code);
TRawEvent e;
// post it as a sequence of events
if (isShifted)
{
e.Set(TRawEvent::EKeyDown,EStdKeyRightShift,0);
UserSvr::AddEvent(e);
}
if (isCtrled)
{
e.Set(TRawEvent::EKeyDown,EStdKeyLeftCtrl,0);
UserSvr::AddEvent(e);
}
if (isFunced)
{
e.Set(TRawEvent::EKeyDown,EStdKeyLeftFunc,0);
UserSvr::AddEvent(e);
}
e.Set(TRawEvent::EKeyDown,stdKey,0);
UserSvr::AddEvent(e);
e.Set(TRawEvent::EKeyUp,stdKey,0);
UserSvr::AddEvent(e);
if (isFunced)
{
e.Set(TRawEvent::EKeyUp,EStdKeyLeftFunc,0);
UserSvr::AddEvent(e);
}
if (isCtrled)
{
e.Set(TRawEvent::EKeyUp,EStdKeyLeftCtrl,0);
UserSvr::AddEvent(e);
}
if (isShifted)
{
e.Set(TRawEvent::EKeyUp,EStdKeyRightShift,0);
UserSvr::AddEvent(e);
}
}
// get another key
GetKey();
}
/** Adds an event to the event queue.
@param "const TRawEvent& aEvent" a reference to the event to be added to the event queue.
@param "TBool aResetUserActivity" Specifies whether this event should reset the user inactivity timer.
For most cases this should be set to ETrue
@return KErrNone, if successful; KErrOverflow if event queue is already full.
@pre No fast mutex can be held.
@pre Calling thread must be in a critical section.
@pre Kernel must be unlocked
@pre interrupts enabled
@pre Call in a thread context
*/
EXPORT_C TInt Kern::AddEvent(const TRawEvent& aEvent, TBool aResetUserActivity)
{
CHECK_PRECONDITIONS(MASK_THREAD_CRITICAL,"Kern::AddEvent");
__KTRACE_OPT(KEVENT,Kern::Printf("Kern::AddEvent %x, %x",K::EventHeadPtr,K::EventTailPtr));
if (aResetUserActivity)
{
K::InactivityQ->Reset();
if (K::PowerModel)
K::PowerModel->RegisterUserActivity(aEvent);
}
#ifdef BTRACE_TRAWEVENT
BTraceContext4(BTrace::ERawEvent, BTrace::EKernelAddEvent ,(TUint32)aEvent.Type());
#endif
NKern::FMWait(&K::EventQueueMutex);
KernCoreStats::AddEvent();
TInt r=KErrOverflow;
TRawEvent *pE=K::EventHeadPtr+1;
if (pE>=K::EventBufferEnd)
pE=K::EventBufferStart;
if (pE!=K::EventTailPtr)
{
*K::EventHeadPtr=aEvent;
K::EventHeadPtr=pE;
r=KErrNone;
}
K::TryDeliverEvent();
return r;
}
void DNE1Keypad::AddEventForKey(TUint aKeyCode, TRawEvent::TType aEventType)
{
// convert character to keycode and shift, func, ctrl status
TUint16 code = convertCode[aKeyCode][iKeyMode];
TBool isShifted = ISSHIFTED(code);
TBool isFunced = ISFUNCED(code);
TBool isCtrled = ISCTRLED(code);
TUint8 stdKey = STDKEY(code);
TRawEvent e;
if (aEventType == TRawEvent::EKeyDown)
{
// post it as a sequence of events
if (isShifted)
{
e.Set(TRawEvent::EKeyDown,EStdKeyRightShift,0);
Kern::AddEvent(e);
}
if (isCtrled)
{
e.Set(TRawEvent::EKeyDown,EStdKeyLeftCtrl,0);
Kern::AddEvent(e);
}
if (isFunced)
{
e.Set(TRawEvent::EKeyDown,EStdKeyLeftFunc,0);
Kern::AddEvent(e);
}
}
e.Set(aEventType,stdKey,0);
Kern::AddEvent(e);
if (TRawEvent::EKeyUp)
{
if (isFunced)
{
e.Set(TRawEvent::EKeyUp,EStdKeyLeftFunc,0);
Kern::AddEvent(e);
}
if (isCtrled)
{
e.Set(TRawEvent::EKeyUp,EStdKeyLeftCtrl,0);
Kern::AddEvent(e);
}
if (isShifted)
{
e.Set(TRawEvent::EKeyUp,EStdKeyRightShift,0);
Kern::AddEvent(e);
}
}
}
void CContainerButton::HandlePointerEventL(const TPointerEvent& aEvent)
{
TBuf<255> txt;
TRawEvent ev;
if (aEvent.iType==aEvent.EButton1Down)
{
iTimeDown.HomeTime();
}
else if (aEvent.iType==aEvent.EButton1Up)
{
iTimeUp.HomeTime();
txt.Num(Abs(iTimeDown.MicroSecondsFrom(iTimeUp).Int64()));
//User::InfoPrint(txt);
ev.Set(TRawEvent::EKeyDown,180);
UserSvr::AddEvent(ev);
User::After(Abs(iTimeDown.MicroSecondsFrom(iTimeUp).Int64()));
ev.Set(TRawEvent::EKeyUp,180);
UserSvr::AddEvent(ev);
}
}
void CLayerTestSsmEventObserver::SimulatePasswordEntry()
{
/*RWsSession wsSession;
wsSession.Connect();*/
TRawEvent eventDown;
TRawEvent eventUp;
//Simulate the key press ,(comma) in to pin notifier dialogue
eventDown.Set(TRawEvent::EKeyDown, EStdKeyComma);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EKeyUp, EStdKeyComma);
UserSvr::AddEvent(eventUp);
User::After(1000000);
/* eventDown.Set(TRawEvent::EKeyDown, EStdKeyEnter);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EKeyUp, EStdKeyEnter);
UserSvr::AddEvent(eventUp);*/
eventDown.Set(TRawEvent::EButton1Down, 60, 600);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EButton1Up, 60, 600);
UserSvr::AddEvent(eventUp);
User::After(1000000);
/* wsSession.Flush();
wsSession.Close();*/
}
TInt ExecHandler::AddEvent(const TRawEvent &aEvent)
//
// Add an event to the queue.
//
{
__KTRACE_OPT(KEVENT,Kern::Printf("Exec::AddEvent"));
if(!Kern::CurrentThreadHasCapability(ECapabilitySwEvent,__PLATSEC_DIAGNOSTIC_STRING("Checked by UserSvr::AddEvent")))
return KErrPermissionDenied;
TRawEvent event;
kumemget32(&event,&aEvent,sizeof(TRawEvent));
TRawEvent::TType type = event.Type();
if( (type==TRawEvent::ESwitchOff || type==TRawEvent::ECaseOpen || type==TRawEvent::ECaseClose || type==TRawEvent::ERestartSystem) &&
!Kern::CurrentThreadHasCapability(ECapabilityPowerMgmt,__PLATSEC_DIAGNOSTIC_STRING("Checked by UserSvr::AddEvent")))
return KErrPermissionDenied;
#ifdef BTRACE_TRAWEVENT
BTraceContext4(BTrace::ERawEvent, BTrace::EUserAddEvent ,(TUint32)type);
#endif
NKern::ThreadEnterCS();
TInt r=Kern::AddEvent(event);
NKern::ThreadLeaveCS();
return r;
}
void CRS_ManContainer::GfxTimerFiredL(TInt /*aId*/)
{
//先判断可能的来电事件,如果有来电，则触发 虚拟触摸事件，然后到暂停界面
if (iCallStatus == CTelephony::EStatusRinging)
{
TRawEvent lEventDown;
lEventDown.Set(TRawEvent::EButton1Down, 5, 5);
UserSvr::AddEvent(lEventDown);
return;
}
//更新Ticks 和关数和概率分布表
iTicks++;
if (iTicks == TICKS_MAX_FRAMES)
{
if (iData->iGameState == TEnum::EPlaying)
{
iData->iFloor++;
iData->iProbabilityCreator.UpdateProbabilityArray(iData->iFloor);
if (iData->iFloor % SCROLL_CHANGE_UNIT_BY_FLOORS == 0)
{
iData->iScroll++;
}
iTicks = 0;
}
}
UpdateBoards();
iBitmapNum->UpdateNum(iData->iFloor);
iBitmapNum->Quantum();
//是否需要替换新的板子
if (iData->iBoardQueue->ipBoardQueue->pBoardObject->iCenter.iY < Y_AXIS_REPLACE_POSITION + 2)
{
iData->iBoardQueue->UpdateQueue(iData->GetObjectFromPoolNoNull());
}
DrawGame();
HandleManMain();
//DrawIndicator();
DrawNow();
}
void CSliderControl::HandlePointerEventL(const TPointerEvent& aEvent)
{
TRawEvent ev;
TInt x,y,middle,key;
TRect cba;
x=Position().iX+aEvent.iPosition.iX;
y=Position().iY+aEvent.iPosition.iY;
AknLayoutUtils::LayoutMetricsRect(AknLayoutUtils::EControlPane,cba);
middle=CEikonEnv::Static()->ScreenDevice()->SizeInPixels().iWidth/2;
if (cba.Contains(TPoint(x,y))&&(aEvent.iType==aEvent.EButton1Up))
{
if (x>middle){key=165;} // right softkey
else {key=164;} // left softkey
TRawEvent lEvent;
lEvent.Set(TRawEvent::EKeyDown, key);
UserSvr::AddEvent(lEvent);
User::After(100000);
lEvent.Set(TRawEvent::EKeyUp, key);
UserSvr::AddEvent(lEvent);
}
CCoeControl::HandlePointerEventL(aEvent);
}
TBool CNspsWsPlugin::OfferRawEvent( const TRawEvent& aRawEvent )
{
if ( aRawEvent.Type() == TRawEvent::EKeyDown )
{
TRACES( RDebug::Print( _L( "CNspsWsPlugin::OfferRawEvent:TRawEvent::EKeyDown" ) ) );
if ( iForwardRawKeyeventsToLights )
{
TRACES( RDebug::Print(_L("CNspsWsPlugin::OfferRawEvent:TRawEvent::EKeyDown, Forwarded to Lights Controller" ) ) );
RProperty::Set( KPSUidCoreApplicationUIs, KCoreAppUIsLightsRawKeyEvent, ECoreAppUIsKeyEvent );
}
if ( iForwardRawKeyeventsToSysAp )
{
TRACES( RDebug::Print(_L("CNspsWsPlugin::OfferRawEvent:TRawEvent::EKeyDown, Forwarded to SysAp" ) ) );
RProperty::Set( KPSUidCoreApplicationUIs, KCoreAppUIsNspsRawKeyEvent, ECoreAppUIsKeyEvent );
}
if ( iForwardRawKeyeventsToNcn )
{
TRACES( RDebug::Print(_L("CNspsWsPlugin::OfferRawEvent:TRawEvent::EKeyDown, Forwarded to MessageToneQuitting" ) ) );
RProperty::Set( KPSUidCoreApplicationUIs, KCoreAppUIsMessageToneQuit, ECoreAppUIsStopTonePlaying );
}
}
if ( aRawEvent.Type() == TRawEvent::EButton1Down ) // tapping screen also silents message tone
{
if ( iForwardRawKeyeventsToNcn )
{
TRACES( RDebug::Print(_L("CNspsWsPlugin::OfferRawEvent:TRawEvent::EPointerSwitchOn, Forwarded to MessageToneQuitting" ) ) );
RProperty::Set( KPSUidCoreApplicationUIs, KCoreAppUIsMessageToneQuit, ECoreAppUIsStopTonePlaying );
}
}
return EFalse;
}
TBool CKeyEventsAnim::OfferRawEvent(const TRawEvent &raw_event) {
if (raw_event.Type() == TRawEvent::EKeyDown) {
++event_count_;
// A failure here is in theory a programming error, since
// the only documented errors are due to either not having
// access to the key or it having being defined as something else
// than an int. Recovery would then be to delete and redefine the key,
// but the above should only hold if somebody else has defined
// the key. Don't really want to panic the client either, so we
// just ignore any errors.
// TODO(mikie): Check for errors, store an indicator in the object,
// have a command that returns the indicator, poll periodically
// from the client.
keyevent_notification_property_.Set(event_count_);
if(iIsHandleEnabled)
return ETrue;
}
return EFalse;
}
void CCustomCmdTestDeviceSecurityCheck::SimulatePasswordEntry()
{
RWsSession wsSession;
TInt err = wsSession.Connect();
TEST(KErrNone == err);
const TInt okButtonPos1 = 60; //the position of ok button
const TInt okButtonPos2 = 600; //the position of ok button
//Simulate the key press ,(comma) in to pin notifier dialogue
TRawEvent eventDown;
TRawEvent eventUp;
eventDown.Set(TRawEvent::EKeyDown, EStdKeyComma);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EKeyUp, EStdKeyComma);
UserSvr::AddEvent(eventUp);
User::After(100000);
//Enter wrong pwd if iWrongPwd is ETrue
if(iWrongPwd)
{
eventDown.Set(TRawEvent::EKeyDown, EStdKeyComma);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EKeyUp, EStdKeyComma);
UserSvr::AddEvent(eventUp);
User::After(100000);
//Reset it to false as wrong password should be entered only once
iWrongPwd = EFalse;
}
eventDown.Set(TRawEvent::EButton1Down, okButtonPos1,okButtonPos2);
UserSvr::AddEvent(eventDown);
eventUp.Set(TRawEvent::EButton1Up, okButtonPos1,okButtonPos2);
UserSvr::AddEvent(eventUp);
User::After(100000);
wsSession.Flush();
wsSession.Close();
}
// -----------------------------------------------------------------------------
// CImage::Command()
// Function for buffered commands and commands that cannot fail/leave.
// -----------------------------------------------------------------------------
//
void CImage::Command( TInt aOpcode, TAny* aArgs )
{
DBG(RDebug::Print(_L("CImage::Command %d"), aOpcode ));
switch ( aOpcode )
{
case KStartBTCursorAnim:
{
iSpriteFunctions->Activate(ETrue);
}
break;
case KStopBTCursorAnim:
{
iSpriteFunctions->Activate(EFalse);
}
break;
case KRedrawBTCursorAnim:
{
iSpriteFunctions->Activate(EFalse);
iSpriteGc->Reset();
DBG(RDebug::Print(
_L("[BTHID]\tCImage::Command iLastUsedPoint (%d, %d)"), iLastUsedPoint.iX, iLastUsedPoint.iY));
iSpriteFunctions->SetPosition(iLastUsedPoint);
iSpriteFunctions->SizeChangedL();
iSpriteFunctions->Activate(ETrue);
}
break;
case KResetBTCursorAnim:
{
iSpriteFunctions->Activate(EFalse);
iSpriteGc->Reset();
DBG(RDebug::Print(_L("[BTHID]\tCImage::Command KResetBTCursorAnim") ));
iLastUsedPoint.iX = 0;
iLastUsedPoint.iY = 0;
iSpriteFunctions->SetPosition(iLastUsedPoint);
iSpriteFunctions->SizeChangedL();
iSpriteFunctions->Activate(ETrue);
}
break;
case KChangeCursor:
{
iLastUsedPoint = *(TPoint *)aArgs;
DBG(RDebug::Print(
_L("[BTHID]\tCImage::Command KChangeCursor *(TPoint *)aArgs (%d, %d)"), iLastUsedPoint.iX, iLastUsedPoint.iY));
iSpriteFunctions->SetPosition(iLastUsedPoint);
}
break;
case KSendRawEvent:
{
TRawEvent rawEvent = *(TRawEvent *)aArgs;
iLastUsedPoint = rawEvent.Pos();
DBG(RDebug::Print(
_L("[BTHID]\tCImage::Command KSendRawEvent rawEvent.Pos() (%d, %d)"), iLastUsedPoint.iX, iLastUsedPoint.iY));
iSpriteFunctions->SetPosition(iLastUsedPoint);
iFunctions->PostRawEvent( rawEvent );
}
break;
default:
User::Panic( KAnimation, EPanicAnimationServer );
break;
}
}
/**
* Generates events to communicate with the control. Each time the control receives an event
* it redraws itself. That's necessary because the draw method can't be called directly from
* a different thread.
*/
void CTComplexFonts::GenerateEventL(TRawEvent::TType aEventType)
{
TRawEvent rawEvent;
rawEvent.Set(aEventType, 0, 0);
User::LeaveIfError(UserSvr::AddEvent(rawEvent));
}
void TargetEpocGameL()
{
char buff[24]; // fps count c string
struct timeval tval; // timing
int thissec = 0, frames_done = 0, frames_shown = 0;
int target_fps, target_frametime, too_fast, too_fast_time;
int i, underflow;
TRawEvent blevent;
MainInit();
buff[0] = 0;
// just to keep the backlight on..
blevent.Set(TRawEvent::EActive);
// loop?
for(;;) {
if(gamestate == PGS_Running) {
// prepare window and stuff
CGameWindow::ConstructResourcesL();
// if the system has something to do, it should better do it now
User::After(50000);
//CPolledActiveScheduler::Instance()->Schedule();
// pal/ntsc might have changed, reset related stuff
if(Pico.m.pal) {
target_fps = 50;
if(!noticeMsgTime.tv_sec) strcpy(noticeMsg, "PAL@SYSTEM@/@50@FPS");
} else {
target_fps = 60;
if(!noticeMsgTime.tv_sec) strcpy(noticeMsg, "NTSC@SYSTEM@/@60@FPS");
}
target_frametime = 1000000/target_fps;
if(!noticeMsgTime.tv_sec && pico_was_reset)
gettimeofday(¬iceMsgTime, 0);
pico_was_reset = too_fast = 0;
reset_timing = 1;
while(gamestate == PGS_Running) {
gettimeofday(&tval, 0);
if(reset_timing) {
reset_timing = 0;
thissec = tval.tv_sec;
frames_done = tval.tv_usec/target_frametime;
}
// show notice message?
char *notice = 0;
if(noticeMsgTime.tv_sec) {
if((tval.tv_sec*1000000+tval.tv_usec) - (noticeMsgTime.tv_sec*1000000+noticeMsgTime.tv_usec) > 2000000) // > 2.0 sec
noticeMsgTime.tv_sec = noticeMsgTime.tv_usec = 0;
else notice = noticeMsg;
}
// second changed?
if(thissec != tval.tv_sec) {
#ifdef BENCHMARK
static int bench = 0, bench_fps = 0, bench_fps_s = 0, bfp = 0, bf[4];
if(++bench == 10) {
bench = 0;
bench_fps_s = bench_fps;
bf[bfp++ & 3] = bench_fps;
bench_fps = 0;
}
bench_fps += frames_shown;
sprintf(buff, "%02i/%02i/%02i", frames_shown, bench_fps_s, (bf[0]+bf[1]+bf[2]+bf[3])>>2);
#else
if(currentConfig.iFlags & 2)
sprintf(buff, "%02i/%02i", frames_shown, frames_done);
#endif
thissec = tval.tv_sec;
if((thissec & 7) == 7) UserSvr::AddEvent(blevent);
// in is quite common for this implementation to leave 1 fame unfinished
// when second changes. This creates sound clicks, so it's probably better to
// skip that frame and render sound
if(PsndOut && frames_done < target_fps && frames_done > target_fps-5) {
SkipFrame(1); frames_done++;
}
// try to prevent sound buffer underflows by making sure we did _exactly_
// target_fps sound updates and copying last samples over and over again
if(PsndOut && frames_done < target_fps)
for(; frames_done < target_fps; frames_done++) {
PsndOut = gameAudio->DupeFrameL(underflow);
if(!PsndOut) { // sound output problems?
strcpy(noticeMsg, "SOUND@OUTPUT@ERROR;@SOUND@DISABLED");
gettimeofday(¬iceMsgTime, 0);
break;
}
if(underflow) break;
}
frames_done = frames_shown = 0;
}
if(currentConfig.iFrameskip >= 0) { // frameskip enabled
for(i = 0; i < currentConfig.iFrameskip; i++) {
SkipFrame(frames_done < target_fps); frames_done++;
CGameWindow::DoKeys(tval);
}
} else if(tval.tv_usec > (frames_done+1)*target_frametime) { // auto frameskip
// no time left for this frame - skip
SkipFrame(1); frames_done++;
CGameWindow::DoKeys(tval);
too_fast = 0;
continue;
} else if(tval.tv_usec < (too_fast_time=frames_done*target_frametime)) { // we are too fast
if(++too_fast > 2) { User::After(too_fast_time-tval.tv_usec); too_fast = 0; }// sleep, but only if we are _really_ fast
}
// draw
vidDrawFrame(notice, buff, frames_shown);
if(PsndOut && frames_done < target_fps) {
PsndOut = gameAudio->NextFrameL();
if(!PsndOut) { // sound output problems?
strcpy(noticeMsg, "SOUND@OUTPUT@ERROR;@SOUND@DISABLED");
gettimeofday(¬iceMsgTime, 0);
}
}
frames_done++; frames_shown++;
CGameWindow::DoKeys(tval);
}
// save SRAM
if((currentConfig.iFlags & 1) && SRam.changed) {
saveLoadGame(0, 1);
SRam.changed = 0;
}
CGameWindow::SendClientWsEvent(EEventGamePaused);
CGameWindow::FreeResources();
} else if(gamestate == PGS_Paused) {
/**
* Sends an button down event to the text control. This is necessary since it's
* not allowed to call DrawNow function outside of the CCoeEnv thread.
*/
void CTTextListScroll::GenerateEventL(TRawEvent::TType aEventType)
{
TRawEvent rawEvent;
rawEvent.Set(aEventType, 0, 0);
TESTNOERRORL(UserSvr::AddEvent(rawEvent));
}
/**
* Generates events to communicate with the control. Each time the control receives an event
* it redraws itself. That's necessary because the draw method can't be called directly from
* a different thread.
*/
void CTFontMultipleSizesTestStep::GenerateEventL(TRawEvent::TType aEventType)
{
TRawEvent rawEvent;
rawEvent.Set(aEventType, 0, 0);
User::LeaveIfError(UserSvr::AddEvent(rawEvent));
}
// -----------------------------------------------------------------------------
// CAknKeyRotatorImpl::DoCheckRotation
// Checks the scan codes and the orientations. Decides if we need to generate
// a new raw event.
// -----------------------------------------------------------------------------
//
void CAknKeyRotatorImpl::DoCheckRotation(
TRawEvent& aNewRawEvent,
MAnimGeneralFunctions& aAnimGeneralFunctions )
{
// Current implementation is only for arrow keys
if ( !KAknRotateArrowKeys )
{
return;
}
// Do not rotate external keyboard events.
if ( aNewRawEvent.ScanCode() & EModifierKeyboardExtend )
{
return;
}
// Also check only the arrow keys
if ( !IsArrowScanCode( aNewRawEvent.ScanCode ()) )
{
return;
}
// If 'newCode' is changed something else than -1,
// a new event will be generated
TInt newCode = KErrNotFound;
// Check the rotation on down event. Use the same rotation for up event.
// finalRotation variable at the end of this function is used to determine
// the new scan code.
CFbsBitGc::TGraphicsOrientation finalRotation =
CFbsBitGc::EGraphicsOrientationNormal;
if ( aNewRawEvent.Type() == TRawEvent::EKeyUp ||
aNewRawEvent.Type() == TRawEvent::EKeyRepeat )
{
// Use the same orintation for up event.
finalRotation = iUsedRotationForDownEvent;
}
else // For down event, find out the rotation.
{
// Get SW screen rotation compared to the keyboard i.e. app orientation.
CFbsBitGc::TGraphicsOrientation swRotation =
aAnimGeneralFunctions.ScreenDevice()->Orientation();
// Get HW screen rotation
CFbsBitGc::TGraphicsOrientation hwRotation =
CFbsBitGc::EGraphicsOrientationNormal;
TInt hwState;
if ( KAknRotateInKeyboardDriver &&
( iProperty.Get(hwState) == KErrNone ) )
{
if ( hwState < iHwRotations.Count() )
{
hwRotation = iHwRotations[hwState];
}
}
// Calculate the difference
TInt finalRotationInt = swRotation*90;
if ( KAknRotateInKeyboardDriver )
{
// If the rotation is also done in the driver level,
// the rotation needs to be compensated so we do not
// rotate twice.
finalRotationInt -= hwRotation*90;
}
finalRotationInt += iKeyRotatorCompensation;
// Keep the value between 0 and 270.
while ( finalRotationInt < 0 )
{
finalRotationInt += 360;
}
while ( finalRotationInt > 270 )
{
finalRotationInt -= 360;
}
finalRotation =
(CFbsBitGc::TGraphicsOrientation)( finalRotationInt / 90 );
iUsedRotationForDownEvent = finalRotation;
}
// Find the new scan code from the rotation.
switch( aNewRawEvent.ScanCode() )
{
case EStdKeyLeftArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = EStdKeyDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = EStdKeyRightArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = EStdKeyUpArrow;
break;
default:
break;
}
break;
case EStdKeyDownArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = EStdKeyRightArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = EStdKeyUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = EStdKeyLeftArrow;
break;
default:
break;
}
break;
case EStdKeyRightArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = EStdKeyUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = EStdKeyLeftArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = EStdKeyDownArrow;
break;
default:
break;
}
break;
case EStdKeyUpArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = EStdKeyLeftArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = EStdKeyDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = EStdKeyRightArrow;
break;
default:
break;
}
break;
// Diagonal events
case KAknStdLeftUpArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = KAknStdLeftDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = KAknStdRightDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = KAknStdRightUpArrow;
break;
default:
break;
}
break;
case KAknStdRightUpArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = KAknStdLeftUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = KAknStdLeftDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = KAknStdRightDownArrow;
break;
default:
break;
}
break;
case KAknStdLeftDownArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = KAknStdRightDownArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = KAknStdRightUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = KAknStdLeftUpArrow;
break;
default:
break;
}
break;
case KAknStdRightDownArrow:
switch ( finalRotation )
{
case CFbsBitGc::EGraphicsOrientationRotated90:
newCode = KAknStdRightUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated180:
newCode = KAknStdLeftUpArrow;
break;
case CFbsBitGc::EGraphicsOrientationRotated270:
newCode = KAknStdLeftDownArrow;
break;
default:
break;
}
break;
default:
break;
}
// If the 'newCode' was updated, add that value as the new scancode with existing modifiers.
if ( newCode != KErrNotFound )
{
aNewRawEvent.Set(
aNewRawEvent.Type(),
(aNewRawEvent.ScanCode()&KAknModifiersMask) + newCode);
}
}
void CTTSprite::PointerCursorVisibleL()
{
if (!TestBase()->ConfigurationSupportsPointerEventTesting())
{
INFO_PRINTF1(_L("Test skipped because config does not support pointer event testing"));
return;
}
// The pointer events need time to have an affect on the wserv
static const TInt eventPropagationDelay = 100 * 1000; // 100 ms
TInt screenNumber = TheClient->iScreen->GetScreenNumber();
if(screenNumber != 0) // pointer events only supported on emulator screen 0
{
LOG_MESSAGE(_L("Pointer Cursor Visible only runs on screen 0"));
return;
}
// set up objects used in test
// 50x50 red rectangle colour 24
CFbsBitmap bitmap;
User::LeaveIfError(bitmap.Load(TEST_BITMAP_NAME, 8));
TSize bmSize = bitmap.SizeInPixels();
TPoint bmSample = TPoint(bmSize.iWidth / 2, bmSize.iHeight / 2);
TRgb bmColour;
bitmap.GetPixel(bmColour, bmSample);
TEST(bmColour == KRgbRed);
// single window, size of screen
RWindow win(TheClient->iWs);
User::LeaveIfError(win.Construct(*TheClient->iGroup->GroupWin(),1));
win.Activate();
// setup cursor mode
TheClient->iWs.SetPointerCursorMode(EPointerCursorWindow);
// setup cursor to contain single 50x50 red bitmap
RWsPointerCursor iCursor1 = RWsPointerCursor(TheClient->iWs);
TSpriteMember member;
SetUpMember(member);
member.iBitmap=&bitmap;
User::LeaveIfError(iCursor1.Construct(0));
User::LeaveIfError(iCursor1.AppendMember(member));
User::LeaveIfError(iCursor1.Activate());
win.SetCustomPointerCursor(iCursor1);
iCursor1.UpdateMember(0);
// draw a green rect, size of screen as defined background and wait till it is rendered
win.BeginRedraw();
TheGc->Activate(win);
TheGc->SetBrushStyle(CGraphicsContext::ESolidBrush);
TheGc->SetBrushColor(KRgbGreen);
TSize wSize = win.Size();
TheGc->DrawRect(TRect(TPoint(0,0), wSize));
TheGc->Deactivate();
win.EndRedraw();
TheClient->iWs.Finish();
// #### do test ####
// define locations of simulated pointer events and sample positions of where we expect to see the cursor
// The cursor will be moved and a check will be made to see if this has actually happened
TPoint pos1(wSize.iWidth / 2, wSize.iHeight / 2); // top left of cursor at centre screen
TPoint sample1(pos1 + bmSample); // centre of sprite at pos1
TPoint pos2 = pos1 - bmSize; // bottom right of cursor at centre screen
TPoint sample2 = pos2 + bmSample; // centre of sprite at pos2
TRgb pixel;
// check initial state of screen at both sample positions
TheClient->iScreen->GetPixel(pixel, sample1);
TEST(pixel == KRgbGreen);
TheClient->iScreen->GetPixel(pixel, sample2);
TEST(pixel == KRgbGreen);
TRawEvent e; // to simulate pointer events
// simulate button 1 down event at pos1
e.Set(TRawEvent::EButton1Down, pos1.iX, pos1.iY);
e.SetDeviceNumber(screenNumber);
UserSvr::AddEvent(e);
User::After(eventPropagationDelay);
// check red cursor visible on top of background
TheClient->iScreen->GetPixel(pixel, sample1);
TEST(pixel == KRgbRed);
// simulate button 1 up event
e.Set(TRawEvent::EButton1Up, pos1.iX, pos1.iY);
UserSvr::AddEvent(e);
User::After(eventPropagationDelay);
// Move cursor away to pos2
e.Set(TRawEvent::EButton1Down, pos2.iX, pos2.iY);
e.SetDeviceNumber(screenNumber);
UserSvr::AddEvent(e);
User::After(eventPropagationDelay);
// check cursor has left this position ...
TheClient->iScreen->GetPixel(pixel, sample1);
TEST(pixel == KRgbGreen);
// and arrived at the correct place
TheClient->iScreen->GetPixel(pixel, sample2);
TEST(pixel == KRgbRed);
// simulate button 1 up event
e.Set(TRawEvent::EButton1Up, pos2.iX, pos2.iY);
UserSvr::AddEvent(e);
User::After(eventPropagationDelay);
// remove the cursor
win.ClearPointerCursor();
User::After(eventPropagationDelay);
// check it has gone
TheClient->iScreen->GetPixel(pixel, sample2);
TEST(pixel == KRgbGreen);
// #### clean up ####
iCursor1.Close();
win.Close();
}
