// Copyright (c) 2003-2009 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:
// This main DLL entry point for the TS_RootServer.dll
//
//
// EPOC includes
#include <e32base.h>
// RootServer includes
#include <rsshared.h>
// Test system includes
#include <comms-infras/commsdebugutility.h>
#include <networking/teststep.h>
#include "TestStepRootServer.h"
#include "TestSuiteRootServer.h"
#include "TestAsynchHandler.h"
#include "RootServerTestSection1.h"
#include "RootServerTestSection2.h"
#include "RootServerTestSection3.h"
#include "RootServerTestSection4.h"
#include "RootServerTestSection5.h"
#include "RootServerTestSection6.h"
#include "RootServerTestSection7.h"
#include "RootServerTestSection8.h"
_LIT(KRootServerExe, "c32exe.exe");
_LIT(KRootServerProcessPattern, "c32exe*");
EXPORT_C CTestSuiteRootServer* NewTestSuiteRootServer( void )
{
return new (ELeave) CTestSuiteRootServer;
}
CTestSuiteRootServer::CTestSuiteRootServer()
{
}
// destructor
CTestSuiteRootServer::~CTestSuiteRootServer()
{
}
// Add a test step into the suite
void CTestSuiteRootServer::AddTestStepL( CTestStepRootServer * ptrTestStep )
{
// test steps contain a pointer back to the suite which owns them
ptrTestStep->iRootServerSuite = this;
// add the step using the base class method
CTestSuite::AddTestStepL(ptrTestStep);
}
// make a version string available for test system
TPtrC CTestSuiteRootServer::GetVersion( void )
{
#ifdef _DEBUG
_LIT(KTxtVersion,"1.00 (udeb)");
#else
_LIT(KTxtVersion,"1.00");
#endif
return KTxtVersion();
}
// second phase constructor for RootServer test suite
// this creates all the ESOCK test steps and
// stores them inside CTestSuiteRootServer
void CTestSuiteRootServer::InitialiseL( void )
{
// add test steps
AddTestStepL( new(ELeave) CRootServerTest1_1 );
AddTestStepL( new(ELeave) CRootServerTest1_2 );
AddTestStepL( new(ELeave) CRootServerTest2_1 );
AddTestStepL( new(ELeave) CRootServerTest2_2 );
AddTestStepL( new(ELeave) CRootServerTest2_3 );
// AddTestStepL( new(ELeave) CRootServerTest3_1 );
AddTestStepL( new(ELeave) CRootServerTest3_2 );
AddTestStepL( new(ELeave) CRootServerTest3_3 );
AddTestStepL( new(ELeave) CRootServerTest3_4 );
AddTestStepL( new(ELeave) CRootServerTest3_5 );
AddTestStepL( new(ELeave) CRootServerTest3_6 );
AddTestStepL( new(ELeave) CRootServerTest3_7 );
AddTestStepL( new(ELeave) CRootServerTest3_8 );
AddTestStepL( new(ELeave) CRootServerTest3_9 );
AddTestStepL( new(ELeave) CRootServerTest3_10 );
AddTestStepL( new(ELeave) CRootServerTest3_11 );
AddTestStepL( new(ELeave) CRootServerTest3_12 );
AddTestStepL( new(ELeave) CRootServerTest3_13 );
AddTestStepL( new(ELeave) CRootServerTest3_14 );
AddTestStepL( new(ELeave) CRootServerTest3_15 );
AddTestStepL( new(ELeave) CRootServerTest3_16 );
AddTestStepL( new(ELeave) CRootServerTest3_17 );
AddTestStepL( new(ELeave) CRootServerTest3_18 );
AddTestStepL( new(ELeave) CRootServerTest4_1 );
AddTestStepL( new(ELeave) CRootServerTest5_1 );
AddTestStepL( new(ELeave) CRootServerTest5_2 );
AddTestStepL( new(ELeave) CRootServerTest5_3 );
AddTestStepL( new(ELeave) CRootServerTest5_4 );
AddTestStepL( new(ELeave) CRootServerTest5_5 );
AddTestStepL( new(ELeave) CRootServerTest5_6 );
AddTestStepL( new(ELeave) CRootServerTest5_7 );
AddTestStepL( new(ELeave) CRootServerTest5_8 );
AddTestStepL( new(ELeave) CRootServerTest6_1 );
AddTestStepL( new(ELeave) CRootServerTest6_2 );
AddTestStepL( new(ELeave) CRootServerTest6_3 );
AddTestStepL( new(ELeave) CRootServerTest6_4 );
AddTestStepL( new(ELeave) CRootServerTest6_5 );
AddTestStepL( new(ELeave) CRootServerTest6_6 );
AddTestStepL( new(ELeave) CRootServerTest6_7 );
AddTestStepL( new(ELeave) CRootServerTest6_8 );
AddTestStepL( new(ELeave) CRootServerTest6_9 );
AddTestStepL( new(ELeave) CRootServerTest6_10 );
AddTestStepL( new(ELeave) CRootServerTest6_11 );
AddTestStepL( new(ELeave) CRootServerTest6_12 );
AddTestStepL( new(ELeave) CRootServerTest6_13 );
AddTestStepL( new(ELeave) CRootServerTest6_14 );
AddTestStepL( new(ELeave) CRootServerTest6_15 );
AddTestStepL( new(ELeave) CRootServerTest6_16 );
AddTestStepL( new(ELeave) CRootServerTest7_1 );
AddTestStepL( new(ELeave) CRootServerTest7_2 );
AddTestStepL( new(ELeave) CRootServerTest7_3 );
AddTestStepL( new(ELeave) CRootServerTest7_4 );
AddTestStepL( new(ELeave) CRootServerTest8_1 );
iNextServerNumber = 0;
}
TInt CTestSuiteRootServer::StartRootServer()
/**
* Start the Root Server and connect the standard session to it
*
* @return TInt - An error code
*/
{
TInt err = KErrNone;
TFindServer findCS(KRootServerName);
TFullName name;
RProcess rootServer;
if (findCS.Next(name) == KErrNone)
{
Log(_L("Shutting down existing RootServer"));
// Try to shutdown any existing instance of the rootserver so we can
// safely change the MBuf pool size before any modules are loaded.
// A sticky module such as ETel may prevent complete shutdown so we
// kill the process if necessary.
if(!ShutdownRootServer())
{
Log(_L("Killing existing RootServer"));
// Kill the rootserver process if normal shutdown fails.
TFindProcess findPS(KRootServerProcessPattern);
err = findPS.Next(name);
if(err == KErrNone)
{
err = rootServer.Open(findPS);
if(err == KErrNone)
{
TRequestStatus status;
rootServer.Logon(status);
rootServer.Kill(KErrNone);
User::WaitForRequest(status);
// Create a timer in case some other entity holds an open handle on the
// configurator which prevents the kernel from destroying it. We timeout
// after one second.
TAutoClose<RTimer> timer;
if(timer.iObj.CreateLocal() == KErrNone)
{
// Request destruction notification so we know when it is safe to start
// the process again.
TRequestStatus destructionStatus;
rootServer.NotifyDestruction(destructionStatus);
rootServer.Close();
enum{ KProcessDestructionTimeout = 1000000 };
TRequestStatus timerStatus;
timer.iObj.After(timerStatus, KProcessDestructionTimeout);
// Wait for the process to be destroyed or for the timeout.
User::WaitForRequest(destructionStatus, timerStatus);
if(timerStatus.Int() == KRequestPending)
{
timer.iObj.Cancel();
User::WaitForRequest(timerStatus);
}
else
{
User::CancelMiscNotifier(destructionStatus);
User::WaitForRequest(destructionStatus);
Log(_L("CTestSuiteRootServer::StartRootServer - existing RootServer process has still not been destroyed after %f.0s"), KProcessDestructionTimeout / 1000000.0);
}
}
}
}
}
}
else
{
err = rootServer.Create(KRootServerExe, KNullDesC);
TRequestStatus status;
if (err == KErrNone)
{
rootServer.Rendezvous(status);
rootServer.Resume();
User::WaitForRequest(status);
rootServer.Close();
err = status.Int();
}
if(err == KErrNone)
{
err = RootSess().Connect();
}
}
return err;
}
TBool CTestSuiteRootServer::ShutdownRootServer()
/**
* Tell the Root Server to shutdown via its standard session, and validate that it did so.
*
* @return TBool - True if shutdown was successful
*/
{
TInt err;
// Some tests close the session
if(RootSess().Handle() == 0)
{
err = RootSess().Connect();
if(err != KErrNone)
{
Log(_L("Failed to reconnect session (err %d) - maybe dead already?"), err);
return EFalse;
}
}
TRSIter position;
while((err = RootSess().Shutdown()) == KErrRSModulesStillRunning)
{
TCFModuleName moduleName;
err = RootSess().EnumerateModules(position, moduleName);
if(err == KErrEof)
{
Log(_L("RRootServ::Shutdown could not be completed, probably due to the presence of sticky modules"));
return EFalse;
}
TRSModuleInfo moduleInfo;
err = RootSess().GetModuleInfo(moduleName, moduleInfo);
if(err == KErrRSModuleUnknown)
continue; // an unload probably just completed
else if(err != KErrNone)
{
Log(_L("RRootServ::GetModuleInfo failed during shutdown"));
return EFalse;
}
TBuf<KCFMaxModuleName> wideModuleName;
wideModuleName.Copy(moduleName);
Log(_L("RRootServ::Shutdown in progress; need to unload %S (state %d)"), &wideModuleName, moduleInfo().iState);
TRequestStatus status;
switch(moduleInfo().iState)
{
case EStarting: // treat a starting module as a zombie coz we're in a hurry, and who knows how long that rendezvous could take?
case EZombie:
{
RootSess().UnloadCpm(status, moduleName, EUnGraceful);
User::WaitForRequest(status);
if(status != KErrNone && status != KErrRSSuddenDeath && status != KErrRSModuleUnknown)
{
Log(_L("RRootServ::Shutdown failed, zombie could not be killed"));
return EFalse;
}
break;
}
case ERunning:
{
RootSess().UnloadCpm(status, moduleName, EGraceful);
User::WaitForRequest(status);
if(status.Int() == KErrLocked)
{
Log(_L("Module is sticky and cannot be unloaded"));
// Move to the next module.
continue;
}
else
{
Log(_L("UnloadCPM returned %d"), status.Int());
}
break; // either it worked or it should have become a zombie
}
case EStopping:
{
// transition states; snooze and try again
User::After(1000000);
break;
}
default:
{
Log(_L("RRootServ::Shutdown failed, module in improper states"));
return EFalse;
}
}
// Try to unload this module again.
position.Reset();
}
RootSess().Close();
RRootServ probeSess;
TBool res = (probeSess.Connect() != KErrNone);
if(!res)
{
probeSess.Close();
}
return res;
}
CSelfPopScheduler* CSelfPopScheduler::CreateLC()
{
CSelfPopScheduler* self = new(ELeave)CSelfPopScheduler;
CleanupStack::PushL(self);
CActiveScheduler::Install(self);
return self;
}
CSelfPopScheduler::operator TCleanupItem()
{
return TCleanupItem(Cleanup, this);
}
void CSelfPopScheduler::Cleanup(TAny* aItem)
{
CActiveScheduler::Install(NULL);
delete reinterpret_cast<CSelfPopScheduler*>(aItem);
}