// Copyright (c) 2007-2009 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:

// Old Test CaseID 		APPFWK-SSS-0004

// New Test CaseID 		DEVSRVS-SSMA-STARTSAFE-0004

// 

//

/**

 @file

 @test

 @internalComponent - Internal Symbian test code

*/

#include "tss_appstartmultiple.h"

const TInt KSsTestAppStartTimeout = 3000; // ms

const TInt KInduceTimeoutFailWaitTime = 300; //ms

const TInt KTestMultiRetries = 5; // for a successful start this value must exceed KDontRvCount (declared in ssmtestapprvafterretry.h)

TVerdict CSsTestStepAppStartMultiple::doTestStepL()

	{

	__UHEAP_MARK;

	TRAPD(err, DoTestMultiAppAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiAppAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiAppWithTimeoutAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiAppWithTimeoutAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiAppAllTimeoutAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiAppAllTimeoutAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiAppIncludingRetryAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiAppIncludingRetryAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiProcAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiProcAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiProcWithTimeoutAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiProcWithTimeoutAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiProcAllTimeoutAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiProcAllTimeoutAsyncL completed with err = %d"), err);

	TRAP(err, DoTestMultiProcIncludingRetryAsyncL());

	TEST(err == KErrNone);

	INFO_PRINTF2(_L("DoTestMultiProcIncludingRetryAsyncL completed with err = %d"), err);

	__UHEAP_MARKEND;

	return TestStepResult();	

	}

//

// START AS APPS

//

/**

  Concurrently starts four instances of ssmtestappgood.exe

  There is no timeout specified, therefore no instances of CTimeoutWaiter are constructed.

 */

void CSsTestStepAppStartMultiple::DoTestMultiAppAsyncL()

	{	

	INFO_PRINTF1( _L("\n\n Performing Multiple App-Start Async test---no timeout") );

	CSsmStartupProperties* startupProperties_0 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_0 );

	// Slightly cheeky. Use the same startup properties for each call

	startupProperties_0->SetFileParamsL( KTestAppGood, KNullDesC );

	startupProperties_0->SetCommandTypeL( ESsmCmdStartApp );

	startupProperties_0->SetExecutionBehaviour( ESsmWaitForSignal );

	RProcess process_0;

	CleanupClosePushL( process_0 );

	RProcess process_1;

	CleanupClosePushL( process_1 );

	RProcess process_2;

	CleanupClosePushL( process_2 );

	RProcess process_3;

	CleanupClosePushL( process_3 );

	TInt id_0 = 0;

	TInt id_1 = 0;

	TInt id_2 = 0;

	TInt id_3 = 0;

	CStartAcknowledge* ack_0 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_0 );

	CStartAcknowledge* ack_1 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_1 );

	CStartAcknowledge* ack_2 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_2 );

	CStartAcknowledge* ack_3 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_3 );

	CSsmStartSafe* ss  = CSsmStartSafe::NewLC();

	// Use this timeout AO. Therefore not making assumptions about the order of completions.

	CAsPauseStopper* pauseStopper = new(ELeave) CAsPauseStopper( KSsAsStopperNominalTimeout * 2);

	CleanupStack::PushL( pauseStopper );

	ss->Start(*startupProperties_0, process_0, ack_0->iStatus, id_0);

	ss->Start(*startupProperties_0, process_1, ack_1->iStatus, id_1);

	ss->Start(*startupProperties_0, process_2, ack_2->iStatus, id_2);

	ss->Start(*startupProperties_0, process_3, ack_3->iStatus, id_3);

	INFO_PRINTF5( _L("id_0 to id_3  have the values  %d %d %d %d "), id_0, id_1, id_2, id_3 );

	//Process are started using Wait for start execution behaviour, 

	//Start method always sets TRequestStatus to KRequestPending.

	if( (KRequestPending == ack_0->iStatus.Int()) && (KRequestPending == ack_1->iStatus.Int()) && (KRequestPending == ack_2->iStatus.Int()) && (KRequestPending == ack_3->iStatus.Int()) )

		{

		CActiveScheduler::Start();

		TBuf<KMaxFileName> buf( process_0.FileName() );

		INFO_PRINTF2( _L("process_0 filename %S"), &buf );

		buf.Copy( process_1.FileName() );

		INFO_PRINTF2( _L("process_1 filename %S"), &buf );

		buf.Copy( process_2.FileName() );	

		INFO_PRINTF2( _L("process_2 filename %S"), &buf );

		buf.Copy( process_3.FileName() );

		INFO_PRINTF2( _L("process_3 filename %S"), &buf );

		INFO_PRINTF5( _L("Test apps rv'd with the values  %d %d %d %d "), ack_0->iStatus.Int(), ack_1->iStatus.Int(), ack_2->iStatus.Int(), ack_3->iStatus.Int() );

		INFO_PRINTF5( _L("Anticipated values were         %d %d %d %d "), KErrNone, KErrNone, KErrNone, KErrNone );

		TEST( ack_0->iStatus == KErrNone );

		TEST( ack_1->iStatus == KErrNone );

		TEST( ack_2->iStatus == KErrNone );

		TEST( ack_3->iStatus == KErrNone );

		}

	CleanupStack::PopAndDestroy( 11, startupProperties_0 );

	TEST( 4 == FindAndKill(KTestAppGood) );

	}

/**

  Concurrently starts four instances of ssmtestappgood.exe

  A timeout value is specified which ensures that intances of CTimeoutWaiter are created

 */

void CSsTestStepAppStartMultiple::DoTestMultiAppWithTimeoutAsyncL()

	{	

	INFO_PRINTF1( _L("\n\n Performing Multiple App-Start Async test---*with* timeout") );

	CSsmStartupProperties* startupProperties_0 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_0 );

	// Slightly cheeky. Use the same startup properties for each call

	// Timeout is specified, therefore there are instances of CTimeoutWaiter constructed.

	startupProperties_0->SetFileParamsL( KTestAppGood, KNullDesC );

	startupProperties_0->SetCommandTypeL( ESsmCmdStartApp );

	startupProperties_0->SetExecutionBehaviour( ESsmWaitForSignal );

	startupProperties_0->SetTimeout( KSsTestAppStartTimeout );

	RProcess process_0;

	CleanupClosePushL( process_0 );

	RProcess process_1;

	CleanupClosePushL( process_1 );

	RProcess process_2;

	CleanupClosePushL( process_2 );

	RProcess process_3;

	CleanupClosePushL( process_3 );

	TInt id_0 = 0;

	TInt id_1 = 0;

	TInt id_2 = 0;

	TInt id_3 = 0;

	CStartAcknowledge* ack_0 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_0 );

	CStartAcknowledge* ack_1 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_1 );

	CStartAcknowledge* ack_2 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_2 );

	CStartAcknowledge* ack_3 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_3 );

	// Use this timeout AO. Therefore not making assumptions about the order of completions.

	CAsPauseStopper* pauseStopper = new(ELeave) CAsPauseStopper( KSsAsStopperNominalTimeout * 5 );

	CleanupStack::PushL( pauseStopper );

	CSsmStartSafe* ss  = CSsmStartSafe::NewLC();

	ss->Start(*startupProperties_0, process_0, ack_0->iStatus, id_0);

	ss->Start(*startupProperties_0, process_1, ack_1->iStatus, id_1);

	ss->Start(*startupProperties_0, process_2, ack_2->iStatus, id_2);

	ss->Start(*startupProperties_0, process_3, ack_3->iStatus, id_3);

	INFO_PRINTF5( _L("id_0 to id_3  have the values  %d %d %d %d "), id_0, id_1, id_2, id_3 );

	//Process are started using Wait for start execution behaviour, 

	//Start method always sets TRequestStatus to KRequestPending.	

	if( (KRequestPending == ack_0->iStatus.Int()) && (KRequestPending == ack_1->iStatus.Int()) && (KRequestPending == ack_2->iStatus.Int()) && (KRequestPending == ack_3->iStatus.Int()) )

		{

		CActiveScheduler::Start();

		TBuf<KMaxFileName> buf( process_0.FileName() );

		INFO_PRINTF2( _L("process_0 filename %S"), &buf );

		buf.Copy( process_1.FileName() );

		INFO_PRINTF2( _L("process_1 filename %S"), &buf );

		buf.Copy( process_2.FileName() );	

		INFO_PRINTF2( _L("process_2 filename %S"), &buf );

		buf.Copy( process_3.FileName() );

		INFO_PRINTF2( _L("process_3 filename %S"), &buf );

		INFO_PRINTF5( _L("Test apps rv'd with the values  %d %d %d %d "), ack_0->iStatus.Int(), ack_1->iStatus.Int(), ack_2->iStatus.Int(), ack_3->iStatus.Int() );

		INFO_PRINTF5( _L("Anticipated values were         %d %d %d %d "), KErrNone, KErrNone, KErrNone, KErrNone );

		TEST( ack_0->iStatus == KErrNone );

		TEST( ack_1->iStatus == KErrNone );

		TEST( ack_2->iStatus == KErrNone );

		TEST( ack_3->iStatus == KErrNone );

		}

	CleanupStack::PopAndDestroy( 11, startupProperties_0 );

	TEST( 4 == FindAndKill(KTestAppGood) );

	}

/**

  Concurrently starts four instances of ssmtestappnorv.exe

  All of these timeout (naturalment)

 */

void CSsTestStepAppStartMultiple::DoTestMultiAppAllTimeoutAsyncL()

	{	

	INFO_PRINTF1( _L("\n\n Performing Multiple App-Start Async test---ALL timeout") );

	CSsmStartupProperties* startupProperties_0 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_0 );

	// Slightly cheeky. Use the same startup properties for each call

	// Timeout is specified, therefore there are instances of CTimeoutWaiter constructed.

	startupProperties_0->SetFileParamsL( KTestAppNoRv, KNullDesC );

	startupProperties_0->SetCommandTypeL( ESsmCmdStartApp );

	startupProperties_0->SetExecutionBehaviour( ESsmWaitForSignal );

	startupProperties_0->SetTimeout( KInduceTimeoutFailWaitTime );

	RProcess process_0;

	CleanupClosePushL( process_0 );

	RProcess process_1;

	CleanupClosePushL( process_1 );

	RProcess process_2;

	CleanupClosePushL( process_2 );

	RProcess process_3;

	CleanupClosePushL( process_3 );

	TInt id_0 = 0;

	TInt id_1 = 0;

	TInt id_2 = 0;

	TInt id_3 = 0;

	CStartAcknowledge* ack_0 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_0 );

	CStartAcknowledge* ack_1 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_1 );

	CStartAcknowledge* ack_2 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_2 );

	CStartAcknowledge* ack_3 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_3 );

	CSsmStartSafe* ss  = CSsmStartSafe::NewLC();

	// Use this timeout AO. Therefore not making assumptions about the order of completions.

	CAsPauseStopper* pauseStopper = new(ELeave) CAsPauseStopper( KSsAsStopperNominalTimeout * 5 );

	CleanupStack::PushL( pauseStopper );

	ss->Start(*startupProperties_0, process_0, ack_0->iStatus, id_0);

	ss->Start(*startupProperties_0, process_1, ack_1->iStatus, id_1);

	ss->Start(*startupProperties_0, process_2, ack_2->iStatus, id_2);

	ss->Start(*startupProperties_0, process_3, ack_3->iStatus, id_3);

	INFO_PRINTF5( _L("id_0 to id_3  have the values  %d %d %d %d "), id_0, id_1, id_2, id_3 );

	//Process are started using Wait for start execution behaviour, 

	//Start method always sets TRequestStatus to KRequestPending.	

	if( (KRequestPending == ack_0->iStatus.Int()) && (KRequestPending == ack_1->iStatus.Int()) && (KRequestPending == ack_2->iStatus.Int()) && (KRequestPending == ack_3->iStatus.Int()) )

		{

		CActiveScheduler::Start();

		INFO_PRINTF5( _L("Test apps rv'd with the values  %d %d %d %d "), ack_0->iStatus.Int(), ack_1->iStatus.Int(), ack_2->iStatus.Int(), ack_3->iStatus.Int() );

		INFO_PRINTF5( _L("Anticipated values were         %d %d %d %d "), KErrTimedOut, KErrTimedOut, KErrTimedOut, KErrTimedOut );

		TEST( ack_0->iStatus == KErrTimedOut );

		TEST( ack_1->iStatus == KErrTimedOut );

		TEST( ack_2->iStatus == KErrTimedOut );

		TEST( ack_3->iStatus == KErrTimedOut );

		}

	CleanupStack::PopAndDestroy( 11, startupProperties_0 );

	TEST( 0 == FindAndKill(KTestAppNoRv) );

	}

/**

  This test starts three instances of ssmtestappgood.exe and one of ssmtestapprvafterretry.exe.The latter 

  fails to rv 1 + the number of retries specified in the dat file (written here and deleted by the app)

  Rv is eventually successful

 */

void CSsTestStepAppStartMultiple::DoTestMultiAppIncludingRetryAsyncL()

	{	

	INFO_PRINTF1( _L("\n\n Performing Multiple App-Start Async test---Inc one Retry") );

	//

	// Write the retry number to a file to be read, updated 

	// and eventually deleted by the test-app.

	RFs fs;	

	CleanupClosePushL( fs );

	RFileWriteStream writeStream;

	CleanupClosePushL( writeStream );

	User::LeaveIfError(fs.Connect());

	User::LeaveIfError(writeStream.Replace(fs, KDontRvCountFile, EFileWrite));

	writeStream.WriteInt8L( KDontRvCount ); // KDontRvCount is declared in ssmtestapprvafterretry.h

	writeStream.CommitL();		

	CleanupStack::PopAndDestroy( 2, &fs );

	//

	CSsmStartupProperties* startupProperties_0 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_0 );

	// Timeout is specified, therefore there are instances of CTimeoutWaiter constructed.

	startupProperties_0->SetFileParamsL( KTestAppGood, KNullDesC );

	startupProperties_0->SetCommandTypeL( ESsmCmdStartApp );

	startupProperties_0->SetExecutionBehaviour( ESsmWaitForSignal );

	startupProperties_0->SetRetries( KTestMultiRetries );

	startupProperties_0->SetTimeout( KSsTestAppStartTimeout );

	CSsmStartupProperties* startupProperties_1 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_1 );

	// The app that rv's after some retries (specified in c:\dontrvcount.dat

	startupProperties_1->SetFileParamsL( KTestAppRvAfterRetry, KNullDesC );

	startupProperties_1->SetCommandTypeL( ESsmCmdStartApp );

	startupProperties_1->SetExecutionBehaviour( ESsmWaitForSignal );

	startupProperties_1->SetRetries( KTestMultiRetries );

	// Each retry in the test app takes 2ms, so delay for 5 retries is given as 18ms.

	startupProperties_1->SetTimeout( KSsTestAppStartTimeout * 6);	//18000ms because KTestAppRvAfterRetry takes 2ms delay for each retry

	RProcess process_0;

	CleanupClosePushL( process_0 );

	RProcess process_1;

	CleanupClosePushL( process_1 );

	RProcess process_2;

	CleanupClosePushL( process_2 );

	RProcess process_3;

	CleanupClosePushL( process_3 );

	TInt id_0 = 0;

	TInt id_1 = 0;

	TInt id_2 = 0;

	TInt id_3 = 0;

	CStartAcknowledge* ack_0 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_0 );

	CStartAcknowledge* ack_1 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_1 );

	CStartAcknowledge* ack_2 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_2 );

	CStartAcknowledge* ack_3 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_3 );

	CSsmStartSafe* ss  = CSsmStartSafe::NewLC();

	// Use this timeout AO. Therefore not making assumptions about the order of completions.

	CAsPauseStopper* pauseStopper = new(ELeave) CAsPauseStopper( KSsAsStopperNominalTimeout * 10 );

	CleanupStack::PushL( pauseStopper );

	ss->Start(*startupProperties_0, process_0, ack_0->iStatus, id_0);

	ss->Start(*startupProperties_0, process_1, ack_1->iStatus, id_1);

	ss->Start(*startupProperties_0, process_2, ack_2->iStatus, id_2);

	ss->Start(*startupProperties_1, process_3, ack_3->iStatus, id_3); // The problematic app. Starts after the retries-count file is depleted

	INFO_PRINTF5( _L("id_0 to id_3  have the values  %d %d %d %d "), id_0, id_1, id_2, id_3 );

	//Process are started using Wait for start execution behaviour, 

	//Start method always sets TRequestStatus to KRequestPending.	

	if( (KRequestPending == ack_0->iStatus.Int()) && (KRequestPending == ack_1->iStatus.Int()) && (KRequestPending == ack_2->iStatus.Int()) && (KRequestPending == ack_3->iStatus.Int()) )

		{

		CActiveScheduler::Start();

		TBuf<KMaxFileName> buf( process_0.FileName() );

		INFO_PRINTF2( _L("process_0 filename %S"), &buf );

		buf.Copy( process_1.FileName() );

		INFO_PRINTF2( _L("process_1 filename %S"), &buf );

		buf.Copy( process_2.FileName() );	

		INFO_PRINTF2( _L("process_2 filename %S"), &buf );

		buf.Copy( process_3.FileName() );

		INFO_PRINTF2( _L("process_3 filename %S"), &buf );

		INFO_PRINTF5( _L("Test apps rv'd with the values  %d %d %d %d "), ack_0->iStatus.Int(), ack_1->iStatus.Int(), ack_2->iStatus.Int(), ack_3->iStatus.Int() );

		INFO_PRINTF5( _L("Anticipated values were         %d %d %d %d "), KErrNone, KErrNone, KErrNone, KErrNone );

		TEST( ack_0->iStatus == KErrNone );

		TEST( ack_1->iStatus == KErrNone );

		TEST( ack_2->iStatus == KErrNone );

		TEST( ack_3->iStatus == KErrNone );

		}

	CleanupStack::PopAndDestroy( 12, startupProperties_0 );

	TEST( 1 == FindAndKill(KTestAppRvAfterRetry) );

	TEST( 3 == FindAndKill(KTestAppGood) );

	}

//

// START AS PROCESSES

//

/**

  Concurrently starts four instances of ssmtestappgood.exe as processes

 */

void CSsTestStepAppStartMultiple::DoTestMultiProcAsyncL()

	{	

	INFO_PRINTF1( _L("\n\n Performing Multiple Process-Start Async test---no timeout") );

	CSsmStartupProperties* startupProperties_0 = CSsmStartupProperties::NewL();

	CleanupStack::PushL( startupProperties_0 );

	// Slightly cheeky. Use the same startup properties for each call

	// No timeout specified, therefore there is no instance of CTimeoutWaiter constructed.

	startupProperties_0->SetFileParamsL( KTestAppGood, KNullDesC );

	startupProperties_0->SetCommandTypeL( ESsmCmdStartProcess );

	startupProperties_0->SetExecutionBehaviour( ESsmWaitForSignal );

	RProcess process_0;

	CleanupClosePushL( process_0 );

	RProcess process_1;

	CleanupClosePushL( process_1 );

	RProcess process_2;

	CleanupClosePushL( process_2 );

	RProcess process_3;

	CleanupClosePushL( process_3 );

	TInt id_0 = 0;

	TInt id_1 = 0;

	TInt id_2 = 0;

	TInt id_3 = 0;

	CStartAcknowledge* ack_0 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_0 );

	CStartAcknowledge* ack_1 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_1 );

	CStartAcknowledge* ack_2 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_2 );

	CStartAcknowledge* ack_3 = new(ELeave) CStartAcknowledge( this );

	CleanupStack::PushL( ack_3 );

	CSsmStartSafe* ss  = CSsmStartSafe::NewLC();

	// Use this timeout AO. Therefore not making assumptions about the order of completions.

	CAsPauseStopper* pauseStopper = new(ELeave) CAsPauseStopper( KSsAsStopperNominalTimeout * 2 );

	CleanupStack::PushL( pauseStopper );

	ss->Start(*startupProperties_0, process_0, ack_0->iStatus, id_0);

	ss->Start(*startupProperties_0, process_1, ack_1->iStatus, id_1);

	ss->Start(*startupProperties_0, process_2, ack_2->iStatus, id_2);

	ss->Start(*startupProperties_0, process_3, ack_3->iStatus, id_3);

	INFO_PRINTF5( _L("id_0 to id_3  have the values  %d %d %d %d "), id_0, id_1, id_2, id_3 );	

	//Process are started using Wait for start execution behaviour, 

	//Start method always sets TRequestStatus to KRequestPending.	

	if( (KRequestPending == ack_0->iStatus.Int()) && (KRequestPending == ack_1->iStatus.Int()) && (KRequestPending == ack_2->iStatus.Int()) && (KRequestPending == ack_3->iStatus.Int()) )

		{	

		CActiveScheduler::Start();

		TBuf<KMaxFileName> buf( process_0.FileName() );

		INFO_PRINTF2( _L("process_0 filename %S"), &buf );

		buf.Copy( process_1.FileName() );

		INFO_PRINTF2( _L("process_1 filename %S"), &buf );

		buf.Copy( process_2.FileName() );	

		INFO_PRINTF2( _L("process_2 filename %S"), &buf );

		buf.Copy( process_3.FileName() );

		INFO_PRINTF2( _L("process_3 filename %S"), &buf );

		INFO_PRINTF5( _L("Test apps rv'd with the values  %d %d %d %d "), ack_0->iStatus.Int(), ack_1->iStatus.Int(), ack_2->iStatus.Int(), ack_3->iStatus.Int() );

		INFO_PRINTF5( _L("Anticipated values were         %d %d %d %d "), KErrNone, KErrNone, KErrNone, KErrNone );

		TEST( ack_0->iStatus == KErrNone );

		TEST( ack_1->iStatus == KErrNone );